Nanorobot Pros And Cons

The biochip technology helps sorts thousands of different proteins from cancer cells by both their electrical charge and the patient’s stickiness. In addition, the 2-D fractionation procedure generates 960 separate protein fractions, nonetheless, which are then prepared in a single biochip inclosing 96 well grids (Sagoff, 2008). Additionally, scientist review microarrays with plasma "auto-antibodies" formed by the cancer patient’s immune systems. Biochip technology in this realm of healthcare is intended to take advantage of the information contained in the patient’s individual biology. Thus, biochips have progressively exhibited a great deal of promise in diagnostic medicine.

In the past years, science has been continuously expanding; from the simple abacus used in 300 BC, counting devices evolved into complex forms like calculators. Science has helped people do their work easily and effectively like the help of machines for constructing buildings and amputees being provided with synthetic body parts for replacing their missing parts. Not only humans but also plants have benefited from science and its innovations as there are fertilizers that help plants become healthier. During the course of discovering more about the said field, three men were curious about the miniscule particles unseen by the naked eye; these men are Richard Feynman, Norio Taniguchi, and Kim Eric Drexler. On December 1959, the American physicist

"Nanorobots Trial to Begin in Humans: Microscopic DNA Devices Could Be Injected into a Leukaemia Patient in a Bid to Destroy Abnormal Cells." Mail Online. Associated Newspapers, 23 Mar. 2015. Web. 26 Apr. 2016.

The virus lays latent for a week until it causes cancer, and the host dies within a few days, as the virus continues to inject its DNA. Because the virus mutates to look like the host cells, the virus looks and behaves differently in each person. Everything that makes someone unique is determined by the 1% of their 20,000 genes, and the virus takes advantage of that difference, making personalized medicine the only cure. Being able to tailor make an antibiotic, and nanoparticles to deliver the antibiotic so it would target just the virus, would save millions of

The debate between sending humans or robots to space has been and remains highly controversial. They both have pros and cons but ultimately, the best way to explore space is with robots. There is so much that still needs to be explored in outer space and doing so has the potential of finding another location able to sustain life. Since a lot of space is unknown it is crucial that we understand what is going on up there in order to send a properly equipped object into space. That being said, scientists can predict what a particular object in space is like, but there is always uncertainty. It will always be a mystery until something travels to space and supplies the necessary information for humans to better understand the way the object will operate in space. The best method for space exploration is by using robots. Although robots will require more trial and error, they will help sculpt the bigger picture in the most effective way.

　　　　When these nanobots immigrate into the complex structures, that is the human body, they are introduced to the most sensitive parts especially at the child’s birth, when the blood is fresh and can be easily be exposed to the most diminutive of infections. The blood is at risk for contamination leaving the technology useless and more importantly putting the child’s life at risk for a plethora of infectious disease, more alarmingly the child could die hours after his/her birth. If the nanobots make it past the birth of the child and continues to function in ‘symbiosis’, then that is splendid. Overtime the nanobots become more vulnerable to damage and destruction.

According to the American Society of Clinical Oncology, in a little over a decade, cancer will become the leading cause of death in the United States. The rate of new cases is expected to increase by 45% by 2030. (Wilson, 2014) Undoubtedly, this comes as no surprise to a populace that has seen an increasing number of their friends and family diagnosed with cancer. It seems to have become an epidemic, affecting both young and old, male and female, and rich and poor. For this reason alone, there is a growing interest in new and more effective treatments in the battle against this disease. Cancer research has vastly improved treatments and outcomes over the previous 50 years, starting with only a handful of treatments half a decade ago, to more than 170 FDA-approved anti-cancer drugs today. (Wilson, 2014) Still, new and better treatments that reduce recovery time and increase success rates are constantly pursued. There is promise for new technology called the iKnife, a cancer “sniffing” surgical scalpel; which is said to identify all of a the cancerous parts of a tumor so that it is removed with 100% accuracy. Should the iKnife prove to be what it is promised to be, not only will it improve overall outcomes for patients, it will also revolutionize the treatment of cancer entirely.

The 21st century can rightfully be considered as the era of technology when the new inventions and discoveries will most likely affect all the segments of human life. At this point, some of the breakthrough inventions of our times have been in the medical field. Robotic surgery has become an almost common practice in the advanced medical world and new uses for robotic assisted surgery are everyday set in place. However, such developments also attract different interests and implications.

Nanobots are invented to solve problems concerning cancer. Uncontrolled mitosis leads to cancer which have higher tendency to happen when mechanism that controls the cell is distrupted. In 2012, according to the World Health Organization, cancer is one of the leading cause of fatal. In Canada, approximately 30% of deaths are caused by cancer and abouy 191,300 new cases of cancer are expected in the year 2014. Annually, 14.1 milllon of new cases were reported while globally, there were 8.2 billion of deaths. Cancer cells need to compete with normal cells to obtain sufficient nutrient and energy for growth. Cancer cells divide out of control and are able to able to spread to other cell, tissue and organ which will result in malfunction and death.

The blood is then treated using a viral solution that consists of viral traces of the virus such as HIV.As the T-cells have been treated using the solution, the cells infected express their receptors and the DNA is then Tran scripted into RNA and express proteins. The T-cells are then genetically engineered to identify cancer cells and destroy them upon sight. The engineered CAR T-cells are then transferred back into the patient. As the engineered T-cells are reintroduced into the body, they begin to patrol the human body and search for the Cancer

Nanotechnology has immense numbers of avenues and directions that have been created, especially in the treatment of cancer. It is only projected to become a bigger field that’s more accurate as time passes. But is nanotechnology sustainable and though accurate, strong enough to be the best cancer therapy system? Is lung cancer too difficult to treat with nanotechnology due to its metastatic tendency? And is nanotechnology the best direction that we could be following in our quest for the treatment of cancer without damaging other tissues? As we discover more technology and tools, problems pop up as quick as we can solve past ones – toxicological aspects of cancer treatment, cost effectiveness and the like. Can these wonder child molecules created

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Cancer patients has an increased mortality rate once the cells spread throughout the body. For this reason, scientists have been working tirelessly to find a way to prevent this from happening. The researchers at the University of Michigan in the department of biomedical engineering may have found the answer to this problem. By creating a device that can be implanted in a cancer patient’s body, the scientists have found that it is able to provide early detection of metastasis, or the spread of cancer cells from the original area.

As one of the most prevalent causes of death globally, cancer has been a main focus for bioengineers. While it is understood that, to treat cancer, malignant tissue must be resected, many issues arise when these tumors are not removed thoroughly, when the tumors are not determined accurately, or when more time has passed for the cancer to spread to other parts of the body. Currently, there are various technologies and applications that are being researched such as the application of microfluidic devices (Han, Park and Kim). Many of these emerging technologies are important to continue studying and developing for numerous biomedical applications, including cancer diagnosis. While there are various technologies and applications that are currently being studied, many of these are still considered to be new and need further application, trials, and approval. In addition to

in other hand whatever good things is available in AI Robot more than that bad things also available now a days without computer the human can’t do anything that means the human lost their intelligent. In future the human become an addict to an AI Robot. now a days we can design, and control the robot this is not a to be continue if human get addict to computer, The computer will design the man that Ai Robot will design man life style and control the human that will happen but we don’t know what is exactly happing the human is thinking the Robots are helping to us but the truth is the robots are taking control from us and that is lead us. E.g.:- matrix (movie).