Research models are used in medical research to mimic aspects of a disease or illness that occurs in humans. Research models can include animals (in vivo models), cell lines (in vitro models), or computer-driven demonstrations (in silico models). Research models allow doctors and scientists to uncover important information that can be applied to clinical practice.
Neurotechnology promises a way to repair the damaged nervous system that requires a merger of neuroscience, engineering and clinical knowledge. Brain Computer Interfaces can now read out the...
Localizing and identifying neuronal patterns that generate pathological brain signals may assist with tissue resection and intervention strategies in patients with neurological and psychiatri...
Systems neuroscience offers new and powerful conceptual frameworks for testing the fundamental brain mechanisms that support behavior. More recently, modern neurotechnologies with translation...
Direct recording of neural activity from the human brain (intracranial encephalography, iEEG, also known as electrocorticography, ECoG) using implanted electrodes is one of the fastest-growin...
Stimulation of human visual cortex is known to elicit visual perceptions that could potentially be used for restoring artificial vision to individuals who have lost their vision due to non-co...
This talk provides a brief overview of funding opportunities for invasive device development for translation to clinical populations supported by the NIH BRAIN Initiative....
The implications of NIH BRAIN research stretch beyond traditional medical and research contexts. This LabRoots session will present recent developments at the intersection of neuroscience and...
What motivates patients to participate in clinical trials? Discussions most often revolve around potential study participants’ perception of therapeutic benefit. Misconceptions about th...
Developing new diagnostic and therapeutic tools for brain disorders is an ethical imperative and conducting human research with neural devices is a key step towards achieving that goal. Condu...
The NIH BRAIN Initiative aims to develop new tools and neurotechnologies to transform our understanding of brain function in health and disease. That knowledge is critical to enable novel the...
Neurological disorders present a worldwide multi-factorial burden. They affect as many as one billion people globally - and that number is predicted to increase in the next decades. The wide-...
Humans have a remarkable ability to flexibly interact with the environment. A compelling demonstration of this cognitive flexibility is our ability to perform complex, yet previously un-pract...
Humans interact with their environment in countless ways and can switch seamlessly between activities. Even for seemingly simple tasks, a variety of sensory inputs and contextual cues are int...
The rapid formation of new memories and the recall of old memories to inform decisions is essential for human cognition, but the underlying neural mechanisms remain poorly understood. We util...
The human brain has a remarkable ability to store and retrieve information. Detailed memories can be formed after as little as one exposure, and those memories can be retained for decades. Im...
NIH representatives from the BRAIN Initiative will be presenting an overview of the NIH BRAIN Initiative and describing funding opportunity announcements (FOAs) supporting impacts in human ne...
Joshua Gordon, M.D., Ph.D., Director of the National Institute of Mental Health, will provide an overview of challenges and opportunities in mental health research. Dr. Gordon will present em...
In-vitro epithelial barrier models that are more representative of in-vivo tissues are urgently needed. Here we present extracellular matrix-supported intestinal tubules in a perfused microfl...
Cellular research is optimal when using physiologically-relevant cell phenotypes and genotypes of human origin. This assertion has accelerated the adoption of primary cells, stem cells, and i...
Isolated hepatocytes or their enzymes comprise the basis of most in vitro DMPK and toxicity assays used to predict human hepatic outcomes. Because hepato-specific functions are typically lost...
Neurotechnology promises a way to repair the damaged nervous system that requires a merger of neuroscience, engineering and clinical knowledge. Brain Computer Interfaces can now read out the...
Localizing and identifying neuronal patterns that generate pathological brain signals may assist with tissue resection and intervention strategies in patients with neurological and psychiatri...
Systems neuroscience offers new and powerful conceptual frameworks for testing the fundamental brain mechanisms that support behavior. More recently, modern neurotechnologies with translation...
Direct recording of neural activity from the human brain (intracranial encephalography, iEEG, also known as electrocorticography, ECoG) using implanted electrodes is one of the fastest-growin...
Stimulation of human visual cortex is known to elicit visual perceptions that could potentially be used for restoring artificial vision to individuals who have lost their vision due to non-co...
This talk provides a brief overview of funding opportunities for invasive device development for translation to clinical populations supported by the NIH BRAIN Initiative....
The implications of NIH BRAIN research stretch beyond traditional medical and research contexts. This LabRoots session will present recent developments at the intersection of neuroscience and...
What motivates patients to participate in clinical trials? Discussions most often revolve around potential study participants’ perception of therapeutic benefit. Misconceptions about th...
Developing new diagnostic and therapeutic tools for brain disorders is an ethical imperative and conducting human research with neural devices is a key step towards achieving that goal. Condu...
The NIH BRAIN Initiative aims to develop new tools and neurotechnologies to transform our understanding of brain function in health and disease. That knowledge is critical to enable novel the...
Neurological disorders present a worldwide multi-factorial burden. They affect as many as one billion people globally - and that number is predicted to increase in the next decades. The wide-...
Humans have a remarkable ability to flexibly interact with the environment. A compelling demonstration of this cognitive flexibility is our ability to perform complex, yet previously un-pract...
Humans interact with their environment in countless ways and can switch seamlessly between activities. Even for seemingly simple tasks, a variety of sensory inputs and contextual cues are int...
The rapid formation of new memories and the recall of old memories to inform decisions is essential for human cognition, but the underlying neural mechanisms remain poorly understood. We util...
The human brain has a remarkable ability to store and retrieve information. Detailed memories can be formed after as little as one exposure, and those memories can be retained for decades. Im...
NIH representatives from the BRAIN Initiative will be presenting an overview of the NIH BRAIN Initiative and describing funding opportunity announcements (FOAs) supporting impacts in human ne...
Joshua Gordon, M.D., Ph.D., Director of the National Institute of Mental Health, will provide an overview of challenges and opportunities in mental health research. Dr. Gordon will present em...
In-vitro epithelial barrier models that are more representative of in-vivo tissues are urgently needed. Here we present extracellular matrix-supported intestinal tubules in a perfused microfl...
Cellular research is optimal when using physiologically-relevant cell phenotypes and genotypes of human origin. This assertion has accelerated the adoption of primary cells, stem cells, and i...
Isolated hepatocytes or their enzymes comprise the basis of most in vitro DMPK and toxicity assays used to predict human hepatic outcomes. Because hepato-specific functions are typically lost...
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