Author: Hughqn

For me, super high dosage of Dextromethorphan works better for my depression and OCD (Obsessive Compulsive Disorder) than SSRI!

Prove that if there is 1 God. God is a Gemini (A/D) 🙂

My postulate is that our genome dictates how our neurons function, including which chemicals they secrete and when. When a person takes drugs or abuses substances, this interferes with the normal activity of neurons and triggers changes in their signaling. Over time, these changes can alter neuronal circuits and brain function, contributing to neuroplasticity. The brain is an electrochemical organ, using electricity to send rapid signals along neurons and chemicals (neurotransmitters) to transmit messages across the gaps (synapses) between them. This system powers thought, memory, and action, with around 86–100 billion neurons creating complex, high-speed, and energy-consuming networks. The electricity and chemicals can work smoothly and interchangeably. Electrical brain stimulation is similar to taking antidepressants.

When Steve Jobs said “connecting the dots” at Stanford in 2005, was he referring to neural connections (chemical/electrical), or speaking metaphorically?

While crossing over is a normal and essential process during meiosis (the cell division that produces sperm and eggs), its occurrence in mitosis (the process of cell division for growth and repair) can indeed contribute to the development of cancer. Under normal circumstances, mitosis produces two genetically identical daughter cells from a single parent cell. This process is crucial for replacing old or damaged cells and for an organism’s growth. Crossing over, the exchange of genetic material between homologous chromosomes, does not typically happen during mitosis.  However, on rare occasions, a process called mitotic recombination or mitotic crossing over can occur. When this happens in a cell that already carries a heterozygous mutation for a tumor suppressor gene (meaning one healthy copy and one mutated copy of the gene), the consequences can be significant. Loss of Heterozygosity: A Pathway to Cancer Mitotic crossing over can lead to a phenomenon known as loss of heterozygosity (LOH). Here’s a simplified explanation of how this can promote cancer:  1. Initial Mutation: A person may inherit or acquire a mutation in one copy of a tumor suppressor gene. These genes are critical for controlling cell growth and preventing tumors from forming. With one functional copy, the cell can still produce the necessary protein to suppress tumor growth. 2. Mitotic Recombination Event: If mitotic crossing over occurs in a cell with this pre-existing mutation, it can result in a daughter cell that is homozygous for the mutated gene. This means the cell now has two mutated copies of the tumor suppressor gene.  3. Loss of Function: With both copies of the tumor suppressor gene inactivated, the cell loses its ability to control its own growth and division. 4. Uncontrolled Proliferation: This loss of control can lead to unchecked cell proliferation, a hallmark of cancer. The single cell with the homozygous mutation can then divide uncontrollably, forming a tumor.  In essence, mitotic crossing over can be a critical “second hit” in the development of cancer, unmasking a recessive mutation and allowing a cell to become cancerous. Certain genetic conditions, such as Bloom syndrome, are characterized by an increased frequency of mitotic recombination and a significantly higher risk of developing various types of cancer.

Neuroplasticity, also known as brain plasticity, is the brain’s remarkable ability to change and adapt throughout life in response to experiences, learning, and even injury. It involves the brain forming new neural pathways and modifying existing ones, allowing it to reorganize its structure and function. This dynamic process enables us to learn new things, recover from damage, and adjust to new environments. 

How Neuroplasticity Works:

• Neurons and Synapses:The brain is composed of billions of neurons, nerve cells that transmit information. These neurons communicate through synapses, tiny gaps where they connect and exchange signals. 
• Forming and Strengthening Connections:When we learn or experience something new, the brain creates new synaptic connections or strengthens existing ones. This is how new information is stored and how skills are developed. 
• Synaptic Pruning:While new connections are formed, some connections are also eliminated. This process, called synaptic pruning, is crucial for fine-tuning the brain’s circuitry, making it more efficient. 
• Functional and Structural Changes:Neuroplasticity can manifest in two main ways: functional changes, where the brain moves functions from damaged areas to other areas, and structural changes, where the brain physically alters its structure. 
• Lifelong Capacity:Neuroplasticity isn’t limited to childhood; the brain retains its ability to change and adapt throughout life, albeit with potentially greater ease during younger years. 

Examples of Neuroplasticity:

• Learning a new language or musical instrument:These activities involve forming new neural pathways and strengthening connections related to language or musical skills. 
• Recovery from brain injury or stroke:The brain can reroute functions to undamaged areas, compensating for the loss of function due to injury. 
• Adapting to new environments or situations:The brain constantly adjusts its structure and function to accommodate new experiences and challenges. 

• Neuroplasticity: How Experience Changes the Brain – Verywell MindMay 17, 2024 — The human brain is composed of approximately 100 billion neurons.

High dosage of DXM treats Addiction but leads to Autism!

High dosage of DXM brings back memories!

High dosage of DXM changes senses and perception

High dose of DXM leads to more “awareness” and “mindfulness”

High dose of DXM “slows” time down ? (Time extension)

High dose of DXM = higher contrast when looking at objects?

Is Robot-Assisted Therapy Helpful for Autistic Children?

Yes, research suggests that robots can be helpful for autistic children, particularly in improving their social and communication skills. Robot-assisted therapy (RAT) has emerged as a promising area within autism care, utilizing social robots to support the development of children on the autism spectrum. 

Benefits of Robot-Assisted Therapy:

• Improved Engagement: Children with autism often find robots engaging and motivating, exhibiting higher levels of attention and longer gaze durations when interacting with them compared to human caregivers.
• Reduced Anxiety: The predictability and consistency of robots can help reduce anxiety and stress in autistic children who may find human social interactions challenging and unpredictable.
• Enhanced Social Skills: Robots can assist in teaching various social skills, such as:
• Personalized Learning: Robots can be programmed and customized to tailor interventions to individual children’s needs, preferences, and developmental levels, offering a personalized learning experience.
• Increased Opportunities for Practice: Robots can provide consistent and repetitive opportunities for practice, which is essential for skill development in children with autism.
• Motivation and Collaboration: The engaging nature of robots can increase children’s motivation to participate and collaborate, even on challenging tasks like social or emotional skill development. 

LIDR is the Latest Game-Changing Advancement for Autonomous Vehicles