Thursday, September 14, 2023

Future of Electrical Engineering

The promises of Nanoelectronics: Revolutionizing Electronic Technology at the Nanoscale

As the boundaries of conventional electronics are pushed to their limits, nanoelectronics offers promising solutions to overcome these challenges. This article explores the potential of nanoelectronics and the revolutionary advancements it promises in various fields, from computing to healthcare.

1. Enhanced Performance and Efficiency of electronic devices

One of the most significant promises of nanoelectronics is the dramatic improvement in the performance and efficiency of electronic devices. By utilizing nanoscale materials such as carbon nanotubes, graphene, and quantum dots, nanoelectronics can achieve faster processing speeds, higher data storage capacities, and reduced power consumption. These advancements are crucial for the development of next-generation computing devices, including supercomputers, smartphones, and wearable technology.

2. Miniaturization of Devices

Nanoelectronics enables the miniaturization of electronic components, leading to the creation of smaller, lighter, and more compact devices. This miniaturization is essential for the continued progress of Moore's Law, which predicts the doubling of transistors on a chip every two years. As transistors shrink to nanoscale dimensions, electronic devices can become more powerful while occupying less space. This has significant implications for the design of portable and wearable electronics, as well as the development of advanced medical devices.

3. Quantum Computing

Quantum computing is poised to revolutionize the field of computing by harnessing the principles of quantum mechanics. Nanoelectronics plays a pivotal role in the development of quantum computers, which use quantum bits (qubits) to perform complex calculations at unprecedented speeds. Quantum computers have the potential to solve problems that are currently intractable for classical computers, including cryptographic analysis, drug discovery, and optimization problems. Nanoelectronic components, such as quantum dots and nanowires, are essential for the construction of stable and scalable qubits.

4. Improved Sensors and Detectors

Nanoelectronics enables the creation of highly sensitive and accurate sensors and detectors. These nanoscale devices can detect minute changes in physical, chemical, and biological parameters, making them invaluable for applications in healthcare, environmental monitoring, and security. For example, nanosensors can be used for early detection of diseases, real-time monitoring of air and water quality, and detection of hazardous materials. The high sensitivity and specificity of nanoelectronic sensors promise to enhance our ability to monitor and respond to various threats and opportunities.

5. Flexible and Wearable Electronics

The development of flexible and wearable electronics is another exciting promise of nanoelectronics. By using nanoscale materials such as graphene and flexible polymers, engineers can create electronic devices that are bendable, stretchable, and lightweight. These flexible electronics have a wide range of applications, including smart clothing, wearable health monitors, and foldable displays. The integration of nanoelectronics into textiles and other flexible substrates opens up new possibilities for innovative and interactive technologies.

6. Medical and Biological Applications

Nanoelectronics holds great promise for medical and biological applications. Nanoscale electronic devices can be used for targeted drug delivery, neural interfaces, and real-time health monitoring. For instance, implantable nanoelectronic devices can monitor vital signs, detect abnormalities, and deliver therapeutic agents directly to specific tissues. These advancements have the potential to revolutionize healthcare by enabling personalized and precise medical treatments, improving patient outcomes, and reducing healthcare costs.

7. Energy Harvesting and Storage

Nanoelectronics offers innovative solutions for energy harvesting and storage. Nanoscale materials can be used to create highly efficient solar cells, batteries, and supercapacitors. These devices can capture and store energy from renewable sources, such as sunlight and kinetic energy, with greater efficiency and reduced environmental impact. The development of nanoelectronic energy devices is crucial for addressing the global energy challenge and promoting sustainable energy practices.

Conclusion

The promises of nanoelectronics are vast and transformative. As researchers and engineers continue to explore and develop nanoscale materials and devices, the potential for revolutionary advancements in various fields becomes increasingly evident. From enhanced performance and miniaturization of electronic devices to quantum computing and medical applications, nanoelectronics is set to reshape the technological landscape and address some of the most pressing challenges of our time. The future of nanoelectronics is bright, and its impact will be felt across multiple industries and aspects of daily life.

Future of Biomedical Engineering and Medicine

Genomics and Synthetic Biology

Cell and Tissue and Tissue Engineering

Resurrecting Dinosaurs, Mammoths, and Other Extinct Species: A Glimpse into the Future of De-Extinction

The idea of bringing extinct species back to life has long fascinated scientists and the public alike. Advances in genetic engineering and biotechnology are turning this once-fantastical notion into a potential reality. This article explores the science, ethical considerations, and potential implications of resurrecting dinosaurs, mammoths, and other extinct species.

The Science of De-Extinction

De-extinction involves using modern genetic technologies to recreate organisms that have vanished from Earth. There are several methods currently being explored:

  1. Cloning: This involves obtaining viable DNA from preserved specimens and inserting it into the egg cells of a closely related species. For example, cloning attempts have been made with the woolly mammoth using DNA from frozen mammoth remains and elephant egg cells.

  2. Genetic Editing: Techniques like CRISPR-Cas9 allow scientists to edit the genomes of living organisms to resemble those of extinct species. By modifying the DNA of closely related species, such as modern birds for dinosaurs or elephants for mammoths, researchers hope to recreate the traits of the extinct organisms.

  3. Selective Breeding: This method involves breeding individuals of a species with specific traits to gradually produce an organism resembling the extinct species. This approach has been used to recreate the appearance of the extinct aurochs from modern cattle.

Ethical Considerations

While the science of de-extinction is advancing, it raises several ethical questions:

  1. Biodiversity and Conservation: Some argue that resources should be focused on conserving existing endangered species rather than bringing back extinct ones. Others believe that de-extinction could help restore lost ecosystems and increase biodiversity.

  2. Animal Welfare: The process of cloning and genetic editing can involve significant suffering and ethical concerns for the surrogate species used in these experiments. The welfare of both the created organisms and the surrogates must be considered.

  3. Ecological Impact: Introducing resurrected species into modern ecosystems could have unpredictable and potentially harmful consequences. The impact on existing flora and fauna, as well as the environment, must be carefully studied.

Potential Implications

The successful resurrection of extinct species could have profound implications:

  1. Scientific Knowledge: Studying resurrected species could provide valuable insights into evolution, genetics, and the biology of extinct organisms.

  2. Ecological Restoration: Certain de-extinct species could help restore ecosystems that have been altered by their absence. For example, woolly mammoths could potentially help slow the melting of permafrost in the Arctic by promoting grassland ecosystems.

  3. Public Fascination and Education: The resurrection of extinct species would undoubtedly capture the public's imagination and interest in science, potentially inspiring future generations of scientists and conservationists.

Conclusion

Resurrecting dinosaurs, mammoths, and other extinct species is a tantalizing possibility at the forefront of genetic science. While the potential benefits are significant, it is crucial to address the ethical and ecological challenges that come with de-extinction. As research progresses, a careful and balanced approach will be essential to ensure that the revival of extinct species contributes positively to our understanding of the natural world and the preservation of biodiversity.

Organ engineering and Systems Bio-engineering: What the future holds

Future of Space Travel and Space Colonization

 

Terraforming

Challenges of Engineering of other Planets


Future: Paradise-like; Engineering 2.0, 10.0; Science 2.0 and Social Science 2.0; Literature and Entertainment 2.0; Life 2.0, 10.0; Games and Sports 2.0, 10.0; Maslow's hierarchy of need / Human desire and need fulfillment; Space, Universe. 
As Head of Government: 
  • Prophecy fulfillment. 
  • Successful Space program. Conquest of large part of our Universe.
  • Conquering 5 to 10 Nations.
  • Conquest of large part of "All creation". 
  • Successful Nuclear Energy Program (outcome -> Space; -> Flying structures).
  • Successful Particle Physics program (outcome -> Universe creation; -> Time control).
  • Spiritual control of people of other nations. 
  • Successful Nanotechnology program (outcome -> human-like complex creation; -> Structures, Machines, Devices and Gadgets creation with Programmable Nanotechnology).
  • Successful transhuman, superhuman program. 
  • Destiny (Each human being has a destiny given at birth by God.) fulfillment of most citizens (High class education; Entrepreneurship; Platform; Opportunities). 
  • People will have nothing more to ask for. 
  • Citizens will never die, but live for ever. 
  • Space colonization and Planetary civilization creation with spiritual power / Engineering.
  • Citizens will control time travel. 
  • Second renaissance in Arts, Literature and Entertainment.
  • Co-production, Co-work with citizens.
  • Tremendous innovation. 
  • Tremendous accomplishment, work (of Government).
  • Life resembling Sci-fi, Fantasy, Adventure, Thriller.
  • Citizens of those nations will win half or so of all International Prizes.
  • Citizens of those nations will own 50% of planet's businesses. 
How to recognize Jesus:

  • "I am the Light of the world." says Jesus. (John 8:12) His body is of Light.
  • His Words have power ("to strike down the nations"). "Heaven and earth shall pass away, but my words shall not pass away." says Jesus. (Matthew 24:35)
  • His Faith is powerful.
  • "He who will drink from my mouth will become as I am (becomes Christ): I myself shall become he, and the things that are hidden shall be revealed to him." says Jesus (Gospel of Thomas II). She or he who touches Jesus or is touched by Jesus, has light and becomes blessed, healed, more beautiful. 
  • “When the Son of Man comes in his glory, and all the angels with himthen he will sit on his glorious throne." (Matthew 25:31) "Born the King of Angels".
  • His subconscious brain and Soul bears proof that he is Jesus. 

How to recognize Father God (Second Coming):

  • He has absolute power and authority over all Earth and the Universe.
  • His Spirit is the Holy Spirit, the Spirit of God.
  • He is forever young in human form.
  • He is omniscient in human form.
  • The hearts of men and women (and Angels) make him or her have at least 25% to 75% love and attraction for Father God (in human form). 
  • He doesn't require or need any Spirit or Spiritual body (in human form) to perform at world class level (even top in the world). 

Future of Computer Science and Engineering


Artificial Intelligence and Robotics

Applications: Artificial Intelligence as a Platform

Methods: The return of Symbolic Artificial Intelligence

Applications: Service Robotics

Applications: Knowledge-based Robotics

Big Data and New Quantitative Sciences

IoT, Smart Products and Ubiquitous Computing 

Smart Home of the Future: A Glimpse into Tomorrow's Living Spaces

Generate a mini article on "Smart Gadgets of Home of the future".

Smart Gadgets of the Future Home: Enhancing Modern Living

Introduction

As technology continues to evolve, the concept of a smart home is becoming a reality, with innovative gadgets transforming how we interact with our living spaces. The smart gadgets of the future promise to make our homes more efficient, comfortable, and secure. This mini article explores some of the cutting-edge smart gadgets that will define the future home.

1. AI-Powered Personal Assistants

Future homes will be equipped with advanced AI-powered personal assistants that go beyond simple voice commands. These assistants will learn from our routines, anticipate our needs, and provide personalized recommendations. They will seamlessly integrate with all smart devices, ensuring a cohesive and intuitive user experience.

2. Smart Thermostats

Smart thermostats of the future will incorporate machine learning algorithms to optimize temperature settings based on individual preferences and occupancy patterns. These devices will reduce energy consumption by automatically adjusting the heating and cooling systems, contributing to both comfort and sustainability.

3. Intelligent Lighting Systems

Intelligent lighting systems will revolutionize the way we illuminate our homes. These systems will use sensors to detect natural light levels and occupancy, adjusting the brightness and color temperature accordingly. Customizable lighting scenes will enhance ambiance for various activities, from relaxation to productivity.

4. Advanced Home Security Systems

Future home security systems will combine facial recognition, biometric authentication, and real-time monitoring to provide comprehensive protection. Smart locks, motion sensors, and surveillance cameras will work together to ensure the safety of occupants. Remote access via mobile apps will allow homeowners to monitor and control their security systems from anywhere.

5. Smart Kitchen Appliances

The kitchen of the future will feature a range of smart appliances designed to make cooking and meal preparation more convenient. Smart refrigerators will keep track of inventory, suggest recipes based on available ingredients, and even place grocery orders. Smart ovens and stoves will offer precise cooking control and remote monitoring.

6. Health and Wellness Gadgets

Health and wellness will be a key focus in future smart homes. Wearable health monitors, smart mirrors, and connected fitness equipment will provide real-time health insights and personalized workout plans. Smart air purifiers and humidifiers will ensure optimal indoor air quality, promoting overall well-being.

7. Home Entertainment Systems

Home entertainment systems will become more immersive and interactive. Smart TVs with voice control, augmented reality (AR) gaming consoles, and high-fidelity audio systems will create a captivating entertainment experience. Integration with streaming services and smart home assistants will provide seamless access to content.

8. Energy Management Systems

Energy management systems will monitor and optimize energy usage throughout the home. These systems will integrate with smart grids, solar panels, and energy storage solutions to manage electricity consumption efficiently. Homeowners will receive real-time feedback and suggestions for reducing their energy footprint.

Conclusion

The smart gadgets of the future home promise to enhance our everyday lives by offering greater convenience, efficiency, and security. As technology continues to advance, these innovative devices will become integral to modern living, creating smart homes that are not only intelligent but also sustainable and user-friendly. The future of home automation is bright, and the possibilities are endless.

Smart Cities

Gadgets

Technological Revolution in the Twenty First Century

(First written and published in a College magazine in 2008. Modifications done later.)


What if it was possible to chat with smart devices around you? Or what if most of your limbs were artificial and invisible nano-robots were busily moving around inside your body? How would it feel to live in the world of virtual reality with all artificial senses?

Sounds unrealistic?

Thanks to science and technology, the line between reality and unreality is blurring day by day. An unprecedented revolution is happening before our eyes. Biotechnology gives us the tools to manipulate, control and enhance life. The availability of information is affecting the world in many ways. And nanotechnology is producing innovative products as well as increasing product performance.

Observing these, computer scientist and author Vernor Vinge introduced the concept of Technological Singularity [2]. His predictions are based largely on advances in computer technology. The idea is that: at some point in the 21st century, computer intelligence will surpass human intelligence, and then development will accelerate so much (since computers are smarter than humans, computers will start inventing everything), that future cannot be predicted.

Realist: But can you really predict the future accurately?

An example from thermodynamics can be used to answer this question.

In thermodynamics it is almost impossible to predict where a tiny gas molecule will go, how fast it will go - another molecule can come knocking at any time. But the behavior of gases composed of billions of molecules is much more predictable by some laws. Otherwise, we would not have obtained the formula PV = nRT for gas. Here we can predict the temperature, pressure, and volume of the gas, but we can never accurately predict a single gas molecule.

Similarly, although it is difficult to predict where any one field or subfield of technology will end up, some technologists believe that the development of technology in human society may be predictable from the combined action of all the subfields.

From Information theory proponent Claude Shannon, physicist Stephen Hawking to almost all famous scientists and engineers, all have argued the various possibilities of the technological revolution. One of them is artificial intelligence expert Ray Kurzweil. He has written several books on where future technology will be and when exactly it will be on the market [3]. His argument is based on Intel founder Moore's law. According to Moore's law, the number of transistors in integrated circuits is doubling approximately every two years [4]. In other words, the growth rate of computer intelligence is exponential (getting faster and faster), not linear.

The concept of Exponential growth is important to understand.

Let's say, there are 2 flowers in a pond.

First, assume that the number of flowers increases at a linear rate – 2 per day. Then on the 2nd day there will be 4 flowers, on the 3rd day 6, so after 10 days 20.

Now imagine, the number of flowers is increasing at an exponential rate – doubling every day. Then there will be 4 flowers on 2nd day, 8 on 3rd day, 16 on 4th day, 1024 after 10 days.

There is much difference: 20 and 1024.

If the exponential rate continues, after 20 days the number of flowers will exceed 1 million.

If something is growing at an exponential rate, how fast is the change - get it? Computer power is increasing at an exponential rate.

Now imagine, if computer power is doubling every one and a half to two years, how fast it is growing. In fact, the capabilities of a desktop computer only a few years ago are now lesser than that of a smart phone in the palm of one's hand.

What has happened as a result of the increase in computer power is that the technologies that rely on computers are also growing at a doubling rate. The explosion of the modern Internet in a short period of time is an example. The beginning of the Web happened in the mid-90s. Before this, the Internet was not prevalent among the general public. And now we can imagine life without the Internet?

We are seeing the effects of exponential improvements in other areas of technology as well. For example, while it took us 15 years to sequence HIV, it took just 31 days to sequence SARS.

Physicist: But exponential growth cannot continue indefinitely. At some point there may be a clash with basic sciences. For example, the size of transistors can only be reduced up to a limit according to quantum mechanics. Next?

Kurzweil also explains how exponential growth can proceed without conflicting with basic sciences. According to him, paradigm change will occur before the limit can be reached. That is, if the same trend does not progress, a completely new trend will emerge. As was the case during the transition from vacuum tubes to integrated circuits. There may be transition from integrated circuits to three-dimensional molecular computing.

So, without further ado let's see what future technology is waiting for us. Let's take a look at ourselves first.

Human Body Version 2.0

Sons and daughters never look exactly like their parents. Brothers and sisters do not look alike. Genes from parents are changed to offspring through recombination, mutation. And our body is the product of billions of years of Biological Evolution, the process of changing little by little from species to species.

One of the many adaptations that evolution has made to make us fitter is the storage of calories in the body - to be used when food is scarce after an abundance. Our ancestors did not always have enough to eat. So, once you find something to eat, you need to eat a lot and store it in your body. But today this biological strategy has almost completely turned against us. This is largely responsible for obesity, coronary artery disease and type-2 diabetes.

This is just an example. Many other processes of evolution are going against our needs in the new world today. So many scientists think it's time to redesign the body to suit the modern world. We are already disrupting the body's natural cycle with drugs, replacing many organs with devices. Through biology, bioengineering and nanotechnology, we want to design systems for the body that are longer lasting, stronger, disease resistant and more pleasurable.

Nanobots or blood cell-sized robots [6] will play a leading role in this. Nanobots will play the role of a tiny robot surgeon to cure body of diseases. Nanobots will create artificial sensations in virtual reality by making direct contact with our sensory organs – a dream that is inspiring many scientists. It doesn't end here. Nanomedicine researcher Robert Freitas wants to redesign our red blood cells. He wants to design it in such a way that the need for heart lessens in our bodies. The heart is basically an organ for pumping blood in the body. If red blood cells can be designed that can self-distribute throughout the body, the need for a heart is reduced.

Stem cell research is advancing the field. Stem cells are cells that act as mother cells of various organs and tissues [5]. Kidneys gradually develop from kidney stem cells. Heart stem cells become whole hearts. If we can learn to nurture stem cells, we can make any organ. In short, in the 21st century almost all parts of the body can be replaced with artificial organs.

Neuroscientist: But the brain cannot be replaced. If the brain is replaced, a person will not feel that he is the same person as before. So? Will the intelligence of the human community always remain the same?

The topics of Brain and intelligence will now be discussed.

Development and future of intelligence

With the incredible success of science, modern scientists and engineers think that modern science can explain everything in the universe. But those of us who independently acquire knowledge of all kinds know that there are many things in the universe that are still beyond the reach of modern science. Many things cannot be explained by modern science especially modern physics. If scientists consider them, they will say that science must be rewritten! My personal opinion: We will gradually find the nature of Ultimate Reality. Modern science is a part of that ultimate reality.

According to modern science, man is an insignificant thing in the universe. A vast universe – consisting of billions of galaxies. Theirs is a planet in the star called the Sun of the Milky Way Galaxy. Although the probability is very low, a human-like animal has been created through evolution!

But we now know that there is something called Consciousness and Spirit beyond matter and energy, and that Consciousness and Spirit has many powers, which cannot be explained by matter and energy. Taking Consciousness into account, we understand: We, humans are not insignificant at all, but the universe exists around us.

Modern science explains the evolution of the universe as follows:

  • The origin of the universe took place according to unknown laws of physics. 
  • Its development happened through the combined action of physics and chemistry. 
  • Then the origin of life came about through DNA or RNA. 
  • Much later the brain emerged for centralized control of life. 
  • As the brain evolves, so does technology, and now we stand at a crossroad. We await for the merging of life and technology and the creation of higher forms of life and intelligence. This requires the creation of artificial intelligence that can take technology to that level faster than humans.

Critic: Artificial intelligence has been giving a message of hope ever since 1950s. Will we ever get true artificial intelligence?

Ray Kurzweil, like many others, expressed strong optimism in this regard. He has outlined his road map. According to this roadmap, we will achieve the brain equivalent of hardware within the next decade through nanotechnology. Maybe that will be through three-dimensional molecular computing. And it will not be difficult to achieve brain equivalence in software.

Software Engineer: Progress in software is linear - that is, slow. Ten years ago, we used Google and we still use it today. Admittedly, though, today's Google has a lot more information to take into account.

Kurzweil's idea is that software will improve not slowly but rapidly. His argument is that we have begun to model the brain. Modeling the brain and creating mathematical and computational models of it is progressing at an exponential pace. For example, Lloyd Watts modeled 15 brain regions involved in auditory analysis and implemented them on a computer. On the other hand, Carnegie Mellon's Tom Michel is trying to understand the workings of the brain using different methods of machine learning [7]. Once the complete model of the brain is completed, we will apply it to the computer and create a human-level artificial intelligence. According to Kurzweil, that unforgettable event is going to happen by 2029.

One thing needs to be understood here. That artificial intelligence will not be able to enjoy the music, but it will be able to tune the music. It won't enjoy beauty, but can correctly identify everything.

Social scientist: 8 billion people live on earth. And what is the importance of joining the same level of intelligence of a person? What effect will it have on society?

To tell the truth, the importance is now that the machine can think and calculate very quickly, can remember perfectly, can exchange knowledge at high speed. More importantly, according to Kurzweil, non-biological intelligence will double in effetiveness every year. Then communication will be established between the human brain and the computer and then humans will become complete cyborgs.

The enormous power of human intelligence and artificial intelligence will then go out to conquer the universe. Not only will the universe be conquered, but the matter of the universe will be used for intelligence and computation, and we will rush into the final stages of evolution.

Next? Let's leave it up to you, the reader, to decide what happens next! You do have a stake in this universe, don't you?

Ray Kurzweil


Article in Bengali:

Introduction to Computer Programming

 

Do you know the most interesting thing about computers?

Oh no, not gaming. Not listening to music. Anything else? Browsing the Internet? You can say that. But even more fun is programming the computer.

If you know programming, you can not only play games, but also make your own games. You can make your own music player. You can even create an e-commerce platform like bikroy.com. You have an account on Facebook, right? If you know programming, you can make an application for Facebook. Then you can use the application together with your friends! Ever wanted to create apps for Android phones? Become proficient in programming without delay!

These are just some examples. Almost anything can be done with a computer. What else can be done is limited only by our programming capabilities. There are other things, of course. For example, devices need to be connected to the computer to perform many tasks. Again, it takes so much time to do some work with programming (we say "Computational Complexity" of the problem is high) that one has to find an alternative way without finding the right solution.

The main attraction of programming: “Instant Feedback”. This means you write a program and run it immediately to see your program working. It takes time to make an electronic circuit and see it work. But programming is instant - you write a program sitting at the computer and immediately run it and see the results of your work!

So, when everything can be done with this programming, how to do programming?

Excellent question!

If you want to get a job done with someone, how to do it? Give him work instructions and he works as instructed, right? The same is the case with programming. You want the computer to do a job. So, while programming, give instructions to the computer and the computer will do the work as per your instructions.

A program is a sequence or collections of instructions to perform a specific task.

There's a problem here – computers don't understand your and my language. If computers understood that would have been fun! We used to say everything we want to be done quickly in Bengali or English and the computer would do everything quickly!

Then?

Although computers do not understand our language, they understand languages that 'follows certain rules'. Those languages are not exactly like Bengali or English, but close. In order to program the computer, all those specific instructions have to be instructed in a language that follows certain "rules" (computer scientists call these constrained languages Context Free Language).

Let's get back to a real example.

How do we use a normal calculator? We give some data (here numbers) as input and specify which operators (like addition, multiplication, etc.) will be applied on the data. The calculator applies operators on the data and displays the results as output.

Now if we could make the operators ourselves, wouldn't it be a lot more fun? We would create an operator to find the average of a set of numbers given as input. Another operator to display a specified number of prime numbers as output. How many more ideas would come out!

From programming perspective, programmers create operators with instructions. On the other hand, the user provides as input the data and the operator to be applied on the data. And see the result as output.

.... .... ....

Tuesday, August 1, 2023

Tahsin's Areas of Research and Expertise

 

Computer Science and Engineering:

  1. Artificial Intelligence, Generative AI, Big Data and Robotics
  2. Internet of Things (IoT), Ubiquitous Computing
  3. Computational Science and Engineering
  4. Computational Biology and Bioinformatics
  5. Hardware Engineering
  6. ICT Applications, ICT for Development
  7. Parallel and Distributed Computing + Security
  8. Software Engineering

Electrical and Electronic Engineering (Future):

  1. Nanoelectronics, Materials, Devices, VLSI
  2. Electrical and Electronic Devices
  3. Quantum Engineering, Optoelectronics and Photonics
  4. Energy and Power Engineering
  5. Signal processing and Control

Nuclear Engineering:

  1. Nuclear Energy
  2. Nuclear and Particle Physics
  3. Biomedical Physics, Nuclear Medicine

Mechanical and Aerospace Engineering (Future):

  1. Manufacturing
  2. Astronautical Engineering

Biomedical Engineering (Future):

  1. Superhuman / Transhuman research
  2. Cell and Tissue Engineering, Regenerative Medicine
  3. Pharmaceutical Engineering
  4. Genetic and Molecular Engineering, Gene Sequencing
  5. Synthetic Biology
  6. Biomechanical Engineering (Sports)
  7. Neural Engineering, Brain Computer Interfacing

Architecture (Future):

  1. Theme, Amusement Park Architecture; Film Studio Architecture
  2. Product Design 

Chemical Engineering (Future): 

  1. Nanoengineering

Economics:

  1. Development Economics
  2. Financial Economics
  3. Applied Economics

Studying Medicine


In November 2013, I messaged my younger brother and sister, both of whom are studying Medicine at two different medical colleges.

This is what I wrote.
  1. Imagine your dreams, desires coming true. Feel the pleasure. Think how becoming a great physician can help make your dreams, desires into reality. (Say to yourself, "Yeah! I can turn all of my dreams into reality! What am I waiting for?") Now stop doing everything else and start studying! (Motivate yourself regularly.) 
  2. Ignite your curiosity. (Say, "Hey, I know this and this about how we see things with our eyes! I want to understand the whole vision thing more deeply!") As you read, never lose sight of the things you wanted to know and the questions you had in your mind when you started out. As you learn more, ask more questions and study, think to find out answers to your questions. (Write them down if you find it useful.) (Say, "So now I understand how image forms on the retina, but how does the signal reach the brain?") Get excited! (Say, "So there is a primary visual area and a secondary visual area!") Feel proud of yourself! (Say to yourself, "Huh! How many of my friends can explain / understand it like the way I can!") Become passionate! 
  3. Just as we build model of a person ("he is such and such"), build models of different systems and integrate “everything” you learn to those models. 
  4. Build models of different systems and subsystems: Cardiovascular systems (subsystem: heart), Nervous systems (subsystems: spinal cord, eyes-vision, brain etc.). Integrate whatever you learn about a system in that system’s model. Visualize – try to see everything in your mind’s eyes. As you learn new concepts integrate them into respective models. Draw pictures, diagrams. Write on those pictures, diagrams. 
  5. Consider hierarchy of systems (how cells make different tissues, tissues make different organs).
  6. Learn how different systems interact (e.g., stress triggers hormonal responses: endocrine system). Visualize – draw - use graphs / networks (diagrams with lines connecting different systems). 
  7. When learning pathology, build models of diseases. Now model how different systems (cardiovascular, immune) work / dysfunction (as a result of e.g., a particular class of virus / bacteria) to give rise to diseases and the treatment plan. (Say, "So this is why the treatment plan for this disease is that pharmaceutical!") 
  8. Never forget to visualize! When you visualize / draw diagrams, you can take in a lot of information at a time and all the facts you learn seem real.