Singapore faces the twin challenges of enticing more people to become engineers and preparing young engineers well for the technical aspects of the job.
The country needs 1,000 more engineers every year for the next five years, recent government figures showed, to work on the huge pipeline of infrastructural projects ranging from constructing the ever-expanding MRT network to research and development opportunities in electronics.
There has, however, been waning interest in engineering with fewer people pursuing it as a career in recent years, perhaps due to its less than glamorous image and lack of high salary. But there is an urgent need to prepare the next generation of engineers early or risk delays in the country’s development due to lack of talent.
The Government recently announced that it is reviewing the salary and career progression of its engineers, as well as including more variety in their job scope, as a way to attract and retain talent. It is welcome news which could boost the engineering industry with surveys showing that the average monthly starting pay of engineers is between S$2,800 and S$3,500.
Beyond producing more engineers, tertiary institutions also need to teach relevant skills as graduates seem to be lacking when it comes to understanding the latest trends, methods and modern tools that industry uses. Mastering this knowledge takes time, goes beyond reading textbooks and should start before a graduate enters the workforce.
At a recent roundtable discussion held with academics from institutions around South-east Asia, participants examined factors ailing engineering today, and how companies and educators could develop more compelling, industry-relevant engineering education.
During the discussion, there was consensus on the need for closer collaboration with industry players to enable academia to develop curriculum that addresses current and future needs in a rapidly changing global environment, and producing engineers who are technically capable, adaptable and armed with practical experience.
What needs to be done to attract more students to study engineering and ensure they are not only academically adept, but also able to think on their feet and meet the real-life challenges thrown at them in their first years of work?
START THEM YOUNG
Youngsters need to be exposed to practical learning at an early age to ignite a passion for exploration which leads to enhanced skills in problem solving and teamwork — essential abilities in any engineer. For this to occur, collaboration is required between primary-level educators, the Government and industry.
One good scheme is the Ministry of Education’s (MOE) Science, Technology, Engineering and Mathematics Applied Learning Programme (STEM ALP), which enables students to apply their knowledge and skills in science, mathematics and technology to solve real-world problems.
The MOE recently announced that 42 secondary schools are offering this programme. And by 2017, half of the 124 mainstream secondary schools in Singapore are expected to offer it to students. It is hoped the programme can be extended to more schools.
Some schools have also taken the initiative to teach more science-related topics beyond what is required in the national curriculum.
For instance, Rulang Primary School has included robotics in its formal curriculum to complement its shift from quantity to quality teaching and learning since 2005. The school’s robotics education enables pupils to learn through experience. As a result, Rulang has developed into a leader in qualitative education, receiving numerous prizes including the Zonal Centre of Excellence for Robotics West Zone in 2008.
In an effort to encourage more hands-on learning early, educators and the Government are refocusing curriculum to become more encompassing and exploratory. This is a vital step in preparing youngsters with practical skills that will be valued in any number of professions, including engineering, but requires further support from tertiary educators.
PRODUCING INDUSTRY-READY ENGINEERS
A key hurdle in preparing industry-ready graduates is that many more traditional higher education providers still overlook the importance of students being able to hit the ground running and continue to focus heavily on academia in their curriculum. On the other hand, more progressive institutes are bridging gaps by becoming more diverse.
One way is to include more hands-on engineering experience during undergraduate years through internship programmes with engineering companies. Some tertiary institutions such as Nanyang Technological University do so with its Renaissance Engineering Programme which was started in 2011.
The programme, which attracts around 400 applicants each year, is highly sought after as it offers students a year-long course with a partner university and they can take up internships at start-ups and companies abroad.
Offering double-degree or hybrid courses is another way of broadening learning and enables students to gain a better understanding of functions associated with, but not taught, in an engineering course. Such courses also stir greater interest among students who can learn another skill such as accounting or business, in addition to engineering, resulting in more people taking up these dual programmes.
Polytechnic institutions are becoming increasingly creative in their hybrid course offerings and enticed more students back to engineering. Ngee Ann’s hybrid Engineering and Business Management programme, for instance, is gaining popularity and now attracts students with aggregate O-Level scores as low as nine points, compared with 18 when it was first launched in 2010.
Unfortunately, innovative teaching methodologies may not pass muster with the accreditation bodies that govern the structure, standards and rankings of tertiary institutions, which is why some tertiary institutions remain largely conservative towards embracing holistic teaching and moving away from strict academia.
Regardless of this, academic institutions can look at forming industry councils with partners to identify engineering challenges and tailor curriculum that encompasses more applied learning to better prepare students for the workforce and result in higher graduate employment.
The Government is providing a range of career services as part of its five-year plan to build skills for the future. It is now up to educators and industry to come together and play a leading role in helping to prepare industry-ready engineers.
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新加坡面临双重挑战,诱使更多人成为工程师和年轻的工程师们也准备工作中的技术方面。这个国家需要更多的工程师的每年接下来的五年,政府最近的数字表明,上班上巨大的管道的基建项目,从建设的不断扩大捷运路网的研究和发展的机会,在电子的 1,000。然而,已有工程与更少的人继续追求它作为事业近几年,或许比魅力十足的形象和缺乏高薪水少的兴趣降低。但有迫切的需要准备下一代的工程师早或风险延迟在该国的发展由于缺乏人才。政府最近宣布它正在审查其工程师,以及在其工作范围,包括更多的品种,以此来吸引和留住人才的薪金和职业进展。它是受欢迎的消息,这可能提振工程行业调查显示的平均每月起薪的工程师是 S$ 2,800 和 S$ 3,500 之间。除了生产更多的工程师,专上院校还需要教有关的技能,如毕业生似乎缺少了解最新的趋势、 方法和工业使用的现代工具的时候。掌握这方面的知识需要时间,超越阅读课本,应该开始之前的毕业生进入劳动力市场。At a recent roundtable discussion held with academics from institutions around South-east Asia, participants examined factors ailing engineering today, and how companies and educators could develop more compelling, industry-relevant engineering education.During the discussion, there was consensus on the need for closer collaboration with industry players to enable academia to develop curriculum that addresses current and future needs in a rapidly changing global environment, and producing engineers who are technically capable, adaptable and armed with practical experience.What needs to be done to attract more students to study engineering and ensure they are not only academically adept, but also able to think on their feet and meet the real-life challenges thrown at them in their first years of work?START THEM YOUNGYoungsters need to be exposed to practical learning at an early age to ignite a passion for exploration which leads to enhanced skills in problem solving and teamwork — essential abilities in any engineer. For this to occur, collaboration is required between primary-level educators, the Government and industry.One good scheme is the Ministry of Education’s (MOE) Science, Technology, Engineering and Mathematics Applied Learning Programme (STEM ALP), which enables students to apply their knowledge and skills in science, mathematics and technology to solve real-world problems.教育部最近宣布 42 中学都开设这一课程。到 2017 年,一半在新加坡就读 124 的主流中学预计它向学生提供。希望该方案可以扩展到更多的学校。一些学校还主动教更多科学相关的主题,超越什么国家课程所需。例如,如浪小学已列入其正式的课程,以补充其从数量转向质量教与学自 2005 年以来的机器人。学校里的机器人教育可使学生从经验中学习。因此,如浪已发展成为在领导定性的教育,接受奖项,包括 2008 年的纬向的机器人西部区域中心。为了鼓励更多的动手学习早,教育工作者和政府重新确定课程变得更加包容和探索性。这是准备通过实际的技巧,将值中任意数量的专业人士,包括工程,但需要进一步支持专上教育工作者从青少年的重要一步。生产行业准备工程师制备工业准备毕业生的一个关键障碍是很多更传统的高等教育提供者仍然忽视学生能够旗开得胜,继续重点集中在学术界在其课程中的重要性。另一方面,更进步的机构由正变得更多样化弥合差距。一种方法是包括本科年通过实习方案与工程公司更多实际工程经验。一些大专院校等南洋科技大学这样做其复兴工程计划,在 2011 年开始。它为学生提供为期一年的课程与大学的一个合作伙伴,他们可以暂用初创企业和国外公司的实习方案,每年吸引约 400 名申请者,是备受追捧。双自由度或混合课程扩大学习另一种是和使学生能够更好地理解函数关联,但不是教了,工程的课程。这类课程也激起更大的兴趣,学生可以学习另一种技能,如会计或商业,工程,除了造成更多的人占用了这些双重的方案中。理工学院的机构正变得越来越富有创造性,它们混合的课程并吸引更多的学生回到工程。义安的混合工程和企业管理方案,例如,越来越受欢迎,现在吸引低至 9 个百分点,相比于 2010 年第一次推出 18 聚合 O 水准成绩的学生。不幸的是,创新教学方法可能不合格的认可机构的治理结构、 标准和专上院校排名,这就是为什么一些大专院校保持很大程度上保守走向拥抱整体教学和移动从严格的学术研究。即便如此,学术机构可以看看形成行业议会与伙伴合作,确定工程面临的挑战和定制课程包含更多应用学习更好的准备的劳动力和结果在较高的大学毕业生就业的学生。政府提供一系列的职业服务作为其五年计划建设未来的技能的一部分。它现在是教育工作者和业走到一起,发挥主导作用,协助准备产业准备好工程师。关于作者:
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