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. Did your doctor somehow miss the recovery protocol that Pedro Bach-y-Rita used to recover fully back in 1958 with only a partial brain?

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.

Showing posts with label sleep. Show all posts
Showing posts with label sleep. Show all posts

Thursday, October 22, 2026

Scientists uncover a sleep-brain connection that could be the key to halting cognitive decline

 Your incompetent? doctor missed this well over a decade ago, right? Why don't you get them fired? There are no excuses for such massive incompetence!

Scientists uncover a sleep-brain connection that could be the key to halting cognitive decline

The study monitored and recorded the brain activity of mice through electrode brain implants. Researchers stimulated neurons located in the hypothalamus, including the growth-hormone-releasing hormone (GHRH) neurons and two types of somatostatin neurons responsible for the regulation of the growth hormone release during the sleep-wake cycle. 

Once those hormones are released, they increase activity in the brainstem region that affects attention, arousal, and cognition. This region, called the locus coeruleus, has also been associated with several neurological and psychiatric issues, such as PTSD and depression. 

In this study, researchers found that GHRH stimulates growth hormone release while somatostatin suppresses it, essentially functioning like an accelerator and brake system in the brain. They also discovered that these peptides behave differently in REM and non-REM sleep states. During a non-REM state, somatostatin levels dropped while GHRH activity rose, promoting growth hormone release. “This suggests that sleep and growth hormone form a tightly balanced system: Too little sleep reduces growth hormone release, and too much growth hormone can in turn push the brain toward wakefulness,” said Daniel Silverman, a postdoctoral fellow at UC Berkeley and a co-author of the study.

Eventually, this finding could help researchers better understand and potentially develop treatments for various conditions, including sleep disorders, degenerative diseases like Parkinson’s and Alzheimer’s, and even metabolic conditions like diabetes.

“Sleep drives growth hormone release, and growth hormone feeds back to regulate wakefulness, and this balance is essential for growth, repair, and metabolic health,” Silverman said. 

This post originally appeared at inc.com.

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

Sunday, October 4, 2026

Does sleep matter for recovery after stroke? Functional severity shapes the association between sleep and functional outcome during inpatient stroke rehabilitation

 You totally fucking failed in your research! Didn't create a sleep protocol! Hope you enjoy NOT RECOVERING from your stroke when you become the 1 in 4 per WHO that has a stroke.  

The Barthel Index IS NOT DAMAGE A DIAGNOSIS, it does not give you the 3d location of your dead and damaged neurons. In my opinion, it is FUCKING WORTHLESS to getting you recovered!

Does sleep matter for recovery after stroke? Functional severity shapes the association between sleep and functional outcome during inpatient stroke rehabilitation

Abstract

Background

Sleep disturbances are common after stroke and have been associated with rehabilitation outcomes. The clinical meaning of post-stroke sleep duration remains unclear, as longer sleep may be associated with different clinical and functional states, including greater disability. This exploratory study investigated the relationship between sleep and functional outcome during stroke rehabilitation, and the moderating role of baseline functional status.

Methods

Twenty-nine patients with stroke underwent a 10-day longitudinal monitoring protocol during rehabilitation. Functional independence and motor performance were assessed at the beginning (T0) and the end (T1) of the observation period using the Barthel Index, 10-Meter Walk Test, and 9-Hole Peg Test. Sleep was assessed throughout the monitoring period using sleep diaries, and actigraphy .

Results

Functional independence improved from T0 to T1, whereas motor performance did not significantly change. In unadjusted analyses, longer actigraphy-derived total sleep time and longer self-reported total time in bed were correlated with lower Barthel Index scores at T1. Moderation analyses adjusted for prior rehabilitation days showed that longer total sleep time was positively associated with Barthel Index at T1 only in patients with higher baseline independence, while longer time in bed was positively associated at average and higher baseline levels.

Conclusions

The associations between sleep duration or time in bed and later post-rehabilitation functional independence vary according to baseline functional status. Given the small sample size and observational design, these findings should be interpreted cautiously and considered preliminary and hypothesis-generating.

Monday, September 28, 2026

Resetting the body clock could help the brain recover after stroke

 Your incompetent? doctor and hospital will fail at doing further research and human testing to change 'could' to will! And I'm sure they didn't create sleep or glymphatic clearance protocols.

NOT DOING EITHER ONE IS PURE INCOMPETENCE!

Resetting the body clock could help the brain recover after stroke

 Scientists at the University of Rochester Medicine have found that strengthening the body's natural daily rhythms to improve sleep may help the brain recover after a stroke. The work points to a possible new way to support brain waste clearance and improve recovery well after the initial injury. Published in the Journal of Clinical Investigation, the study showed that interventions designed to reinforce circadian rhythms improved recovery in mouse models of stroke. These improvements were accompanied by stronger activity in the glymphatic system, the brain's waste-clearing network, along with lower levels of inflammatory molecules that can persist after a stroke. 

How the Brain Clears Waste

The findings build on more than a decade of research led by URochester Medicine neuroscientist Maiken Nedergaard, MD, DMSc. Her laboratory discovered the glymphatic system in 2012. This system moves cerebrospinal fluid through the brain, helping remove waste products and other debris. Later studies found that glymphatic activity is especially strong during sleep and plays an important role in maintaining brain health.Neuroscientist Lauren Hablitz, PhD, later helped show that glymphatic activity is influenced not only by sleep, but also by circadian rhythms, the body's internal 24-hour clock. In a landmark 2020 study, Hablitz, Nedergaard, and colleagues demonstrated that glymphatic function follows daily cycles even independently of sleep, establishing a direct link between circadian biology and the brain's waste-clearing system. 

Stroke May Disrupt the Brain's Timing

"The discussion of stroke recovery really starts with the idea that stroke is not just a vascular event, but also a disorder of timing," said Hablitz, lead author of the new study. Scientists have long known that strokes tend to follow distinct time-of-day patterns. They occur more often during the morning and are frequently more severe near the end of the sleep period. After a stroke, many patients also develop disrupted sleep-wake cycles. Those disturbances have been linked with worse recovery, depression, and reduced quality of life. "That led us to ask a simple question," said Hablitz. "If timing is broken after a stroke, can we improve recovery by reinforcing the biological clock?" 

When the Brain's Cleanup System Slows Down

 In a healthy brain, the glymphatic system carries cerebrospinal fluid along blood vessels and through brain tissue. This process delivers nutrients while helping remove waste products and inflammatory signals. Earlier research has shown that glymphatic function becomes impaired after stroke. That disruption may reduce the brain's ability to clear harmful molecules that accumulate during recovery. Stroke research has traditionally focused on separating beneficial inflammation from harmful inflammation and finding ways to suppress the damaging forms. Hablitz and her colleagues suggest that another part of the problem may be that the brain is no longer clearing inflammatory signals effectively. "We think part of the problem may be a failure of cleaning," she said. "If the system responsible for clearing signaling molecules isn't working properly, everything builds up."Under this model, stroke damages both brain tissue and the pathways responsible for removing inflammatory signals. As those molecules accumulate, they may contribute to continued damage and slower recovery. 

Resetting the Body Clock

To test whether stronger circadian rhythms could improve recovery, the researchers examined several interventions known to affect the body's internal clock. These included timed light exposure, melatonin, a clock-targeting drug called KL001, and time-restricted feeding. The team first showed that each of these interventions could improve glymphatic function in healthy animals. They then selected the most promising strategies, KL001 and time-restricted feeding, and tested them in mouse models of stroke. Treatment did not begin until three days after the stroke, far beyond the narrow window used for clot-busting drugs and other acute stroke treatments. Even with that delay, mice that received either intervention showed better motor recovery, smaller lesion volumes, improved glymphatic flow, and lower levels of inflammatory cytokines in the brain. "All of the cytokines moved in the same direction," Hablitz said. "That suggests we may not be targeting one specific inflammatory pathway. Instead, we may be helping the brain clear inflammatory signals more effectively." One of the most promising approaches was time-restricted feeding, a behavioral intervention that is already being investigated for obesity, diabetes, cardiovascular disease, and other conditions. That could make the findings especially relevant for stroke rehabilitation because such an approach might eventually be easier to use outside specialized medical settings. "One of the exciting aspects of this work is that we're studying interventions that could potentially be implemented not only in hospitals but also at home," Hablitz said. 

What Researchers Need to Test Next

 The researchers emphasize that the findings so far are limited to animal models. More studies will be needed to determine exactly how circadian rhythms, glymphatic function, and inflammation influence one another after stroke. Future work will also examine whether improved glymphatic flow directly causes better recovery and whether circadian-based interventions can eventually be tested in clinical trials. More broadly, the study reflects a growing view in neuroscience that sleep, circadian rhythms, and fluid movement through the brain are central to brain health. By learning more about how the brain's internal clock regulates the glymphatic system, researchers hope to uncover new ways to improve recovery not only after stroke, but also in other neurological conditions involving inflammation and poor waste clearance. "Understanding how circadian regulation shapes glymphatic clearance will help us develop more targeted therapies," said Hablitz. "Ultimately, our goal is to find ways to improve the brain's ability to clear waste, reduce inflammation, and recover after injury." Health & Medicine Diabetes Heart Disease Mental Health Research Pharmacology Depression Mental Health Stroke Consumer Behavior RELATED TERMS

Story Source:

Materials provided by University of Rochester Medical Center. Note: Content may be edited for style and length.


Journal Reference:

  1. Emma Waight, Yuxi Zhu, Ashley Caudell, Velia S. Vizcarra, Evan Newbold, Michael J. Giannetto, Evalien Duyvestyn, Estephanie Balbuena, Wei Song, Tanzil M. Arefin, Yuki Mori, Maiken Nedergaard, Lauren M. Hablitz. Chronotherapy to reinforce circadian rhythms improves poststroke outcomes and glymphatic function in mice. Journal of Clinical Investigation, 2026; 136 (12) DOI: 10.1172/JCI201800

Cite This Page:

University of Rochester Medical Center. "Resetting the body clock could help the brain recover after stroke." ScienceDaily. ScienceDaily, 28 September 2026. <www.sciencedaily.com/releases/2026/09/260924020407.htm>.

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Thursday, September 24, 2026

One factor may affect aging most, and it’s not diet and exercise

 

Does your competent? doctor even have a sleep protocol for you? And sleeping pills don't count, we got handed sleeping pills regularly at 10pm.

One factor may affect aging most, and it’s not diet and exercise

One specific factor might be most responsible for how a person ages, and—somewhat counterintuitively—it’s not how much you move, but rather how much you rest.

In a study published to Sleep Advances, researchers took a closer look at how sleep could predict mortality outcomes, and they found that proper sleep—even more than a healthy diet and regular exercise—was linked to increased longevity.

In fact, the only factor that was more predictive than poor sleep in earlier mortality was smoking.

‘I didn’t expect it’

The results were so strong that even the researchers were startled by the findings.

“I didn’t expect it to be so strongly correlated to life expectancy,” senior author Andrew McHill, Ph.D., associate professor in the Oregon Health and Science School of Nursing, said in a press release.

“We’ve always thought sleep is important, but this research really drives that point home: People really should strive to get seven to nine hours of sleep if at all possible.”.

‘Striking’ Results

Previous research has shown the importance of sleep. Newsweek has previously covered REM sleep, which is tied to a lower risk of 83 different diseases.

Light in the bedroom, which disrupts restful sleep, has been shown to have negative impacts on individual’s heart health.

Not getting enough sleep, meanwhile, was previously tied to a lower age of retirement.

In the latest study, the researchers wrote that the magnitude of their findings was “vast.”

“It’s intuitive and makes a lot of sense, but it was still striking to see it materialize so strongly in all of these models,” McHill said.

“I’m a sleep physiologist who understands the health benefits of sleep, but the strength of the association between sleep sufficiency and life expectancy was remarkable to me.”

A Modifiable Factor

In particular, the researchers pointed out that the public health implications were striking.

Unlike some factors that are very difficult to modify, sleep health is modifiable—improving one’s sleep hygiene can be as simple as putting phones away in the hours before bed, or reading a book to wind down.

Previous studies have also pointed out the importance of a regular sleep schedule and a restful environment, as well as cutting out big meals and alcohol shortly before bed.

The benefits of taking care of one’s sleep hygiene, McHill said, might be outsized in comparison to other modifiable lifestyle factors.

“This research shows that we need to prioritize sleep at least as much as we do to what we eat or how we exercise,” McHill said. “Sometimes, we think of sleep as something we can set aside and maybe put off until later or on the weekend.

“Getting a good night’s sleep will improve how you feel but also how long you live.”

Newsweek has reached out to the researchers for comment via email.

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Monday, September 21, 2026

How one small change to your sleep routine could help you live longer

 Does your competent? doctor even have a sleep protocol for you? And sleeping pills don't count, we got handed sleeping pills regularly at 10pm.

How one small change to your sleep routine could help you live longer

A recent study suggests that sleep is not just about feeling rested — it could play a decisive role in how long we live. The research indicates that our nightly routines may have a measurable impact on mortality risk, potentially adding years to life when done well.

The findings come from a major analysis by Vitality in collaboration with the London School of Economics and Political Science (LSE), which examined sleeping habits across 47 million nights of tracked sleep. By linking this data with long-term health outcomes, researchers were able to explore how sleep duration and regularity relate to survival itself.

Researchers compared Vitality members who had died with people of similar age, sex and health profiles who were still living, allowing them to model differences in mortality risk.

What emerged was a sharp divide between good and poor sleepers. Sleep duration alone was linked to a roughly 4 per cent reduction in mortality risk, while sleep regularity had a much stronger association, cutting risk by around 31 per cent when looked at in isolation.

Based on current life expectancy — between 76 and 82 years for men and 81 to 87 years for women across countries including the UK, US, Australia and much of Europe — better sleep could add roughly two to four extra years of life. And those additional years are likely to be healthier ones. The earlier good sleep habits are established, the more powerful the effect appears to be over a lifetime.

"Assuming just 25 per cent of poor sleepers adequately improve their sleep, the US alone would see more than 190 million life-years saved," the study claims.

The size of the effect is said to put sleep in the same league as other major drivers of longevity, such as diet, exercise, body weight and blood pressure.

There is also a financial argument for taking sleep more seriously. Healthier sleep habits are linked to lower hospital admissions, saving up to $287 per person each year in healthcare costs.

For sleep researchers, the findings reinforce what has been building for years. Dr Matthew Walker, professor of neuroscience and psychology at the University of California, Berkeley, and founder and director of the Center for Human Sleep Science, describes sleep as foundational rather than optional.

"Sleep is the most effective way to rest our mind and body each day. There is no organ system in the body, or any operation in our mind, that isn't enhanced by good sleep and impaired by poor sleep," he said.

"Sleep influences everything from cardiovascular and metabolic function to mental well-being. Regular, sufficient sleep, seven to eight hours per night, with consistent bed and wake times, is not only restorative but also preventative."

Monday, September 14, 2026

Sleep disorders in stroke rehabilitation: mechanisms, impacts, and multidisciplinary management — a narrative review

 Are you that brilliantly stupid you think describing sleep problems gets anyone recovered? WOW! That's special!

I'd have you all fired!

Sleep disorders in stroke rehabilitation: mechanisms, impacts, and multidisciplinary management — a narrative review


  • Department of Geriatric Rehabilitation, Shanghai Second Rehabilitation Hospital, Shanghai, China

Abstract


Background: 


Sleep disorders and stroke share a bidirectional relationship. Sleep disturbances are independent stroke risk factors and frequent post-stroke complications. Obstructive sleep apnea (OSA), through intermittent hypoxia, systemic inflammation, endothelial dysfunction, and autonomic dysregulation, increases stroke risk by approximately 2- to 3-fold. Post-stroke sleep disorders affect up to 59.9% of patients, impeding neurological recovery.


Objectives: 


To examine the epidemiology, pathophysiology, and clinical impacts of sleep disorders on stroke recovery, and to summarize evidence-based management strategies.


Methods: 


A narrative review was guided by a writing outline developed from clinical observations and preliminary synthesis. A theme-driven literature search was conducted in PubMed, Embase, Cochrane, Web of Science, CNKI, and Wanfang (March 10–13, 2026) using targeted keywords (e.g., “sleep disorders,” “obstructive sleep apnea,” “rehabilitation,” “stroke”), limited to 2000–2026 publications in English or verified Chinese translations. Reference lists were also screened.


Results: 


Post-stroke sleep disorder prevalence ranges from 25 to 84%; OSA affects 40–78% of stroke patients. Sleep disorders correlate with worse functional outcomes, prolonged hospitalization, cognitive decline, and elevated stroke recurrence. Mechanistically, intermittent hypoxia, oxidative stress, systemic inflammation, glymphatic dysfunction, autonomic dysregulation, and impaired neuroplasticity are implicated. Management: CPAP is first-line for OSA; CBT-I improves insomnia symptoms; rTMS has been shown to improve sleep quality in clinical studies; exercise, melatonin, and light therapy show emerging evidence. Pharmacotherapy for RLS/PLMD requires caution regarding fall risk and cognitive side effects.


Conclusion: 


Sleep disorders are highly prevalent and negatively impact stroke recovery. Evidence-based strategies—CPAP, CBT-I, and rTMS—improve sleep and functional outcomes, though evidence heterogeneity exists. High-quality RCTs are needed to optimize individualized protocols.

Bright light therapy for post-stroke sleep disturbances: a systematic review and meta-analysis

 Let's check how long you've been brilliantly incompetent in not creating protocols on this!


Bright light therapy for post-stroke sleep disturbances: a systematic review and meta-analysis


  • Nursing Department, The Second Affiliated Hospital of Zhejiang University School of Medicine, Hangzhou, China

Abstract


Objective: 


Sleep disturbances are common after stroke and may adversely affect neurological recovery. Although post-stroke sleep disturbances encompass insomnia symptoms, circadian rhythm sleep–wake disturbances, and sleep-disordered breathing, research has focused predominantly on obstructive sleep apnea. This review evaluated the effects of bright light therapy (BLT), a non-pharmacological intervention that may influence circadian regulation, on sleep outcomes after stroke.


Methods: 


Ten electronic databases covering English-and Chinese-language literature were searched from inception to April 9, 2026. Randomized controlled trials involving adults with stroke that evaluated validated subjective or objective sleep outcomes were eligible. Data were pooled using random-effects models when studies were sufficiently comparable clinically and methodologically. Risk of bias was assessed using the Cochrane Risk of Bias 2 tool. The primary outcomes were wake after sleep onset (WASO) and subjective sleep quality. The protocol was registered in PROSPERO (CRD420251111617).


Results: 


Five randomized controlled trials involving 343 participants were included. Three trials involving 181 participants contributed to the WASO analysis; the pooled estimate was not statistically significant (MD = −39.17 min, 95% CI −115.34 to 36.99; P = 0.31), and heterogeneity was substantial (I2 = 96%). Four trials involving 300 participants contributed to the subjective sleep quality analysis; the pooled estimate favored BLT (SMD = −0.85, 95% CI −1.38 to −0.32; P = 0.002), although heterogeneity was substantial (I2 = 78%). After exclusion of Song Chang-yu, the pooled effect remained statistically significant but was attenuated, and heterogeneity decreased to 0% (SMD = −0.55, 95% CI −0.83 to −0.28).


Conclusion: 


BLT may improve subjective sleep quality after stroke; however, evidence for objective sleep continuity remains uncertain because of the small evidence base and substantial heterogeneity. Larger, methodologically rigorous trials using standardized light parameters, standardized outcome measures, and direct circadian assessments are needed to clarify the clinical effects of BLT and identify optimal treatment protocols.

Systematic Review 


Registration:

https://www.crd.york.ac.uk/PROSPERO/view/CRD420251111617, identifier CRD420251111617.