The Computer Science Degree Isn’t Dead

Key Takeaways

• The job market for computer science graduates is challenging but not dire.
• Networking and practical experience are crucial for landing entry-level positions.
• Understanding AI and data science can significantly enhance employability.
• Ghost jobs create a misleading impression of job availability.
• Startups can offer valuable experience and opportunities for growth.

The narrative surrounding computer science (CS) degrees has shifted dramatically in recent years, with many voices declaring that these degrees are losing their value in the face of rapid technological advancements and the rise of artificial intelligence (AI). However, a recent article from IEEE Spectrum argues that the CS degree is far from obsolete. Instead, the challenges faced by new graduates stem from a complex job market rather than the degree itself.

According to the Federal Reserve Bank of New York, the unemployment rate for recent CS graduates stands at 6.1%, which, while higher than some other fields, still reflects a robust demand for tech talent. This figure becomes even more favorable when considering underemployment rates, where CS graduates fare better than many of their peers in other disciplines. The article emphasizes that the hiring pipeline, rather than the degree, is the primary issue affecting job prospects.

One of the most significant challenges highlighted is the phenomenon of 'ghost jobs'—positions that are advertised but rarely lead to actual hiring. Job postings for entry-level software engineers surged by 47% between late 2023 and late 2024, yet actual hiring for these roles plummeted by 73%. This discrepancy indicates a disconnect between the demand for tech talent and the reality of job availability.

For recent graduates, this means that traditional job searching methods may not be sufficient. Instead, leveraging personal networks is crucial. Approximately 26% of job offers come through referrals, making it essential for graduates to tap into their connections—classmates, professors, and internship contacts—to uncover hidden job opportunities.

Moreover, graduates are encouraged to seek out startups, which often present a more flexible hiring approach and can provide valuable experience. While the risks associated with working at a startup are notable, the potential for rapid learning and skill development can be advantageous for those looking to build a solid foundation for their careers.

Another critical aspect for aspiring tech professionals is the need to manufacture experience proactively. Employers often seek candidates with practical experience, yet many entry-level positions require prior experience that new graduates may not have. Engaging in real-world projects, contributing to open-source initiatives, or developing applications for local businesses can help bridge this gap. Recruiters are increasingly skeptical of 'toy projects'—students must demonstrate their ability to solve real problems effectively.

In addition to practical experience, understanding the intricacies of AI and data science is becoming increasingly vital. As AI-related roles saw a staggering 163% increase in job postings in 2025, candidates who can demonstrate a deeper understanding of AI systems, rather than just familiarity with AI tools, will stand out in a competitive job market.

In summary, while the job market for computer science graduates presents challenges, it is not insurmountable. By leveraging personal networks, gaining practical experience, and deepening their understanding of AI and data science, recent graduates can enhance their employability and navigate the complexities of today’s tech landscape.

Frequently Asked Questions

Is a computer science degree still valuable?

Yes, while the job market is competitive, computer science graduates still have strong prospects, especially when they leverage networking and practical experience.

What are ghost jobs?

Ghost jobs refer to job postings that are advertised but rarely lead to actual hiring, creating a misleading impression of job availability.

How can I gain practical experience as a new graduate?

Consider engaging in real-world projects, contributing to open-source initiatives, or developing applications for local businesses to build your portfolio.

What role do startups play in the job market for CS graduates?

Startups often provide more flexible hiring practices and opportunities for rapid skill development, making them a viable option for new graduates seeking experience.

How important is knowledge of AI and data science for CS graduates?

Understanding AI and data science is increasingly vital, as these fields are growing rapidly and candidates with expertise in these areas are more competitive in the job market.

Encouraging Developments at Harare Institute of Technology's Stakeholders Breakfast

Key Takeaways

• The Stakeholders Breakfast at Harare Institute of Technology highlighted the importance of collaboration between industry and academia.
• As a member of the Industrial Advisory Board, my insights contribute to shaping the curriculum for future technology professionals.
• There is a growing emphasis on integrating basic electronics education into high school programs to prepare students for advanced technological fields.

Recently, I had the privilege of attending a Stakeholders Breakfast at the Harare Institute of Technology's School of Information Science and Technology. As an Industrial Advisory Board Member, I was both honored and encouraged by the discussions that took place. The event underscored the critical role that collaboration between educational institutions and industry plays in shaping the future of technology education.

The breakfast brought together various stakeholders, including educators, industry leaders, and policymakers, all focused on enhancing the educational framework for technology students. One of the key discussions revolved around the curriculum development for basic electronics, particularly for high school students. This initiative aims to equip young learners with foundational knowledge that is essential for pursuing careers in technology and engineering.

Basic electronics is a crucial area of study that lays the groundwork for understanding more complex technological concepts. By introducing this subject at the high school level, we can foster a generation of students who are not only aware of electronic principles but also excited about pursuing further education in fields such as robotics, automation, and artificial intelligence.

During the breakfast, it was evident that there is a shared vision among stakeholders to create a robust educational environment that encourages innovation and practical learning. The discussions highlighted the need for educational institutions to adapt their curricula to meet the evolving demands of the technology sector. This includes integrating hands-on learning experiences and real-world applications into the classroom.

One of the significant outcomes of the breakfast was the commitment to collaborate on developing a curriculum that emphasizes practical skills in basic electronics. This initiative is not just about theoretical knowledge; it is about preparing students to tackle real-world challenges in technology. By working closely with industry professionals, educators can ensure that the curriculum remains relevant and aligned with current technological advancements.

The importance of basic electronics education cannot be overstated. In today's digital age, understanding the principles of electronics is essential for anyone looking to enter the technology field. From understanding circuit design to grasping the fundamentals of microcontrollers, these skills are foundational for various careers in engineering and technology.

Moreover, the integration of basic electronics into high school education can spark interest among students who may not have previously considered a career in technology. By providing them with the tools and knowledge to explore this field, we can inspire the next generation of innovators and problem-solvers.

As we move forward, it is crucial that we continue to engage with industry partners to ensure that our educational programs are not only effective but also forward-thinking. The collaboration between the Harare Institute of Technology and industry stakeholders is a step in the right direction, and I am excited to see how these discussions will shape the future of technology education.

In conclusion, the Stakeholders Breakfast was a reminder of the importance of collaboration in education. By working together, we can create a curriculum that not only meets the needs of the industry but also inspires and prepares students for the challenges of tomorrow. I left the event feeling encouraged and optimistic about the future of technology education at the Harare Institute of Technology.

FAQ

• What is the significance of basic electronics education in high school?
  Basic electronics education provides students with foundational skills necessary for various careers in technology and engineering, fostering innovation and problem-solving abilities.
• How can industry collaboration enhance technology education?
  Industry collaboration ensures that educational curricula are relevant and aligned with current technological advancements, providing students with practical skills and real-world applications.
• What outcomes were expected from the Stakeholders Breakfast?
  The expected outcomes included a commitment to developing a curriculum that emphasizes practical skills in basic electronics and fostering collaboration between educational institutions and industry.

IEEE TryEngineering OnCampus Program Expands to 7 Universities

Key Takeaways

• The IEEE TryEngineering OnCampus program has expanded to seven universities, enhancing engineering education.
• This initiative offers students hands-on experiences, mentorship, and resources to foster their engineering skills.
• Participating universities include prestigious institutions, providing a significant boost to aspiring engineers.

The IEEE TryEngineering OnCampus program is making waves in the field of engineering education by expanding its reach to seven universities. This initiative aims to provide students with invaluable hands-on experiences, mentorship opportunities, and a wealth of resources that can significantly enhance their engineering skills and career prospects. As the demand for skilled engineers continues to grow, programs like these play a crucial role in preparing the next generation of innovators and problem solvers.

Launched by the Institute of Electrical and Electronics Engineers (IEEE), the TryEngineering OnCampus program is designed to inspire and engage students in engineering disciplines. By partnering with universities, IEEE aims to create a supportive environment where students can explore their interests in technology and engineering through practical applications.

Among the seven universities participating in this expansion are some of the most prestigious institutions known for their engineering programs. This collaboration not only elevates the profile of the program but also provides students with access to top-notch faculty, state-of-the-art facilities, and a network of industry professionals.

One of the key components of the TryEngineering OnCampus program is its focus on hands-on learning. Students will have the opportunity to engage in projects that mirror real-world engineering challenges, allowing them to apply theoretical knowledge in practical settings. This experiential learning approach is essential for developing critical thinking and problem-solving skills, which are vital in today’s engineering landscape.

Moreover, the program emphasizes mentorship, connecting students with experienced engineers and industry professionals. This relationship can provide students with insights into career paths, industry trends, and the skills needed to succeed in the engineering field. Mentorship is often cited as a significant factor in career development, and this program aims to foster those connections early in students’ academic journeys.

As technology continues to evolve at a rapid pace, the need for engineers who can adapt and innovate is more critical than ever. The IEEE TryEngineering OnCampus program addresses this need by equipping students with the necessary tools and experiences to thrive in a competitive job market. By focusing on practical skills and real-world applications, the program prepares students not only to enter the workforce but also to become leaders in their respective fields.

In addition to hands-on projects and mentorship, the program offers various resources, including workshops, seminars, and networking events. These opportunities allow students to broaden their knowledge, develop new skills, and connect with peers who share similar interests in engineering and technology.

The expansion of the TryEngineering OnCampus program is a significant step forward in engineering education. By partnering with seven universities, IEEE is not only enhancing the educational landscape but also ensuring that students are well-prepared to tackle the challenges of the future. As this program continues to grow, it will undoubtedly inspire more students to pursue careers in engineering and technology.

Conclusion

The IEEE TryEngineering OnCampus program's expansion to seven universities marks a pivotal moment for engineering education. By providing students with hands-on experiences, mentorship, and valuable resources, this initiative is set to inspire the next generation of engineers. As technology continues to advance, programs like these will be essential in shaping the future of engineering and ensuring that students are equipped with the skills they need to succeed.

FAQ

• What is the IEEE TryEngineering OnCampus program?
  The IEEE TryEngineering OnCampus program is an initiative designed to inspire and engage students in engineering through hands-on experiences, mentorship, and resources.
• How many universities are participating in the program?
  The program has expanded to seven universities.
• What benefits do students gain from participating in the program?
  Students gain hands-on experience, mentorship from professionals, and access to various resources that enhance their engineering education.
• Why is hands-on learning important in engineering education?
  Hands-on learning allows students to apply theoretical knowledge in practical settings, developing critical thinking and problem-solving skills essential for their careers.

Sources and further reading

• IEEE Spectrum: IEEE TryEngineering OnCampus Program Expands to 7 Universities

IEEE TryEngineering OnCampus Program Expands to 7 Universities

Key Takeaways

• The IEEE TryEngineering OnCampus program has expanded from two to seven universities, providing hands-on engineering experiences for preuniversity students.
• Participating universities include institutions in Croatia, Egypt, Oman, Malaysia, and Greece, offering workshops in AI, robotics, and circuit design.
• The program aims to inspire the next generation of engineers by transforming curiosity into practical skills through engaging projects.
• Positive feedback from students highlights the program's effectiveness in fostering interest in engineering and technology.
• By collaborating with universities and industry professionals, the program creates a pipeline of future innovators equipped with essential skills.

The IEEE TryEngineering OnCampus program has recently expanded its reach, now encompassing seven universities across the globe. This initiative, part of the broader TryEngineering effort, is designed to provide preuniversity students with hands-on opportunities to engage with engineering concepts and problem-solving. The expansion is a significant step forward in making engineering education more accessible and engaging for young learners.

Last year, the program began with only two participating universities, but thanks to funding from the IEEE Innovation Committee, it has grown to include institutions in diverse locations such as Croatia, Egypt, Oman, Malaysia, and Greece. Each participating university has tailored its program to reflect local educational needs while maintaining a focus on key engineering principles.

Hands-On Learning Experiences

One of the standout features of the TryEngineering OnCampus program is its emphasis on practical, hands-on learning. For example, at the University of Zagreb in Croatia, a two-day workshop was held where 25 students aged 10 to 14 engaged in lectures and activities related to artificial intelligence, computer science, robotics, and astronomy. This approach not only educates students about theoretical concepts but also allows them to apply what they learn in real-world contexts.

In Egypt, the Arab Academy for Science, Technology, and Maritime Transport hosted a two-day session where 50 students participated in hands-on activities focused on Ohm’s law, radio communications, and circuit building. These foundational skills are critical for any aspiring engineer and serve as a stepping stone for more advanced topics.

Innovative Projects and Challenges

At Majan University College in Oman, 40 high school students took part in a competitive environment where they designed and built circuits. Projects included IoT designs and LED brightness control using potentiometers, which are essential components in many electronic devices. This type of project not only teaches students about circuit design but also encourages creativity and problem-solving skills.

Furthermore, the program introduced students to cutting-edge technologies such as AI and quantum computing. For instance, at Universiti Malaysia Perlis, students explored quantum computational intelligence through interactive simulations, guided by IEEE Senior Member Mohd Hafiz Ismail. Such exposure to advanced topics is crucial for preparing students for future careers in technology-driven fields.

Feedback and Impact

The feedback from participants has been overwhelmingly positive, with nearly 75% of students rating their experiences highly. Many expressed appreciation for the opportunity to learn about deep learning and its applications, as well as the chance to work with experts in the field. This kind of engagement is vital for fostering interest in engineering and technology among young people.

The program not only educates students but also empowers them with the confidence to pursue careers in engineering. By collaborating with universities and industry professionals, the TryEngineering OnCampus program is creating a pipeline of future innovators who are equipped with the skills and knowledge necessary to succeed in the rapidly evolving tech landscape.

Conclusion

The expansion of the IEEE TryEngineering OnCampus program to seven universities marks a significant advancement in engineering education for preuniversity students. By providing hands-on experiences and exposure to emerging technologies, the program is helping to cultivate the next generation of engineers. As more institutions participate, the potential for inspiring young minds to explore careers in engineering continues to grow.

FAQ

• What is the IEEE TryEngineering OnCampus program? The IEEE TryEngineering OnCampus program provides preuniversity students with hands-on engineering experiences at various universities worldwide.
• How many universities are currently participating in the program? The program has expanded to include seven universities globally.
• What types of activities do students participate in? Students engage in lectures, workshops, and hands-on projects related to engineering topics such as AI, robotics, and circuit design.
• How has the feedback been from participants? Feedback has been overwhelmingly positive, with many students rating their experiences highly and expressing appreciation for the learning opportunities.
• What is the significance of this program for future engineers? The program empowers students with practical skills and confidence, creating a pipeline of future innovators ready to tackle challenges in engineering and technology.

Sources and further reading

• IEEE Spectrum: IEEE TryEngineering OnCampus Program Expands to 7 Universities

College Students Heckle AI-Praising Commencement Speeches: What It Means for Future Engineers

Key Takeaways

• College students are expressing skepticism about AI's role in society during commencement speeches.
• Heckling at graduation events highlights a generational divide in perceptions of technology.
• The backlash against AI praises raises questions about the future of engineering education and workforce readiness.
• Educational institutions may need to adapt curricula to include ethical discussions surrounding technology.
• The evolving conversation around technology reflects a shift in how future engineers will approach their work.

In a striking display of discontent, college students recently drowned out AI-praising commencement speeches with boos, signaling a growing skepticism towards artificial intelligence and its role in society. This phenomenon not only reflects the students' apprehensions about the future but also raises critical questions about the implications for engineering education and the workforce.

The commencement speeches, which were intended to celebrate the advancements of AI and its potential benefits, were met with vocal opposition from graduates who felt that the optimistic narratives did not adequately address the challenges and ethical concerns surrounding AI. One speaker notably responded to the heckling with a defiant, "deal with it," underscoring the tension between traditional views of technological progress and the concerns of a new generation.

This incident is emblematic of a broader cultural shift where younger generations are increasingly questioning the narratives surrounding technology. As students prepare to enter the workforce, they are not just looking for jobs; they are also considering the ethical implications of the technologies they will work with. This skepticism is particularly relevant in fields like electronics and engineering, where the integration of AI is becoming more prevalent.

The Generational Divide

The divide between how different generations perceive technology is becoming more pronounced. While older generations may view AI as a tool for efficiency and innovation, many younger individuals are concerned about job displacement, privacy issues, and the potential for misuse of technology. This sentiment was palpable during the recent commencement events, where students voiced their concerns rather than passively accepting the status quo.

As future engineers and technologists, these students will be tasked with navigating the complexities of AI and its applications. Their experiences and perspectives can lead to a more responsible approach to technology development. This shift in mindset could influence how engineering curricula are designed, emphasizing not only technical skills but also ethical considerations in technology.

Implications for Engineering Education

The backlash against AI-centric narratives at commencement ceremonies may signal a need for educational institutions to reevaluate their approach to teaching technology. Engineering programs might benefit from incorporating discussions about the societal impacts of AI and fostering critical thinking about the technologies being developed.

For example, simple circuit projects for students can be designed not only to teach fundamental engineering principles but also to encourage discussions about the ethical implications of technology in society. By integrating these conversations into the curriculum, educators can better prepare students for the realities of working with AI and other advanced technologies.

Conclusion

The recent heckling of AI-praising speeches at college graduations serves as a reminder that the conversation around technology is evolving. As students express their concerns and skepticism, it is crucial for educational institutions to adapt and prepare future engineers to engage with these issues thoughtfully. By fostering an environment where ethical considerations are part of the engineering process, we can ensure that the next generation of technologists is equipped to navigate the complexities of the digital age.

FAQ

• Why are students skeptical about AI?
  Students are concerned about job displacement, privacy issues, and the ethical implications of AI technologies.
• How can engineering education adapt to these concerns?
  By integrating discussions about ethics and societal impacts into the curriculum, engineering programs can better prepare students for the future.
• What role do simple circuit projects play in education?
  Simple circuit projects can teach fundamental engineering concepts while also encouraging critical discussions about technology's impact on society.
• What does the backlash against AI in speeches indicate?
  It indicates a growing awareness and concern among students about the implications of AI in their future careers and society.
• How can institutions better prepare students for ethical dilemmas in technology?
  By fostering an environment that emphasizes ethical considerations and critical thinking in technology development.

Sources and further reading:

• Tom's Hardware - College students drown out AI-praising commencement speeches