150 results about "Spinal Nerve Disorders" patented technology

A method of treating a brain disorder by heat transfer from brain tissue comprising the steps of surgically cutting a heat transfer aperture into a patient's skull, thereby exposing a predetermined portion of patient's brain; surgically implanting into said heat transfer aperture a heat pump having one or more electrical sensor elements and one or more temperature sensor elements; surgically implanting a heat transfer management unit in a body cavity of said patient such that a micro controller of the heat transfer management unit is connected to one or more activity sensor elements and one or more temperature sensor elements contacting brain tissue and connecting the heat transfer management unit to said heat pump via a lead bundle. Optionally, the heat transfer unit may be located external to the patient's body. Responsive to signals from one or more activity or temperature sensor elements, mathematical algorithms of the heat transfer management unit determine abnormal brain activity, causing the heat pump to remove heat from the brain tissue into a heat sink, thereby cooling the predetermined portion of the patient's brain. This technique utilizes acute hypothermia by means of a Peltier cooler or similar device to cool the brain temperature to reduce or prevent seizure initiation and/or propagation. The method may be used in association with brain stimulation and/or drug application to acutely avoid the occurrence of a seizure episode.

A method and apparatus for removing harmful organic anions and proteins from a mammalian's ventricular cerebrospinal fluid in the treatment of brain disorders. One embodiment comprises using an implanted pump and filter system in conjunction with a drug or enzyme to clean and filter a patient's cerebrospinal fluid.

For real persons at risk for Alzheimer's disease, a neurodegenerative disease, or brain aging, a measurement's rate of change can be characterized during or following the real persons' treatment with disease-preventing or neurological age-slowing therapy. For hypothetical persons similar to the real persons at risk for these conditions but who are not so treated, the measurement's rate of change can be characterized over a like time interval. The disease-preventing or age-slowing therapy's efficacy is suggested by a smaller measurement rate of change over the like time interval in the real persons treated than in the hypothetical persons not so treated, even in the absence of clinical decline over the time interval. Measurements of neurodegenerative disease progression will have significantly higher rates of change in persons clinically affected by or at risk for the disease than in those persons at lower risk for the neurodegenerative disease.

Systems and methods for evaluating prospective treatments for progressive brain disorders like Alzheimer's disease and the progressive effects of aging involve the use of an imaging device communicatively coupled to a computing device. The imaging device may takes a plurality of brain imaging measurements from each of a plurality of human subjects who are divided into a treated group and an untreated group based on various subject data including whether the subjects carry certain alleles of genes known to increase the risk of developing the brain disorder at issue. The computing device receives the brain imaging measurements from the imaging device and applies an advanced processing method that permits enhanced computational efficiency when calculating rates of change for the two groups and determining whether any calculated difference between the rates is statistically significant.

Deep brain electrodes are remotely sensed and activated by means of a remote active implantable medical device (AIMD). In a preferred form, a pulse generator is implanted in the pectoral region and includes a hermetic seal through which protrudes a conductive leadwire which provides an external antenna for transmission and reception of radio frequency (RF) pulses. One or more deep brain electrode modules are constructed and placed which can transmit and receive RF energy from the pulse generator. An RF telemetry link is established between the implanted pulse generator and the deep brain electrode assemblies. The satellite modules are configured for generating pacing pulses for a variety of disease conditions, including epileptic seizures, Turrets Syndrome, Parkinson's Tremor, and a variety of other neurological or brain disorders.

The invention relates to a stable preparation of phosphatidylserine and a preparation method, application as well as an application product of the stable preparation. The preparation method comprises the following step of processing the phosphatidylserine through microencapsulation, micro-pelletization or liposome encapsulation. The stable preparation of the phosphatidylserine can be independently applied as a medicine or can be added into daily foods, drinks and health-care products, also has an important effect on health care of brains while guaranteeing the color and the taste of the daily foods and the drinks of people and is of great benefit to brain disorder such as nutritional supplement of brain development of students, overstrain of nerves of the adults, and memory loss, brain atrophy and senile dementia of the middle aged and elderly people.

This invention involves a compound that is used for improving brain functioning and/or treatment of brain disorders, made from the following raw materials: (1) one or more medicinal herbs from borax, radix isatidis, honeysuckle, fritillaria cirrhosa D. Don and thunbergii; (2) One or more medicinal herbs from dryobalanops aromatica gaertn. f., calculus bovis, moschus moschiferus L., liquidambar orientalis mill. and gum benzoin; (3) One or more medicinal herbs from cortex phellodendri, coptis chinensis Franch, scutellaria baricalensis, radix gentianae, sophora flavescens; (4) One or more medicinal herbs from baphicacanthus Rhizome and Root, calculus bovis, indigowoad leaf, taraxacum officnala, rhizome of the manyleaf Paris, wild chrysanthemum; and the free selection of (5) Chrysanthemum, folium mori, mint, arctium lappa. This invention also includes the manufacturing method, uses, and the medicinal preparation of the above compounds.

The present invention is directed to a method for delivering agents to the central nervous system by way of a tissue innervated by the trigeminal nerve that is outside the nasal cavity. Such a method of delivery can be useful in the treatment of central nervous system and/or brain disorders.

One or more cannabinoids and/or terpenes in combination with psilocybin and/or psilocin may be used in the prevention or treatment of psychological or brain disorders. The one or more cannabinoids may be taken from the group of cannabidiol (CBD); cannabidiolic acid (CBDA); tetrahydrocannbidivarin (THCV); tetrahydrocannbidivarinin acid (THCVA); cannabichromene (CBC); cannabichromenic acid (CBCA); cannabigerol (CBG) and cannabigerolic acid (CBGA).

The present invention relates to a dynamic brain function detection method and system synchronous with transcranial magnetic stimulation. The system comprises a transcranial magnetic stimulation device for magnetically stimulating a targeted brain region of a subject to achieve a purpose of activating or inhibiting functions of a corresponding brain region; a functional near-infrared spectrometerfor collecting brain blood oxygen signals of the targeted brain region of the subject and other function connection related brain blood oxygen signals; an analysis module for analyzing blood oxygen signals of multiple-frequency bands of the brain blood oxygen signals; and a synchronous marking module for synchronously marking a stimulation moment in near infrared time domain signals when the transcranial magnetic stimulation (TMS) device starts to perform magnetic stimulation so as to instantly collect changes of the blood oxygen signals when the magnetic stimulation starts. The method provides a feasible scheme for researching brain disorder and cortical changes caused by the TMS and can also objectively measure an effect of the transcranial magnetic stimulation on different regions of abrain on a premise that the effect of the transcranial magnetic stimulation on the different regions of the brain cannot be quantified.

Aspects of this invention are related, at least in part, to the use of chemical compounds able to inhibit GSK-3 and/or to stabilize β-catenin and formulations thereof. Some aspects of this invention relate to compositions comprising such compounds. Some aspects of the invention provide methods of using such compounds and/or compositions in the treatment of subjects having a neurological disease and/or psychiatric disorder. Some aspects of this invention provide methods of using ruboxistaurin, enzastaurin, sunitinib, midostaurin, lestaurtinib, 7-hydroxystaurosporine, and/or Chir99021 in the treatment of subjects having a neurological disease and/or psychiatric disorder. In some embodiments, compounds are administered in combination with Lithium.

A method of qualifying a mesenchymal stem cell (MSC) population is disclosed. The method comprises:

• • (a) ex vivo differentiating a population of mesenchymal stem cells originating from the subject towards a first lineage-specific cell, the first lineage-specific cell being associated with a brain disease;
  • (b) ex vivo differentiating a population of mesenchymal stem cells originating from a healthy subject towards the first lineage-specific cell;
  • (c) comparing an effect of the first lineage specific cell derived from the subject with an effect of the first lineage specific cell derived from the healthy subject on a second lineage specific cell associated with the brain disease, wherein a difference in the effect above or below a predetermined level is indicative of a qualification of a mesenchymal stem cell population for cell therapy of said brain disease.

Methods and systems for determining whether brain tissue is indicative of a disorder, such as a neurodegenerative disorder, are provided. The methods and systems generally utilize data processing techniques to assess a level of congruence between measured parameters obtained from magnetic resonance imaging (MRI) data and simulated parameters obtained from computational modeling of brain tissues.