The role of beauty in the arts

 

The concept of beauty and art has evolved from the early cave paintings in Altamira to abstraction, film, and mediums without specific rules. Technology will undoubtedly provide new avenues for art-making and influence its future. Although AI has instantaneous technical ability, true art requires the artist's involvement. People connect with the artist's humanity and even the mark of his hand in the work.

To envision art's future, we must understand what art is. Art is a kaleidoscope of human experience, but it originates in nature, the source of all beauty, independent of subject or style. Unlike the sterility of perfection, art reflects the internal rhythm of things. Whether it expresses happiness, terror, or suffering, great art conveys a positive, optimistic message of human potential. While the audience's interpretation of the artwork may differ from that of the artist (we may never know the Altamira painters' intentions), every great piece of art, music, and literature uses the language of emotions that moves us more than logic. Art creates beauty, the symphony of surprising yet familiar. Too much novelty turns the work into bizarre, threatening, or ugly, but lacking surprise is the recipe for boredom. Therefore, repeated exposure exhausts art's originality. As Oscar Wilde said, "The moment you think you understand a great work of art, it's dead for you." Therefore, art, the servant of only emotions, not rules, is a mirror of its time.

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Copyright © 2023 by Eva Deli

What is Electrogenetics? One Day we may Control Our Genes With Wearables

 

Electrogenetics, the combination of electronics and genetics, is an emerging field of mammalian synthetic biology. It combines genetics and electronics to influence gene expression through electrical signals. Wearable devices could serve as vehicles for these signals, to activate or silence specific genes, which holds promise for treating diseases caused by gene misregulation and advancing personalized medicine.

Traditional gene editing techniques, such as CRISPR-Cas9, involve modifying the DNA itself. In contrast, electrogenetics seeks to control genes indirectly by manipulating the electrical signals that regulate their activity. This paradigm shift has opened up exciting possibilities for non-invasive interventions.

Wearable devices have already transformed how we monitor our health, from tracking our steps to monitoring heart rate and sleep patterns. The marriage of electrogenetics and wearables takes this a step further, envisioning devices that can communicate with our cells by emitting precise electrical signals that target specific genes, modulating their expression, and potentially rectifying genetic mutations responsible for diseases. This concept taps into the body's natural communication pathways and could be harnessed to correct gene misregulation. The practical applications of electrogenetics and wearable devices in gene control have substantial potential for healthcare. 

Hope for diabetes treatment

Electrogenetic treatment show promise for diabetes treatment. In just four weeks the treated mice could better battle low blood sugar from dieting, and eventually they restored their normal blood sugar levels. They were also adept at regulating blood sugar levels after a meal, something that’s difficult in people with diabetes without insulin. 

In conclusion, the emergence of electrogenetics and its potential integration with wearable devices represents a pivotal moment in the field of genetics and healthcare. The ability to modulate gene expression using electrical signals has the capacity to revolutionize disease treatment and prevention. Wearable devices, once designed to merely monitor our well-being, could soon become active participants in our cellular biology.

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Copyright © 2023 by Eva Deli