The Connection Between Taste and the Brain
When taste reaches the brain, it is categorized as excitation or inhibition, with stronger tastes eliciting stronger responses. Thinking about food triggers dopamine release, enhancing pleasure. Chewing stimulates the hippocampus and frontal lobe, crucial for memory and motor planning. The right brain activates through sensory input, producing alpha waves that promote calm and happiness. Overusing the left brain for rational thinking can lead to imbalance, while engaging the right brain through savoring food boosts intuition. Taste, tied to survival instincts, activates extensive brain areas, enhancing brain function. Mealtimes provide focus, stimulating the nervous system and optimizing brain performance.
When taste information reaches the brain, it is categorized in to excitation or inhibition. If a sour taste is strongly perceived, th at sensation is also strongly expressed. The brain functions simpl y: when perception is weak, the response is equally weak. Howev er, as taste perception increases, the brain becomes busy processi ng the information. The thought of eating food triggers a feeling o f pleasure. The dopamine hormone is released 30 minutes before eating. Neurotransmitters that facilitate neuronal activity are pro duced through repeated recognition.
When we chew food, the hippocampus and frontal lobe are sti mulated. Chewing thoroughly has been recognized since the hun ter-gatherer era as a way to stimulate the brain. Harvard Medical School neurosurgeon Dr. John J. Ratey stated, “The frontal lobe i s the home base of the brain’s great central processor, responsible for working memory, motor planning, controlling competing stimuli, and regulating thoughts and actions.”
When we eat, we use many senses, activating the right brain. Greater sensory focus means more right-brain activity. Prolonge d focus leads to a state of calm, during which alpha waves are pro duced. After eating, the lingering sense of satisfaction is influenc ed by this. The more alpha waves the brain produces, the higher t he purity of happiness.
Neuroscientist Shigeo Haruyama asserts that the right brain’s latent power is more than 100,000 times greater than that of the left brain. Using the right brain involves engaging more of the se nses, and the more we savor our food, the longer the perception t ime becomes. When enjoying taste, the right brain’s activity incre ases. Athletes and artists are known for heavily relying on their se nses, and gourmets also utilize a great deal of sensory perception.
Office workers and students tend to use their left brain more. Emotions tied to rational thinking come from the left brain. A bal ance between left and right brain usage is necessary. To achieve t his balance, it’s important to engage the senses. Most people live l eft-brain-dominated lives, which leads to an over-reliance on con ceptual thinking. To add intuitive abilities to this conceptual thinking, the right brain must be engaged. Eating is an opportunity to utilize the right brain.
In Lee Yu-myung-ho’s “Brain Power Recharge,” he states, “Th e taste center is widely distributed throughout the brain, and app etite is the greatest survival instinct, fulfilling more than just the body’s nutritional and energy needs. Seeing, smelling, savoring, a nd chewing food activate vast areas of the brain. Conversely, peo ple with diminished brain function often have dulled or weakene d taste.”
For the sensory center to respond effectively, the brain’s nervo us system must be actively engaged. Strong concentration is requ ired to fully engage the brain, and mealtimes naturally provide su ch focus. The brain remembers the moments when the nervous s ystem is activated, making our instinctive responses more prono unced while eating.
The brain desires optimal functionality for survival, which is why it seeks to operate smoothly. Each time we eat, the brain is b usy processing various sensory inputs, but when we enjoy our food, it becomes even busier.
Jo, GiHyoung. Taste Evaluation Theory Revised Edition: Enter gastronomy through the perception of taste (p. 309). ISBN: 978-89-961547-6-1(15380). Kindle Edition.
What role do neurotransmitters like dopamine and oxytocin play in the process of falling in love and how do they influence our social behavior?
Regard IT Telkom
Hello,
Thanks for your comment.
I think your question would be better answered by Ai than by me, so I’m substituting chatGPT’s answer for mine.
Neurotransmitters like dopamine and oxytocin play crucial roles in the process of falling in love and shaping our social behavior:
– Dopamine:
Known as the “feel-good” neurotransmitter, dopamine is associated with pleasure and reward. During the initial stages of falling in love, dopamine levels increase significantly, creating feelings of euphoria, excitement, and heightened energy. This neurotransmitter reinforces behaviors that bring us closer to the person we are attracted to, motivating us to pursue and bond with them.
– Oxytocin:
Often referred to as the “love hormone,” oxytocin is released during moments of physical intimacy, such as hugging, kissing, or sexual activity. It fosters trust, bonding, and emotional connection, playing a pivotal role in deepening relationships and maintaining long-term attachments.
Influence on Social Behavior:
Dopamine drives goal-directed behavior, making us more enthusiastic and focused on social interactions that lead to emotional fulfillment.
Oxytocin enhances trust and empathy, reducing social anxiety and encouraging cooperative and nurturing behavior.
Together, these neurotransmitters create a biological foundation for romantic attraction and social bonding, influencing how we form and maintain close relationships. They also help explain why love and connection are such powerful forces in human life.
I hope this helps answer your question.