Very few things intrigue people as much as the human brain. How come people can do the things they do? What compels people to feel the way they do? How come some people are born with disabilities such as autism? And how can these disabilities be cured? Here are some of the facts about the human brain that people may not know.
Amazingly, there are no nerves in the human brain. No other human organ can claim the same. It cannot feel any pain.
The human brain consumes a fifth of the energy generated by the human body. That is the largest portion of energy to any body part. What’s unbelievable about this is that the brain is only 2 percent of a person’s body weight. This energy can even light up a light bulb.
There are approximately 100 billion neurons in the brain. That’s over 15 times the human population of the world.
Around 60 percent of the brain is fat, which is why it the fattest (or fattiest) human organ.
Three-fourths of human brain mass is made up of water.
The neocortex makes up over 75 percent of the human brain. This part is where language and consciousness come from.
When the heart pumps blood, around 750ml of it heads towards the brain every 60 seconds.
Dr. Curtis Cripe is a neuroengineer and the current director of Research and Development at NTL Group. For more on Dr. Cripe and the work he does, click here.
The neurons in the brain constantly make new connections in response to every new experience or memory a person makes. As the brain familiarizes with the new experience and stimuli, the more connections are made. Thus, a task that seems overwhelming at first gradually becomes easier over time.
This flexibility in accommodating new connections is one of the driving factors behind neuroengineering, which explores the ways that the brain’s connections can be trained to perform better or overcome limitations set by neurocognitive and behavioral disorders.
While the connections of the brain are in constant flux, the links between them are far from arbitrary. Several key locations govern crucial aspects of behavior and cognitive function. Neuroengineering allows doctors and other experts to use computer technology to observe or directly interact with the connection patterns within the brain.
When these connections do not form correctly or are somehow impeded due to damage, these would affect an assortment of motor, cognitive, and behavioral functions. This is especially noticeable among survivors of traumatic head injury, who may find everyday tasks significantly more difficult.
Neuroengineering technology also holds a lot of potential in helping individuals with mental disorders, problematic behavioral patterns, or lost or impaired motor or cognitive functions due to traumatic brain injury. Neuroengineering tools can diagnose potential sources of neurological dysfunction and train the brain’s neurons to gradually create new, more effective connections, which in some cases could help the brain heal itself.
Dr. Curtis Cripe’s work in neuroengineering and neurofeedback laid the foundation of the NTL Group’s proprietary neuroengineered therapies for cognitive repair. Visit this website for more information on the application of his work.
The brain goes through a lot over the course of an average lifetime. It is a remarkably adaptable organ capable of repairing and rerouting connections over the course of a human lifetime. This also means that, when properly care for and trained, it can resist quite a lot of curveballs life can throw at it.
The brain is a very resilient organ. Even in the face of all but the most extensive damage, the brain can create new connections and maintain functionality, and damaged connections can be repaired. It retains the same level of connectivity even when parts of an existing pathway are damaged, and are only impaired or lost when the damage is complete.
In these cases, such as those found in traumatic brain injury, the damage is often so severe that it compromises many mental faculties, slowing down the ability of the brain to repair the connections. The proper training and conditioning, however, would allow the brain to speed up the process of self-restoration, by guiding it to the connections that have been lost or compromised.
Indeed, it is this ability to create new connections and maintain old ones that have sparked interest in utilizing brain resilience and plasticity for rehabilitative medicine. Findings have consistently shown that an active, engaged brain is a very resilient one. Mental activity has been found to reduce the rigors of stress and prevent or counteract the onset of degenerative mental conditions come old age.
The brain’s own ability to repair itself with proper guidance lies at the core of the neuroengineering principles pioneered by Dr. Curtis Cripe. Learn more about his work from the NTL Group website.
When one mentions the term bioengineering, people usually think of advanced technology that could have only existed in the late 20th century. That, however, is rather inaccurate. The fact of the matter is bioengineering has been around for hundreds of years. But it was in the 19th century that bioengineering made a turn and became more prevalent. Here is a fascinating look at the important events that led to the development of bioengineering.
In a span of 105 years, a number of inventors and innovators came out with influential and then-state-of-the-art medical equipment. For example, in 1791, Luigi Galvani built the very first frog galvanoscope used to detect electricity using frog’s legs. In 1881, Samuel von Basch built the first sphygmomanometer, which was the tool used to measure blood pressure. The first X-ray machine was built in Germany in 1895, by Conrad Roentgen. He received the Nobel Prize for his efforts in 1901.
From 1903 to 1940s
The first half of the 20th century saw numerous leaps in bioengineering technology. Willem Einthoven began with the invention of the electrocardiogram, otherwise known as the ECG machine. Twenty-six years later, Hans Berger built the first electroencephalogram or EEG. In the two decades that followed, antibiotics, sulfanilamide, and penicillin were all invented.
The technological revolution continued well into the second half of the 20th century starting with the invention of the electron microscope in 1950. Other notable inventions in this era were computer tomography (CT) and magnetic resonance imaging (MRI) machines. The gamma camera and SPECT came into existence in the 1980s.
Dr. Curtis Cripe is a neuroengineer whose professional and academic backgrounds span several disciplines including engineering, software development, bioengineering, psychophysiology, psychology, child neurodevelopment, and brain injury. Learn more about Dr. Cripe’s work by following this Facebook page.
When the brain sustains damage that affects how a person moves, functions, feels or thinks, the person has brain injury, which can arise from a number of circumstances. It can occur during birth, or later on in life, either from a traumatic event or a sickness. It is estimated that over five million Americans suffer from the effects of brain injury, and around 17 million get into accidents, or have illnesses that lead to brain injury every year.
Circumstances leading to brain injury determine whether or not the injury is traumatic or not. Traumatic brain injury can be caused by automobile or road accidents, falls, violent attacks by another person, or experiencing shockwaves from bomb blasts on the field of battle. Non-traumatic causes may include lack of oxygen to the brain, brain tumors, cancer, and infection of the brain. The leading cause of non-traumatic brain injury, however, is stroke.
A brain injury can manifest itself in many ways. Symptoms may include headaches, loss of balance, problems with eyesight, seizures, speech difficulties, sleep problems, and deterioration of motor skills, among others. A brain injury may change a person’s personality, speech patterns, ability to focus or remember things, overall mood, attention span, and emotional, mental, and physical reactions to any stimuli.
It is highly recommended that people who suffer a traumatic experience have themselves checked by an expert to rule out brain injury, or detect it before the injury leads to something much worse.
Dr. Curtis Cripe is a neuroengineer with a background that includes engineering, software development, bioengineering, addiction recovery, psychophysiology, psychology, child neurodevelopment, and brain injury. Presently, Dr. Cripe heads the Research and Development department of NTL group, for advanced technology for brain and cognitive treatment and repair. Learn more about him and the work that he does by subscribing to this Twitter account.
There are reports that say around 15 to 20 percent of Americans are affected by a form of learning disabilities or disorders. With cognitive brain dysfunctions impacting a great deal of individuals, treatments that go beyond conventional, largely ineffective remedies are needed.
An innovative program, which uses the most advanced brain-based technologies, helps re-train and develop the brain processing skills of the (eliminate) children and young adults. NTLgroup® calls it the BrainyArcade® program (not treatment – medical professionals get a little testy with the use of the word treatment).
It employs individualized programs that collect cognitive data through documentation and imaging, which are then summarized and analyzed. Wit these With this information, a development program is designed for the individual, in which his IQ development, learning, cognitive progress, social maturity skills, and behaviors are given focus.
The BrainyArcade® program allows the individual to undergo various exercises, such as electroencephalogram-based video games, computer-based exercises, and physical development tests. During these workouts, brain activity is observed continuously and stimulates his progress during the process.
Determining and addressing the cause of brain problems, the child will see an improvement in his ability to perform not just academically, but also in day-to-day life. The program is supported by concrete results, with patients’ average IQ scores being raised 15 to 25 points, as well as one to two functional grade levels.
Dr. Curtis Cripe is a neuroengineer with a diverse multidisciplinary background in various sciences and fields and works as the research and development division director of the NTLgroup®. He is also a notable international speaker on cognitive brain function and analysis. To read more of his contribution to the industry, follow this link.
The brain, believed to be the most complex organ in the human body, can benefit from a combination of multiple disciplines. The collaboration of various sciences has led to a greater comprehension of the human brain through better measurements and more precise detail of brain processing and function.
Neuroengineering, which emerged at the turn of the 21st century, incorporates different fields of study for the collective purpose of advancing methodologies for documenting, imaging, and analyzing brain activities. Incorporated in this concept are neuroscience, engineering, biology, physics, mathematics, neurology, and psychology.
NTLgroup® is a company that designs and develops products and services that aim to diagnose and provide remediation programs for neuro-based dysfunctions. It uses an engineering approach that infuses neuroimaging, computer design, and approved psychological assessments.
Through its many neuroengineered programs, specific brain disorders are being analyzed and overcome. The report of findings can be easily understood by clients and their family members. But the diagnoses are still based on scientific protocols followed by its pool of therapists, psychologists, medical doctors, and other specialized healthcare providers.
Brain development and rehabilitation have been made more efficient, with the future looking bright due to the potential advancement of the neuroengineering through further research.
Dr. Curtis Cripe is the director of the research and development division of NTLgroup®. His diverse background includes neuroengineering, aerospace engineering, software development and programming, psychology, addiction recovery, brain injury, and child neurodevelopment. Learn more about this field by visiting this website.