Challenges:

1. Limited Battery Range: One of the significant challenges of EVs is the range anxiety experienced by drivers, which stems from the limited battery range. Automobile engineers face the challenge of developing new battery technology to increase the range of EVs.

2. Lack of Charging Infrastructure: Another challenge faced by engineers is the lack of EV charging infrastructure compared to traditional gas stations. The development of faster charging technology, efficient charging stations, and smart grid technology can help overcome this challenge.

3. High Cost: The cost of EVs is still relatively high compared to gas-powered cars, which can discourage potential buyers. Engineers need to focus on reducing the cost of production and optimizing the manufacturing process to make EVs more accessible to consumers.

Opportunities:

1. Battery Technology: Researchers are working on developing solid-state batteries that could significantly increase the range of EVs while improving battery life and reducing the risk of fire.

2. Charging Infrastructure: Engineers can work on developing faster charging technology, such as ultra-fast charging stations, to add hundreds of miles of range in just a few minutes. They can also design better battery management systems for more efficient charging and longer battery life.

3. Cost Reduction: By optimizing the aerodynamics and weight of EVs, engineers can significantly enhance the efficiency of EVs, which will help to extend their range.

Automobile engineers face significant challenges and opportunities in the development of EVs. However, with out-of-the-box thinking and innovation, they can overcome these challenges and take advantage of the opportunities to drive the transition to more sustainable transportation options. As EV technology continues to improve, we can expect to see more people switching to electric vehicles, leading to a cleaner and greener future. By investing in EVs and supporting innovation, we can create a sustainable future for generations to come.

Pragya Gogoi

Electronics and Communication Engineering (ECE) has gained ground in the face of competition from other sectors such as computer science, mechanical engineering and electrical engineering. ECE comprises designing, developing as well as manufacturing electronic equipment, communication and broadcast system. 

• It involves small-scale electronic systems in comparison to electronic engineering (EE).  

• It carries out analog transmission, basic electronics, microprocessors, solid-state devices, digital analog communication, satellite communication tools, Integrated circuits, antennae and wave progression as well as electronic devices. 

Electronics and communication engineer have to deal with various tools and systems to perform the system efficiently and effectively.

Here are some of the activities an electronics and communication engineer needs to perform:  

• Researching, designing and developing different types of electronic equipment. 

• Manufacturing of communication and broadcast systems 

• Examine and analyze electronic and communication projects. 

• Use different kind of platforms and designs for new electronic and communication projects. 

• Stimulate potent, efficient and safe prototypes. 

•  Impart electronic equipment such as Radio, television as well as computer  

Career Types 

Needless to say, in electronic and communication engineering various types of career ahead in front of interested candidates and here they are: 

• Technical Director 

Being a high profile paying job, predetermined responsibility comes under technical director. They supervise, direct and analyze the system as well as tech end team will be accounted for technical director. 

• Telecom Engineer 

Telecom consists of electronic communication systems, optical cables, IP networks and also the old telephone service equipment, microwave transmission cables and telecom engineer works on it.  

• Communication Engineer 

Communications engineer’s main work is  designing, managing and monitoring electrical and communication devices. In addition to that they deal with problems whether network and services deliver on time or not. 

• Desktop  Support Engineer 

Every company engages with glitchy features such as security issues and server errors  whether it’s  big or small occur in system software. Desktop Support Engineer resolves and growing push to eliminate those bugs. 

• Software Analyst 

A software analyst is responsible for analyzing the information of a system software and  manage the software’s algorithms as per customers’ needs and constant updates or modifications.  

How can you become an electronics and communication engineer 

The eligibility criteria for Electronics and Communication Engineering courses at various levels are: 

• For Diploma in Electronics and Communication Engineering (ECE) 

A merit in the 10+2 examination can be helpful for candidates to get diploma. 

Candidates must have Physics, Chemistry and Mathematics in class 12. 

• For Undergraduate Electronics and Communication Engineering Courses (ECE) 

After completing 12^th with minimum 50-55% of the total marks in 10+2 with Physics, Chemistry and Mathematics. 

For further courses, diploma course is mandatory. 

• For Postgraduate Electronics and Communication Engineering Courses (ECE) 

After completing graduation with a minimum of 50% marks or a GPA of 5/10. 

A minimum of 50-55% in Class 12 with Physics, Chemistry and Mathematics as compulsory subjects. 

• For Ph. D. in Electronics and Communication Engineering (ECE) 

After completing Post graduate, a minimum of  55% or 6 CGPA in their M. Tech. from a recognized university/college. 

Helpful skills and certification to become Electronics and Communication Engineer 

For becoming a quintessential engineer, some vital sets of skills are needed to be considered. 

Some of the certificates beneficial for electronic and communication engineering are: 

Top Recruiters: 

• Tata Elxsi 

• Bharat Electronics Limited 

• Bharat Heavy Electricals Limited (BHEL) 

• Bosch 

• Cadence 

• Texas instruments 

• Wipro VLSI 

• QUALCOMM 

• ISRO 

• DRDO Labs 

• Honeywell 

• ABB 

• IBM 

• EDA 

• Hewlett Packard 

• Nokia Siemens 

• Samsung 

• Microsoft 

• SAP 

• TCS 

• Infosys 

• Intel 

• Mentor graphics 

Top ECE Job Titles: 

Salary Structure :

Overall Career Insight  

Electronic and communication engineering comes with state of the art technological career for the students that will theoretically and practically guarantee a bright future. It is not only professionally rewarding but aids in the complete development of society as well. 

—Annu Mittal

Are you lost?  And don't know where to begin? what to do next? Or what choice to make?

This blog will give you an insight and overview of one of the branches of Engineering- Mechanical  Engineering. Along with it, this will provide you with a roadmap to Mechanical Engineering, you will get an in-depth understanding of what you must do to become a mechanical Engineer, unearth the skills required to bag this position, and you’ll get a step closer to your dream of becoming a Mechanical  Engineer.

Mechanical engineering is one of the broadest and oldest engineering disciplines.

·       It combines engineering physics and applied mathematics with materials science to design mechanical systems and new materials. It requires knowledge of basic areas of physics such as mechanics, thermodynamics, material science, theory of elasticity, structural analysis, electricity, and magnetism.

Mechanical engineers are involved in the research, design, development, construction, testing, and implementation of mechanical systems and equipment in virtually all types of industries. They are great at solving problems.

 It is a very broad and challenging field. The field of mechanical engineering touches nearly every aspect of life, including the human body, which is a large complex machine. They design and construct everything from micro detectors, medical devices, computers, and auto machines to robots, heavy machinery, complex systems, training equipment, and aircraft.

There is a lot of intersection between subjects in mechanical engineering and other engineering fields. Automotive, aerospace, biotechnology, and manufacturing are just a few of the fields where mechanical engineers play an important role.

Types of Mechanical Engineering Specializations-

• Aerospace Engineering

  The design, development, testing, and production of aircraft, spacecraft, and related systems and equipment are the focus of aerospace engineering. It has two main branches that cross each other: aeronautical engineering and astronautical engineering.

• Nautical Engineering

  It is also known as Marine Engineering. This discipline of mechanical engineering deals with the design, construction, production and operation of the mechanical equipment used, at sea or onboard sea vessels, docks, and harbor installations.

• Automation Engineering

  The field of automation engineering focuses on automating specific system components to increase the efficiency of various computer and manufacturing processes. Engineers  plan and modify existing technology to reduce the necessity for human interaction, and they keep an eye on how well the modifications work.  Traditional engineers who work with actual machines or software engineers who work with programming languages are examples of automation engineers.

• Acoustics Engineering

  This branch deals with vibration and sound. It is the integration of technology with acoustics, the study of sound and vibration. Acoustical engineers typically focus on sound design, analysis, and management.

• Mechatronics

  Mechatronics is a combination of mechanics and electronics. Electronics and mechanics are combined in Mechatronics. It is a multidisciplinary field that incorporates computer science, mechanical engineering, and electrical engineering.

• Power Plant Engineering

  Every operation requires energy and power, which are generated at Power plant. Power plants can be diverse in their manners of production like nuclear power plants, hydropower plants, thermal power plants, etc. Thermodynamics is primarily used in this branch of mechanical engineering. It is obvious that equipment like boilers and alternators are used.

• Manufacturing Engineering

  It deals with optimizing manufacturing techniques,  research, developing processes as well as machines, tools, and equipment for the manufacture of goods.

• Design Engineering

  The use of mechanical engineering theories to design better machines that promote efficiency as well as sustainability. They are the specialists who create the conceptual designs of the products or equipment  and are involved in the initial concept, design, development and management of projects in a range of sectors

There are many types of Mechanical Engineering. Some of them are mentioned above and the others include-

·       Flow physics and computational Engineering

·       Vehicle Engineering

·       HVAC Engineering

·       Computer-Aided Engineering CAE

·       Automotive Engineering

·       Autonomous Systems Engineering

·       Biotechnology

·       Computer Aided Design (CAD)

·       Control Systems Engineering

·       Cyber security

·       Ergonomics

·       Biomechanical Engineering

·       Nanotechnology

·       Production planning

·       Robotics

·       Structural analysis

·       Mechanics and computation Engineering

Workplace

Mechanical engineers typically work in offices and project/industry sites. They may occasionally visit job sites / work fields where a problem or piece of equipment requires their personal attention.

How to become a Mechanical Engineer?

There are several steps you need to accomplish to become a Mechanical Engineer. These steps are-

1)      Complete 10+2 in Science

Students should have passed the Class 10+2 exam from an accredited board with Physics, Chemistry and Mathematics as core subjects. They should also have secured minimum aggregate marks of 60% in the above mentioned subjects.

2)      Entrance Examinations

Some of the well-known engineering entrance exams that applicants for mechanical engineering programs are-

Engineering Entrance Exams:

JEE MAIN

JEE Advanced

SRMJEE

BITSAT

VITEEE

KIITEEE

COMEDK UGET

AP EAMCET

WBJEE

MHTCET

3)      B. Tech

• Students who enroll in the four-year B.Tech mechanical engineering program learn the fundamentals of how large tools and machinery work. A mechanical engineering major will gain design skills for creating large vehicles like electric motors, cars, and airplanes.

• Mechanical design engineers produce everything from electric power plants to personal computers, air conditioners, and automobile engines, as well as new batteries, sporting goods, and medical equipment. These engineers also design the tools used to produce these innovations.

•   Mechanical engineering has an effect on every aspect of our lives, giving the discipline a broad scope on both a national and international level.

• The program offers students a wide range of career options across numerous industries.

4)      M. Tech/ PhD/Masters aboard

• There are many reputable universities and colleges abroad if you want to pursue a higher degree after earning your B.Tech in India.

• The criteria for admission in Masters or post doctoral aboard differs from those in India.

• Following a B.Tech, you will need to submit GRE scores along with English language proficiency scores from IELTS, TOEFL, PTE, etc. in order to apply to any university abroad for a PhD or Masters. Additionally, for PhD programs at international universities, a statement of purpose, a Letter of recommendation, and a research proposal are needed.

Top B.Tech Mechanical Engineering Colleges in India

Top B.Tech Mechanical Engineering Colleges Abroad

Helpful skills and Certification:

Best certification for Mechanical Engineers-

Helpful Skills-

Some helpful soft and hard skills include-

Some of the Top Recruiters-

·       BMW

·       General Electric Co (GE)

·       General Motors Corporation

·       Tata Motors

·        Mahindra & Mahindra Ltd.

·       Larsen and Toubro Ltd.            

·       Hindustan Petroleum Corporation Limited (HPCL)

·       ThyssenKrupp

·       Oil and Natural Gas Corporation Limited (ONGC)

·       Ford Motor Company

·       Caterpillar Inc.

·       Toshiba

·       Kirloskar

·       Godrej Group

·       Ashok Leyland

Top Mechanical Engineering job title-

·       Mechanical Engineer

·       Manufacturing Engineer

·       Design Engineer

·       Mechanical Design Engineer

·       Aerospace Engineer

·       Industrial Engineer

·       Nuclear Engineer

·       Automotive Engineer

·       Project Engineer

·       Quality Engineer

·       Systems Engineer

·       Maintenance Engineer

·       Construction Engineer

·       Instrumentation and control Engineer

·       Research and development

·       Production Engineer

·       Product Engineer

·       Sales Engineer

·       Automation Engineer

Salary Structure-

1.      India-

₹379,045/ year Avg. Base Salary (INR) or

 ₹145.33/ hour Avg. Base Hourly Rate (INR)

 The highest salary can exceed-₹10,00,000 per annum

2.     Abroad

The average salary - $86,411 per year in the USA

$6,118 per month

The highest salary can exceed - $125,559 per year

—Fatma Zehra

Unemployed engineers in India is a major concern, as a large number of highly skilled and educated professionals are struggling to find work in their field. There are several reasons why this is the case, including oversaturation in the job market, lack of relevant skills, and a mismatch between the skills taught in engineering schools and the needs of industry.

• One of the main reasons for the high rate of unemployment among engineers in India is the oversaturation in the job market. The growing popularity of engineering as a career has led to a large number of engineers entering the job market, resulting in increased competition for job opportunities. This makes it difficult for recent graduates to find work, as they are competing with a large pool of other highly qualified candidates.

• Another reason for the high rate of unemployment among engineers in India is the lack of relevant skills. Many engineers are unable to find work because they lack the practical skills and experience required by employers. This can be due to the fact that engineering schools often focus on theoretical knowledge rather than practical skills, which are critical for success in industry.

• A mismatch between the skills taught in engineering schools and the needs of industry is another reason for the high rate of unemployment among engineers in India. The rapidly changing nature of technology and industry means that engineers need to have up-to-date knowledge and skills to be competitive in the job market. However, many engineering schools struggle to keep pace with these changes, leading to a mismatch between the skills taught and the needs of industry.

To avoid unemployment, engineers in India can take several steps.

• Firstly, they can focus on acquiring practical skills and hands-on experience while still in school. This can be achieved through internships, co-op programs, and projects that provide exposure to real-world engineering problems.

• Secondly, engineers can stay up-to-date with the latest technologies and developments in their field. This can be achieved through continuous learning and professional development, such as attending conferences, workshops, and courses.

• Finally, engineers can also consider branching out into other areas, such as entrepreneurship or freelance work. This can provide them with greater flexibility and control over their careers, as well as the opportunity to apply their skills and knowledge in new and innovative ways.

In conclusion, unemployment among engineers in India is a major concern, but there are steps that engineers can take to avoid it. By acquiring practical skills and hands-on experience, staying up-to-date with the latest technologies, and considering alternative career paths, engineers can increase their chances of finding work and achieving success in their careers.

—Pragya Gogoi

Engineering has been one of the most sought after careers in India for several decades. The popularity of engineering can be attributed to a number of factors, including the long tradition of engineering, the demand for engineers, the strong focus on science and mathematics in the Indian education system, government support, and the high earning potential and job security associated with this profession.

• One of the main reasons why engineering is so popular in India is due to its long history and tradition. Engineering has been a respected and prestigious profession in India for many generations, and there are many families who have a long history of engineers. This has created a cultural expectation that engineering is a desirable and attainable career path for students. In addition, engineering is seen as a practical and secure career choice, which provides students with opportunities for growth, development, and success.

• Another reason for the popularity of engineering in India is the high demand for engineers. India has experienced rapid growth and development in recent years, particularly in the fields of technology, telecommunications, and construction. This has led to an increased demand for engineers who are able to design, build, and maintain the country's infrastructure and technology systems. In addition, many multinational corporations are establishing operations in India, which has further increased the demand for engineers.

• The Indian education system has also played a role in the popularity of engineering. The education system places a strong emphasis on science and mathematics, which helps prepare students for engineering programs. Furthermore, the country has a large number of engineering colleges and universities, offering a wide range of specialties and opportunities for students. This has made engineering a more accessible and attainable career choice for students.

• The Indian government has also provided support and incentives to encourage students to pursue engineering careers. The government offers numerous scholarships, grants, and other financial incentives to help students pay for their education. In addition, the government has established partnerships with private sector companies to create job opportunities for engineers.

• Finally, the high earning potential and job security associated with engineering is another factor that has contributed to its popularity. Engineering graduates are in high demand and typically offered good salaries and benefits. They also have the opportunity to work in a variety of industries and to pursue careers in different areas such as research, design, and development, project management, and consulting. This provides students with a secure and stable career path that offers numerous opportunities for growth and advancement.

Engineering is a popular career choice in India for several reasons, including its tradition, demand, education system, government support, and earning potential. Engineering provides students with opportunities for growth, development, and success in a rapidly developing country. With its combination of practical skills and theoretical knowledge, engineering is a well-rounded and versatile career that will continue to be popular for many years to come.

BUT IS THE EVER RISING POPULARITY A BOON OR A MATTER OF CONCERN?

The popularity and increasing population of engineers in India can be seen as both a positive and a negative.

• On one hand, the growth in the number of engineers indicates a strong demand for this profession and provides a large pool of skilled professionals to meet the needs of the country's rapidly developing economy. This can lead to improved infrastructure and technology systems, which can have a positive impact on society.

• On the other hand, the high number of engineers can also lead to oversaturation in the job market and increased competition for job opportunities. This can result in lower salaries and reduced job security for engineers, which can negatively impact their standard of living.

• Additionally, with a large number of engineers in the market, the quality of education and training may decrease, as schools may not have the resources or incentives to provide the best possible education.

• Furthermore, the high number of engineers may also lead to a reduction in the number of students pursuing other careers, such as the arts, humanities, and social sciences. This can result in a lack of diversity in the workforce and a reduction in the number of professionals who can bring unique perspectives and solutions to society's problems.

In conclusion, the popularity and increasing population of engineers in India is a matter of concern as it has both positive and negative implications. It is important to balance the demand for engineers with the need for diversity in the workforce and to ensure that the education and training provided to engineers is of high quality. The government, schools, and industry should work together to address these challenges and ensure that the benefits of the growing number of engineers are maximized while mitigating any potential negative impacts.

—Pragya Gogoi

Learning is becoming more and more interactive and immersive. There was a time when we used to learn only through books, we could only picture a cell or structure of our brain as shown in simple diagrams. But with the advancement of Virtual Reality, we can not only see it, but also interact with it. We can roam around in a cell and see neurons firing in the brain. With its interactive and immersive environment, VR will definitely revolutionize the way we, and our future generations will learn. Things that are hard to describe with words can be experienced in real time. 

Here are a few points on how Virtual reality (VR) based learning can affect future STEM jobs for future generations: 

1. Improving Training and Professional Development: VR can be used to provide employees with hands-on training and professional development opportunities in a safe and controlled environment. This can be particularly useful in fields such as healthcare, manufacturing, and construction where employees need to be trained on complex procedures and equipment. 

2. Enhancing Collaboration and Communication: VR can be used to create virtual environments where employees can collaborate and communicate with each other in real-time, regardless of their physical location. This can improve teamwork and problem-solving skills, and can be particularly beneficial for remote workers or employees who are working in different locations. 

3. Improving Productivity: VR can be used to visualize complex data and processes, such as in the fields of engineering and architecture, to improve productivity, and reduce errors and delays. 

4. Reducing Costs: VR can be a cost-effective alternative to traditional methods of training and professional development, particularly when it comes to providing employees with access to expensive equipment or fieldwork opportunities. 

5. Improving Safety: VR can be used to simulate dangerous scenarios and train employees on how to safely handle them, this can be particularly useful in industries such as construction and mining where safety is a major concern. 

It's worth noting that VR based learning is still a relatively new technology and more research is needed to fully understand its impact on STEM jobs. But it has a lot of potential in improving the employee's skills, knowledge and productivity. 

VR LABS

Getting funding for costly and expensive equipment is hard but with VR you can easily see and be part of any experiment you want. Simulations will be more interactive and safe to play around without fear of explosion or damages.  

As we have all witnessed in last few years, online courses and training programs have opened the world of learning to students in remote areas. So, for instance, a student in India can easily enroll in a course and get a degree from London or Unites States. But with VR, remote learning can become even more immersive. A student can remotely join a classroom with their virtual avatar and have the experience of learning and interacting just like in the real world.  

There are many types of experiments that can be easily done using virtual reality (VR), some examples are: 

1. Psychology and neuroscience experiments: Researchers can use VR to study human behavior and cognition in controlled and realistic environments. For example, scientists can use VR to study how people react to different types of stimuli and how they process information. 

2. Biology and medicine experiments: VR can be used to study the anatomy and physiology of living organisms, researchers can use VR to visualize complex biological processes, such as the human body, in an interactive way. 

3. Physics and engineering experiments: VR can be used to simulate physical phenomena and test the performance of engineered systems in a safe and controlled environment. 

4. Environmental and geology experiments: VR can be used to create virtual environments to study the earth's processes, such as volcanic eruptions, earthquakes, and erosion. 

5. Social and economic experiments: Researchers can use VR to conduct experiments in the field of social and economic sciences, such as studying consumer behavior and decision making in virtual marketplaces. 

These are just a few examples, but VR can be used in many other fields of study to enhance research, experimentation and visualization. 

IMPACT OF VR ON FUTURE STEM JOBS:

We are all aware of how VR will transform STEM education and learning in general but what about STEM jobs? Students who grow up learning using VR technology, how their future jobs will look like?  

Just like today’s teachers have adapted and are using technology to educate students, future generations will also. A teacher is important to guide you and provide you with a roadmap; VR will be just another tool for them but much more powerful tool than any past technologies. 

STEM (science, technology, engineering, and mathematics) jobs are expected to be in high demand in the future. With advancements in technology, the job market is shifting towards fields that require skills in areas such as data analysis, artificial intelligence, and automation. 

VR-based learning will help students simulate real-world situations, such as medical procedures or natural disasters. This can give students valuable experience in dealing with these situations before they encounter them in their future careers.  

VR will play a significant role in stem fields such as medicine, engineering, and architecture, as it will allow professionals to visualize and interact with complex data and simulations in new ways. It will allow access to remotely control equipment in industries such as manufacturing and construction. Additionally, virtual reality can be used to create virtual lab environments for research and experimentation in fields such as chemistry and physics. 

CONCLUSION

In conclusion, VR-based learning can help to equip future generations with the skills and knowledge they need to succeed in STEM jobs. With the ability to provide hands-on, immersive, and interactive learning experiences, as well as the ability to simulate real-world situations and offer remote training, VR-based learning can help to increase access to education and job opportunities for students from all backgrounds. 

There have been several studies that have shown that VR can be an effective tool for enhancing learning and engagement in STEM education. For example, a study published in the International Journal of Emerging Technologies in Learning found that students who used VR to learn about a complex biological process scored significantly higher on a post-test than students who learned the same material through traditional methods.  

Another study published in the Journal of Computer Assisted Learning found that students who used VR to learn about the human anatomy had a better understanding of the material than students who learned the same material through traditional methods. It's worth noting, however, that these studies are still new and more research is needed to have a better understanding of the effectiveness of VR in STEM jobs and education. 

—Shivani Mishra