Trial Outcomes & Findings for Exploratory Study of Biotelemetry in Amyotrophic Lateral Sclerosis (NCT NCT02447952)

NCT ID: NCT02447952

Last Updated: 2018-12-26

Results Overview

Each participant was provided one accelerometer and electrode (Faros sensor and LifeInsight Hub) through which movement/physical activity data was collected throughout the study. Duration of day time wear time was calculated by adding the durations of the time spent \[Active + lying + sedentary not lying\] in the day time. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).NA indicates that data could not be calculated as participant number was \<=1.

Recruitment status

COMPLETED

Study phase

NA

Target enrollment

25 participants

Primary outcome timeframe

Up to Week 48

Results posted on

2018-12-26

Participant Flow

This is an exploratory, non-controlled, non-drug study in participants with amyotrophic lateral sclerosis (ALS). The study enrolled participants using two sites based in the United Kingdom

Of total 25 screened participants, 5 participants were included in pilot phase of which 2 completed and entered core study phase with other 23 participants.

Participant milestones

Participant milestones
Measure
Mega Faros Device + Fast Fix
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Overall Study
STARTED
25
Overall Study
COMPLETED
18
Overall Study
NOT COMPLETED
7

Reasons for withdrawal

Reasons for withdrawal
Measure
Mega Faros Device + Fast Fix
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Overall Study
Adverse Event
2
Overall Study
Physician Decision
1
Overall Study
Withdrawal by Subject
4

Baseline Characteristics

Exploratory Study of Biotelemetry in Amyotrophic Lateral Sclerosis

Baseline characteristics by cohort

Baseline characteristics by cohort
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Age, Continuous
53.1 Years
STANDARD_DEVIATION 9.93 • n=5 Participants
Sex: Female, Male
Female
4 Participants
n=5 Participants
Sex: Female, Male
Male
21 Participants
n=5 Participants
Race/Ethnicity, Customized
Asian - East Asian Heritage
1 Participants
n=5 Participants
Race/Ethnicity, Customized
Asian - South East Asian Heritage
1 Participants
n=5 Participants
Race/Ethnicity, Customized
White - White/Caucasian/European Heritage
23 Participants
n=5 Participants

PRIMARY outcome

Timeframe: Up to Week 48

Population: Full Analysis Set included all participants with at least one post Baseline measure for the Amyotrophic Lateral Sclerosis Functional Rating Scale-Revised (ALSFRS-R) and at least one physical activity/movement measure.

Each participant was provided one accelerometer and electrode (Faros sensor and LifeInsight Hub) through which movement/physical activity data was collected throughout the study. Duration of day time wear time was calculated by adding the durations of the time spent \[Active + lying + sedentary not lying\] in the day time. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).NA indicates that data could not be calculated as participant number was \<=1.

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Duration of Day Time Wear Time of the Device
Week 0, Day 1, n=24
718.536 Minutes
Standard Deviation 190.4933
Duration of Day Time Wear Time of the Device
Week4, Day 2, n=22
778.636 Minutes
Standard Deviation 169.6978
Duration of Day Time Wear Time of the Device
Week4, Day 3, n=21
605.334 Minutes
Standard Deviation 319.5373
Duration of Day Time Wear Time of the Device
Week4, Day 4, n=9
207.092 Minutes
Standard Deviation 293.8405
Duration of Day Time Wear Time of the Device
Week4, Day 5, n=5
137.600 Minutes
Standard Deviation 300.5371
Duration of Day Time Wear Time of the Device
Week4, Day 6, n=1
657.500 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week8, Day 1, n=19
647.735 Minutes
Standard Deviation 291.5468
Duration of Day Time Wear Time of the Device
Week20,Day 4, n=4
172.793 Minutes
Standard Deviation 345.3584
Duration of Day Time Wear Time of the Device
Week28,Day 3, n=9
588.464 Minutes
Standard Deviation 359.3972
Duration of Day Time Wear Time of the Device
Week28,Day 4, n=6
357.220 Minutes
Standard Deviation 363.2050
Duration of Day Time Wear Time of the Device
Week40,Day 1, n=12
722.708 Minutes
Standard Deviation 239.1189
Duration of Day Time Wear Time of the Device
Week40,Day 2, n=12
618.555 Minutes
Standard Deviation 326.7927
Duration of Day Time Wear Time of the Device
Week40,Day 5, n=1
823.500 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week44,Day 5, n=1
146.660 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week48,Day 2, n=13
692.474 Minutes
Standard Deviation 251.7305
Duration of Day Time Wear Time of the Device
Week 0, Day 2, n=24
730.882 Minutes
Standard Deviation 216.3616
Duration of Day Time Wear Time of the Device
Week 0, Day 3, n=23
653.980 Minutes
Standard Deviation 241.0427
Duration of Day Time Wear Time of the Device
Week 0, Day 4, n=12
207.263 Minutes
Standard Deviation 275.7507
Duration of Day Time Wear Time of the Device
Week 0, Day 5, n=2
342.830 Minutes
Standard Deviation 240.4163
Duration of Day Time Wear Time of the Device
Week4, Day 1, n=22
762.680 Minutes
Standard Deviation 228.5267
Duration of Day Time Wear Time of the Device
Week4, Day 7, n=1
820.660 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week4, Day 8, n=1
34.000 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week8, Day 2, n=17
744.028 Minutes
Standard Deviation 158.3890
Duration of Day Time Wear Time of the Device
Week8, Day 3, n=17
581.939 Minutes
Standard Deviation 297.5053
Duration of Day Time Wear Time of the Device
Week8, Day 4, n=8
94.709 Minutes
Standard Deviation 126.7088
Duration of Day Time Wear Time of the Device
Week12,Day 1, n=16
552.668 Minutes
Standard Deviation 315.5227
Duration of Day Time Wear Time of the Device
Week12,Day 2, n=16
801.697 Minutes
Standard Deviation 170.8600
Duration of Day Time Wear Time of the Device
Week12,Day 3, n=15
563.311 Minutes
Standard Deviation 298.3566
Duration of Day Time Wear Time of the Device
Week12,Day 4, n=7
425.336 Minutes
Standard Deviation 266.8420
Duration of Day Time Wear Time of the Device
Week12,Day 5, n=1
858.660 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week16,Day 1, n=13
759.399 Minutes
Standard Deviation 129.2502
Duration of Day Time Wear Time of the Device
Week16,Day 2, n=13
812.345 Minutes
Standard Deviation 200.5683
Duration of Day Time Wear Time of the Device
Week16,Day 3, n=12
631.484 Minutes
Standard Deviation 296.3050
Duration of Day Time Wear Time of the Device
Week16,Day 4, n=6
254.500 Minutes
Standard Deviation 336.6649
Duration of Day Time Wear Time of the Device
Week20,Day 1, n=14
774.049 Minutes
Standard Deviation 240.7234
Duration of Day Time Wear Time of the Device
Week20,Day 2, n=13
648.268 Minutes
Standard Deviation 291.9654
Duration of Day Time Wear Time of the Device
Week20,Day 3, n=12
615.277 Minutes
Standard Deviation 239.5376
Duration of Day Time Wear Time of the Device
Week24,Day 1, n=14
505.976 Minutes
Standard Deviation 296.3016
Duration of Day Time Wear Time of the Device
Week24,Day 2, n=12
617.599 Minutes
Standard Deviation 299.5749
Duration of Day Time Wear Time of the Device
Week24,Day 3, n=11
481.698 Minutes
Standard Deviation 333.5209
Duration of Day Time Wear Time of the Device
Week24,Day 4, n=8
306.500 Minutes
Standard Deviation 303.9026
Duration of Day Time Wear Time of the Device
Week24,Day 5, n=2
287.000 Minutes
Standard Deviation 184.7953
Duration of Day Time Wear Time of the Device
Week28,Day 1, n=10
690.898 Minutes
Standard Deviation 178.9577
Duration of Day Time Wear Time of the Device
Week28,Day 2, n=10
722.551 Minutes
Standard Deviation 248.5576
Duration of Day Time Wear Time of the Device
Week32,Day 1, n=12
575.303 Minutes
Standard Deviation 322.1123
Duration of Day Time Wear Time of the Device
Week32,Day 2, n=10
592.866 Minutes
Standard Deviation 345.4597
Duration of Day Time Wear Time of the Device
Week32,Day 3, n=9
599.778 Minutes
Standard Deviation 351.8631
Duration of Day Time Wear Time of the Device
Week32,Day 4, n=1
32.000 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week36,Day 1, n=12
510.209 Minutes
Standard Deviation 381.7060
Duration of Day Time Wear Time of the Device
Week36,Day 2, n=9
507.872 Minutes
Standard Deviation 397.7501
Duration of Day Time Wear Time of the Device
Week36,Day 3, n=6
465.583 Minutes
Standard Deviation 340.8965
Duration of Day Time Wear Time of the Device
Week36,Day 4, n=4
387.750 Minutes
Standard Deviation 424.1863
Duration of Day Time Wear Time of the Device
Week36,Day 5, n=2
516.250 Minutes
Standard Deviation 454.3161
Duration of Day Time Wear Time of the Device
Week36,Day 6, n=1
171.840 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week40,Day 3, n=11
601.665 Minutes
Standard Deviation 312.9329
Duration of Day Time Wear Time of the Device
Week40,Day 4, n=7
290.857 Minutes
Standard Deviation 404.5156
Duration of Day Time Wear Time of the Device
Week40,Day 6, n=1
444.830 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Day Time Wear Time of the Device
Week44,Day 1, n=12
746.278 Minutes
Standard Deviation 258.7132
Duration of Day Time Wear Time of the Device
Week44,Day 2, n=11
646.452 Minutes
Standard Deviation 295.5684
Duration of Day Time Wear Time of the Device
Week44,Day 3, n=10
476.783 Minutes
Standard Deviation 355.1196
Duration of Day Time Wear Time of the Device
Week44,Day 4, n=4
178.460 Minutes
Standard Deviation 308.3123
Duration of Day Time Wear Time of the Device
Week48,Day 1, n=13
779.438 Minutes
Standard Deviation 120.7527
Duration of Day Time Wear Time of the Device
Week48,Day 3, n=10
622.015 Minutes
Standard Deviation 243.5040
Duration of Day Time Wear Time of the Device
Week48,Day 4, n=5
630.000 Minutes
Standard Deviation 380.2256

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Each participant was provided one accelerometer and electrode (Faros sensor and LifeInsight Hub) through which movement/physical activity data was collected throughout the study. Duration of night time wear time was the calculated as the total of the times spent \[Active + day time lying + day time "sedentary not lying"\] for the night time. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles). NA indicates that data could not be calculated as participant number was \<=1.

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Duration of Night Time Wear Time of the Device
Week48,Day 3, n=10
299.985 Minutes
Standard Deviation 146.9104
Duration of Night Time Wear Time of the Device
Week48,Day 4, n=5
81.400 Minutes
Standard Deviation 182.0159
Duration of Night Time Wear Time of the Device
Week8, Day 3, n=17
526.825 Minutes
Standard Deviation 207.6252
Duration of Night Time Wear Time of the Device
Week8, Day 4, n=8
30.041 Minutes
Standard Deviation 84.9695
Duration of Night Time Wear Time of the Device
Week12,Day 1, n=16
255.708 Minutes
Standard Deviation 250.9718
Duration of Night Time Wear Time of the Device
Week12,Day 2, n=16
418.489 Minutes
Standard Deviation 149.6411
Duration of Night Time Wear Time of the Device
Week16,Day 4, n=6
96.000 Minutes
Standard Deviation 220.5519
Duration of Night Time Wear Time of the Device
Week20,Day 1, n=14
445.811 Minutes
Standard Deviation 170.4490
Duration of Night Time Wear Time of the Device
Week20,Day 2, n=13
452.345 Minutes
Standard Deviation 203.3159
Duration of Night Time Wear Time of the Device
Week20,Day 4, n=4
148.458 Minutes
Standard Deviation 172.2844
Duration of Night Time Wear Time of the Device
Week24,Day 1, n=14
254.095 Minutes
Standard Deviation 261.1246
Duration of Night Time Wear Time of the Device
Week24,Day 2, n=12
398.068 Minutes
Standard Deviation 199.7096
Duration of Night Time Wear Time of the Device
Week24,Day 3, n=11
374.121 Minutes
Standard Deviation 214.6214
Duration of Night Time Wear Time of the Device
Week24,Day 4, n=8
291.376 Minutes
Standard Deviation 277.4058
Duration of Night Time Wear Time of the Device
Week28,Day 1, n=10
497.701 Minutes
Standard Deviation 242.6652
Duration of Night Time Wear Time of the Device
Week32,Day 2, n=10
460.233 Minutes
Standard Deviation 209.0824
Duration of Night Time Wear Time of the Device
Week32,Day 3, n=9
433.778 Minutes
Standard Deviation 256.9437
Duration of Night Time Wear Time of the Device
Week32,Day 4, n=1
0.000 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week36,Day 1, n=12
189.124 Minutes
Standard Deviation 199.2290
Duration of Night Time Wear Time of the Device
Week36,Day 2, n=9
263.352 Minutes
Standard Deviation 236.3438
Duration of Night Time Wear Time of the Device
Week36,Day 3, n=6
380.748 Minutes
Standard Deviation 298.7767
Duration of Night Time Wear Time of the Device
Week40,Day 3, n=11
419.334 Minutes
Standard Deviation 215.0470
Duration of Night Time Wear Time of the Device
Week48,Day 1, n=13
439.486 Minutes
Standard Deviation 153.3470
Duration of Night Time Wear Time of the Device
Week36,Day 4, n=4
358.503 Minutes
Standard Deviation 280.5689
Duration of Night Time Wear Time of the Device
Week36,Day 5, n=2
201.250 Minutes
Standard Deviation 284.6105
Duration of Night Time Wear Time of the Device
Week36,Day 6, n=1
505.170 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week40,Day 1, n=12
375.043 Minutes
Standard Deviation 192.0867
Duration of Night Time Wear Time of the Device
Week44,Day 5, n=1
277.330 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week48,Day 2, n=13
381.988 Minutes
Standard Deviation 192.9540
Duration of Night Time Wear Time of the Device
Week40,Day 2, n=12
442.528 Minutes
Standard Deviation 179.2818
Duration of Night Time Wear Time of the Device
Week40,Day 4, n=7
121.573 Minutes
Standard Deviation 172.7203
Duration of Night Time Wear Time of the Device
Week40,Day 5, n=1
522.500 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week40,Day 6, n=1
163.170 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week44,Day 1, n=12
393.140 Minutes
Standard Deviation 192.6969
Duration of Night Time Wear Time of the Device
Week44,Day 2, n=11
362.275 Minutes
Standard Deviation 208.9128
Duration of Night Time Wear Time of the Device
Week44,Day 3, n=10
382.018 Minutes
Standard Deviation 201.1957
Duration of Night Time Wear Time of the Device
Week44,Day 4, n=4
111.543 Minutes
Standard Deviation 223.0850
Duration of Night Time Wear Time of the Device
Week 0, Day 1, n=24
448.174 Minutes
Standard Deviation 222.1658
Duration of Night Time Wear Time of the Device
Week 0, Day 2, n=24
360.575 Minutes
Standard Deviation 212.4216
Duration of Night Time Wear Time of the Device
Week 0, Day 3, n=23
482.500 Minutes
Standard Deviation 150.8251
Duration of Night Time Wear Time of the Device
Week 0, Day 4, n=12
134.570 Minutes
Standard Deviation 239.8401
Duration of Night Time Wear Time of the Device
Week 0, Day 5, n=2
494.170 Minutes
Standard Deviation 57.9828
Duration of Night Time Wear Time of the Device
Week4, Day 1, n=22
487.682 Minutes
Standard Deviation 189.6054
Duration of Night Time Wear Time of the Device
Week4, Day 2, n=22
432.273 Minutes
Standard Deviation 209.9463
Duration of Night Time Wear Time of the Device
Week4, Day 3, n=21
455.047 Minutes
Standard Deviation 194.3802
Duration of Night Time Wear Time of the Device
Week4, Day 4, n=9
107.796 Minutes
Standard Deviation 205.8403
Duration of Night Time Wear Time of the Device
Week4, Day 5, n=5
109.400 Minutes
Standard Deviation 241.1904
Duration of Night Time Wear Time of the Device
Week4, Day 6, n=1
624.500 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week4, Day 7, n=1
462.340 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week4, Day 8, n=1
0.000 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week8, Day 1, n=19
506.316 Minutes
Standard Deviation 184.6635
Duration of Night Time Wear Time of the Device
Week8, Day 2, n=17
477.441 Minutes
Standard Deviation 206.7924
Duration of Night Time Wear Time of the Device
Week12,Day 3, n=15
519.888 Minutes
Standard Deviation 63.0517
Duration of Night Time Wear Time of the Device
Week12,Day 4, n=7
568.381 Minutes
Standard Deviation 150.2560
Duration of Night Time Wear Time of the Device
Week12,Day 5, n=1
406.340 Minutes
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.
Duration of Night Time Wear Time of the Device
Week16,Day 1, n=13
513.448 Minutes
Standard Deviation 78.9644
Duration of Night Time Wear Time of the Device
Week16,Day 2, n=13
382.038 Minutes
Standard Deviation 185.6318
Duration of Night Time Wear Time of the Device
Week16,Day 3, n=12
494.932 Minutes
Standard Deviation 196.5556
Duration of Night Time Wear Time of the Device
Week20,Day 3, n=12
498.806 Minutes
Standard Deviation 138.8339
Duration of Night Time Wear Time of the Device
Week24,Day 5, n=2
476.995 Minutes
Standard Deviation 1.8880
Duration of Night Time Wear Time of the Device
Week28,Day 2, n=10
483.950 Minutes
Standard Deviation 195.5384
Duration of Night Time Wear Time of the Device
Week28,Day 3, n=9
543.759 Minutes
Standard Deviation 270.4945
Duration of Night Time Wear Time of the Device
Week28,Day 4, n=6
286.778 Minutes
Standard Deviation 327.2635
Duration of Night Time Wear Time of the Device
Week32,Day 1, n=12
510.447 Minutes
Standard Deviation 218.5192

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Number of minutes spent active per day and night over the 24-hour recording periods; averaged for each time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles)

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Average Time Spent Active
Night time, Week 8, n=19
2.375 Minutes
Standard Deviation 5.7540
Average Time Spent Active
Night time, Week 12, n=16
0.484 Minutes
Standard Deviation 0.5404
Average Time Spent Active
Night time, Week 16, n=13
0.449 Minutes
Standard Deviation 0.4684
Average Time Spent Active
Night time, Week 20, n=14
0.418 Minutes
Standard Deviation 0.5315
Average Time Spent Active
Day time, Week 0, n=24
34.420 Minutes
Standard Deviation 29.3837
Average Time Spent Active
Day time, Week 4, n=22
32.233 Minutes
Standard Deviation 33.1012
Average Time Spent Active
Day time, Week 8, n=19
24.319 Minutes
Standard Deviation 25.5092
Average Time Spent Active
Day time, Week 12, n=16
23.904 Minutes
Standard Deviation 17.2952
Average Time Spent Active
Day time, Week 40, n=12
14.563 Minutes
Standard Deviation 18.7912
Average Time Spent Active
Day time, Week 44, n=12
20.210 Minutes
Standard Deviation 26.0361
Average Time Spent Active
Day time, Week 48, n=13
23.578 Minutes
Standard Deviation 29.0419
Average Time Spent Active
Night time, Week 0, n=24
1.136 Minutes
Standard Deviation 1.5427
Average Time Spent Active
Night time, Week 4, n=22
0.570 Minutes
Standard Deviation 0.6817
Average Time Spent Active
Day time, Week 16, n=13
25.863 Minutes
Standard Deviation 23.2673
Average Time Spent Active
Day time, Week 20, n=14
18.931 Minutes
Standard Deviation 18.3595
Average Time Spent Active
Day time, Week 24, n=14
12.137 Minutes
Standard Deviation 10.8409
Average Time Spent Active
Day time, Week 28, n=10
19.856 Minutes
Standard Deviation 29.0562
Average Time Spent Active
Day time, Week 32, n=12
11.873 Minutes
Standard Deviation 15.0988
Average Time Spent Active
Day time, Week 36, n=12
14.118 Minutes
Standard Deviation 19.7452
Average Time Spent Active
Night time, Week 24, n=14
0.387 Minutes
Standard Deviation 0.2715
Average Time Spent Active
Night time, Week 28, n=10
1.432 Minutes
Standard Deviation 3.0455
Average Time Spent Active
Night time, Week 32, n=12
0.668 Minutes
Standard Deviation 1.5814
Average Time Spent Active
Night time, Week 36, n=12
0.414 Minutes
Standard Deviation 0.3682
Average Time Spent Active
Night time, Week 40, n=12
0.268 Minutes
Standard Deviation 0.3272
Average Time Spent Active
Night time, Week 44, n=12
0.390 Minutes
Standard Deviation 0.7308
Average Time Spent Active
Night time, Week 48, n=13
0.518 Minutes
Standard Deviation 0.8014

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Number of minutes spent 'sedentary not lying' per day and night for 24-hour recording period; averaged for each time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Average Time Spent 'Sedentary Not Lying'
Day time, Week 44, n=12
440.376 Minutes
Standard Deviation 198.2569
Average Time Spent 'Sedentary Not Lying'
Day time, Week 48, n=13
509.536 Minutes
Standard Deviation 171.1560
Average Time Spent 'Sedentary Not Lying'
Night time, Week 0, n=24
15.522 Minutes
Standard Deviation 28.5337
Average Time Spent 'Sedentary Not Lying'
Day time, Week 0, n=24
523.191 Minutes
Standard Deviation 113.3016
Average Time Spent 'Sedentary Not Lying'
Day time, Week 4, n=22
524.120 Minutes
Standard Deviation 182.7753
Average Time Spent 'Sedentary Not Lying'
Day time, Week 8, n=19
428.359 Minutes
Standard Deviation 210.1894
Average Time Spent 'Sedentary Not Lying'
Day time, Week 12, n=16
509.634 Minutes
Standard Deviation 105.3263
Average Time Spent 'Sedentary Not Lying'
Day time, Week 16, n=13
561.923 Minutes
Standard Deviation 100.3003
Average Time Spent 'Sedentary Not Lying'
Day time, Week 20, n=14
489.921 Minutes
Standard Deviation 202.2926
Average Time Spent 'Sedentary Not Lying'
Day time, Week 24, n=14
376.117 Minutes
Standard Deviation 222.6009
Average Time Spent 'Sedentary Not Lying'
Day time, Week 28, n=10
472.238 Minutes
Standard Deviation 215.7768
Average Time Spent 'Sedentary Not Lying'
Day time, Week 32, n=12
420.709 Minutes
Standard Deviation 259.0856
Average Time Spent 'Sedentary Not Lying'
Day time, Week 36, n=12
376.686 Minutes
Standard Deviation 233.1990
Average Time Spent 'Sedentary Not Lying'
Day time, Week 40, n=12
465.879 Minutes
Standard Deviation 181.5005
Average Time Spent 'Sedentary Not Lying'
Night time, Week 4, n=22
10.561 Minutes
Standard Deviation 12.5485
Average Time Spent 'Sedentary Not Lying'
Night time, Week 8, n=19
8.441 Minutes
Standard Deviation 5.8601
Average Time Spent 'Sedentary Not Lying'
Night time, Week 12, n=16
7.968 Minutes
Standard Deviation 4.8657
Average Time Spent 'Sedentary Not Lying'
Night time, Week 16, n=13
8.855 Minutes
Standard Deviation 5.1855
Average Time Spent 'Sedentary Not Lying'
Night time, Week 20, n=14
9.239 Minutes
Standard Deviation 6.9942
Average Time Spent 'Sedentary Not Lying'
Night time, Week 24, n=14
7.274 Minutes
Standard Deviation 6.5610
Average Time Spent 'Sedentary Not Lying'
Night time, Week 28, n=10
17.488 Minutes
Standard Deviation 15.1698
Average Time Spent 'Sedentary Not Lying'
Night time, Week 32, n=12
12.930 Minutes
Standard Deviation 14.8779
Average Time Spent 'Sedentary Not Lying'
Night time, Week 36, n=12
3.545 Minutes
Standard Deviation 3.5805
Average Time Spent 'Sedentary Not Lying'
Night time, Week 40, n=12
8.932 Minutes
Standard Deviation 5.0236
Average Time Spent 'Sedentary Not Lying'
Night time, Week 44, n=12
6.321 Minutes
Standard Deviation 4.5166
Average Time Spent 'Sedentary Not Lying'
Night time, Week 48, n=13
7.602 Minutes
Standard Deviation 7.4373

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Number of minutes spent lying per day and night over the 24-hour recording periods; averaged for each time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Average Time Spent Lying
Night time, Week 4, n=22
384.879 Minutes
Standard Deviation 97.8424
Average Time Spent Lying
Night time, Week 8, n=19
411.110 Minutes
Standard Deviation 157.8820
Average Time Spent Lying
Night time, Week 12, n=16
417.943 Minutes
Standard Deviation 71.9066
Average Time Spent Lying
Night time, Week 16, n=13
413.721 Minutes
Standard Deviation 129.3161
Average Time Spent Lying
Night time, Week 20, n=14
407.060 Minutes
Standard Deviation 175.2092
Average Time Spent Lying
Night time, Week 24, n=14
318.155 Minutes
Standard Deviation 112.8749
Average Time Spent Lying
Night time, Week 36, n=12
217.884 Minutes
Standard Deviation 181.3682
Average Time Spent Lying
Night time, Week 40, n=12
355.222 Minutes
Standard Deviation 104.8680
Average Time Spent Lying
Night time, Week 44, n=12
319.022 Minutes
Standard Deviation 155.2519
Average Time Spent Lying
Day time, Week 0, n=24
79.027 Minutes
Standard Deviation 59.8512
Average Time Spent Lying
Day time, Week 4, n=22
79.996 Minutes
Standard Deviation 67.1924
Average Time Spent Lying
Day time, Week 8, n=19
90.324 Minutes
Standard Deviation 80.8799
Average Time Spent Lying
Day time, Week 12, n=16
82.146 Minutes
Standard Deviation 59.7457
Average Time Spent Lying
Day time, Week 16, n=13
87.271 Minutes
Standard Deviation 75.4731
Average Time Spent Lying
Day time, Week 20, n=14
89.648 Minutes
Standard Deviation 90.8020
Average Time Spent Lying
Day time, Week 24, n=14
82.979 Minutes
Standard Deviation 89.4852
Average Time Spent Lying
Day time, Week 28, n=10
136.170 Minutes
Standard Deviation 127.2225
Average Time Spent Lying
Day time, Week 32, n=12
99.760 Minutes
Standard Deviation 118.3536
Average Time Spent Lying
Day time, Week 36, n=12
50.278 Minutes
Standard Deviation 48.7456
Average Time Spent Lying
Day time, Week 40, n=12
103.749 Minutes
Standard Deviation 133.3234
Average Time Spent Lying
Day time, Week 44, n=12
71.757 Minutes
Standard Deviation 73.5817
Average Time Spent Lying
Day time, Week 48, n=13
141.575 Minutes
Standard Deviation 140.1450
Average Time Spent Lying
Night time, Week 0, n=24
384.886 Minutes
Standard Deviation 135.8136
Average Time Spent Lying
Night time, Week 28, n=10
454.137 Minutes
Standard Deviation 184.2617
Average Time Spent Lying
Night time, Week 32, n=12
412.196 Minutes
Standard Deviation 170.4452
Average Time Spent Lying
Night time, Week 48, n=13
333.358 Minutes
Standard Deviation 154.9236

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Number of minutes spent sedentary \[time spent lying + time spent sedentary not lying\] per day and night over the 24-hour recording periods; averaged for each time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Average Time Spent Sedentary.
Day time, Week 12, n=16
591.779 Minutes
Standard Deviation 118.3797
Average Time Spent Sedentary.
Day time, Week 16, n=13
649.195 Minutes
Standard Deviation 117.2721
Average Time Spent Sedentary.
Day time, Week 20, n=14
579.571 Minutes
Standard Deviation 213.9093
Average Time Spent Sedentary.
Day time, Week 36, n=12
426.962 Minutes
Standard Deviation 250.2390
Average Time Spent Sedentary.
Day time, Week 40, n=12
569.629 Minutes
Standard Deviation 171.5586
Average Time Spent Sedentary.
Day time, Week 44, n=12
512.132 Minutes
Standard Deviation 203.0705
Average Time Spent Sedentary.
Night time, Week 16, n=13
422.574 Minutes
Standard Deviation 132.3307
Average Time Spent Sedentary.
Night time, Week 20, n=14
416.299 Minutes
Standard Deviation 179.9825
Average Time Spent Sedentary.
Night time, Week 24, n=14
325.427 Minutes
Standard Deviation 114.9446
Average Time Spent Sedentary.
Night time, Week 28, n=10
471.626 Minutes
Standard Deviation 196.1417
Average Time Spent Sedentary.
Day time, Week 0, n=24
602.219 Minutes
Standard Deviation 131.7430
Average Time Spent Sedentary.
Day time, Week 4, n=22
604.116 Minutes
Standard Deviation 165.0799
Average Time Spent Sedentary.
Day time, Week 8, n=19
518.684 Minutes
Standard Deviation 234.6306
Average Time Spent Sedentary.
Day time, Week 24, n=14
459.096 Minutes
Standard Deviation 233.1413
Average Time Spent Sedentary.
Day time, Week 28, n=10
608.409 Minutes
Standard Deviation 141.5444
Average Time Spent Sedentary.
Day time, Week 32, n=12
520.468 Minutes
Standard Deviation 285.7109
Average Time Spent Sedentary.
Day time, Week 48, n=13
651.109 Minutes
Standard Deviation 156.3296
Average Time Spent Sedentary.
Night time, Week 0, n=24
400.408 Minutes
Standard Deviation 132.3420
Average Time Spent Sedentary.
Night time, Week 4, n=22
395.438 Minutes
Standard Deviation 100.9179
Average Time Spent Sedentary.
Night time, Week 8, n=19
419.549 Minutes
Standard Deviation 162.0795
Average Time Spent Sedentary.
Night time, Week 12, n=16
425.909 Minutes
Standard Deviation 69.7741
Average Time Spent Sedentary.
Night time, Week 32, n=12
425.125 Minutes
Standard Deviation 178.8053
Average Time Spent Sedentary.
Night time, Week 36, n=12
221.430 Minutes
Standard Deviation 184.4017
Average Time Spent Sedentary.
Night time, Week 40, n=12
364.152 Minutes
Standard Deviation 105.2901
Average Time Spent Sedentary.
Night time, Week 44, n=12
325.343 Minutes
Standard Deviation 156.8669
Average Time Spent Sedentary.
Night time, Week 48, n=13
340.960 Minutes
Standard Deviation 157.6860

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Sensor off time includes the time that the sensor was either switched off or the participant was not wearing it (or both). This outcome measure was planned but not performed.

Outcome measures

Outcome data not reported

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Total activity count for the day time and night time for the 24-hour recording periods; averaged for each time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Total Activity Count
Night time, Week 0, n=24
357.865 Count of activity
Standard Deviation 293.7938
Total Activity Count
Night time, Week 4, n=22
265.096 Count of activity
Standard Deviation 102.7897
Total Activity Count
Night time, Week 8, n=13
652.108 Count of activity
Standard Deviation 1445.624
Total Activity Count
Night time, Week 32, n=12
271.988 Count of activity
Standard Deviation 189.5221
Total Activity Count
Night time, Week 36, n=10
211.270 Count of activity
Standard Deviation 101.4570
Total Activity Count
Night time, Week 40, n=12
212.134 Count of activity
Standard Deviation 68.5433
Total Activity Count
Night time, Week 44, n=11
232.571 Count of activity
Standard Deviation 117.1910
Total Activity Count
Night time, Week 48, n=13
224.375 Count of activity
Standard Deviation 110.9312
Total Activity Count
Day time, Week 0, n=24
3336.550 Count of activity
Standard Deviation 2654.406
Total Activity Count
Day time, Week 4, n=22
2903.633 Count of activity
Standard Deviation 3059.200
Total Activity Count
Day time, Week 8, n=17
4244.521 Count of activity
Standard Deviation 6314.828
Total Activity Count
Day time, Week 12, n=16
2076.129 Count of activity
Standard Deviation 1338.276
Total Activity Count
Day time, Week 16, n=13
2216.162 Count of activity
Standard Deviation 1732.185
Total Activity Count
Day time, Week 20, n=14
1858.116 Count of activity
Standard Deviation 1504.067
Total Activity Count
Day time, Week 24, n=13
1114.152 Count of activity
Standard Deviation 683.2223
Total Activity Count
Day time, Week 28, n=10
1468.741 Count of activity
Standard Deviation 1559.431
Total Activity Count
Day time, Week 32, n=12
1247.969 Count of activity
Standard Deviation 1015.319
Total Activity Count
Day time, Week 36, n=12
1675.754 Count of activity
Standard Deviation 1979.210
Total Activity Count
Day time, Week 40, n=12
1542.138 Count of activity
Standard Deviation 1421.696
Total Activity Count
Day time, Week 44, n=12
2252.325 Count of activity
Standard Deviation 1923.793
Total Activity Count
Day time, Week 48, n=13
1972.506 Count of activity
Standard Deviation 2209.802
Total Activity Count
Night time, Week 12, n=16
234.854 Count of activity
Standard Deviation 68.8019
Total Activity Count
Night time, Week 16, n=13
254.238 Count of activity
Standard Deviation 46.4883
Total Activity Count
Night time, Week 20, n=14
241.504 Count of activity
Standard Deviation 68.9048
Total Activity Count
Night time, Week 24, n=14
249.504 Count of activity
Standard Deviation 165.5673
Total Activity Count
Night time, Week 28, n=10
328.374 Count of activity
Standard Deviation 222.3131

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Maximum activity count for the day time and night time for the 24-hour recording periods; averaged for each time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles)

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Maximum Activity Count in a 24 Hour Period
Day time, Week 0, n=24
2803.906 Count of activity
Standard Deviation 2819.342
Maximum Activity Count in a 24 Hour Period
Day time, Week 4, n=22
1915.344 Count of activity
Standard Deviation 1787.325
Maximum Activity Count in a 24 Hour Period
Day time, Week 8, n=17
3520.196 Count of activity
Standard Deviation 6145.555
Maximum Activity Count in a 24 Hour Period
Day time, Week 12, n=16
2004.569 Count of activity
Standard Deviation 1341.035
Maximum Activity Count in a 24 Hour Period
Day time, Week 16, n=13
2337.092 Count of activity
Standard Deviation 2537.966
Maximum Activity Count in a 24 Hour Period
Day time, Week 20, n=14
1923.578 Count of activity
Standard Deviation 1690.000
Maximum Activity Count in a 24 Hour Period
Day time, Week 24, n=13
1050.409 Count of activity
Standard Deviation 831.3745
Maximum Activity Count in a 24 Hour Period
Day time, Week 28, n=10
960.596 Count of activity
Standard Deviation 667.9179
Maximum Activity Count in a 24 Hour Period
Day time, Week 32, n=12
815.954 Count of activity
Standard Deviation 772.5387
Maximum Activity Count in a 24 Hour Period
Day time, Week 36, n=12
1238.367 Count of activity
Standard Deviation 1121.657
Maximum Activity Count in a 24 Hour Period
Day time, Week 40, n=12
897.363 Count of activity
Standard Deviation 785.0252
Maximum Activity Count in a 24 Hour Period
Day time, Week 44, n=12
1940.100 Count of activity
Standard Deviation 2346.428
Maximum Activity Count in a 24 Hour Period
Day time, Week 48, n=13
1647.037 Count of activity
Standard Deviation 1645.568
Maximum Activity Count in a 24 Hour Period
Night time, Week 0, n=24
657.385 Count of activity
Standard Deviation 823.5054
Maximum Activity Count in a 24 Hour Period
Night time, Week 4, n=22
511.867 Count of activity
Standard Deviation 599.0219
Maximum Activity Count in a 24 Hour Period
Night time, Week 8, n=19
676.360 Count of activity
Standard Deviation 1168.379
Maximum Activity Count in a 24 Hour Period
Night time, Week 12, n=16
280.178 Count of activity
Standard Deviation 222.3819
Maximum Activity Count in a 24 Hour Period
Night time, Week 16, n=13
440.992 Count of activity
Standard Deviation 641.4221
Maximum Activity Count in a 24 Hour Period
Night time, Week 20, n=13
306.540 Count of activity
Standard Deviation 293.6219
Maximum Activity Count in a 24 Hour Period
Night time, Week 24, n=14
442.779 Count of activity
Standard Deviation 611.4870
Maximum Activity Count in a 24 Hour Period
Night time, Week 28, n=10
708.219 Count of activity
Standard Deviation 967.2115
Maximum Activity Count in a 24 Hour Period
Night time, Week 32, n=12
479.673 Count of activity
Standard Deviation 590.4367
Maximum Activity Count in a 24 Hour Period
Night time, Week 36, n=10
462.395 Count of activity
Standard Deviation 313.6826
Maximum Activity Count in a 24 Hour Period
Night time, Week 40, n=12
278.703 Count of activity
Standard Deviation 264.5554
Maximum Activity Count in a 24 Hour Period
Night time, Week 44, n=11
383.820 Count of activity
Standard Deviation 273.3449
Maximum Activity Count in a 24 Hour Period
Night time, Week 48, n=13
493.870 Count of activity
Standard Deviation 524.4698

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Mean maximum activity count of day time and night time for the 24-hour recording periods; averaged for each time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles)

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 0, n=24
1618.403 Count of activity
Standard Deviation 1288.502
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 4, n=22
1309.195 Count of activity
Standard Deviation 1042.150
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 8, n=17
1612.785 Count of activity
Standard Deviation 1822.405
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 12, n=16
1165.166 Count of activity
Standard Deviation 705.7684
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 16, n=13
1510.868 Count of activity
Standard Deviation 1407.533
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 20, n=14
1146.578 Count of activity
Standard Deviation 1016.899
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 24, n=13
697.693 Count of activity
Standard Deviation 678.2212
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 28, n=10
665.987 Count of activity
Standard Deviation 475.5967
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 32, n=12
633.595 Count of activity
Standard Deviation 536.0698
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 36, n=12
772.909 Count of activity
Standard Deviation 672.3572
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 40, n=12
543.052 Count of activity
Standard Deviation 410.3246
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 44, n=12
1074.333 Count of activity
Standard Deviation 988.7887
Mean Maximum Activity Count in a 24 Hour Period
Day time, Week 48, n=13
1002.060 Count of activity
Standard Deviation 1011.468
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 0, n=24
319.872 Count of activity
Standard Deviation 312.3125
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 4, n=22
231.630 Count of activity
Standard Deviation 183.2420
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 8, n=19
518.646 Count of activity
Standard Deviation 1153.825
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 12, n=16
176.211 Count of activity
Standard Deviation 142.6990
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 16, n=13
194.670 Count of activity
Standard Deviation 208.1798
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 20, n=13
174.990 Count of activity
Standard Deviation 153.0679
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 24, n=14
208.871 Count of activity
Standard Deviation 184.5488
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 28, n=10
325.419 Count of activity
Standard Deviation 356.4562
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 32, n=12
267.311 Count of activity
Standard Deviation 294.0265
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 36, n=10
242.772 Count of activity
Standard Deviation 159.5699
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 40, n=12
145.523 Count of activity
Standard Deviation 109.5598
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 44, n=11
207.506 Count of activity
Standard Deviation 134.7506
Mean Maximum Activity Count in a 24 Hour Period
Night time, Week 48, n=13
233.548 Count of activity
Standard Deviation 215.7070

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Active periods were catagorized as \>1minute to \<=2minutes, \>2 minutes to \<=5minutes, \>5 minutes to \<=15 minutes, \>15 minutes to \<=30 minutes, \>30 minutes. Total number of 'active periods were calculated as 1minute\<x\<2minutes + 'number of active periods 2minutes\<x\<5minutes + 'number of active periods 5minutes\<x\<15minutes + 'number of active periods 15minutes\<x\<30minutes + 'number of active periods \>30minutes.

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 16, n=13
0.191 Number/Hour
Standard Deviation 0.1996
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 20, n=14
0.169 Number/Hour
Standard Deviation 0.1812
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 32, n=12
0.100 Number/Hour
Standard Deviation 0.1172
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 36, n=12
0.164 Number/Hour
Standard Deviation 0.2649
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 40, n=12
0.170 Number/Hour
Standard Deviation 0.2644
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 44, n=12
0.174 Number/Hour
Standard Deviation 0.2518
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 48, n=13
0.252 Number/Hour
Standard Deviation 0.3609
Number of Continuous Active Periods
>2 to <=5minutes; Day time, Week 0, n=24
0.108 Number/Hour
Standard Deviation 0.1263
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 8, n=18
0.084 Number/Hour
Standard Deviation 0.1675
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 12, n=16
0.108 Number/Hour
Standard Deviation 0.1201
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 16, n=13
0.123 Number/Hour
Standard Deviation 0.1590
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 20, n=14
0.080 Number/Hour
Standard Deviation 0.1105
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 24, n=14
0.057 Number/Hour
Standard Deviation 0.0819
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 28, n=10
0.107 Number/Hour
Standard Deviation 0.1700
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 40, n=12
0.072 Number/Hour
Standard Deviation 0.1137
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 44, n=12
0.071 Number/Hour
Standard Deviation 0.1417
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 48, n=13
0.095 Number/Hour
Standard Deviation 0.1400
Number of Continuous Active Periods
>5 to <=15 minutes; Day time, Week 0, n=24
0.041 Number/Hour
Standard Deviation 0.0740
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 4, n=22
0.030 Number/Hour
Standard Deviation 0.0471
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 8, n=18
0.020 Number/Hour
Standard Deviation 0.0333
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 8, n=18
0.255 Number/Hour
Standard Deviation 0.3230
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 12, n=16
0.188 Number/Hour
Standard Deviation 0.1925
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 24, n=14
0.206 Number/Hour
Standard Deviation 0.2088
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 28, n=10
0.147 Number/Hour
Standard Deviation 0.1564
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 4, n=22
0.097 Number/Hour
Standard Deviation 0.1264
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 32, n=12
0.058 Number/Hour
Standard Deviation 0.1129
Number of Continuous Active Periods
>2 to <=5minutes;Day time, Week 36, n=12
0.079 Number/Hour
Standard Deviation 0.1538
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 12, n=16
0.023 Number/Hour
Standard Deviation 0.0364
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 16, n=13
0.042 Number/Hour
Standard Deviation 0.0699
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 40, n=12
0.022 Number/Hour
Standard Deviation 0.0549
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 48, n=13
0.023 Number/Hour
Standard Deviation 0.0440
Number of Continuous Active Periods
>15 to <=30 minutes; Day time, Week 0, n=24
0.003 Number/Hour
Standard Deviation 0.0108
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 4, n=22
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 8, n=18
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 12, n=16
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 16, n=13
0.003 Number/Hour
Standard Deviation 0.0111
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 36, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 40, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 44, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 48, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes; Day time, Week 0, n=24
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 20, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 24, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 8, n=19
0.046 Number/Hour
Standard Deviation 0.1453
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 12, n=16
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 16, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 20, n=13
0.003 Number/Hour
Standard Deviation 0.0111
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 24, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 48, n=13
0.292 Number/Hour
Standard Deviation 1.0512
Number of Continuous Active Periods
>2 to <=5minutes; Night time, Week 0, n=24
0.008 Number/Hour
Standard Deviation 0.0284
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 4, n=22
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 8, n=19
0.067 Number/Hour
Standard Deviation 0.2617
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 20, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 24, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 28, n=10
0.006 Number/Hour
Standard Deviation 0.0190
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 8, n=19
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 12, n=16
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 48, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes; Night time, Week 0, n=24
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 4, n=22
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 8, n=19
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 20, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 24, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes; Day time, Week 0, n=24
0.279 Number/Hour
Standard Deviation 0.3174
Number of Continuous Active Periods
>1 to <=2minutes;Day time, Week 4, n=22
0.267 Number/Hour
Standard Deviation 0.3874
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 20, n=14
0.016 Number/Hour
Standard Deviation 0.0440
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 24, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 28, n=10
0.024 Number/Hour
Standard Deviation 0.0534
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 32, n=12
0.015 Number/Hour
Standard Deviation 0.0353
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 36, n=12
0.008 Number/Hour
Standard Deviation 0.0289
Number of Continuous Active Periods
>5 to <=15 minutes;Day time, Week 44, n=12
0.008 Number/Hour
Standard Deviation 0.0199
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 20, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 24, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 28, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Day time, Week 32, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 4, n=22
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 8, n=18
0.001 Number/Hour
Standard Deviation 0.0047
Number of Continuous Active Periods
>30 minutes;Day time, Week 12, n=16
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 16, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 28, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 32, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 36, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 40, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 44, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Day time, Week 48, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes; Night time, Week 0, n=24
0.015 Number/Hour
Standard Deviation 0.0365
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 4, n=22
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 28, n=10
0.004 Number/Hour
Standard Deviation 0.0126
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 32, n=12
0.004 Number/Hour
Standard Deviation 0.0144
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 36, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 40, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>1 to <=2minutes;Night time, Week 44, n=11
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 12, n=16
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 16, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 32, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 36, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 40, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 44, n=11
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>2 to <=5minutes;Night time, Week 48, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes; Night time, Week 0, n=24
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 4, n=22
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 16, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 20, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 24, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 28, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 32, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 36, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 40, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>5 to <=15 minutes;Night time, Week 44, n=11
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 4, n=22
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 8, n=19
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 12, n=16
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 16, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 20, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 24, n=14
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 28, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 32, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 36, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 40, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 44, n=11
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>15 to <=30 minutes;Night time, Week 48, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes; Night time, Week 0, n=24
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 12, n=16
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 16, n=13
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 28, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 32, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 36, n=10
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 40, n=12
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 44, n=11
0.000 Number/Hour
Standard Deviation 0.000
Number of Continuous Active Periods
>30 minutes;Night time, Week 48, n=13
0.000 Number/Hour
Standard Deviation 0.000

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Percent time spent lying per day and night over the 24-hour recording periods; averaged for each timepoint

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Percent of Time Lying Down at Night
Day time, Week 24, n=14
23.608 Percentage of time
Standard Deviation 28.1925
Percent of Time Lying Down at Night
Day time, Week 28, n=10
23.603 Percentage of time
Standard Deviation 23.9283
Percent of Time Lying Down at Night
Day time, Week 32, n=12
26.613 Percentage of time
Standard Deviation 34.2248
Percent of Time Lying Down at Night
Day time, Week 36, n=12
21.823 Percentage of time
Standard Deviation 28.2251
Percent of Time Lying Down at Night
Day time, Week 40, n=12
17.453 Percentage of time
Standard Deviation 19.6178
Percent of Time Lying Down at Night
Night time, Week 12, n=16
97.886 Percentage of time
Standard Deviation 1.4457
Percent of Time Lying Down at Night
Day time, Week 0, n=24
12.079 Percentage of time
Standard Deviation 8.3771
Percent of Time Lying Down at Night
Day time, Week 4, n=22
14.119 Percentage of time
Standard Deviation 13.8340
Percent of Time Lying Down at Night
Day time, Week 8, n=18
17.993 Percentage of time
Standard Deviation 12.7684
Percent of Time Lying Down at Night
Day time, Week 12, n=16
13.101 Percentage of time
Standard Deviation 9.7891
Percent of Time Lying Down at Night
Day time, Week 16, n=13
12.400 Percentage of time
Standard Deviation 9.3903
Percent of Time Lying Down at Night
Day time, Week 20, n=14
21.198 Percentage of time
Standard Deviation 25.9982
Percent of Time Lying Down at Night
Day time, Week 44, n=12
20.397 Percentage of time
Standard Deviation 26.7615
Percent of Time Lying Down at Night
Day time, Week 48, n=13
20.966 Percentage of time
Standard Deviation 20.3006
Percent of Time Lying Down at Night
Night time, Week 0, n=24
95.131 Percentage of time
Standard Deviation 8.2933
Percent of Time Lying Down at Night
Night time, Week 4, n=22
97.280 Percentage of time
Standard Deviation 2.9257
Percent of Time Lying Down at Night
Night time, Week 8, n=19
96.871 Percentage of time
Standard Deviation 4.0262
Percent of Time Lying Down at Night
Night time, Week 16, n=13
97.817 Percentage of time
Standard Deviation 1.1466
Percent of Time Lying Down at Night
Night time, Week 20, n=13
97.739 Percentage of time
Standard Deviation 1.1617
Percent of Time Lying Down at Night
Night time, Week 24, n=14
97.522 Percentage of time
Standard Deviation 1.6446
Percent of Time Lying Down at Night
Night time, Week 28, n=10
96.397 Percentage of time
Standard Deviation 2.1777
Percent of Time Lying Down at Night
Night time, Week 32, n=12
95.519 Percentage of time
Standard Deviation 6.0885
Percent of Time Lying Down at Night
Night time, Week 36, n=10
98.165 Percentage of time
Standard Deviation 0.6796
Percent of Time Lying Down at Night
Night time, Week 40, n=12
97.293 Percentage of time
Standard Deviation 1.8971
Percent of Time Lying Down at Night
Night time, Week 44, n=11
97.719 Percentage of time
Standard Deviation 1.6543
Percent of Time Lying Down at Night
Night time, Week 48, n=13
93.912 Percentage of time
Standard Deviation 14.0863

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Average number of night movement episodes per hour for each protocol time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Night Time Movement Episodes Per Hour
Week 16, n=13
6.852 Number of movements/hour
Standard Deviation 11.6765
Number of Night Time Movement Episodes Per Hour
Week 20, n=13
4.788 Number of movements/hour
Standard Deviation 4.4738
Number of Night Time Movement Episodes Per Hour
Week 24, n=14
4.216 Number of movements/hour
Standard Deviation 1.8617
Number of Night Time Movement Episodes Per Hour
Week 28, n=10
5.295 Number of movements/hour
Standard Deviation 5.1177
Number of Night Time Movement Episodes Per Hour
Week 32, n=12
8.708 Number of movements/hour
Standard Deviation 12.9217
Number of Night Time Movement Episodes Per Hour
Week 36, n=10
12.149 Number of movements/hour
Standard Deviation 17.7170
Number of Night Time Movement Episodes Per Hour
Week 40, n=12
4.747 Number of movements/hour
Standard Deviation 4.5737
Number of Night Time Movement Episodes Per Hour
Week 0, n=24
6.129 Number of movements/hour
Standard Deviation 4.6585
Number of Night Time Movement Episodes Per Hour
Week 4, n=22
6.982 Number of movements/hour
Standard Deviation 7.6835
Number of Night Time Movement Episodes Per Hour
Week 8, n=19
9.258 Number of movements/hour
Standard Deviation 17.3296
Number of Night Time Movement Episodes Per Hour
Week 12, n=16
3.803 Number of movements/hour
Standard Deviation 1.7339
Number of Night Time Movement Episodes Per Hour
Week 44, n=11
3.385 Number of movements/hour
Standard Deviation 1.8031
Number of Night Time Movement Episodes Per Hour
Week 48, n=13
7.209 Number of movements/hour
Standard Deviation 13.6287

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Average night-time rest efficiency for each protocol time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles)

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Percent Time Night-time Rest Efficiency
Week 0, n=24
0.986 Percentage of time
Standard Deviation 0.0125
Percent Time Night-time Rest Efficiency
Week 8, n=19
0.976 Percentage of time
Standard Deviation 0.0498
Percent Time Night-time Rest Efficiency
Week 12, n=16
0.991 Percentage of time
Standard Deviation 0.0044
Percent Time Night-time Rest Efficiency
Week 16, n=13
0.986 Percentage of time
Standard Deviation 0.0156
Percent Time Night-time Rest Efficiency
Week 20, n=13
0.987 Percentage of time
Standard Deviation 0.0118
Percent Time Night-time Rest Efficiency
Week 28, n=10
0.986 Percentage of time
Standard Deviation 0.0165
Percent Time Night-time Rest Efficiency
Week 32, n=12
0.978 Percentage of time
Standard Deviation 0.0322
Percent Time Night-time Rest Efficiency
Week 36, n=10
0.971 Percentage of time
Standard Deviation 0.0468
Percent Time Night-time Rest Efficiency
Week 40, n=12
0.987 Percentage of time
Standard Deviation 0.0156
Percent Time Night-time Rest Efficiency
Week 44, n=11
0.992 Percentage of time
Standard Deviation 0.0040
Percent Time Night-time Rest Efficiency
Week 48, n=13
0.978 Percentage of time
Standard Deviation 0.0536
Percent Time Night-time Rest Efficiency
Week 4, n=22
0.982 Percentage of time
Standard Deviation 0.0270
Percent Time Night-time Rest Efficiency
Week 24, n=14
0.991 Percentage of time
Standard Deviation 0.0053

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Rest Fragmentation Index was computed as movement time (%) divided by number of movement episodes for each protocol time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Rest Fragmentation Index
Week 0, n=24
0.132 Ratio
Standard Deviation 0.3384
Rest Fragmentation Index
Week 4, n=22
0.649 Ratio
Standard Deviation 2.6064
Rest Fragmentation Index
Week 8, n=19
0.096 Ratio
Standard Deviation 0.2579
Rest Fragmentation Index
Week 12, n=16
0.036 Ratio
Standard Deviation 0.0316
Rest Fragmentation Index
Week 16, n=13
0.291 Ratio
Standard Deviation 0.8315
Rest Fragmentation Index
Week 20, n=13
0.086 Ratio
Standard Deviation 0.1581
Rest Fragmentation Index
Week 24, n=14
0.129 Ratio
Standard Deviation 0.3213
Rest Fragmentation Index
Week 28, n=10
0.113 Ratio
Standard Deviation 0.2836
Rest Fragmentation Index
Week 32, n=12
0.507 Ratio
Standard Deviation 1.1908
Rest Fragmentation Index
Week 36, n=10
0.437 Ratio
Standard Deviation 1.1594
Rest Fragmentation Index
Week 40, n=12
0.541 Ratio
Standard Deviation 1.7070
Rest Fragmentation Index
Week 44, n=11
0.041 Ratio
Standard Deviation 0.0259
Rest Fragmentation Index
Week 48, n=13
0.391 Ratio
Standard Deviation 1.2979

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Average duration of movement episodes for each time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Average Duration of Night Time Movement Episodes
Week 0, n=24
8.257 Seconds
Standard Deviation 2.5147
Average Duration of Night Time Movement Episodes
Week 4, n=22
7.664 Seconds
Standard Deviation 2.0949
Average Duration of Night Time Movement Episodes
Week 8, n=19
8.133 Seconds
Standard Deviation 2.8630
Average Duration of Night Time Movement Episodes
Week 12, n=16
8.203 Seconds
Standard Deviation 2.3391
Average Duration of Night Time Movement Episodes
Week 16, n=13
9.485 Seconds
Standard Deviation 5.4216
Average Duration of Night Time Movement Episodes
Week 20, n=13
10.190 Seconds
Standard Deviation 7.2948
Average Duration of Night Time Movement Episodes
Week 24, n=14
7.931 Seconds
Standard Deviation 1.8877
Average Duration of Night Time Movement Episodes
Week 28, n=10
7.610 Seconds
Standard Deviation 1.5252
Average Duration of Night Time Movement Episodes
Week 32, n=11
10.220 Seconds
Standard Deviation 6.3726
Average Duration of Night Time Movement Episodes
Week 36, n=9
7.203 Seconds
Standard Deviation 0.6451
Average Duration of Night Time Movement Episodes
Week 40, n=11
8.025 Seconds
Standard Deviation 1.8174
Average Duration of Night Time Movement Episodes
Week 44, n=11
7.730 Seconds
Standard Deviation 2.3985
Average Duration of Night Time Movement Episodes
Week 48, n=12
8.393 Seconds
Standard Deviation 2.5605

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Estimates for between and within subject correlation coefficients were produced following multiple linear regression analyses on the actigraphy endpoints, comparing them with the ALSFRS-R total score and the gross motor domain and fine motor domain scores. Data for between subject correlation coefficient has been presented

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Relationship Between Average Number Night Time Movements/Hour Versus Total ALSFRS-R
0.178 Ratio

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Estimates for between and within subject correlation coefficients were produced following multiple linear regression analyses on the actigraphy endpoints, comparing them with the ALSFRS-R total score and the gross motor domain and fine motor domain scores. Data for between subject correlation coefficient has been presented

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Relationship Between Average Duration Movement Episodes at Night Versus Total ALSFRS-R
-0.426 Ratio

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Estimates for between and within subject correlation coefficients were produced following multiple linear regression analyses on the actigraphy endpoints, comparing them with the ALSFRS-R total score and the gross motor domain and fine motor domain scores. Data for between subject correlation coefficient has been presented

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Relationship Between Average Percent Time Night Time Rest Efficiency Versus Total ALSFRS-R
0.049 Ratio

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Estimates for between and within subject correlation coefficients were produced following multiple linear regression analyses on the actigraphy endpoints, comparing them with the ALSFRS-R total score and the gross motor domain and fine motor domain scores. Data for between subject correlation coefficient has been presented

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Relationship Between Average Night Time Rest Fragmentation Index Versus Total ALSFRS-R
-0.163 Ratio

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Mean Heart Rate Variability (HRV) averaged over 5 windows of lying down at each protocol time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 0, n=23
4.1914 Ratio
Standard Deviation 2.35370
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 4, n=21
4.2198 Ratio
Standard Deviation 2.88326
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 16, n=12
3.7404 Ratio
Standard Deviation 1.99810
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 20, n=12
4.6210 Ratio
Standard Deviation 3.40720
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 24, n=12
4.2944 Ratio
Standard Deviation 2.43365
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 48, n=11
4.4358 Ratio
Standard Deviation 2.56115
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 8, n=15
4.2393 Ratio
Standard Deviation 2.50840
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 12, n=15
4.2304 Ratio
Standard Deviation 2.13905
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 28, n=10
6.1888 Ratio
Standard Deviation 5.64815
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 32, n=10
5.0398 Ratio
Standard Deviation 3.64394
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 36, n=9
4.9206 Ratio
Standard Deviation 3.44514
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 40, n=11
4.6117 Ratio
Standard Deviation 2.81758
Mean Heart Rate Variability (HRV) While Lying (Low Frequency[LF]/High Frequency[HF])
Week 44, n=11
3.8315 Ratio
Standard Deviation 2.29689

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Variance of Heart Rate Variability (HRV) averaged over 5 windows of lying down at each protocol time point (LF/HF analysis). Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Variance of HRV While Lying (LF/HF)
Week 0, n=23
6.3439 Ratio
Standard Deviation 6.55782
Variance of HRV While Lying (LF/HF)
Week 4, n=21
6.8401 Ratio
Standard Deviation 6.49766
Variance of HRV While Lying (LF/HF)
Week 8, n=15
5.3481 Ratio
Standard Deviation 4.86394
Variance of HRV While Lying (LF/HF)
Week 12, n=15
11.4190 Ratio
Standard Deviation 11.42238
Variance of HRV While Lying (LF/HF)
Week 16, n=12
16.1974 Ratio
Standard Deviation 20.59606
Variance of HRV While Lying (LF/HF)
Week 20, n=12
10.2248 Ratio
Standard Deviation 13.69276
Variance of HRV While Lying (LF/HF)
Week 24, n=12
6.5774 Ratio
Standard Deviation 9.07676
Variance of HRV While Lying (LF/HF)
Week 28, n=10
6.6424 Ratio
Standard Deviation 7.53794
Variance of HRV While Lying (LF/HF)
Week 32, n=10
5.8556 Ratio
Standard Deviation 7.19624
Variance of HRV While Lying (LF/HF)
Week 36, n=9
15.4940 Ratio
Standard Deviation 30.00587
Variance of HRV While Lying (LF/HF)
Week 40, n=11
4.5088 Ratio
Standard Deviation 3.56720
Variance of HRV While Lying (LF/HF)
Week 44, n=11
6.4731 Ratio
Standard Deviation 6.29614
Variance of HRV While Lying (LF/HF)
Week 48, n=11
11.7375 Ratio
Standard Deviation 13.64105

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Mean Heart Rate Variability (HRV) averaged over 5 windows of sedentary not lying at each protocol time point (LF/HF analysis). Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Mean HRV While Sedentary Not Lying (LF/HF)
Week 20, n=10
6.0958 Ratio
Standard Deviation 3.05182
Mean HRV While Sedentary Not Lying (LF/HF)
Week 24, n=10
6.3113 Ratio
Standard Deviation 3.03599
Mean HRV While Sedentary Not Lying (LF/HF)
Week 36, n=11
6.6827 Ratio
Standard Deviation 2.73499
Mean HRV While Sedentary Not Lying (LF/HF)
Week 40, n=9
4.8166 Ratio
Standard Deviation 2.16486
Mean HRV While Sedentary Not Lying (LF/HF)
Week 0, n=20
5.2011 Ratio
Standard Deviation 2.48369
Mean HRV While Sedentary Not Lying (LF/HF)
Week 4, n=18
5.3944 Ratio
Standard Deviation 2.83547
Mean HRV While Sedentary Not Lying (LF/HF)
Week 8, n=13
5.1733 Ratio
Standard Deviation 2.29737
Mean HRV While Sedentary Not Lying (LF/HF)
Week 12, n=14
6.3760 Ratio
Standard Deviation 3.42063
Mean HRV While Sedentary Not Lying (LF/HF)
Week 16, n=11
6.0905 Ratio
Standard Deviation 3.68543
Mean HRV While Sedentary Not Lying (LF/HF)
Week 28, n=9
5.4652 Ratio
Standard Deviation 3.20703
Mean HRV While Sedentary Not Lying (LF/HF)
Week 32, n=9
8.3196 Ratio
Standard Deviation 5.37661
Mean HRV While Sedentary Not Lying (LF/HF)
Week 44, n=9
5.6220 Ratio
Standard Deviation 2.61752
Mean HRV While Sedentary Not Lying (LF/HF)
Week 48, n=7
5.8935 Ratio
Standard Deviation 3.22033

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Variance of Heart Rate Variability (HRV) averaged over 5 windows of sedentary not lying at each protocol time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 0, n=20
6.3439 Ratio
Standard Deviation 6.55782
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 4, n=18
6.8401 Ratio
Standard Deviation 6.49766
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 8, n=13
5.3481 Ratio
Standard Deviation 4.86394
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 12, n=14
11.4190 Ratio
Standard Deviation 11.42238
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 16, n=11
16.1974 Ratio
Standard Deviation 20.59606
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 20, n=10
10.2248 Ratio
Standard Deviation 13.69276
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 24, n=10
6.5774 Ratio
Standard Deviation 9.07676
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 28, n=9
6.6424 Ratio
Standard Deviation 7.53794
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 32, n=9
5.8556 Ratio
Standard Deviation 7.19624
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 36, n=11
15.4940 Ratio
Standard Deviation 30.00587
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 40, n=9
4.5088 Ratio
Standard Deviation 3.56720
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 44, n=9
6.4731 Ratio
Standard Deviation 6.29614
Variance of HRV While Sedentary Not Lying (LF/HF)
Week 48, n=7
11.7375 Ratio
Standard Deviation 13.64105

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Mean Heart Rate Variability (HRV) averaged over 5 windows of subjects being active at each protocol time point (LF/HF analysis). Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles). NA indicates that data is not available. Standard deviation could not be calculated when number of participants was \<=1

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Mean HRV While Active (LF/HF)
Week 0, n=2
4.3350 Ratio
Standard Deviation 0.09192
Mean HRV While Active (LF/HF)
Week 4, n=1
3.8100 Ratio
Standard Deviation NA
Standard deviation could not be calculated when number of participants was \<=1

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Variance of Heart Rate Variability (HRV) averaged over 5 windows of subjects being active at each protocol time point (LF/HF analysis). Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles). NA indicates that data could not be calculated as participant number was \<=1

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Variance of HRV While Active (LF/HF)
Week 0, n=2
0.0000 Ratio
Standard Deviation 0.0000
Variance of HRV While Active (LF/HF)
Week 4, n=1
0.0000 Ratio
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

The effect of being upright on mean HRV was calculated as \[mean HRV while sedentary not lying minus mean HRV while lying\] (LF/HF analysis). Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 8, n=13
1.1937 Ratio
Standard Deviation 2.40299
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 12, n=14
2.1585 Ratio
Standard Deviation 2.80355
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 16, n=11
2.5080 Ratio
Standard Deviation 3.40632
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 20, n=10
2.4613 Ratio
Standard Deviation 3.64555
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 24, n=10
2.5161 Ratio
Standard Deviation 1.95702
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 28, n=9
-0.1964 Ratio
Standard Deviation 6.11226
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 40, n=9
0.9722 Ratio
Standard Deviation 1.73768
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 0, n=20
1.0563 Ratio
Standard Deviation 2.12227
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 32, n=9
3.3476 Ratio
Standard Deviation 5.59881
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 4, n=18
1.3507 Ratio
Standard Deviation 2.56807
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 36, n=9
2.5583 Ratio
Standard Deviation 3.74969
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 44, n=9
1.6069 Ratio
Standard Deviation 2.71641
Effect of Being Upright on HRV- Mean HRV (LF/HF Analysis)
Week 48, n=6
1.5796 Ratio
Standard Deviation 3.73597

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

The effect of being upright on HRV variance was calculated as \[HRV variance while sedentary not lying minus HRV variance while lying\] (LF/HF analysis). Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 8, n=13
-2.0885 Ratio
Standard Deviation 9.89872
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 12, n=14
4.1473 Ratio
Standard Deviation 8.03699
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 16, n=11
9.8909 Ratio
Standard Deviation 21.83721
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 20, n=10
2.9204 Ratio
Standard Deviation 17.31637
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 28, n=9
-13.6310 Ratio
Standard Deviation 45.52591
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 32, n=9
-8.9054 Ratio
Standard Deviation 19.69942
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 36, n=9
10.3525 Ratio
Standard Deviation 35.50938
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 40, n=9
-3.8092 Ratio
Standard Deviation 8.66934
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 44, n=9
-2.1221 Ratio
Standard Deviation 11.81571
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 48, n=6
4.3165 Ratio
Standard Deviation 16.66785
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 0, n=20
-0.0750 Ratio
Standard Deviation 5.21420
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 4, n=18
-5.5005 Ratio
Standard Deviation 28.71903
Effect of Being Upright on HRV Variance (LF/HF Analysis)
Week 24, n=10
-1.1979 Ratio
Standard Deviation 2.96892

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

The effect of activity on mean HRV was calculated as \[mean HRV while sedentary not lying minus mean HRV while lying\] (LF/HF analysis). Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles). NA indicates that data could not be calculated as participant number was \<=1.

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Effect of Activity on Mean HRV (LF/HF)
Week 0; n= 2
-1.6117 Ratio
Standard Deviation 2.88735
Effect of Activity on Mean HRV (LF/HF)
Week 4; n= 1
0.9367 Ratio
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

The effect of activity on HRV variance was calculated as \[HRV variance while sedentary not lying minus HRV variance while lying\] (LF/HF analysis). Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles). NA indicates that data could not be calculated as participant number was \<=1.

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Effect of Activity on HRV Variance (LF/HF Analysis)
Week 0; n= 2
-8.6500 Ratio
Standard Deviation 5.93027
Effect of Activity on HRV Variance (LF/HF Analysis)
Week 4; n= 1
-3.4367 Ratio
Standard Deviation NA
NA indicates that data could not be calculated as participant number was \<=1.

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Mean HRV over 24 hours (RMSSD analysis), averaged for each protocol time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 0, n=24
21.2445 Milliseconds^2
Standard Deviation 6.13882
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 4, n=21
20.0394 Milliseconds^2
Standard Deviation 6.61338
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 8, n=15
22.4551 Milliseconds^2
Standard Deviation 5.98867
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 12, n=16
20.6744 Milliseconds^2
Standard Deviation 6.95469
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 48, n=12
19.5152 Milliseconds^2
Standard Deviation 8.04882
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 16, n=12
20.7926 Milliseconds^2
Standard Deviation 7.01048
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 20, n=12
20.7321 Milliseconds^2
Standard Deviation 6.80432
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 24, n=12
21.3250 Milliseconds^2
Standard Deviation 6.92749
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 28, n=10
21.7888 Milliseconds^2
Standard Deviation 7.14731
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 32, n=10
21.1318 Milliseconds^2
Standard Deviation 8.08213
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 36, n=11
20.8849 Milliseconds^2
Standard Deviation 5.72665
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 40, n=11
20.0684 Milliseconds^2
Standard Deviation 7.98572
Mean HRV Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD)
Week 44, n=11
20.2980 Milliseconds^2
Standard Deviation 5.95832

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

HRV variance over 24 hours (RMSSD analysis), averaged for each protocol time point. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 0, n=24
35.3316 Milliseconds^2
Standard Deviation 25.70628
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 4, n=21
26.2719 Milliseconds^2
Standard Deviation 19.19169
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 8, n=15
34.5477 Milliseconds^2
Standard Deviation 18.01341
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 12, n=16
31.8929 Milliseconds^2
Standard Deviation 28.36635
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 28, n=10
45.4243 Milliseconds^2
Standard Deviation 62.35269
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 32, n=10
30.5288 Milliseconds^2
Standard Deviation 24.91715
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 36, n=11
24.8373 Milliseconds^2
Standard Deviation 14.41668
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 40, n=11
18.4227 Milliseconds^2
Standard Deviation 9.54924
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 44, n=11
22.5279 Milliseconds^2
Standard Deviation 10.78475
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 16, n=12
34.8321 Milliseconds^2
Standard Deviation 25.62477
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 20, n=12
41.4669 Milliseconds^2
Standard Deviation 36.88159
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 24, n=12
34.3781 Milliseconds^2
Standard Deviation 38.27469
HRV Variance Over 24 Hours - Mean Root Mean Square of the Successive Differences (RMSSD) Analysis
Week 48, n=12
15.7176 Milliseconds^2
Standard Deviation 13.15760

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Estimates for between and within subject correlation coefficients were produced following multiple linear regression analyses on the actigraphy endpoints, comparing them with the ALSFRS-R total score and the gross motor domain and fine motor domain scores. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles). NA indicates that sample size was insufficient to calculate correlation coefficient

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Mean HRV effect of being upright v/s ALSFRS-R;n=24
0.139 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Mean LF/HF (lying down) (1) v/s ALSFRS-R;n=25
0.228 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Mean LF/HF sedentary (not lying) v/s ALSFRS-R;n=24
0.023 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Var. LF/HF sedentary (not lying) v/s ALSFR-R;n=24
-0.041 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Mean HRV effect of activity v/s ALSFRS-R;n=3
0.421 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Mean LF/HF (avg-daytime activity) v/s ALSFRS-R;n=3
-0.921 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Var of HRV effect of activity v/s ALSFRS-R;n=3
0.419 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Var of HRV effect being upright v/s ALSFRS-R;n=24
0.308 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Var of LF/HF (lying down) v/s ALSFRS-R;n=25
-0.378 Ratio
Relationship Between Absolute Values of HRV Endpoints (LF/HF) and Absolute Value of Total ALSFRS-R
Var of LF/HF v/s ALSFRS-R;n=3
NA Ratio
NA indicates that sample size is insufficient to calculate the correlation coefficient

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Speech quality was assessed by Central Tendency of Fundamental Frequency (CTF) F0, jitter, and shimmer for 'short ah' and 'long ah' tests. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Measurement of Speech Quality
Jitter;Week48;n=18 (Short ah)
0.379 Hertz
Standard Deviation 0.2949
Measurement of Speech Quality
Jitter;EWD;n=2 (Short ah)
0.435 Hertz
Standard Deviation 0.1835
Measurement of Speech Quality
Shimmer;Week0;n=25 (Short ah)
5.099 Hertz
Standard Deviation 1.0892
Measurement of Speech Quality
Shimmer;Week12;n=18 (Short ah)
5.031 Hertz
Standard Deviation 1.0850
Measurement of Speech Quality
Shimmer;Week24;n=17 (Short ah)
5.498 Hertz
Standard Deviation 1.1896
Measurement of Speech Quality
Shimmer;Week36;n=15 (Short ah)
5.203 Hertz
Standard Deviation 1.4083
Measurement of Speech Quality
Shimmer;Week48;n=18 (Short ah)
5.157 Hertz
Standard Deviation 1.9564
Measurement of Speech Quality
Shimmer;EWD;n=2 (Short ah)
5.624 Hertz
Standard Deviation 1.5979
Measurement of Speech Quality
CTF F0;Week0;n=25 (Long ah)
134.443 Hertz
Standard Deviation 33.2237
Measurement of Speech Quality
CTF F0;Week12;n=18 (Long ah)
122.620 Hertz
Standard Deviation 35.6641
Measurement of Speech Quality
CTF F0;Week48;n=18 (Long ah)
134.198 Hertz
Standard Deviation 48.3046
Measurement of Speech Quality
CTF F0;EWD;n=3 (Long ah)
179.844 Hertz
Standard Deviation 25.7371
Measurement of Speech Quality
Jitter;Week0;n=25 (Long ah)
0.148 Hertz
Standard Deviation 0.1701
Measurement of Speech Quality
Jitter;Week12;n=18 (Long ah)
0.098 Hertz
Standard Deviation 0.0697
Measurement of Speech Quality
Jitter;Week24;n=17 (Long ah)
0.178 Hertz
Standard Deviation 0.3030
Measurement of Speech Quality
Jitter;Week36;n=15 (Long ah)
0.229 Hertz
Standard Deviation 0.3069
Measurement of Speech Quality
Shimmer;Week48;n=18 (Long ah)
3.046 Hertz
Standard Deviation 1.4476
Measurement of Speech Quality
Shimmer;EWD;n=2 (Long ah)
2.767 Hertz
Standard Deviation 0.0709
Measurement of Speech Quality
CTF F0;Week0;n=25 (Short ah)
151.829 Hertz
Standard Deviation 44.5983
Measurement of Speech Quality
CTF F0;Week12;n=18 (Short ah)
156.506 Hertz
Standard Deviation 42.0801
Measurement of Speech Quality
CTF F0;Week24;n=17 (Short ah)
143.481 Hertz
Standard Deviation 43.8646
Measurement of Speech Quality
CTF F0;Week36;n=15 (Short ah)
151.192 Hertz
Standard Deviation 43.1685
Measurement of Speech Quality
CTF F0;Week48;n=18 (Short ah)
156.418 Hertz
Standard Deviation 71.9125
Measurement of Speech Quality
CTF F0;EWD;n=3 (Short ah)
176.229 Hertz
Standard Deviation 76.2851
Measurement of Speech Quality
Jitter;Week0;n=25 (Short ah)
0.405 Hertz
Standard Deviation 0.2814
Measurement of Speech Quality
Jitter;Week12;n=18 (Short ah)
0.531 Hertz
Standard Deviation 0.2956
Measurement of Speech Quality
Jitter;Week24;n=17 (Short ah)
0.415 Hertz
Standard Deviation 0.3345
Measurement of Speech Quality
Jitter;Week36;n=15 (Short ah)
0.429 Hertz
Standard Deviation 0.2987
Measurement of Speech Quality
CTF F0;Week24;n=17 (Long ah)
146.295 Hertz
Standard Deviation 63.0013
Measurement of Speech Quality
CTF F0;Week36;n=15 (Long ah)
145.575 Hertz
Standard Deviation 45.5629
Measurement of Speech Quality
Jitter;Week48;n=18 (Long ah)
0.148 Hertz
Standard Deviation 0.1309
Measurement of Speech Quality
Jitter;EWD;n=2 (Long ah)
0.304 Hertz
Standard Deviation 0.3115
Measurement of Speech Quality
Shimmer;Week0;n=25 (Long ah)
2.926 Hertz
Standard Deviation 1.0166
Measurement of Speech Quality
Shimmer;Week12;n=18 (Long ah)
3.192 Hertz
Standard Deviation 0.8599
Measurement of Speech Quality
Shimmer;Week24;n=17 (Long ah)
3.082 Hertz
Standard Deviation 1.1959
Measurement of Speech Quality
Shimmer;Week36;n=15 (Long ah)
2.872 Hertz
Standard Deviation 1.2162

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Duration of maximum gap between words during running speech to planned to analyze quality of speech however; was not performed.

Outcome measures

Outcome data not reported

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Speaking rate was analyzed during running speech. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Speaking Rate
Week0; n=25
151.490 Words per minute
Standard Deviation 42.3137
Speaking Rate
Week12; n=18
160.628 Words per minute
Standard Deviation 46.2482
Speaking Rate
Week24; n=17
153.958 Words per minute
Standard Deviation 45.2931
Speaking Rate
Week36; n=15
166.342 Words per minute
Standard Deviation 67.6138
Speaking Rate
Week48; n=18
138.984 Words per minute
Standard Deviation 65.6871
Speaking Rate
EWD; n=2
179.687 Words per minute
Standard Deviation 27.6064

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Phoneme rate was analyzed for the single word "doily". Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Average Phoneme Rate
Week0; n=25
6176.377 Hertz per second
Standard Deviation 2196.778
Average Phoneme Rate
Week12; n=18
6903.574 Hertz per second
Standard Deviation 2484.952
Average Phoneme Rate
Week24; n=17
5859.531 Hertz per second
Standard Deviation 3433.272
Average Phoneme Rate
Week36; n=15
6937.497 Hertz per second
Standard Deviation 4868.936
Average Phoneme Rate
Week48; n=18
5738.519 Hertz per second
Standard Deviation 3410.358
Average Phoneme Rate
EWD; n=2
8980.240 Hertz per second
Standard Deviation 709.4459

OTHER_PRE_SPECIFIED outcome

Timeframe: Seconds

Population: Full Analysis Set

Maximum phonation time for the single word "doily" test was analyzed for quality of speech testing. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Maximum Phonation Time
Week0; n=25
0.174 Seconds
Standard Deviation 0.0724
Maximum Phonation Time
Week12; n=18
0.188 Seconds
Standard Deviation 0.0862
Maximum Phonation Time
Week24; n=17
0.186 Seconds
Standard Deviation 0.1005
Maximum Phonation Time
Week36; n=15
0.154 Seconds
Standard Deviation 0.0608
Maximum Phonation Time
Week48; n=18
0.147 Seconds
Standard Deviation 0.0884
Maximum Phonation Time
EWD; n=2
0.212 Seconds
Standard Deviation 0.0639

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Percentage pause time for running speech was analyzed. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Percentage Pause Time
Week0; n=25
31.900 Percentage of time
Standard Deviation 17.1724
Percentage Pause Time
Week12; n=18
26.609 Percentage of time
Standard Deviation 8.1333
Percentage Pause Time
Week24; n=17
30.177 Percentage of time
Standard Deviation 14.3137
Percentage Pause Time
Week36; n=15
24.410 Percentage of time
Standard Deviation 9.5753
Percentage Pause Time
Week48; n=18
23.991 Percentage of time
Standard Deviation 11.8426
Percentage Pause Time
EWD; n=2
24.042 Percentage of time
Standard Deviation 0.3466

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Mixed Model was used to calculate Repeated Measures Correlation Coefficients between the two variables when model is converged. The correlation coefficient among the repeated measurements is same for different variables. Multiple Linear Regression was used to calculate Within and Between Participant Correlation Coefficients when Mixed Model is not converged. Data for Repeated Measures Correlation Coefficient has been presented in the table below

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Relationship Between Absolute Values of Speech Endpoints and Absolute Value of ALSFRS-R
CTF F0 (Long ah) v/s ALSFRS-R
-0.154 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Value of ALSFRS-R
Jitter (%) (Long ah) v/s ALSFRS-R
0.119 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Value of ALSFRS-R
Shimmer(%) (Long ah) v/s ALSFRS-R
0.138 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Value of ALSFRS-R
Maximum Phonation Time v/s ALSFRS-R
0.152 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Value of ALSFRS-R
Jitter (%) (Short ah) v/s ALSFRS-R
0.137 Ratio

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Mixed Model was used to calculate Repeated Measures Correlation Coefficients between the two variables when model is converged. The correlation coefficient among the repeated measurements is same for different variables. Multiple Linear Regression was used to calculate Within and Between Participant Correlation Coefficients when Mixed Model is not converged. Data for Between Subject Correlation Coefficient has been presented in the table below

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
CTF F0 (Short ah) v/s FVC
-0.214 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
Jitter (%) (Short ah) v/s FVC
0.143 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
Shimmer(%) (Short ah) v/s FVC
-0.080 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
CTF F0 (Long ah) v/s FVC
-0.504 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
Jitter (%) (Long ah) v/s FVC
-0.321 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
Shimmer(%) (Long ah) v/s FVC
-0.327 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
Average Phoneme Rate v/s FVC
0.453 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
Maximum Phonation Time v/s FVC
-0.215 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
Percent Pause Time v/s FVC
-0.376 Ratio
Relationship Between Absolute Values of Speech Endpoints and Absolute Values of FVC
Speaking Rate v/s FVC
0.547 Ratio

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Participant's feedback on whether the sensor was comfortable to wear was categorized as "yes" and "no". Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Pilot; n=5;Yes
4 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Pilot; n=5;No
1 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Pilot repeat; n=5;Yes
3 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Pilot repeat; n=5;No
2 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Week12; n=15;Yes
14 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Week12; n=15;No
1 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Week24; n=14; Yes
13 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Week24; n=14;No
1 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Week36; n=14; Yes
12 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Week36; n=14; No
2 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Week48; n=18; Yes
14 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;Week48; n=18;No
4 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;EWD; n=2;Yes
0 Participants
Number of Participants Reporting Sensor Comfort
Sensor comfortable to wear;EWD; n=2;No
2 Participants

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Participant feedback on how much the sensor impacted their sleep was categorized as "not at all", "moderately" and "minimally". Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Participants Reporting Impact on Sleep
Not at all;Pilot; n=5
4 Participants
Number of Participants Reporting Impact on Sleep
Moderately;Pilot; n=5
1 Participants
Number of Participants Reporting Impact on Sleep
Minimally; Pilot; n=5
0 Participants
Number of Participants Reporting Impact on Sleep
Not at all;Pilot repeat; n=5
3 Participants
Number of Participants Reporting Impact on Sleep
Moderately;Pilot repeat; n=5
2 Participants
Number of Participants Reporting Impact on Sleep
Minimally; Pilot repeat; n=5
0 Participants
Number of Participants Reporting Impact on Sleep
Not at all;Week12; n=15
15 Participants
Number of Participants Reporting Impact on Sleep
Moderately;Week12; n=15
0 Participants
Number of Participants Reporting Impact on Sleep
Minimally; Week12; n=15
0 Participants
Number of Participants Reporting Impact on Sleep
Not at all;Week24; n=14
12 Participants
Number of Participants Reporting Impact on Sleep
Moderately;Week24; n=14
0 Participants
Number of Participants Reporting Impact on Sleep
Minimally; Week24; n=14
2 Participants
Number of Participants Reporting Impact on Sleep
Not at all;Week36; n=14
12 Participants
Number of Participants Reporting Impact on Sleep
Moderately;Week36; n=14
0 Participants
Number of Participants Reporting Impact on Sleep
Minimally; Week36; n=14
2 Participants
Number of Participants Reporting Impact on Sleep
Not at all;Week48; n=18
15 Participants
Number of Participants Reporting Impact on Sleep
Moderately;Week48; n=18
0 Participants
Number of Participants Reporting Impact on Sleep
Minimally; Week48; n=18
3 Participants
Number of Participants Reporting Impact on Sleep
Not at all;EWD; n=2
1 Participants
Number of Participants Reporting Impact on Sleep
Moderately;EWD; n=2
1 Participants
Number of Participants Reporting Impact on Sleep
Minimally; EWD; n=2
0 Participants

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

The participants were required to give feedback on how easy was it to set up and/ or attach the sensor and it was categorized as "easy", "neutral" and "difficult". Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Pilot; n=5
4 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Pilot; n=5
1 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Pilot; n=5
0 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Pilot repeat; n=5
5 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Pilot repeat; n=5
0 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Pilot repeat; n=5
0 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week0; n=25
23 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week0; n=25
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week0; n=25
0 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week4; n=23
23 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week4; n=23
0 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week4; n=23
0 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week8; n=21
19 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week8; n=21
0 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week8; n=21
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week12; n=20
18 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week12; n=20
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week12; n=20
0 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week16; n=18
15 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week16; n=18
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week16; n=18
1 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week20; n=20
15 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week20; n=20
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week20; n=20
3 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week24; n=18
15 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week40; n=15
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week44; n=16
13 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week44; n=16
1 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week44; n=16
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week48; n=15
8 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week48; n=15
3 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week48; n=15
4 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week24; n=18
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week24; n=18
1 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week28; n=16
12 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week28; n=16
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week28; n=16
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week32; n=20
15 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week32; n=20
3 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week32; n=20
2 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week36; n=18
14 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week36; n=18
3 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Difficult;Week36; n=18
1 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Easy;Week40; n=15
10 Participants
Number of Participants With Ease of Setting up and Attaching the Sensor
Neutral;Week40; n=15
3 Participants

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

The activity level required by the participant to complete their job was recorded, and was categorized as Not working, Physical activity required, and Sedentary. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Pilot; Not working;n=5
1 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Pilot; Physical activity required;n=5
2 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Pilot; Sedentary;n=5
2 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Pilot repeat; Not working;n=5
1 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Pilot Repeat; Physical activity required;n=5
0 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Pilot Repeat; Sedentary;n=5
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week0; Not working;n=25
10 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week0; Physical activity required;n=25
10 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week0; Sedentary;n=25
5 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week4; Not working;n=23
8 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week4; Physical activity required;n=23
7 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week4; Sedentary;n=23
8 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week8; Not working;n=21
12 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week8; Physical activity required;n=21
5 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week8; Sedentary;n=21
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week12; Not working;n=20
8 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week12; Physical activity required;n=20
5 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week12; Sedentary;n=20
7 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week16; Not working;n=18
11 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week16; Physical activity required;n=18
3 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week16; Sedentary;n=18
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week20; Not working;n=20
11 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week20; Physical activity required;n=20
5 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week20; Sedentary;n=20
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week24; Not working;n=18
11 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week24; Physical activity required;n=18
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week24; Sedentary;n=18
3 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week28; Not working;n=16
9 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week28; Physical activity required;n=16
2 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week28; Sedentary;n=16
5 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week32; Not working;n=20
11 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week32; Physical activity required;n=20
5 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week32; Sedentary;n=20
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week36; Not working;n=18
11 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week36; Physical activity required;n=18
3 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week36; Sedentary;n=18
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week40; Not working;n=15
7 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week40; Physical activity required;n=15
7 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week40; Sedentary;n=15
1 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week44; Not working;n=16
8 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week44; Physical activity required;n=16
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week44; Sedentary;n=16
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week48; Not working;n=15
7 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week48; Physical activity required;n=15
4 Participants
Number of Participants With Corresponding Activity Level Required to Complete Their Job
Week48; Sedentary;n=15
4 Participants

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

Average activity level during the time of wearing the sensor was reported by the participants, and was categorized as very low level activity, low level activity, moderate level activity and high level activity. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Pilot;Very low level activity;n=5
0 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Pilot; Low level activity; n=5
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Pilot;Moderate level activity;n=5
3 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Pilot;High level activity;n=5
0 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week0;Moderate level activity;n=25
14 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week0;High level activity;n=25
3 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week4;Very low level activity;n=23
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week4;Low level activity;n=23
9 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week4;Moderate level activity;n=23
11 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week4;High level activity;n=23
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week8;Very low level activity;n=21
0 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week8;Low level activity;n=21
11 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week8;Moderate level activity;n=21
9 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week8;High level activity;n=21
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week12;Very low level activity;n=20
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week12;Low level activity;n=20
11 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week12;Moderate level activity;n=20
6 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week12;High level activity;n=20
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week16;Very low level activity;n=18
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week16;Low level activity;n=18
9 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week16;Moderate level activity;n=18
8 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week16;High level activity;n=18
0 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week20;Very low level activity;n=20
0 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week20;Low level activity;n=20
14 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week20;Moderate level activity;n=20
5 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week20;High level activity;n=20
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week24;Very low level activity;n=18
0 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week24;Low level activity;n=18
10 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week24;Moderate level activity;n=18
7 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week24;High level activity;n=18
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week28;Very low level activity;n=16
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week28;Low level activity;n=16
10 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week28;Moderate level activity;n=16
3 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week28;High level activity;n=16
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week32;Very low level activity;n=20
4 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week32;Low level activity;n=20
10 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week32;Moderate level activity;n=20
4 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week32;High level activity;n=20
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week36;Very low level activity;n=18
3 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week36;Low level activity;n=18
9 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week36;Moderate level activity;n=18
3 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week36;High level activity;n=18
3 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week40;Very low level activity;n=15
3 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week40;High level activity;n=15
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week44;Very low level activity;n=16
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week44;Low level activity;n=16
8 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week44;Moderate level activity;n=16
6 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week44;High level activity;n=16
0 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week48;Very low level activity;n=15
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week48;High level activity;n=15
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Pilot repeat;Very low level activity;n=5
1 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Pilot repeat; Low level activity; n=5
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Pilot repeat;Moderate level activity;n=5
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Pilot repeat;High level activity;n=5
0 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week0;Very low level activity;n=25
2 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week0;Low level activity;n=25
6 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week40;Low level activity;n=15
7 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week40;Moderate level activity;n=15
4 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week48;Low level activity;n=15
7 Participants
Number of Participants With Corresponding Average Activity Level During Time of Wearing the Sensor
Week48;Moderate level activity;n=15
5 Participants

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Full Analysis Set

The participants reported whether the sensor fell off. Only those participants with data available at the specified time points were analyzed (represented by n=X in the category titles).

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Participants Whose Sensor Fell Off
Week 40;No; n=15
14 Participants
Number of Participants Whose Sensor Fell Off
Week 44;Yes; n=16
0 Participants
Number of Participants Whose Sensor Fell Off
Week 44;No; n=16
16 Participants
Number of Participants Whose Sensor Fell Off
Week 48;Yes; n=15
0 Participants
Number of Participants Whose Sensor Fell Off
Week 48;No; n=15
15 Participants
Number of Participants Whose Sensor Fell Off
Pilot;Yes;n=5
0 Participants
Number of Participants Whose Sensor Fell Off
Pilot;No;n=5
5 Participants
Number of Participants Whose Sensor Fell Off
Pilot Repeat;Yes;n=5
1 Participants
Number of Participants Whose Sensor Fell Off
Pilot Repeat;No;n=5
4 Participants
Number of Participants Whose Sensor Fell Off
Week 8; No; n=21
17 Participants
Number of Participants Whose Sensor Fell Off
Week 12; Yes;n=20
1 Participants
Number of Participants Whose Sensor Fell Off
Week 12;No;n=20
19 Participants
Number of Participants Whose Sensor Fell Off
Week 16;Yes; n=18
0 Participants
Number of Participants Whose Sensor Fell Off
Week 16;No; n=18
18 Participants
Number of Participants Whose Sensor Fell Off
Week 20; Yes; n=20
1 Participants
Number of Participants Whose Sensor Fell Off
Week 20; No; n=20
19 Participants
Number of Participants Whose Sensor Fell Off
Week 24;Yes; n=18
2 Participants
Number of Participants Whose Sensor Fell Off
Week 24;No; n=18
16 Participants
Number of Participants Whose Sensor Fell Off
Week 28;Yes; n=16
1 Participants
Number of Participants Whose Sensor Fell Off
Week 28;No; n=16
15 Participants
Number of Participants Whose Sensor Fell Off
Week 32;Yes; n=20
1 Participants
Number of Participants Whose Sensor Fell Off
Week 32;No; n=20
19 Participants
Number of Participants Whose Sensor Fell Off
Week 36;Yes; n=18
0 Participants
Number of Participants Whose Sensor Fell Off
Week 36;No; n=18
18 Participants
Number of Participants Whose Sensor Fell Off
Week 40;Yes; n=15
1 Participants
Number of Participants Whose Sensor Fell Off
Week 0; Yes; n=25
0 Participants
Number of Participants Whose Sensor Fell Off
Week 0; No; n=25
25 Participants
Number of Participants Whose Sensor Fell Off
Week 4; Yes;n=23
2 Participants
Number of Participants Whose Sensor Fell Off
Week 4;No; n=23
21 Participants
Number of Participants Whose Sensor Fell Off
Week 8; Yes; n=21
4 Participants

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Safety Population comprised of all participants who carried out at least one protocol specified procedure

Only those AEs and SAEs which, in the opinion of the investigator, were related to a protocol-mandated procedure or one of the devices used in the study were reported. An AE is any untoward medical occurrence in a participant or clinical investigation participant, temporally associated with the use of a medicinal product, whether or not considered related to the medicinal product. Any untoward event resulting in death, life threatening, requires hospitalization or prolongation of existing hospitalization, results in disability/incapacity, congenital anomaly/birth defect, any other situation according to medical or scientific judgment that may not be immediately life-threatening or result in death or hospitalization but may jeopardize the participant or may require medical or surgical intervention or event associated with liver injury and impaired liver function were categorized as SAE.

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Number of Participants With Adverse Events Secondary to the Devices Used or Due to Study Procedures
AEs
6 Participants
Number of Participants With Adverse Events Secondary to the Devices Used or Due to Study Procedures
SAEs
0 Participants

OTHER_PRE_SPECIFIED outcome

Timeframe: Up to Week 48

Population: Safety Population

Only those AEs and SAEs which, in the opinion of the investigator, were related to a protocol-mandated procedure or one of the devices used in the study were reported. An AE is any untoward medical occurrence in a participant or clinical investigation participant, temporally associated with the use of a medicinal product, whether or not considered related to the medicinal product. Any untoward event resulting in death, life threatening, requires hospitalization or prolongation of existing hospitalization, results in disability/incapacity, congenital anomaly/birth defect, any other situation according to medical or scientific judgment that may not be immediately life-threatening or result in death or hospitalization but may jeopardize the participant or may require medical or surgical intervention or event associated with liver injury and impaired liver function were categorized as SAE. Number of AEs, SAEs and Adverse events leading to discontinuation (AELDs)from the study is presented

Outcome measures

Outcome measures
Measure
Mega Faros Device + Fast Fix
n=25 Participants
In variable length Pilot Phase participants visited clinic to perform a series of set reference tasks while wearing the accelerometer (Faros device) and electrode (fast fix). Participants continuously wore the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). Participants in the Pilot Phase continued to participate in the Core Study Phase. A 48 week Core Study Phase was conducted to evaluate how measures of movement/physical activity, speech and Heart Rate Variability (HRV) relate to ALS disease progression. Participants attended clinic visits to perform gold standard measures of function and perform a series of set reference tasks while wearing the accelerometer and electrode. In between clinic visits, participants attached the accelerometer and electrode and wore it for approximately 3 days in their home.
Type of Adverse Events Secondary to the Devices Used or Due to Study Procedures
SAEs
0 Events
Type of Adverse Events Secondary to the Devices Used or Due to Study Procedures
AEs
6 Events

Adverse Events

Mega Faros Device + Fast Fix

Serious events: 0 serious events
Other events: 6 other events
Deaths: 0 deaths

Serious adverse events

Adverse event data not reported

Other adverse events

Other adverse events
Measure
Mega Faros Device + Fast Fix
n=25 participants at risk
During Pilot phase,subjects will attend clinic at least once to perform a series of set reference tasks while wearing the accelerometer and electrode. Subjects will also continuously wear the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visit (home monitoring). During 48 week Core Study, subjects will attend 5 clinic visits to perform gold standard measures of function (ALS Functional Rating Scale-Revised and Forced Vital Capacity) and perform a series of set reference tasks while wearing the accelerometer and electrode. Subjects will also continuously wear the accelerometer and electrode in their routine home-life setting for approximately 3 days after the clinic visits (home monitoring). In between clinic visits, subjects will attach the accelerometer and electrode and wear it for approximately 3 days in their home. A telephone contact with the subject will be made by the site at the end of each 3-day home monitoring period
Skin and subcutaneous tissue disorders
Dermatitis contact
16.0%
4/25 • On-treatment SAEs and non-serious AEs were collected from start of study treatment until Week 48.
On-treatment SAEs and non-serious AEs are reported for Safety Population
Skin and subcutaneous tissue disorders
Rash
8.0%
2/25 • On-treatment SAEs and non-serious AEs were collected from start of study treatment until Week 48.
On-treatment SAEs and non-serious AEs are reported for Safety Population
Skin and subcutaneous tissue disorders
Rash pruritic
4.0%
1/25 • On-treatment SAEs and non-serious AEs were collected from start of study treatment until Week 48.
On-treatment SAEs and non-serious AEs are reported for Safety Population
Skin and subcutaneous tissue disorders
Skin irritation
4.0%
1/25 • On-treatment SAEs and non-serious AEs were collected from start of study treatment until Week 48.
On-treatment SAEs and non-serious AEs are reported for Safety Population

Additional Information

GSK Response Center

GlaxoSmithKline

Phone: 866-435-7343

Results disclosure agreements

  • Principal investigator is a sponsor employee GSK agreements may vary with individual investigators, but will not prohibit any investigator from publishing. GSK supports the publication of results from all centers of a multi-center trial but requests that reports based on single-site data not precede the primary publication of the entire clinical trial.
  • Publication restrictions are in place

Restriction type: OTHER