Senjuty Sarkar

Graphene can transform healthcare in near future. Graphene is a new material with extraordinary properties that has endless possibilities in various fields, as well as the production of other new compounds based on it. Graphene is well worth competing with other materials such as diamond, as graphene can absorb energy and withstand huge loads before it breaks down. 

 Applications of Graphene in Medicine Recent studies have shown that graphene can be used by researchers to improve treatments to combat cancer, so multiple graphene can transform healthcare treatment. And a good example is the recent discovery of a research team at the University of Illinois who observed how graphene can distinguish between healthy cells and cancer cells, detecting cancer in a non-invasive way. It has become a very interesting and possible way to do it.

Lighter and more flexible than the Combating nanotechnology in dentistry by making polymers using graphene for biological use could help increase the success of treatments demanded by dental implants. 

Can graphene change the future of healthcare?

Part of the  International Research Initiative, the Graphene Flagship is committed to exciting developments that will bring new graphene-based medical devices to market, with some of the industry's vanguard projects and spin-off companies. The the smart device is built around an innovative graphene electrode, which faithfully decodes neural signals and enables personalized treatment responses.  With bold vision, JoseGarrido and other graphene flagship scientists are committed to graphene-based retinal implants to provide artificial vision to patients with retinal degeneration.  Development of Graphene Derivative Synthesis is done by Using Precursors of Industrial Waste;

Prospects and Challenges 

Graphene in two-dimensional single-layer carbon atom crystal lattices is often due to its unique electronic, surface area, mechanical and photoelectronic properties. I was interested in it.  However, increasing production is still difficult.  It is important to review the existing literature to conceptualize and develop a process that meets growing concerns. In addition, you can consider mass-producing graphene derivatives at low cost using a variety of waste precursors such as plastic and battery waste, newspapers, biomass, chitosan, coal and insect waste. It eases the difficulty of synthesis and predicts future developments in this area. Is 

 Is graphene toxic to the human body? 

Graphene has the potential to lead the way in life research thanks to its ideal materials for making medical devices that interact with cells. Graphene in Young is an intriguing material used to create devices that interact with neurons in the brain. Graphene is so conductive that it can simultaneously produce sensitive recordings of neuroelectric signals (also known as electrophysiological recordings). If the materials we use are harmful to the human body, working in the laboratory cannot be transformed into clinical applications. The research team has been able to understand the response of graphene, both neuronal and non-neuronal cells. These indicators are visible within the cell.

Areas of graphene invested invented : non-invasive (wearable) sensors and invasive (portable) devices. 

 Non-invasive sensors : Non-invasive health monitoring sensors Generic wearable sensors that do not tend to penetrate and rest in the skin or tissue when detecting important signals and biomarkers and electronic artificial skin (ESKIN) can be used for biophysical, biochemical and biophysical applications. Includes a wide range of sensors and environmental signals. 

 Biophysical Signals : Active Cells or tissues (such as those of a human or animal) produce general electrical phenomena, whether in a static or active state. 

Kinetic Research: Recently, a lot of effort has gone into the development of flexible and scalable sensors for detecting and tracking human movement, highlighting the open development of sensors. Highly sensitive pressure, induction and strain sensors using graphene as detection material.

Thermometer: Warm-blooded animals are a long evolution of cold-blooded animals, the most significant of which is man. From a physiological point of view, monitoring a person's body temperature is very important to reflect the metabolic rate in the body.

According to the above information, graphene and its derivatives exhibit excellent properties such as good mechanical flexibility, electrical properties, and long-term stability of important human signal measurements, including bioelectrical signals, Thus graphene can transform healthcare