Михаил Лебедев (Mikhail Lebedev) — нейроученый – Telegram
Михаил Лебедев (Mikhail Lebedev) — нейроученый
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Михаил Альбертович Лебедев (@lebedevmikhaila) — нейроученый. Индекс Хирша — 55 (Google scholar).

https://sites.google.com/site/lebedevneuro/curriculum-vitae

https://scholar.google.com/citations?user=cvd2xxcAAAAJ&hl=en
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Терпеть не могу "литературный стиль", но, может, кому-то понравится:

"But the approach to mental illness inherent in Bush’s proclamation made its way out to the public before scientists could evaluate their efforts. And a new story of mental illness would fundamentally alter the way Americans thought—and still think—about mental health."

https://www.theatlantic.com/politics/archive/2024/08/dangerous-idea-about-brain/679462/
Здесь хорошая иллюстрация для adaptive brain stimulation:

https://www.ft.com/content/c63fdec7-8b19-4a77-9b71-9d84705cfc86
"Hence, anosmia could serve as both a potential marker of virus-induced damage to neuronal tissues and a marker for individuals susceptible to brain damage."

Мудрое высказывание.

https://www.cidrap.umn.edu/covid-19/covid-related-loss-smell-tied-changes-brain
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Forwarded from Эхо СССР
Телевизор нашего детства.

Кто знает, зачем нужны были плоскогубцы?
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Forwarded from Artem. R. Oganov (Artem Oganov)
СЕВЕРНЫЙ ПОЛЮС

достигнут! На атомном ледоколе "50 лет Победы" мы пришли к нему 17 августа, ровно через 47 лет после того, как он впервые был достигнут при помощи ледокола.

В этой экспедиции я читал лекции детям из России и других стран. Дети просто изумительные - открытые, добрые, чистые, талантливые.

А на Северном полюсе я поставил табличку, указывающую расстояние до моего дома в Москве и дачи в Верее. А на табличке нарисовал то, что люблю - мою работу и семью. До меня здесь побывало всего несколько тысяч жителей планеты.
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А это где-то, как-то в пользу Пигарева:

"Results indicate that exposure to pulsatile somatosensory stimulation can in uence emotional judgements though its progressive embodiment as a perceived interoceptive arousal state."

https://assets-eu.researchsquare.com/files/rs-4748974/v1/4f6cfc4b-10b5-4d30-a468-f817492d6e1b.pdf
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Без vpn здесь, правда, не обойтись.

Brain Information Transfer Dynamics and Neurorehabilitation Effects of a
Brain-Machine Interface Protocol in Spinal Cord Injury

Spinal cord injury (SCI) is a highly debilitating neuropathology, associated with impairment of sensorimotor functions,
as well as the appearance of neurologic manifestations, such as neuropathic pain. Consequently, patients suffer from loss of
autonomy and quality of life. Furthermore, it is coupled with difficulties and high costs for caregivers and healthcare systems
(Ahuja et al., 2017). Despite currently having no cure, recent neurorehabilitation protocols combining brain-machine interfaces
(BMIs), that use neurophysiological signals to control devices, have achieved relevant clinical improvements (Donati et al., 2016;
Lorach et al., 2023; Pais-Vieira et al., 2024). Its neurorehabilitative effects are thought to originate from bypassing the limitations
imposed by SCI and elicit neuroplasticity modulation (Nizamis et al., 2021). More specifically, protocols that allow the control
of an avatar in virtual reality (VR), may promote them through coherent and synchronized inputs generated by sensory feedback
combined with motor imagery outputs from the central nervous system (Donati et al., 2016; Pais-Vieira et al., 2024). However,
there is still a lack of detailed denoscriptions of the neurobiology behind these processes, both in healthy participants and SCI
patients. For example, it is still unknown which changes occur in brain information networks, as well as in the way information
is transferred, with the recurrent implementation of the aforementioned type of BMI protocol. The main aim of this work is
to comprehensively characterize the dynamics of brain information transfer induced by an improved BMI protocol with VR
and multimodal feedback, with particular interest in altered activity leading to relevant clinical improvements in SCI patients
rehabilitation. Here we propose to monitor and analyse EEG-based cortical activity of healthy participants and SCI patients
subjected to a VR-based BMI protocol with multimodal (visual, auditive, tactile) feedback, over 24 sessions (2-3 months). The
BMI will operate using an optimized algorithm to control an avatar through motor imagery, in an immersive VR environment.
Neuroplasticity will be assessed through changes in brain information transfer, analysed from EEG recordings, and measurement
of neuroplasticity-associated serum molecular markers. These measurements will be correlated, as well as with the clinical
evolution of SCI patients. This study is expected to advance our current understanding on the neurophysiological basis of BMIinduced SCI neurorehabilitation, and help treating neuropathic pain, secondary to other pathologies, by developing innovative
and non-invasive therapies.

https://scholar.google.com/scholar_url?url=https://www.ua.pt/file/80372%23page%3D606&hl=en&sa=X&d=2233126394596797190&ei=yWzGZuiRMqLFy9YPluOPqAg&scisig=AFWwaeZMwB_eycsR5ApI5W50ZHsk&oi=scholaralrt&hist=RC9N61oAAAAJ:17254728658724334713:AFWwaeaiJ0iFi245-r6CViXob_vV&html=&pos=0&folt=kw