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Rehabilitation after Stroke

Neuro-MSX

  • proved effectiveness for rehabilitation in movement disorders*
  • non-invasive and painless procedure
  • reliable solution for everyday intensive work
  • pre-defined treatment protocols
  • breakthrough cooling system
Rehabilitation after Stroke

Description

Proved effectiveness for rehabilitation in movement disorders

Transcranial magnetic stimulation (TMS) is a valuable diagnostic and therapeutic technique recommended for wide application in neurorehabilitation of patients with different disorders.

TMS can be used for recovery of motor function after spinal (injury, myelitis) or hemispherical (stroke, injury, etc.) condition.

Application: stroke, spasticity, pain, migraine, Parkinson disease, tinnitus, dystonia, essential tremor, Tourette syndrome, amyotrophic lateral sclerosis, multiple sclerosis, epilepsy, Alzheimer disease.

Non-invasive and painless procedure

If compared to electrical stimulation, transcranial magnetic stimulation does not cause painful sensations that usually occur due to activation of skin receptors under the electrode and does not require additional preparation time. At that, session lasts from just 40 seconds to 30 minutes depending on the selected protocol.

Reliable solution for everyday intensive work

Neuro-MSX magnetic stimulators ensure deep focused stimulation of the brain providing long-term therapeutic effect.

Neuro-MSX is not only ultimate effectiveness but a carefully thought-out performance. Neurosoft magnetic stimulators are popular choice of healthcare professionals across the world — those who value reliability, safety and time.

Pre-defined treatment protocols

Purchasing Neuro-MSX magnetic stimulator, you get the advanced software with the set of pre-defined protocols for treatment of neurological and psychiatric disorders according to the International Federation of Clinical Neurophysiology (IFCN) recommendations. Enhanced software functionality allows you to save considerable time when performing TMS.

Breakthrough cooling system

Several thousands of pulses are usually delivered within one treatment session. The delivery of a large number of pulses may lead to coil overheating, that is why it’s important to ensure timely and effective coil cooling.

Thanks to the breakthrough cooling system, you can perform stimulation using any treatment protocol not wasting time for coil cooling between the sessions.

** Lefaucheur J. P. et al. Evidence-based guidelines on the therapeutic use of repetitive transcranial magnetic stimulation (rTMS): An update (2014–2018) // Clinical Neurophysiology. — 2020.

Delivery Set

The delivery set can differ from country to country. Request the actual delivery set for your country from your local representative.

Neuro-MS/D main unit1 pcs.
Neuro-MS/D cooling unit1 pcs.
Neuro-MS/D extra power supply unit1 pcs.
End cap1 pcs.
Patient cap (size 42-54)10 pcs.
Patient cap (size 54-66)10 pcs.
Silicone oil (canister, 3 l)1 pcs.
AFEC-02-100-C cooled angulated figure-of-eight coil, 100 mm (cable 1,5 m, for Neuro-MS/D)1 pcs.
Hydraulic system adapter for coil connection to Neuro-MS/D cooling unit2 pcs.
Control cable cooling unit1 pcs.
HV cable for extra power supply unit connection to Neuro-MS/D1 pcs.
Equipotential cable2 pcs.
Monitor-computer cable (220 V, 1.8 m, 3х0.75)1 pcs.
SCZ-1 mains supply cable2 pcs.
USB cable (A-B)1 pcs.
K-3 flexible arm for coil positioning1 pcs.
K-8 coil holder (trolley/wall mounted)1 pcs.
T-4/А trolley1 pcs.
NS4D 42006 3/8" quick connect coupling1 pcs.
Technical Manual «Neuro-MS/D»1 pcs.
Warranty certificate1 pcs.
Technical Manual «Coils for Magnetic Stimulators»1 pcs.
User manual «Neuro-MS.NET » (ver.2)1 pcs.
''Transcranial Magnetic Stimulation'' handbook by Moacyr Alexandro Rosa and Marina Odebrecht Rosa1 pcs.
Package2 pcs.
Package1 pcs.
Screwdriver1 pcs.
License for Neuro-MS.NET software1 pcs.

Options

Useful

  • Michael A. Dimyan et al. Contribution of Transcranial Magnetic Stimulation to the Understanding of Functional Recovery Mechanisms After Stroke. Neurorehabilitation and Neural Repair 24(2) 125–135.