Analysis of the Magnetic Tape Bandage on Respiratory Functional Effects.

Study Results

Results pending

The study team has not published outcome measurements, participant flow, or safety data for this trial yet. Check back later for updates.

Basic Information

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Recruitment Status

UNKNOWN

Clinical Phase

NA

Total Enrollment

31 participants

Study Classification

INTERVENTIONAL

Study Start Date

2022-04-01

Study Completion Date

2022-12-31

Brief Summary

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Invasive mechanical ventilation (IMV) is the mainstay of supportive care in acute respiratory failure. However, maintaining ventilatory support beyond what is necessary may increase the risk of nosocomial infections, favour respiratory muscle atrophy, prolong ICU stay and increase hospital costs. Similarly, premature withdrawal of ventilatory support may increase ICU patient mortality by requiring reintubation. The MV weaning process is nothing more than the set of procedures that lead to the restoration of normal ventilation of the patient, freeing him/her from ventilatory support and eventually also from an artificial airway. This is a gradual process that can take a significant amount of hospitalisation time, so much so that it could even correspond to 40% of the entire period of ventilatory support. Currently, the process of disconnection from IMV is based on the performance of a spontaneous ventilation test (SVT) either with an unsupported oxygen source or with low ventilator support , with a duration of 30 to 120 minutes.

One of the causes that may condition the viability of SVT is respiratory muscle weakness, which may be ventilator-induced. This condition is a syndrome characterised by the appearance of diffuse and symmetrical muscle weakness affecting 26-65% of patients mechanically ventilated for more than 5 days. Muscle wasting has been demonstrated by ultrasonography with an 18% reduction in the cross-sectional area of the rectus femoris muscle on the 10th day of evolution. This syndrome is associated with an increase in mechanical ventilation time and a 2 to 5-fold increase in mortality. Based on the above, the assessment of respiratory muscle strength should form part of the disconnection protocols of our units. The most studied parameters that provide us with information on patient readiness to face this process are f/Vt, PIM and P(O.1). Recently, the study of the diaphragm by ultrasonography is becoming a valid alternative technique for the study of the state of the muscle most involved in spontaneous breathing.

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Detailed Description

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Invasive mechanical ventilation (IMV) is the mainstay of supportive care in acute respiratory failure. However, maintaining ventilatory support beyond what is necessary may increase the risk of nosocomial infections, favour respiratory muscle atrophy, prolong Intensive Care Units (ICU) stay and increase hospital costs. Similarly, premature withdrawal of ventilatory support may increase ICU patient mortality by requiring reintubation. The Mechanical Ventilation (MV) weaning process is nothing more than the set of procedures that lead to the restoration of normal ventilation of the patient, freeing him/her from ventilatory support and eventually also from an artificial airway. This is a gradual process that can take a significant amount of hospitalisation time, so much so that it could even correspond to 40% of the entire period of ventilatory support. Currently, the process of disconnection from IMV is based on the performance of a spontaneous ventilation test (SVT) either with an unsupported oxygen source or with low ventilator support , with a duration of 30 to 120 minutes.

One of the causes that may condition the viability of SVT is respiratory muscle weakness, which may be ventilator-induced. This condition is a syndrome characterised by the appearance of diffuse and symmetrical muscle weakness affecting 26-65% of patients mechanically ventilated for more than 5 days. Muscle wasting has been demonstrated by ultrasonography with an 18% reduction in the cross-sectional area of the rectus femoris muscle on the 10th day of evolution. In addition, this syndrome is associated with an increase in mechanical ventilation time and a 2 to 5-fold increase in mortality. Based on the above, the assessment of respiratory muscle strength should form part of the disconnection protocols of our units. The most studied parameters that provide us with information on patient readiness to face this process are f/Vt, Inspiratory Maximum Pressure (IMP) and Airway Occlusion Pressure P(O.1). Recently, the study of the diaphragm by ultrasonography is becoming a valid alternative technique for the study of the state of the muscle most involved in spontaneous breathing.

Magnetic Tape® is an elastic adhesive bandage with a longitudinal elongation of 50-60% designed to facilitate the process of metameric normalisation by producing physical ionisation when it comes into contact with electromagnetic fields such as those produced in the skin thanks to the formulation of cations (+ ions) and anions (- ions) that it incorporates per square centimetre, acting both polarities (positive and negative) indistinctly and uninterruptedly at the same time, painless and non-invasive, stimulating the cutaneous receptors and nerves, allowing neural stimulation. The electromagnetic field acts as the vehicle to induce the flow of ions (physical ionisation) and does not stimulate the nerve tissue itself as electrical stimulation does directly. However, once the ion flow is created, the mechanism of electrical and magnetic stimulation at the neural level is the same, producing depolarisation of the axon and initiation of the action potential.

The skin is the largest sensory organ in the body and is highly innervated. The nerve fibres it contains are the dendritic limbs of sensory neurons whose cell bodies are located in the dorsal root ganglia.

The main effects studied so far are: 1) It provides a considerable, significant and immediate change in the improvement of joint Range of Movement (ROM); 2) It produces a decrease or elimination of perceived pain in all phases of therapeutic action such as prevention, treatment, recovery, readaptation or performance; 3) It helps to normalise the autonomic nervous system; 4) It normalises the body's dermal temperature; 5) It helps to reduce the collection of liquid after a contusion or fall; 6) It helps to produce myo-normalisation either by relaxation or stimulation; 7) It helps to improve the symptoms caused by scar adhesions.

We consider it interesting, as a starting point in the field of medicine, to present this work and evaluate the effect of Magnetic Tape on the respiratory musculature and, therefore, on the parameters most commonly used for the evaluation of the same in ventilated patients who are going to undergo a Spontaneus Ventilation Test (SVT).

Conditions

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Airway Extubation

Study Design

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Allocation Method

NA

Intervention Model

SINGLE_GROUP

Primary Study Purpose

TREATMENT

Blinding Strategy

NONE

Study Groups

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MagneticTape group

The Magnetic Tape bandage will be placed by the patient's care team and will be placed in the anterior superior part of each hemithorax, matching the large vessels and lymph nodes, in the posterior part of the thorax in the paravertebral area from C3 to T9 and in the subcostal region, following the direct innervation of the thorax and shoulder girdle, as well as the dorsal levels with lateral horns that control the vascularisation of the thorax and shoulder girdle.

Group Type EXPERIMENTAL

Magnetictape bandage application

Intervention Type OTHER

The Magnetic Tape bandage will be placed by the patient's care team and will be placed in the anterior superior part of each hemithorax, matching the large vessels and lymph nodes, in the posterior part of the thorax in the paravertebral area from C3 to T9 and in the subcostal region, following the direct innervation of the thorax and shoulder girdle, as well as the dorsal levels with lateral horns that control the vascularisation of the thorax and shoulder girdle.

Interventions

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Magnetictape bandage application

The Magnetic Tape bandage will be placed by the patient's care team and will be placed in the anterior superior part of each hemithorax, matching the large vessels and lymph nodes, in the posterior part of the thorax in the paravertebral area from C3 to T9 and in the subcostal region, following the direct innervation of the thorax and shoulder girdle, as well as the dorsal levels with lateral horns that control the vascularisation of the thorax and shoulder girdle.

Intervention Type OTHER

Eligibility Criteria

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Inclusion Criteria

* All patients who have received IMV for more than 48 hours and are intended to start the ventilator weaning process.

Exclusion Criteria

* Adequate oxygenation (SatO2\>90% or PaO2\>60mmHg, FiO2\<0.4 and PEEP \<7).
* Patients under deep sedation+/- muscle relaxation
* Patients in need of OTI due to structural alterations of the central nervous system
* Patients with a history of previously known neurological disease
* Patients with wounds or burns in the paravertebral region, interscapular or subcostal region
* Patients with active oncological disease
* Patients with contraindication for exposure to electromagnetic fields
* Patients under 18 years of age.

Minimum Eligible Age

18 Years

Eligible Sex

ALL

Accepts Healthy Volunteers

No