Certification Related to Electrical Engineering

Introduction

Electrical engineers do not need a professional license or certification to start their careers. However, a professional electrical engineer license can be extremely useful in reaching heights in this area. This step will help to deepen specialized skills to a prominent level, ensure adherence to ethical standards and quality of work (Electrical certification and certificate program options, 2020). In addition, in the future, the license will be an advantage in earning the clients trust and the ability to take a superior level of responsibility for the employer (What is a PE, n.d.). Apart from it, for the specialist themselves, it will serve as a symbol of pride and a measure of the achievements won.

As far as trends in the types of certification and licensure recommended for the career concerned, there are presently a wide variety of skill improvement areas. In particular, it is proposed to obtain certificates of energy efficiency management, electrostatic discharge control, system design, and others (Electrical certification and certificate program options, 2020). At the same time, if a hundred years ago, anyone could work as an electrical engineer without qualifications; currently, expectations are changing. Each state regulates engineering practices to ensure peoples safety, giving only professional engineers the right to seal and sign plans.

Required Point in the Career and Involved Institution

To obtain a professional electrical engineer license, typically, four years of practical experience in this field are required. In addition, it is preceded by receiving a bachelors degree, after which the student becomes an Engineer in Training (EIT) or an Engineer Intern (EI) (What is a PE, n.d., 2020). Further, the specialist must be supervised by proficient engineers for at least four years, considering an opportunity to work in the U.S. They, in turn, must also be licensed as professional engineers by passing the appropriate exam recommended by the National Council of Examiners for Engineering and Surveying (NCEES) (What is a PE, n.d., 2020). The institution which will be involved is the School of PE; it has relevant courses and seminars in various engineering areas, including electrical.

Requirements for the Licensure

Educational and labor requirements for the licensure include a bachelors degree in electrical engineering and four years of work experience, as mentioned earlier. In addition, the demands on character comprise much perseverance and dedication since there is considerable work to be done, and many of the time required to receive a license. Apart from it, it is necessary to pass the Fundamentals of Engineering (FE) exam and directly the Professional Engineering (PE) exam. All of the above requests are obligated and cannot be waived.

Steps Required for the Licensure

After deciding what licensure of a professional electrical engineer is needed for a future career, the next step is to ensure that all of the above requirements are met. In particular, they comprise educational and labor experience, purposeful and tenacious character, and passing two exams. Preparations for the first exam, FE, involve a comprehensive study of an electrical engineering program, including classroom, field, and laboratory operating, digital system design, and others. Training for the second exam, PE, consists of practical, real-life work in the area of electrical engineering with proficient mentors and learning at the School of PE.

Preparing and Streamline the Process

In order to be already currently preparing and streamline the process, a responsible approach to a thorough understanding of all concepts of electrical engineering is necessary. It includes the study of electrical equipment, chips, circuit boards, processors, switching transmission, and control (What is a PE, n.d.). In addition, knowledge and interest in engineering fields such as mathematics and science must be maintained as these are essential skills for a future electrical engineer. Finally, it is imperative to cultivate the ability to solve problems because high-level specialists are expected to quickly identify them, evaluate, and develop the correct solutions.

References

(2020). Study. Web.

(n.d.). National Society of Professional Engineers. Web.

Macau Institute of Electrical and Electronics Engineers

Introduction

Nokia got it right when they thought up their slogan Connecting People The fast paced world that we live in now absolutely requires instant and immediate communication at all times and all places, be it at work, the house or even on the go. We take for granted how we have been facilatated by the communication industry, believing everything just came to be. Its taken years and a lot of hard work to come to the point we are at now

Mobile Communication

Communication has been around since the time of the caveman. Its not communication that has evolved but the form that has evolved. Back in the beginning we had things like drum beats and smoke signals, which then advaced to morse code and with a lot of things in between we were sweeped off by mobile communication.

The era took the world like a whirlwind and still continues to amaze at incredible speed.Though the system is almost a years old, their actual emergence was not felt until until the early 1970s when the first 1G phones, which used analouge circuit-switched technology, (History of Mobile Phones) hit the streets on a trial run. The official launch off these phones took place in Japan in 1979 followed by Denmark, Finland, Norway and Sweden in 1981.

The 1990s brought with it the 2G phones which made the use of digital technology and introduced features such as SMS and Called ID. Next in line were the 2.5G phones which were more technologically advanced and was seen as the first step towards 3G phones as people were demanding better data sevices and access to the internet. (History of Mobile Phones)

3G phones were first introduced at the turn of the century but did not become highly employed util 2007. According to a report by Strategy Analytics, 3G technolgy will take the world in a wave by 2014. There wont be any electronic device that wont be making use of it. From laptops to gaming consoles to digital cameras will all have 3G on them. 3G technology is already being employed widely by smartphones such as the iPhone and Android (Remarkable 3G and 4G devices to become reality by 2014) allowing fast paced access to the internet and other features such as TV streaming, multimedia, videoconferencing, web browsing, e-mail, paging, fax, and navigational maps.

Now that 3G has made its mark its time to move onto bigger and better things. The next step is 4G technology which probably would have been inroduced by now had 3G mad its mark sooner. That doesnt mean that work on 4G hasnt started yet. Its already on the go with many answers already found. Many companies have redirected and are working their research and development departments to develop more quickly. It is believed to be more reliable as will enable data to ransfer more quickly than it does right now since its high uplink rate will be up to 200Mbps.

The road from 3G to 4G

The move has begun, some companies have started spending a lot on research and development in this area to improvise communication for their customers.one of these being Verizon Wireles who is ready to lauch its long-term evolution (LTE) this year whereas AT&T have decided to hold back and wait till 2011. Meanwhile theyll be upgrading their existing 3g technology. (3G or 4G? Parsing the economics of mobile broadband), Why the difference though? Wouldnt it be more profitable for everyone to jump on the 4G bandwagon as its the next step up the ladder. Maybe so, but theres no hard and fast rule to when on should bring it into their system. Different companies have different priorities and will begin their next levels accordingly. Some say that they dont provide to areas where theres a demand for this change. The consumers are happy with what they are getting especially in the rural areas while others think moving from one to the other will be more fruitful to their objectives in the long run. It all depends on the way things are perceived hence the difference in thoughts and approaches. It is believed though that by the year 2014 the percentage share should increase to around 25-30% as compared to the current 7%.

Conclusion

As we all know change is constantly taking place and its maybe even inevitable in the world that we now live in. The world we live in has wants and demands that change from one to another within seconds or it would probably be more appropriate to say within a heartbeat. Theres nothing that can satisfy us for too long and to find the right thing we go through many others.Our choices and tastes are quite hard to keep up with but hats off to the telecommunication industry for doing so. They not only cater to our needs but to a whole spectrum of needs w hich are as different as green cheese is from the moon.

References

Institue of Electrical and Electronics Engineers of Macau/www.ieeemacau.org/ History of Mobile Phone. 2009. Web.

Mobile Mentalism/www.mobilmentalism.com/Remarkable 3G and 4G devices to become reality by 2014. Web.

TelephonyOnline/www.telephonyonline.com/Kevin Fitchard. (2009). 3G or 4G? Parsing the economics of mobile broadband. Web.

Certification Related to Electrical Engineering

Introduction

Electrical engineers do not need a professional license or certification to start their careers. However, a professional electrical engineer license can be extremely useful in reaching heights in this area. This step will help to deepen specialized skills to a prominent level, ensure adherence to ethical standards and quality of work (Electrical certification and certificate program options, 2020). In addition, in the future, the license will be an advantage in earning the clients trust and the ability to take a superior level of responsibility for the employer (What is a PE, n.d.). Apart from it, for the specialist themselves, it will serve as a symbol of pride and a measure of the achievements won.

As far as trends in the types of certification and licensure recommended for the career concerned, there are presently a wide variety of skill improvement areas. In particular, it is proposed to obtain certificates of energy efficiency management, electrostatic discharge control, system design, and others (Electrical certification and certificate program options, 2020). At the same time, if a hundred years ago, anyone could work as an electrical engineer without qualifications; currently, expectations are changing. Each state regulates engineering practices to ensure peoples safety, giving only professional engineers the right to seal and sign plans.

Required Point in the Career and Involved Institution

To obtain a professional electrical engineer license, typically, four years of practical experience in this field are required. In addition, it is preceded by receiving a bachelors degree, after which the student becomes an Engineer in Training (EIT) or an Engineer Intern (EI) (What is a PE, n.d., 2020). Further, the specialist must be supervised by proficient engineers for at least four years, considering an opportunity to work in the U.S. They, in turn, must also be licensed as professional engineers by passing the appropriate exam recommended by the National Council of Examiners for Engineering and Surveying (NCEES) (What is a PE, n.d., 2020). The institution which will be involved is the School of PE; it has relevant courses and seminars in various engineering areas, including electrical.

Requirements for the Licensure

Educational and labor requirements for the licensure include a bachelors degree in electrical engineering and four years of work experience, as mentioned earlier. In addition, the demands on character comprise much perseverance and dedication since there is considerable work to be done, and many of the time required to receive a license. Apart from it, it is necessary to pass the Fundamentals of Engineering (FE) exam and directly the Professional Engineering (PE) exam. All of the above requests are obligated and cannot be waived.

Steps Required for the Licensure

After deciding what licensure of a professional electrical engineer is needed for a future career, the next step is to ensure that all of the above requirements are met. In particular, they comprise educational and labor experience, purposeful and tenacious character, and passing two exams. Preparations for the first exam, FE, involve a comprehensive study of an electrical engineering program, including classroom, field, and laboratory operating, digital system design, and others. Training for the second exam, PE, consists of practical, real-life work in the area of electrical engineering with proficient mentors and learning at the School of PE.

Preparing and Streamline the Process

In order to be already currently preparing and streamline the process, a responsible approach to a thorough understanding of all concepts of electrical engineering is necessary. It includes the study of electrical equipment, chips, circuit boards, processors, switching transmission, and control (What is a PE, n.d.). In addition, knowledge and interest in engineering fields such as mathematics and science must be maintained as these are essential skills for a future electrical engineer. Finally, it is imperative to cultivate the ability to solve problems because high-level specialists are expected to quickly identify them, evaluate, and develop the correct solutions.

References

(2020). Study. Web.

(n.d.). National Society of Professional Engineers. Web.

Macau Institute of Electrical and Electronics Engineers

Introduction

Nokia got it right when they thought up their slogan Connecting People The fast paced world that we live in now absolutely requires instant and immediate communication at all times and all places, be it at work, the house or even on the go. We take for granted how we have been facilatated by the communication industry, believing everything just came to be. Its taken years and a lot of hard work to come to the point we are at now

Mobile Communication

Communication has been around since the time of the caveman. Its not communication that has evolved but the form that has evolved. Back in the beginning we had things like drum beats and smoke signals, which then advaced to morse code and with a lot of things in between we were sweeped off by mobile communication.

The era took the world like a whirlwind and still continues to amaze at incredible speed.Though the system is almost a years old, their actual emergence was not felt until until the early 1970s when the first 1G phones, which used analouge circuit-switched technology, (History of Mobile Phones) hit the streets on a trial run. The official launch off these phones took place in Japan in 1979 followed by Denmark, Finland, Norway and Sweden in 1981.

The 1990s brought with it the 2G phones which made the use of digital technology and introduced features such as SMS and Called ID. Next in line were the 2.5G phones which were more technologically advanced and was seen as the first step towards 3G phones as people were demanding better data sevices and access to the internet. (History of Mobile Phones)

3G phones were first introduced at the turn of the century but did not become highly employed util 2007. According to a report by Strategy Analytics, 3G technolgy will take the world in a wave by 2014. There wont be any electronic device that wont be making use of it. From laptops to gaming consoles to digital cameras will all have 3G on them. 3G technology is already being employed widely by smartphones such as the iPhone and Android (Remarkable 3G and 4G devices to become reality by 2014) allowing fast paced access to the internet and other features such as TV streaming, multimedia, videoconferencing, web browsing, e-mail, paging, fax, and navigational maps.

Now that 3G has made its mark its time to move onto bigger and better things. The next step is 4G technology which probably would have been inroduced by now had 3G mad its mark sooner. That doesnt mean that work on 4G hasnt started yet. Its already on the go with many answers already found. Many companies have redirected and are working their research and development departments to develop more quickly. It is believed to be more reliable as will enable data to ransfer more quickly than it does right now since its high uplink rate will be up to 200Mbps.

The road from 3G to 4G

The move has begun, some companies have started spending a lot on research and development in this area to improvise communication for their customers.one of these being Verizon Wireles who is ready to lauch its long-term evolution (LTE) this year whereas AT&T have decided to hold back and wait till 2011. Meanwhile theyll be upgrading their existing 3g technology. (3G or 4G? Parsing the economics of mobile broadband), Why the difference though? Wouldnt it be more profitable for everyone to jump on the 4G bandwagon as its the next step up the ladder. Maybe so, but theres no hard and fast rule to when on should bring it into their system. Different companies have different priorities and will begin their next levels accordingly. Some say that they dont provide to areas where theres a demand for this change. The consumers are happy with what they are getting especially in the rural areas while others think moving from one to the other will be more fruitful to their objectives in the long run. It all depends on the way things are perceived hence the difference in thoughts and approaches. It is believed though that by the year 2014 the percentage share should increase to around 25-30% as compared to the current 7%.

Conclusion

As we all know change is constantly taking place and its maybe even inevitable in the world that we now live in. The world we live in has wants and demands that change from one to another within seconds or it would probably be more appropriate to say within a heartbeat. Theres nothing that can satisfy us for too long and to find the right thing we go through many others.Our choices and tastes are quite hard to keep up with but hats off to the telecommunication industry for doing so. They not only cater to our needs but to a whole spectrum of needs w hich are as different as green cheese is from the moon.

References

Institue of Electrical and Electronics Engineers of Macau/www.ieeemacau.org/ History of Mobile Phone. 2009. Web.

Mobile Mentalism/www.mobilmentalism.com/Remarkable 3G and 4G devices to become reality by 2014. Web.

TelephonyOnline/www.telephonyonline.com/Kevin Fitchard. (2009). 3G or 4G? Parsing the economics of mobile broadband. Web.

Essay on Contribution of Women to Electrical Engineering

The contribution of women to electrical engineering is very important. As a result, many women are inspired and motivated to join the electrical engineering career. This begs the question of what should be done to promote the idea of many women entering the profession. The answer to such a question is not easy because the responsibility lies on the women, men, electrical engineering companies, as well as schools that educate on this particular major. Regardless of their gender, women seem to be brilliant and inspire the next generation of women to join electrical engineering and perform even better as compared to men in this field. The reason for this is that women overcome the challenges that were making them fail to enter this profession. This is evident since the number of women who entered electrical engineering is continually increasing across the globe. Even though women enter engineering, there is the problem of retention where the number of women leaving the career is relatively high. Men also quit electrical engineering because of various reasons, but the rate at which women leave electrical engineering is much higher as compared to men. Women leave although they have an excellent performance in the job, and they are as equal to men. Women leave because of stereotyping, negative environment, and bad bosses but people still are trying to find a solution.

The issue of women leaving the field of electrical engineering is controversial since different people give different reasons as to why women may be quitting. Individuals state that women choose to stop because there may be cases of harassment as well as prejudice. Others argue that this is not the case and that the reason why women often quit as compared to men is that women are the minority and for this reason, they feel that their contribution is not as appreciated as that of their male peers. This perception is backed by evidence that there are gendered roles and tasks. Women may have gone through frustration as a result of rejection and decided that leaving is the best solution. Even though the reason why women quit electrical engineering is subtle, there should be effective solutions to ensure that women can retain their position in the fields. This will promote equality as it will ensure women have equal opportunities as men.

There are many solid arguments as to why women are leaving the engineering field and the potential solution that can be adopted to ensure that women get to retain their possessions. According to Fouad, Chang, Wan, and Singh (2017), among the various sciences, engineering is the field that is associated with a high attrition rate. The reason for this is that the turnover rate of women is higher and many women are seen leaving the field. Even those who are not going seem not to be happy at work. Many women across graduate with electrical engineering degrees across the globe. However, the number of women practicing electrical engineering is continually reducing (Fouad, Chang, Wan, & Singh, 2017). This is an indication, and evidence that women are leaving the field since the number of women should increase gradually as per the number of graduates. Many women tend to get attracted to join the engineering field, where they effectively compete with their male peers and even get better school grades as compared to men. However, something happens that makes these women either stop practicing engineering or quit their jobs even if they have not performed for long. The work, as well as the professional environment in the engineering field, does not meet the needs of the women; hence, the women turn to quit as their only hope.

Additionally, there is the notion that women are not confident enough to be electrical engineers. As a result, women tend to quit when questioned regarding their courage in this field. Since they are perceived not to be courageous, the women may be stereotyped. In addition to stereotypes, women will not be given equal pay as compared to men. Women also tend to have limited promotional opportunities (Verdín, Godwin, Kirn, Benson, & Potvin, 2017). These reasons make the women quit since they develop the sense that they are underrepresented and not given equal opportunities, although they are competent enough to do their tasks and roles. Moreover, when women who are higher in ranks or who were promoted quit, the ambitious women who are starting their careers may get demoralized and see that they do not have a place in engineering. The women then choose not to practice electrical engineering and quit.

The idea that women are not confident enough for electrical engineering tasks and responsibilities is not valid. The reason for this is that these women displayed a high sense of courage by joining this major and completing their careers and getting the title of engineer. The women show courage because the field is perceived to be strong, and they did not care about that and competed for the best opportunities with the males. Besides, as a result of their courage, women were able to apply and got the chance to join various organizations to work as electrical engineers. These women were subjected to stereotypes throughout their school period. That is from their male peers as well as their professors. The women were also stereotyped throughout their internship period. They were patient until they got employment opportunities. As a result, they exhibited a high sense of courage to pass through all that, and they cannot be said not to be courageous. In this case, the women are bold, and the reasons why they choose to quit their careers cannot be attributed to a lack of courage.

Furthermore, in the workplace environment, women are typically assigned roles that tend to be associated with a negative impact on their electrical engineering careers. These tasks include keeping records, taking notes, as well as sorting papers at work (Menezes, 2018). On the other hand, their male peers are assigned roles that tend to build as well as cultivate their careers. Men are assigned tasks that involve designing as well as testing new electrical devices. Moreover, men’s roles also include solving problems in the workplace environment. As a result, men are able to have the opportunity to grow and cultivate their careers. In the case of women, the roles that they are assigned do not promote the cultivation of their career path (Menezes, 2018). As a result, women see quitting as the only way to have a sense of mind as well as a sense of belonging. It is perceived that by leaving women tend to apply their skills and expertise in other fields where they feel that they will be appreciated.

Female engineers who were not treated well by their male co-workers, supervisors, or managers developed the idea of quitting the organization. The reason for this is that they feel that they cannot remain in an organization where the environment is toxic to them in various ways. For instance, women cannot stay in a situation where their peers cannot listen as well as comply with what they say. After leaving the organization, women often consider leaving engineering since they have the thought that they will undergo similar challenges in other organizations. In this case, managers, co-workers as well as supervisors who share a work environment with female engineers have a primary responsibility of ensuring that they promote as well as support the women in their work (O’Neil & Hopkins, 2015). Besides, students, as well as educators who share the school environment with female electrical engineers, should also support them. Providing support and recognizing women for being engineers will help in changing the engineering culture. This is important since it will promote equality; where male and female engineers will have equal opportunities and can be assigned similar goals. This will ensure that women will not leave engineering.

Furthermore, women typically associate themselves with social roles as well as goals that are not promoted due to limited opportunities. In many cases, female electrical engineers enter into the field to bring positive changes that may help shape this particular major (Yvette, 2012). For instance, many female engineers have the goal of advocating for programs that will boost the performance of women in the workforce. The programs are essential in the sense that they will see that women can have roles and responsibilities that will cultivate their culture and make them develop their careers. However, upon joining the workforce, brilliant women are given limited opportunities which will limit their abilities to establish conscious social goals (Yvette, 2012). As a result, women realize that electrical engineering is not open to social responsibility as well as dedicated to solving national and global problems that tend to affect women. In this case, the women will choose to quit since they realize that they are not taken seriously in their careers. As a result, it is asserted that the engineering curriculum is literally driving women away.

In addition to the limited opportunities that make women fail to achieve an important societal goal, there are arguments that the electrical engineering curriculum is designed in a manner that will make women change their minds and hence quit in the future. The reason for this assertion is based on the fact that each profession has its way of introducing the people who pursue them to its distinct culture, language, skills, values, and practices. The students who pursue electrical engineering get to observe as well as practice these through group projects. The students learn how to think as well as act as electrical engineers (Madara, 2016 ). With these, the student gets to learn that collaboration and teamwork are what make people great engineers. Most female engineering students tend to report negative experiences when working in groups, especially when they collaborate with their peers (Madara, 2016 ). Although this is not the case with all female students; some female students report a positive experience. With the students who declare a negative experience, the instances of the female being assigned managerial and secretarial jobs with the male classmates make women develop negative attitudes about the workforce and may decide not to practice engineering or may quit after joining the workforce if similar instances tend to appear.

The curriculum of electrical engineering is designed in a particular manner that has competition as well as design programs. Students get to work in groups and design new electrical equipment. Even though female students put their best to aid in the achievement or winning of their groups, success is said to have come from the male students. There are many cases where women report being treated differently by their educators as compared to male students (Madara, 2016 ). As a result, the female students feel that they will be treated separately in the workplace and may choose not to practice engineering. Those who persevere and join the workforce may end up quitting when the boss treats them differently. These women left because they realize they may end up having the same experience as they had in the school.

In the long run, the number of women in electrical engineering as well as general engineering is gradually reducing. This begs the question of what is the potential solution that will ensure those female engineers will not leave their jobs. Proponents who support women engineers advocate that changing the engineering curriculum will ensure that women are treated well in school by their male peers. It will also ensure that women will be assigned engineering roles in schools. This is important as it will aid in improving the capabilities of female engineers. If women are assigned engineering roles in schools, they will also be assigned similar roles in their organizations. As a result, women will have equal opportunities as male and will not decide to quit for lack of opportunity. It will also ensure that women can fulfill critical societal goals.

However, changing the curriculum is not the only right approach. Engineering needs to solve stereotyping as well as gender expectations (Kim, 2016). This is the best solution to the issue of women quitting their engineering jobs. The reason for this is that it will usher in a new era of engineering where women will not be seen as minor beings in the field of engineering. Women will also not be given roles based on gender expectations but as electrical engineers.

In this case, the practical solution to helping women maintain their engineering jobs, without the stress that may make them quit is to change the engineering culture where women take engineering roles are taken seriously. The reason for this is that the women’s decision as to whether to leave or to stay in electrical engineering is typically determined by psychological factors as well as other factors that affect their organizational climate (O’Neil & Hopkins, 2015). As a result, if the culture is changed and women are taken seriously, they will have a healthy corporate environment that facilitates them to do their work effectively; hence, the women will not decide to quit.

Also, women’s decision to leave or to stay in engineering can be influenced by supportive figures, including co-workers, supervisors, and managers. In the current modern world, female electrical engineers who work in organizations where they are valued and where their contributions to the organization are recognized as well as appreciated tend to complete their careers. By changing the engineering culture and taking female engineers seriously, organizations will make investments in the training of women. This is essential as it will ensure that females can develop professionally. As a result, women will show high satisfaction with their jobs by not quitting.

In conclusion, various reasons make women quit engineering. However, finding a solution that will see that women are not leaving their jobs and that they are happy with their jobs is essential. The reason for this is that the solution will promote equality where male and female engineers will have similar opportunities. Equality is vital in the sense that it will ensure that female electrical engineers will be assigned duties and roles that will aid in cultivating as well as developing their profession. In any case, the women quit as a result of stereotypes. The performance, as well as the achievements of the female engineers, are not appreciated or recognized. This is not good since it hinders many women from achieving their societal goals. As a result, many women consider quitting the profession because of the stress they experience due to stereotypes. For this reason, changing the engineering culture will see that women in engineering can be appreciated and also supported. To sum up, the support offered to women can influence their decisions to leave engineering.

Statement of Purpose for Masters in Electrical Engineering

I am a graduate of Electrical Engineering from the Ladoke Akintola University of Technology (LAUTECH), Ogbomoso, Oyo State, Nigeria, seeking for a spot at the University of Victoria for a master’s program in Electrical Engineering with a specialization in power systems Engineering.

Electrical Engineering is a field that I have been attracted to since childhood, ever since I recognized the meaning of power and its importance in our lives. My curiosity as a child wasn’t satiated by constantly coupling, dismantling, and recoupling appliances, and I knew just then, that in order to feed my seemingly insatiable hunger, I really needed to know why things worked the way they did. While my constant disassembly of appliances was bemoaned, and oftentimes punished, I had a burning curiosity that pushed my Cat to keep wandering for more. This curiosity is the mother of my being a student of Science in Secondary school and eventually studying Electrical engineering at the University.

I worked very hard to be admitted into LAUTECH by merit so I would enjoy the privilege of being trained by one of the topmost Technology focused institutions in the country. Upon admission, I ensured that the next five years of my studentship would undergo great utility, as I took courses on Power Electronics and Power Systems Engineering, Electromagnetic field and waves, Electrical Machines, Electronic Engineering, Measurement, and Instrumentation. Although the University was and still is a great citadel of advanced learning, there was a void that was created in my academic understanding of Electrical engineering by the lack of adequate infrastructural development in tertiary institutions across the country. In a bid to make up for the deficit, I spent a great deal of time researching and discovering out of syllabus, innovative and emerging concepts on the field, most of which were not totally in tandem with the strict academic dispensation, allowing me to suffer detriment in my academic grades at the expense of good research. The absence of facilities to accommodate new discoveries and facilitate the practice of research discoveries hindered my overall execution of newly acquired information. All of these nonetheless, I was steadfast and committed to learning more about Electrical Engineering, and continued to take out-of-class methods which did not refuse to affect my grades.

Rather than weigh me down, my deep desire to explore more on the field of scientific research on Electrical Engineering spurred me into seeking a Master’s program in order to not only know new world practices in the field of study but to be exposed to practical opportunities to help me do more than YouTube videos and paper reading. I do believe without an iota of doubt, having checked up on the facilities of the institution, that here is the home to accommodate my burning interest in Electrical Engineering. To further buttress my point on my key interest in research and practice, I will make reference to my final year undergraduate course when I successfully completed a project titled “Design and Construction of Solar Powered Security Light with Automated control”. The project implements an LDR as a sensor to switch on and off the security light.

Again, I have chosen to apply to the University of Victoria to pursue a Master’s degree in electrical engineering because I believe the University will assist me in becoming better, while I make an immense contribution to the institution and the world through research. My academic and career goals include exploring the field of renewable energy and efficient energy storage and generation. University of Victoria’s reputation for excellence in teaching and research is what encouraged my decision to attend graduate school.

After earning my undergraduate degree in electrical engineering, I undertook the one-year National youth service corps program which was mandatory for Nigerian graduates. I was posted to a rural community, where I witnessed the problems they had with power, further pushing me into wanting to find solutions to this problem and finding out how renewable energy sources can be implemented in rural electrification.

In conclusion, I fully understand the kind of dedication, perseverance, and resolution that a graduate degree program requires. I have the ability and determination to embark on this journey. I hope to have a good opportunity to reach my goals when being admitted. I look forward to a long and mutually beneficial relationship with the University.

Informative Essay about the Father of Electrical Engineering

Michael Faraday was born on September 22, 1791 in Newington Butts. Called the Father of Electrical Engineering and one of the finest scientist of his day, Michael Faraday was from a humble heritage and obtained little formal education. In his lifetime, Faraday finished a fantastic quantity in lots of components of science discovery as well as being a terrific lecturer. His father, James Faraday, was a blacksmith from Westmorland, however some years earlier than Faraday’s birth, he had moved to London. Faraday’s father changed into a member of the Sandemanian sect of the Christian Church, and this had a profound impact on Michael Faraday’s grownup life. Accordingly, Faraday became an avid reader, an ability that enabled him to train himself later. He attended Royal Institution. At college, Michael Faraday best found out the rudiments of reading, writing, and arithmetic. He was an apprentice to George Reibau as a bookbinder. He examined many science books, and he additionally repeated a few of the experiments on his personal, even constructing his personal electrostatic machine. At that time, Davy was one of the main scientist. Faraday attended the lectures and took special notes, even binding them and sending a replica to Davy. This led to Davy asking Faraday to take notes for him.

Faraday became so interested via way of means of all of the science experiments that he began out to test himself with constructing a voltaic battery and decomposing numerous salts withinside the way that Sir Humphrey Davy had done. In 1820, the Danish philosopher, Hans Christian Oersted, observed electro-magnetism. He had proven that once an electric current was passed through a wire close to a pivoted magnetic needle, it was deflected. Faraday took an interest in Oersted’s discovery. He made a few similar investigations. In one test undertaken in 1821, he passed a current through a wire that was in the magnetic field from a strong horseshoe magnet and discovered that the wire moved. Although apparent these days, this changed into a main milestone withinside the expertise of electricity and magnetism. In 1823, he succeeded in liquefying chlorine. In 1825, he observed a chemical he referred to as ‘bicarbonate of hydrogen’; however, acknowledged these days as benzene. He additionally spent a few years making and investigating optical glass. Then in 1831, he absolutely focussed his efforts on electromagnetism. In simply ten days, he succeeded in coming across the standards of electromagnetic induction. A few years later, human beings had an idea that a magnetic pressure will be modified into electricity.

Michael Faraday proved that the magnetic flux around a cord needed to change before electricity could flow. Faraday was able to demonstrate the reverse where magnets in motion in the proximity of a conductor could produce an electric current. His maximum well-known test consisted of a ferrite ring on which there have been separate windings of insulated cord. A battery linked to one, and a galvanometer to the other. Only when the battery linked or disconnected did the galvanometer deflect. In another test, Faraday positioned a rotating copper disk among the poles of a big everlasting magnet. He confirmed that current in a conductor prolonged the axis of the disk to its edge. In a few experiments with static electricity, he advanced a comparable concept of electrical strains of pressure and he undertook many test’s regarding dielectrics and non-transmission of conducting materials. Out of this, he advanced the concept of what he referred to as the detailed inductive capacity, or what we recognise these days as the dielectric constant. He positioned himself to finish the works on electromagnetism and electrostatics for most of his time. Unfortunately, this took its toll on his health.

Around 1844, Michael Faraday began another duration of work. This was to be his last, and the primary discovery that he was capable to rotate the aircraft of polarisation of radiation passing through a heavy glass that withinside the magnetic area from a effective electromagnet. When the electromagnet was turned on and off the state of the polarisation of the light changed. This set the premise for Faraday’s idea of electromagnetism. Sadly, Faraday died on August 25, 1867 and was buried withinside the Sandemanian plot in Highgate Cemetery along his wife, Sarah. Today Michael Faraday is fittingly remembered as a definitely brilliant scientist. He is well-known for the wide variety of discoveries, such as electrolysis, he made and their importance.

Certification Related to Electrical Engineering

Introduction

Electrical engineers do not need a professional license or certification to start their careers. However, a professional electrical engineer license can be extremely useful in reaching heights in this area. This step will help to deepen specialized skills to a prominent level, ensure adherence to ethical standards and quality of work (“Electrical certification and certificate program options,” 2020). In addition, in the future, the license will be an advantage in earning the clients’ trust and the ability to take a superior level of responsibility for the employer (“What is a PE,” n.d.). Apart from it, for the specialist themselves, it will serve as a symbol of pride and a measure of the achievements won.

As far as trends in the types of certification and licensure recommended for the career concerned, there are presently a wide variety of skill improvement areas. In particular, it is proposed to obtain certificates of energy efficiency management, electrostatic discharge control, system design, and others (“Electrical certification and certificate program options,” 2020). At the same time, if a hundred years ago, anyone could work as an electrical engineer without qualifications; currently, expectations are changing. Each state regulates engineering practices to ensure people’s safety, giving only professional engineers the right to seal and sign plans.

Required Point in the Career and Involved Institution

To obtain a professional electrical engineer license, typically, four years of practical experience in this field are required. In addition, it is preceded by receiving a bachelor’s degree, after which the student becomes an Engineer in Training (EIT) or an Engineer Intern (EI) (“What is a PE,” n.d., 2020). Further, the specialist must be supervised by proficient engineers for at least four years, considering an opportunity to work in the U.S. They, in turn, must also be licensed as professional engineers by passing the appropriate exam recommended by the National Council of Examiners for Engineering and Surveying (NCEES) (“What is a PE,” n.d., 2020). The institution which will be involved is the School of PE; it has relevant courses and seminars in various engineering areas, including electrical.

Requirements for the Licensure

Educational and labor requirements for the licensure include a bachelor’s degree in electrical engineering and four years of work experience, as mentioned earlier. In addition, the demands on character comprise much perseverance and dedication since there is considerable work to be done, and many of the time required to receive a license. Apart from it, it is necessary to pass the Fundamentals of Engineering (FE) exam and directly the Professional Engineering (PE) exam. All of the above requests are obligated and cannot be waived.

Steps Required for the Licensure

After deciding what licensure of a professional electrical engineer is needed for a future career, the next step is to ensure that all of the above requirements are met. In particular, they comprise educational and labor experience, purposeful and tenacious character, and passing two exams. Preparations for the first exam, FE, involve a comprehensive study of an electrical engineering program, including classroom, field, and laboratory operating, digital system design, and others. Training for the second exam, PE, consists of practical, real-life work in the area of electrical engineering with proficient mentors and learning at the School of PE.

Preparing and Streamline the Process

In order to be already currently preparing and streamline the process, a responsible approach to a thorough understanding of all concepts of electrical engineering is necessary. It includes the study of electrical equipment, chips, circuit boards, processors, switching transmission, and control (“What is a PE,” n.d.). In addition, knowledge and interest in engineering fields such as mathematics and science must be maintained as these are essential skills for a future electrical engineer. Finally, it is imperative to cultivate the ability to solve problems because high-level specialists are expected to quickly identify them, evaluate, and develop the correct solutions.

References

(2020). Study. Web.

(n.d.). National Society of Professional Engineers. Web.

Macau Institute of Electrical and Electronics Engineers

Introduction

Nokia got it right when they thought up their slogan “Connecting People” The fast paced world that we live in now absolutely requires instant and immediate communication at all times and all places, be it at work, the house or even on the go. We take for granted how we have been facilatated by the communication industry, believing everything just came to be. Its taken years and a lot of hard work to come to the point we are at now

Mobile Communication

Communication has been around since the time of the caveman. Its not communication that has evolved but the form that has evolved. Back in the beginning we had things like drum beats and smoke signals, which then advaced to morse code and with a lot of things in between we were sweeped off by mobile communication.

The era took the world like a whirlwind and still continues to amaze at incredible speed.Though the system is almost a years old, their actual emergence was not felt until until the early 1970’s when the first 1G phones, which used analouge circuit-switched technology, (History of Mobile Phones) hit the streets on a trial run. The official launch off these phones took place in Japan in 1979 followed by Denmark, Finland, Norway and Sweden in 1981.

The 1990’s brought with it the 2G phones which made the use of digital technology and introduced features such as SMS and Called ID. Next in line were the 2.5G phones which were more technologically advanced and was seen as the first step towards 3G phones as people were demanding better data sevices and access to the internet. (History of Mobile Phones)

3G phones were first introduced at the turn of the century but did not become highly employed util 2007. According to a report by Strategy Analytics, 3G technolgy will take the world in a wave by 2014. There won’t be any electronic device that won’t be making use of it. From laptops to gaming consoles to digital cameras will all have 3G on them. 3G technology is already being employed widely by smartphones such as the iPhone and Android (Remarkable 3G and 4G devices to become reality by 2014) allowing fast paced access to the internet and other features such as TV streaming, multimedia, videoconferencing, web browsing, e-mail, paging, fax, and navigational maps.

Now that 3G has made its mark its time to move onto bigger and better things. The next step is 4G technology which probably would have been inroduced by now had 3G mad its mark sooner. That doesn’t mean that work on 4G hasn’t started yet. Its already on the go with many answers already found. Many companies have redirected and are working their research and development departments to develop more quickly. It is believed to be more reliable as will enable data to ransfer more quickly than it does right now since its high uplink rate will be up to 200Mbps.

The road from 3G to 4G

The move has begun, some companies have started spending a lot on research and development in this area to improvise communication for their customers.one of these being Verizon Wireles who is ready to lauch its long-term evolution (LTE) this year whereas AT&T have decided to hold back and wait till 2011. Meanwhile they’ll be upgrading their existing 3g technology. (3G or 4G? Parsing the economics of mobile broadband), Why the difference though? Wouldn’t it be more profitable for everyone to jump on the 4G bandwagon as it’s the next step up the ladder. Maybe so, but theres no hard and fast rule to when on should bring it into their system. Different companies have different priorities and will begin their next levels accordingly. Some say that they don’t provide to areas where there’s a demand for this change. The consumers are happy with what they are getting especially in the rural areas while others think moving from one to the other will be more fruitful to their objectives in the long run. It all depends on the way things are perceived hence the difference in thoughts and approaches. It is believed though that by the year 2014 the percentage share should increase to around 25-30% as compared to the current 7%.

Conclusion

As we all know change is constantly taking place and its maybe even inevitable in the world that we now live in. The world we live in has wants and demands that change from one to another within seconds or it would probably be more appropriate to say within a heartbeat. There’s nothing that can satisfy us for too long and to find the right thing we go through many others.Our choices and tastes are quite hard to keep up with but hats off to the telecommunication industry for doing so. They not only cater to our needs but to a whole spectrum of needs w hich are as different as green cheese is from the moon.

References

Institue of Electrical and Electronics Engineers of Macau/www.ieeemacau.org/ History of Mobile Phone. 2009. Web.

Mobile Mentalism/www.mobilmentalism.com/Remarkable 3G and 4G devices to become reality by 2014. Web.

TelephonyOnline/www.telephonyonline.com/Kevin Fitchard. (2009). 3G or 4G? Parsing the economics of mobile broadband. Web.

Mechanical and Electrical Engineering Branches

Engineering is one of the most popular fields of professions. It encompasses mathematical, scientific, social, economic, and functional fields that make the world a better place for people. Engineering is an area of technical activity that includes several specialized fields and disciplines. It is aimed at the practical application and application of scientific, economic, social, and practical knowledge to turn natural resources to human benefit. The goals of engineering activity are the invention, development, creation, implementation, repair, maintenance, and improvement of equipment, materials, or processes. The two main branches of engineering are mechanical engineering and electrical engineering. The differences between these two areas are substantial, even though these areas and industries may work together or overlap from time to time. Nevertheless, these spheres are significantly related to each other and greatly benefit the development of humanity.

Mechanical Engineering

Mechanical engineering is the largest complex industry that determines the level of scientific and technological progress in the entire national economy. It provides all industries with machines, equipment, appliances, and the population with consumer goods. It also includes metalworking, repair of machinery and equipment. It is mainly characterized by the deepening of the specialization of production and the expansion of its scale (Dixit et al., 2017). “Small” metallurgy should be added to the listed divisions of mechanical engineering. It includes the production of steel and rolled products, castings, forgings, stampings, and welded structures for mechanical engineering. In this structure of the industry, the most complex is mechanical engineering, which includes such essential sub-sectors as:

  • Mechanical engineering for intersectoral industries: electronic and radio industry, instrument making, machine tool, and tool making, bearing sector.
  • Production of equipment for branches of the national economy: road construction, transport, tractor, and agricultural machinery.
  • For industries: power engineering, metallurgical, mining and mining engineering, chemical engineering, production of technological equipment for the textile industry.
  • For the non-industrial sphere: municipal engineering, household appliances and machines, military equipment (Herrigel, 2018).

In addition to the industry classification, mechanical engineering can be divided according to the stages of the technological process into a billet, machining, and assembly. In terms of metal consumption and labor and energy intensity, it is customary to distinguish heavy, general, and medium engineering (Dixit et al., 2017). Heavy engineering is characterized by high metal consumption, relatively low labor intensity, and energy intensity. It includes the production of metal-intensive and large-sized products. General mechanical engineering is characterized by average consumption rates of metal, energy, low labor intensity. It is mainly the production of equipment for individual industries.

General and secondary mechanical engineering are similar and do not have clearly defined patterns in geography. It is difficult to overestimate the importance of the machine-building complex. Its most important tasks are implementing scientific and technological progress, the provision of complex mechanization and automation of production, and the supply of national economic sectors with new equipment (Herrigel, 2018). Thus, mechanical engineering gives a considerable impetus to developing other industrial complexes.

Electrical Engineering

Electrical engineering is a field of science and technology that uses electrical and magnetic phenomena for practical purposes. The history of the development of this science takes two centuries and began after the invention of the first electrochemical source of electrical energy in 1799 (Rogers & Bares, 2021). Then the study of the properties of electric current began, the fundamental laws of electrical circuits were established, electrical and magnetic phenomena started to be used for practical purposes. In addition, the first designs of electric machines and devices were developed. The increasing demand for electric energy has led to the problem of its centralized production, long-distance transmission, distribution, and economic use. The solution to the situation led to the development and creation of three-phase electrical circuits.

Today, electric energy is used in communication technology, automation, measurement technology, navigation. It is applied to mechanical work, heating, lighting, is used in technological processes, medicine, biology, astronomy, and geology. Such an extensive penetration of electrical engineering into human life has led to the need to include it in the general technical disciplines in training specialists of all technical specialties. In electrical engineering, a person should steal the industrial convenience of using electrical energy to automate production processes due to the accuracy and sensuality of electrical control and management methods (Ushakov, 2018). The use of electric power has made it possible to increase labor productivity in all areas of human activity.

Electrical engineering has automated almost all technological processes in the industry, transport, agriculture, and everyday life and has also created comfort in industrial and residential premises. In addition, electrical engineering widely uses electrical energy in technological installations for heating products, melting metals, welding, electrolysis, plasma production, obtaining new materials using electrochemistry, cleaning materials, and gases (Rogers & Bares, 2021). The advantages of electrical energy explain the great importance of electrical engineering in all areas of human activity over other types of energy, namely:

  • Electrical energy is easily converted into other types of energy (mechanical, thermal, light, chemical), and vice versa; any different kinds of energy are easily converted into electrical energy.
  • Electrical energy can be transmitted to almost any distance (Ushakov, 2018).

The only drawback of electrical energy is the inability to store it in large quantities and keep these reserves long. Electrical power resources in batteries, galvanic cells, and capacitors are sufficient only for the operation of relatively low-power devices, and the terms of its preservation are limited.

The Relationship between Electrical Engineering and Mechanical Engineering

Mechanical and electrical engineering are the leading branches of engineering and play an essential role in further technological progress. The importance of these industries is determined primarily by their massive contribution to the development of the material basis of scientific and technological advancement. Having a direct impact on the improvement of tools and means of production, mechanical engineering and electrical engineering actively contribute to the intensive growth of labor productivity in a wide variety of sectors of the economy. Thus, they noticeably accelerate the pace of scientific and technological progress in general. These two areas are equally important for small households and large enterprises and corporations.

The constant development of mechanical engineering and electrical engineering launches the process of introducing new technologies, which ensures the growth of production potential in competitive products. The dynamic development of states’ economies is directly dependent on promoting the latest innovations in technological processes and the creation of high-tech equipment in all industries. Both electrical engineering and mechanical engineering contribute to the economy of different countries and the level of their defense capability. The degree of development of the defense engineering and electrical industries is of crucial importance in guaranteeing the state’s security and establishing the technical re-equipment of the main areas of the economy.

The machine-building and electrical engineering industries are crucial in forming the space industry and providing research institutes with innovative technical innovations. For a more accurate analysis of the two sectors under discussion, it is necessary to compare some mechanical engineering and electrical engineering parameters that distinguish them from each other. Mechanical engineering is a part of the engineering field related to the use of energy. On the other hand, Electrical engineering studies energy and electric fields and systems. In mechanical engineering, a specialist should be engaged in the design of production processes of technical tools. In electrical engineering, a specialist studies the installation and production of electrical systems.

Mechanical engineering focuses on developing physical systems, including, but not limited to, conveyor belts, pulleys, and automobiles. Electrical engineering concentrates on creating complex designs, such as computer chips. Mechanical engineering is an area in which a person uses his ideas to develop and maintain more effective products for improving people’s living standards. Electrical engineering is a field where a person should use their creativity and methods to make existing systems safer and better and offer the best.

Thus, despite the existing differences, mechanical engineering and electrical engineering are closely related, as they are important branches of engineering and significantly affect the modern world. Contemporary life can hardly be imagined without using products from the engineering and electrical industries, which are very diverse in their content. Mechanical engineering and electrical engineering are developing rapidly and already affect almost all spheres of human economic and industrial activity, deeply rooted in everyday life. Mechanical engineering can rightfully be considered the engine of progress since the achievements of this particular industry, particularly electronics, largely contribute to humanity’s entry into the era of the information society. All this proves the enormous importance of modern machine-building and electrical complexes in the structure of the world economy and confirms the need for further study, development, and modernization.

References

Dixit, U. S., Hazarika, M., & Davim, J. P. (2017). A brief history of mechanical engineering. Switzerland: Springer.

Herrigel, G. B. (2018). 7. Industrial order and the politics of industrial change: Mechanical engineering. In Industry and politics in West Germany (pp. 185-220). Cornell University Press.

Rogers, D. A., & Bares, W. A. (2021). The Evolution of an Electrical Engineering Orientation Course. In 1981 North Midwest Section.

Ushakov, V. Y. (2018). From the history of electrical power engineering. In Electrical Power Engineering (pp. 13-21). Springer, Cham.