Changing stroke rehab and research worldwide now.Time is Brain! trillions and trillions of neurons that DIE each day because there are NO effective hyperacute therapies besides tPA(only 12% effective). I have 523 posts on hyperacute therapy, enough for researchers to spend decades proving them out. These are my personal ideas and blog on stroke rehabilitation and stroke research. Do not attempt any of these without checking with your medical provider. Unless you join me in agitating, when you need these therapies they won't be there.

What this blog is for:

My blog is not to help survivors recover, it is to have the 10 million yearly stroke survivors light fires underneath their doctors, stroke hospitals and stroke researchers to get stroke solved. 100% recovery. The stroke medical world is completely failing at that goal, they don't even have it as a goal. Shortly after getting out of the hospital and getting NO information on the process or protocols of stroke rehabilitation and recovery I started searching on the internet and found that no other survivor received useful information. This is an attempt to cover all stroke rehabilitation information that should be readily available to survivors so they can talk with informed knowledge to their medical staff. It lays out what needs to be done to get stroke survivors closer to 100% recovery. It's quite disgusting that this information is not available from every stroke association and doctors group.

Friday, October 9, 2026

New Research Review Highlights Potential Sleep Benefits of Pistachios

 What is your incompetent? doctors EXACT PROTOCOL ON NUTS?
Doesn't have one; PURE INCOMPETENCE!

Your incompetent? doctor failed to create protocols from all this earlier research, right?

The latest here:

New Research Review Highlights Potential Sleep Benefits of Pistachios

Global Leaders Meet to Discuss Equitable Access to Life-Saving Mechanical Thrombectomy, Acute Stroke Care

 

Big fucking whoopee.

 

  You delivered NOTHING that gets survivors recovered! 'Care' doesn't deliver recovery you blithering idiots! There is NO leadership anywhere in stroke. How many funerals need to occur before we get great stroke leadership?

Hope you enjoy NOT RECOVERING from your stroke when you become the 1 in 4 per WHO that has a stroke.  Everyone at this is TOTALLY FUCKING INCOMPETENT!

'Care' NOT RECOVERY! I'd have you all fired!

Global Leaders Meet to Discuss Equitable Access to Life-Saving Mechanical Thrombectomy, Acute Stroke Care

"From Resolution to Action: Investing in Acute Stroke Care" took place during United Nations General Assembly week. The meeting focused on translating global commitments on stroke into concrete improvements in prevention, acute treatment, rehabilitation and access to care(NOT RECOVERY!).

Global Leaders Meet to DIscuss Equitable Access to Life-Saving Mechanical Thrombectomy, Acute Stroke Care

Oct. 8, 2026 — Government officials, global health leaders, clinicians, patient advocates, professional societies and industry partners gathered during United Nations General Assembly week for "From Resolution to Action: Investing in Acute Stroke care(NOT RECOVERY!)," a convening focused on translating global commitments on stroke into concrete improvements in prevention, acute treatment, rehabilitation and access to care(NOT RECOVERY!). The September 22 reception was convened through the Society of Vascular and Interventional Neurology's (SVIN) Mission Thrombectomy in partnership with the Business Council for International Understanding (BCIU), Philips and Medtronic Neurovascular. 

SVIN Stroke Conference
Photo: Society of Vascular and Interventional Neurology

The event brought together representatives from leading international cardiovascular, stroke, neurointerventional and global neurosurgical organizations, including the American Heart Association (AHA), World Stroke Organization (WSO), World Federation of Interventional and Therapeutic Neuroradiology (WFITN), Society of NeuroInterventional Surgery (SNIS), and International Society for Global Neurosurgery (ISGNS), alongside Ministries of Health and other global health stakeholders. Together, they brought perspectives spanning public health, stroke systems, neurointervention, global neurosurgery, policy, and implementation.

From Resolution to Action

The gathering came at a pivotal moment for global stroke policy. WHA79.10, adopted by the World Health Assembly in May, represents a landmark global commitment to addressing stroke comprehensively, including prevention, acute care(NOT RECOVERY!), rehabilitation, and health-system readiness.

Importantly, WHA79.10 was championed by the Egyptian Ministry of Health and Population, with support from the Global Stroke Action Coalition (GSAC), a coalition comprising global organizations and industry leaders dedicated to advancing stroke prevention, treatment, rehabilitation, and access to care(NOT RECOVERY!) worldwide. The resolution represents an important example of how governments, professional organizations, patient advocates, and industry can work together to elevate stroke on the global health agenda.

The discussion centered on a fundamental challenge: scientific advances have made highly effective stroke treatments possible, including mechanical thrombectomy for large-vessel occlusion, but millions of eligible patients worldwide still cannot access these treatments in time.

Strokenomics: Investing in Recovery

Dr. Fawaz Al-Mufti, Global Chair, SVIN-Mission Thrombectomy, opened the clinical discussion with "The Clinical and Economic Case for Acute Stroke Treatment," highlighting the extraordinary effectiveness of mechanical thrombectomy for eligible patients with large-vessel occlusion stroke. 

Drawing on global data and an economic analysis spanning six countries, Al-Mufti emphasized that investing in access to thrombectomy can represent a fraction of the societal cost associated with stroke-related disability.

"We are already paying for stroke," said Al-Mufti. "The question is whether we choose to pay for recovery today or disability for years to come. A timely thrombectomy can offset a lifetime of disability and its associated costs. We need to stop viewing thrombectomy simply as a procedural expense and recognize access to effective stroke treatment as an investment in people, families and national capacity."

A Riveting Stroke Story of Resilience

The patient perspective was brought into sharp focus by Margaret O'Neil Wheeler, who shared a moving account of resilience and fortitude following a large-vessel-occlusion stroke. Accompanied by her husband, whose prompt recognition and action helped get her to life-saving care(NOT RECOVERY!) in time, Wheeler was reunited at the event with Dr. Fawaz Al-Mufti, who performed her emergency mechanical thrombectomy at Westchester Medical Center. Their reunion put a human face on the numbers, offering a powerful reminder of what timely access to advanced stroke care(NOT RECOVERY!) can mean: not simply survival, but recovery, independence, and the opportunity to return to life after stroke.

From Global Advocacy to Global Access

Dr. Dileep Yavagal, Founder and Global Chair Emeritus, SVIN-Mission Thrombectomy, followed with "From Global Advocacy to Global Action."

Yavagal described stroke as a "long neglected pandemic" and emphasized that solving the global access gap requires more than simply building additional thrombectomy centers. Sustainable systems require public and pre-hospital education, government advocacy, technology, financing, trained teams, and implementation strategies tailored to individual countries.

"We have crossed the scientific frontier - we know thrombectomy can profoundly alter the course of a devastating stroke," said Yavagal. "The frontier before us now is access."

Turning Recognition Into Action

The urgency expressed at the convening reflects a broader commitment from SVIN leadership to translate scientific progress and global policy recognition into measurable improvements in stroke care(NOT RECOVERY!) worldwide.

Santiago Ortega-Gutierrez, MD, President of the Society of Vascular and Interventional Neurology, framed this as a responsibility for SVIN and the broader stroke community:

"Stroke does not respect borders, and access to life-saving treatment should not be determined by where a patient lives. The science is clear, the therapies exist, and the global community has recognized stroke as an urgent health priority. Our responsibility now is to turn that recognition into action. Through Mission Thrombectomy, SVIN is committed to measurable progress in access, treatment, and recovery—with the goal that every eligible patient has a meaningful opportunity to survive stroke without preventable disability."

Kaiz Asif, MD, Vice Chair of SVIN–Mission Thrombectomy, focused on the ultimate measure of that progress: whether treatment reaches patients:

"Recognition is important, but ultimately our success will be measured by access. Our goal is to translate this global momentum into a simple reality: that more patients, regardless of where they live, can reach life-saving thrombectomy in time."

Robin Novakovic-White, MD, President-Elect of the Society of Vascular and Interventional Neurology, emphasized the collaboration required to translate scientific advances into equitable access:

"The science has given us the ability to dramatically change the outcome of a devastating stroke. The next challenge is ensuring that this opportunity is not defined by geography or resources. That will require sustained collaboration among clinicians, health systems, governments, and communities to translate what we know into meaningful access for patients worldwide."

Building Systems 

Industry partners underscored that innovation must be accompanied by the systems required to deliver treatment.

"Innovation alone is not enough. Devices and therapies make a meaningful difference only when patients can reach the right facility, receive timely diagnosis, and be treated by trained teams within an integrated system of care(NOT RECOVERY!)," said Signe Haughton, Senior Director of Medical, Government, & Societal Affairs and Chief of Staff at Medtronic Neurovascular

Philips emphasized the role of connected technologies and workflows:

"For people experiencing stroke, every minute matters. Better-connected data, technologies, and clinical workflows can help healthcare professionals make timely decisions, support rapid diagnosis and appropriate treatment, and expand access to the right care(NOT RECOVERY!) when patients need it most," said Felipe Basso, Chief Executive Officer, Latin America, Philips.

What Implementation Can Look Like

Dr. Mohamed Fawzi, Radiology Advisor to the Minister of Health and Population, Ministry of Health and Population, Arab Republic of Egypt, provided a country perspective on building a national stroke system.

Egypt's progress includes 206 stroke units and centers, 58 certified through GAHAR, free thrombolysis, reimbursement for thrombectomy, approval of tenecteplase, and a prehospital hotline linking approximately 100 hospitals. A national electronic stroke registry is also being launched, with plans to expand the network to 440 units, strengthen certification, establish a national rehabilitation pathway, and publish national treatment rates and treatment times.

The message emerging from the convening was clear: a resolution creates momentum; implementation is what changes outcomes for patients.

The science exists. The therapies exist. The opportunity now is to build the systems that ensure every eligible patient - regardless of geography or resources - can reach life-saving stroke treatment in time.

To learn more about the meeting,  go to www.svin.org/

FDA sees promise in remote robotic-assisted stroke device

 With NO RECOVERY RESULTS mentioned; how do you tell if it even works?

Not telling us RECOVERY RESULTS is incompetence!

“What's measured, improves.” So said management legend and author Peter F. Drucker !   
If you don't measure it, you can't improve it and make it repeatable! 

FDA sees promise in remote robotic-assisted stroke device


XCath Robotics has received the FDA's breakthrough device designation for its Iris surgical robotic system that performs remote robotic-assisted mechanical thrombectomy in acute ischemic stroke patients.

This represents a significant step forward for the Houston-based medtech company. The FDA's breakthrough devices drogram helps support the development of medical devices that have the potential to provide more effective treatment for patients with life-threatening or irreversibly debilitating conditions. This provides XCath Robotics with more opportunities to interact with FDA experts and receive support as the company works toward U.S. regulatory approval for the Iris system.

Back in March, the Iris system was used to complete the world’s first telerobotic stroke thrombectomy. Neurosurgeon Vitor Mendes Pereira, MD, chair of advanced neurovascular interventions at the University of Toronto, used the system to perform the historic procedure in Santiago, Panama, while the patient was 120 miles away in Panama City.

XCath Robotics said the Iris technology could open the door to breaking down the geographic barriers to specialist stroke care. Mechanical thrombectomy is widely regarded as the gold standard treatment for patients suffering a large vessel occlusion (LVO) stroke, which is the deadliest and most disabling type of ischemic stroke. However, access to the procedure remains limited outside of major cities, both in the U.S. and internationally.

The global median rate of access to mechanical thrombectomy is only about 2.79%. LVO strokes, similar to heart attacks, have a limited window for treatment before irreversible damage is caused as brain tissues dies. About 77% of patients either die or are left with severe disability.

The U.S. government has recently shown interest in expanding access to robotic stroke thrombectomy. This includes funding through the Advanced Research Projects Agency for Health (ARPA-H) to accelerate the development of an autonomous, remote endovascular robotic system that perform mechanical thrombectomy on stroke patients. Siemens Healthineers was awarded $31.1 million to accelerate the development of an autonomous, remote endovascular robotic system that can perform thrombectomy on stroke patients. Philips Healthcare was also awarded $33.7 million to develop an autonomous robotic system with partners Johns Hopkins University, Boston University and Weill Cornell Medicine.

Related Robotic Content:

Scientists identify a potential new treatment for vascular dementia

 You may need this, does your competent? doctor even know about it?

1. A documented 33% dementia chance post-stroke from an Australian study?   May 2012.

2. Then this study came out and seems to have a range from 17-66%. December 2013.`    

3. A 20% chance in this research.   July 2013.

4. Dementia Risk Doubled in Patients Following Stroke September 2018 

Scientists identify a potential new treatment for vascular dementia


Researchers with the University of Arizona College of Medicine – Tucson are hoping a small peptide born in a laboratory can be a game-changer for the treatment of patients presenting with vascular dementia.

There are currently no real treatments for vascular dementia other than making lifestyle changes. The group behind this research hopes they can change that forever.

“Patients are in desperate need of an effective treatment, and we are doing everything we can to help find that treatment,” Meredith Hay, PhD, a professor of physiology with the college and co-inventor of this peptide, said in a statement. “The greatest reward would be to see a safe and effective treatment for people who currently have very few options.”

Hay and her team have been examining the potential of this peptide , PNA5, for more than a decade at this point. When it enters the brain, it triggers chemical reactions that increase oxygenation(This would seem very important in stroke to try to save as many neurons as possible in the hyperacute stage! If your doctor doesn't even know about this; PURE INCOMPETENCE!) and decrease inflammation. PNA5 has already been shown to improve blood flow and target inflammation in a way that improves cognitive performance—now the goal is to see if this can help treat vascular dementia.

“Inflammation is part of the body's natural repair system,” Hay explained. “If you have an injury, inflammation helps the healing process. The problem occurs when inflammation does not switch off. In vascular dementia, the brain's resident immune signals can remain activated.”

Hay’s team is currently planning to kick off a new clinical trial funded by a $9 million grant from the National Institute on Aging. For this study, 60 healthy volunteers will receive injections of PNA5 at different doses to evaluate the peptide’s safety. If that trial is a success, additional research could be underway by late 2027. 

After helping invent PNA5, Hay co-founded a startup, ProNeurogen, focused on the development and potential commercialization of the small peptide. In the same statement, she shared the satisfaction she has felt seeing PNA5 continue to gain more momentum in recent years.

“The most rewarding part is seeing a basic scientific observation move toward something that could eventually help patients and families—that's what gets me up every day," she said. "It's exciting, but also very humbling.”

Related Neurovascular Content:

Gait impairment characterization in hereditary spastic paraplegia using foot-mounted IMU sensors

 Does your doctor have ANY BRAINS AT ALL  to see that this could provide an objective gait analysis so protocols could be mapped to fix the problems? 

NO! So COMPLETELY FUCKING INCOMPETENT,  along with the hospital and board of directors!

Gait impairment characterization in hereditary spastic paraplegia using foot-mounted IMU sensors

Gait impairment characterization in hereditary spastic paraplegia using foot-mounted IMU sensors

    We’re sharing this article early to provide faster access to peer-reviewed, accepted research. It is citable and carries a permanent DOI. This version is subject to further edits and will be replaced automatically by the final Version of Record. All legal disclaimers apply.

    Abstract

    Measurement of neurologic function is critical for diagnosis, prognosis, and clinical trials. Wearable inertial measurement units (IMUs) offer a compact and unobtrusive sensing method to capture spatio-temporal gait data in clinic and non-clinic environments. We used validated IMU-based algorithms to extract spatiotemporal and inertial gait features in 53 patients with Hereditary Spastic Paraplegia (HSP) (43 UHSP, 10 CHSP), drawn from a cohort of 69 enrolled subjects after excluding trials with incomplete or corrupted data. Classification models were trained to distinguish between uncomplicated (UHSP) and complicated (CHSP) diagnoses of HSP using two feature sets: i) a spatiotemporal (ST) feature set associated to stride length, width, duration, and speed, and ii) a spatiotemporal and inertial (STI) feature set associated with swing acceleration and angular velocity. STI features showed statistically significant differences between UHSP and CHSP patient cohorts and improved classification performance relative to classifiers trained with ST features alone: a linear support vector machine trained on STI features achieved 86.8% accuracy, 70.0% CHSP recall, and an AUC of 0.77 under leave-one-subject-out cross-validation, compared to 73.6% accuracy and an AUC of 0.65 for the same model trained on ST features only. These findings highlight the utility of wearable IMUs for detailed gait assessment and underscore the potential of STI features to capture gait impairment associated with HSP diagnostic subtype beyond what spatiotemporal metrics alone provide. Given the small, imbalanced complicated-HSP sample (n=10), these estimates carry wide confidence intervals and should be interpreted as preliminary. IMU-based approaches provide a scalable and portable tool for evaluating neurologic gait disorders that merits validation in larger cohorts.

    Directional EMG patterns reveal impairment-related disruptions in upper-limb force control after stroke

     

    Big fucking whoopee.

     

      You delivered NOTHING that gets survivors recovered!

    Hope you enjoy NOT RECOVERING from your stroke when you become the 1 in 4 per WHO that has a stroke.  

    Directional EMG patterns reveal impairment-related disruptions in upper-limb force control after stroke

      We’re sharing this article early to provide faster access to peer-reviewed, accepted research. It is citable and carries a permanent DOI. This version is subject to further edits and will be replaced automatically by the final Version of Record. All legal disclaimers apply.

      Abstract

      Background

      Hemiparetic stroke disrupts upper-limb motor control, leading to direction-specific deficits and abnormal compensatory strategies. By quantifying the angular range and preferred direction of muscle activation, directional electromyography (EMG) analysis has shown altered directional tuning in stroke survivors. However, it remains unclear how impairment severity affects direction-specific difficulty and compensation, and how these disruptions change with force level and task direction. This study used directional EMG mapping during a multi-directional isometric task at varying force levels to examine these issues in detail.

      Methods

      Eight chronic stroke survivors performed isometric force-matching tasks in eight directions (0°–315° at 45° intervals) in the plane orthogonal to the forearm at 20%, 40%, and 60% of maximum voluntary contraction (MVC) using a wrist fixture. All forces and torques applied to the fixture and surface EMG from eight upper-limb muscles were recorded. For each muscle, EMG vectors were calculated using EMG amplitudes and actual force directions to analyze directional tuning and angular concentration. Task accuracy was quantified as the angular error between the target and actual force directions, and compensatory strategies were estimated from off-axis forces and torques. Generalized linear mixed-effects models were applied to these metrics to examine the effects of force magnitude, task direction, and their interactions. Spearman correlations were used to assess muscle coactivation and the relationship between impairment severity, based on Fugl-Meyer Assessment in Upper Extremity (FMA-UE), and task accuracy.

      Results

      Severely impaired participants showed restricted force generation in lateral directions, and activation tuning constrained to a narrow medial range. These disruptions accompanied larger angular errors, which were negatively correlated with FMA-UE scores. Greater force demands progressively recruited the deltoid muscles, indicating significant directional tuning; however, task accuracy changed in a direction-specific manner, improving in some directions and deteriorating in others. Increasing force demand also produced direction-specific shifts in off-axis forces and torques that diverged from classic flexor/extensor synergies, suggesting enhanced shoulder-driven control that may promote more independent joint control. Coactivation analysis showed potential joint-stabilizing coactivation within the deltoids and triceps in nearly all directions. In contrast, severe impairment was associated with fewer significant coactivation pairs and loss of biceps–brachioradialis coupling.

      Conclusions

      These findings suggest that directional control deficits and compensatory strategies after stroke are modulated by complex interactions among impairment severity, force magnitude, and task direction, creating patient-specific vulnerable zones. Directional EMG mapping provides quantifiable directional targets that may be useful for designing personalized rehabilitation interventions.

      Trial registration This study was retrospectively registered at ClinicalTrials.gov (NCT07113457) on 08 August 2025.

      Meet PLUTO, IIT Madras robot that carries stroke therapy to patient bedside

       What hand robotics does your competent? hospital currently have? NOTHING I BET! PURE INCOMPETENCE!

      Meet PLUTO, IIT Madras robot that carries stroke therapy to patient bedside

      IIT Madras's R2D2 lab and CMC Vellore built PLUTO-H, a portable, gamified robot that brings hand therapy to stroke patients at the bedside or at home.

      IIT Madras's R2D2 lab has built a robot that takes stroke hand therapy to the patient, with games that adapt to the patient's recovery. (Photo: IIT Madras via special arrangement)
       Radifah Kabir Chennai, UPDATED: Oct 8, 2026 18:55 IST In the films, he is the smallest hero in the galaxy. R2-D2 is a barrel-shaped droid who speaks only in beeps and whistles. Yet whenever the rebels land in trouble, it is he who rolls forward, plugs into the nearest port and sets the machinery right.IIT Madras, a laboratory that shares his name has built a machine in much the same spirit. It is small, portable and uncomplaining. Its job is to help a stroke survivor do something we spend our lives taking for granted: use a hand again. The robot is called PLUTO-H, for Plug and Train Robot for Hand Rehabilitation, and it comes from the TTK Center for Rehabilitation Research and Device Development, known on campus as R2D2. It is led by Professor Sujatha Srinivasan and was co-developed with CMC Vellore. It will reach patients through Thryv Rehab, a startup born at IIT Madras. 

      THE HAND THAT RECOVERS LAST

      A stroke strikes when blood stops reaching part of the brain, and the body often forgets how to obey. Rehabilitation usually begins with the legs, because a person who cannot stand cannot go home. The hand is the harder, quieter problem. “After that, for activities of daily living, you do need hand function,”
      (The hands would probably recover much better if you had lever powered wheelchairs for getting around, You recover walking because you are required to get around. ANY HOSPITAL THAT DOESN'T HAVE THESE WHEELCHAIRS IS TOTALLY FUCKING INCOMPETENT!) Professor Sujatha tells India Today Digital. The robot guides the wrist and fingers through therapy movements, giving only as much help as the patient needs. (Photo: IIT Madras)Buttoning a shirt, holding a spoon and turning a key all ask the hand to do what it can no longer do. Therapy for it is slow, repetitive and laborious. A physiotherapist must sit beside the patient, moving the wrist and fingers through the same motions again and again, and giving resistance or help as needed.

      A ROBOT THAT COMES TO THE BEDSIDE

      7nbsp;Most rehabilitation robots are large machines in specialist centres, and the patient must travel to them. PLUTO-H reverses that arrangement. “The robot can be taken to the patient rather than the patient having to come to the robot,” Professor Sujatha says. It is light enough to be used from the hospital bed, at an early stage of recovery, and it can go home with the patient. It runs on a single motor, with interchangeable handles that let one device train several movements. These are the bending of the wrist, the turning of the forearm, and the opening and closing of the hand. Its assistance is adaptive, which means it gives only as much help as the patient needs. If a hand can manage part of a movement alone, the robot lets it. If the hand tires, the robot steps in. In Professor Sujatha's words, it functions "as a physiotherapist essentially.” 

      THERAPY DISGUISED AS PLAY

       Recovery after a stroke depends on repetition, and repetition is where most patients falter. The same movement, repeated hundreds of times, is dull.PLUTO-H therefore turns exercise into games. The patient steers a character or chases a target on screen, and the movement of the hand is the controller. The games adjust to performance, becoming harder when the patient does well and easing off when the patient struggles. “It keeps the patient engaged and doing it for longer periods of time, which is more beneficial,” Professor Sujatha explains. Thryv's own description speaks of goal-oriented training and data-driven insights, so that the progress of a hand can be tracked from one session to the next. 

      EXTENDING THE PHYSIOTHERAPIST'S REACH

       The robot is not meant to replace the therapist. It is meant to multiply one. “The ratio of therapists to patients who need therapy is very poor in India,” Professor Sujatha says. In the present model, one therapist often spends an entire session moving a single patient's hand. Under the new one, the therapist assesses the patient, sets the robot up and customises the programme. Then the machine carries on while the therapist moves to the next bed.The therapy stays under the supervision of the therapist and does not run unattended. 

      FROM LAB BENCH TO STARTUP

       India has a thin market for assistive devices. It is fragmented, price-sensitive and hard to reach, so private companies rarely rush to serve it. Professor Sujatha is frank about the difficulty of building hardware for it. “Hardware is a monster,” she says. Tooling and initial capital are heavy burdens for a young company. The R2D2 model tries to lift that burden. Its startups work out of R2D2 lab, and use the prototyping and testing facilities there, until they are ready to move out. The university absorbs much of the research and development cost, which keeps the final price within reach of patients. The aim, she says, is to build in the middle space, between cheap devices that users reject and expensive imports that are hard to service. PLUTO-H’s clinical journey is already well under way. IIT Madras said in 2025 that the robot was in routine use at about 11 clinics across India and had been used by more than 1,000 patients with hand impairments. The robot was developed by Professor Sujatha, Professor Sivakumar Balasubramanian of CMC Vellore's Department of Bioengineering, and Dr Aravind Nehrujee, who built it as part of his joint PhD at IIT Madras and CMC Vellore. 

      A LAUNCH WITHOUT A DATE, A PRODUCT WITHOUT A WAIT

       The formal launch will happen before the year ends, Professor Sujatha confirms, though no exact date has been fixed. The robot itself does not have to wait. "The product has gotten all the certifications required and is available for sale," she says. The makers are first installing it at a few centres. "We just want to make sure we have it installed in some places so we can direct people where to go if they need this therapy once they find out about it," she adds. The idea is simple. Once people hear about the robot, they will ask where they can get this therapy, and the team wants to have an answer ready. 

      A DROID WORTH BUILDING

       R2-D2 never carried a lightsaber. His genius lay in plugging into a broken system and quietly making it work. PLUTO-H’s makers share that modest ambition. Professor Sujatha says the aim of assistive technology is not pity but enablement, so that people look past a disability to the person and what they can do. A robot at a bedside, patiently coaxing a hand to open, may be a small thing. For a family waiting for that hand to return, it is the droid they were looking for.

      Is It Possible For A Fat To Lower Your Diabetes Risk? The Type In This Nut Appears To Do Just That by mindbodygreen

       I may have to switch between peanuts and walnuts now.

      Is It Possible For A Fat To Lower Your Diabetes Risk? The Type In This Nut Appears To Do Just That


      Neural Repair Therapies After Stroke: I. Therapeutic Advances

       Useless generalities! Survivors want EXACT 100% RECOVERY PROTOCOLS, you blithering idiots! And Steven Cramer is a rock star stroke researcher. Sorry about the dis, Dr. Cramer but you will want 100% recovery when you are the 1 in 4 per WHO that has a stroke and if I have to insult you to get you working on that, so be it!

      Neural Repair Therapies After Stroke: I. Therapeutic Advances


      Abstract

      Stroke is a leading cause of disability worldwide. Neural repair therapies, distinct from acute stroke therapies, target surviving neural elements to promote plasticity after the acute injury has occurred. Repair therapies encompass a broad and rapidly evolving therapeutic landscape, ranging from behavioral training, drugs, and biological agents to neural stimulation. In this review, we highlight major advances across these therapeutic categories, focusing on the evidence base and readiness for clinical adoption. Intensive behavioral interventions, including constraint-induced movement therapy and telerehabilitation, result in meaningful gains even in chronic stroke. Biological therapies—growth factors, monoclonal antibodies, and stem cell approaches—show promise but face translational challenges. Pharmacological strategies targeting serotonergic and dopaminergic systems have yielded mixed results. Neural stimulation approaches span a spectrum of invasiveness, with vagus nerve stimulation now Food and Drug Administration–approved and emerging candidates including cerebellar deep brain stimulation and spinal cord epidural stimulation showing early promise. These studies have provided important lessons for neural repair trial design. Synthesizing evidence across modalities, we highlight how therapeutic advances are reshaping the landscape of poststroke recovery and identify the most promising opportunities for clinical translation. Emerging neural repair strategies stand to substantially improve function after stroke.

      Graphical Abstract


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