Modern Academia: From “Publish or Perish” to “Monetize or Collapse”

IF 2.5 4区 计算机科学 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC
Mohamed L. Seghier, Mahmoud Meribout
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For instance, over the past decades, the emphasis on industrial collaborations in grant applications for science and engineering disciplines has expanded significantly, growing from a few statements to full pages. As a result, new terminology such as market maps, technological readiness levels, cost savings, competitiveness, spin-offs, patents, and marketization has become commonplace in these grant applications. Likewise, universities are establishing more incubators and frameworks to encourage their academic staff to transform their ideas and innovative solutions into marketable products. Consequently, researchers are now grappling with not only the traditional “publish or perish” model but also a new “monetize or collapse” model. But is academia ready for this shift at high pace? 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引用次数: 0

Abstract

Academia needs money and it needs a lot and soon! Recent reports from many countries revealed that modern academia is grappling with a significant crisis in sustaining its core mission financially without burdening students with high tuition fees or relying heavily on governmental funders or private donors. This trend is more pronounced in countries like the UK than in the USA, with its strong university-industry partnerships (e.g., Silicon Valley), or in China and many European countries where universities are supported by their governments. However, with substantial cuts to government budgets for higher education, public funding is rapidly depleting, necessitating the urgent development of alternative funding models. For instance, the recent threats to some UK universities at the risk of closing whole departments and the huge loss in funding in the US to some universities and agencies [1] should serve as a wake-up call for all stakeholders to prevent academia from going broke. In these uncertain times, universities are asked to make further drastic cuts or merge just to survive [2].

The UK provides one example to gauge the true impact of financial turmoil on academia. For example, more than half of income of UK universities come from tuition fees, predominantly from international students, while a seventh of the income come from research grants (government bodies or charities) [2]. According to the UK’ Office for Students, and despite an income of tens of billions of dollars, 40% of England's universities are expected to run budget deficits this year, with more than 70 universities in the UK have announced staff redundancies, department closures, programs phasing out, and other forms of restructuring [3]. A similar alarming picture is also emerging in the US with research programs been closed in particular in domains judged not important by the new policy makers, as well as universities targeted with drastic cuts for not aligning with government's positions and policies [4].

Three traditional models are gaining momentum in the current climate to save academia: expanding partnerships with industry, promoting a new breed of academic entrepreneurs, and monetising academic expertise. These models, though not new, are being administered to academia at high pace and with a degree of urgency. For instance, over the past decades, the emphasis on industrial collaborations in grant applications for science and engineering disciplines has expanded significantly, growing from a few statements to full pages. As a result, new terminology such as market maps, technological readiness levels, cost savings, competitiveness, spin-offs, patents, and marketization has become commonplace in these grant applications. Likewise, universities are establishing more incubators and frameworks to encourage their academic staff to transform their ideas and innovative solutions into marketable products. Consequently, researchers are now grappling with not only the traditional “publish or perish” model but also a new “monetize or collapse” model. But is academia ready for this shift at high pace? And what are the consequences on academic ethics?

The first traditional model is underpinned by the university-industry technology transfer framework, one of the cornerstones of a knowledge-based economy. The rapprochement between academia and industry has been beneficial in boosting innovation and orienting research toward concrete societal needs with potential financial returns to researchers and their institutions [5]. This is why, for instance, the EU's recent multibillion-euro science program is focusing more on strengthening industry involvement to boost innovation [6], with the appointment of a commissioner for start-ups, research, and innovation to attract more private investment in research in Europe. Similar trends can be seen in other parts of the world, with the contribution of industry to academic research estimated at the level of billions of dollars in the form of research funds or scholarship programs.

However, there is a risk of this university-industry relationship becoming too cozy, which could undesirably favor the emergence of a profit-driven academic ecosystem dominated by bureaucratic managers and commercial funders, potentially negatively affecting the autonomy of academic research. This trend may also exert too much pressure on academics, including early career researchers [7], to attract as much money as possible from industry, yielding a risky emergence of unethical or unlawful practices. In this context, it has also been suggested that when the collaboration with industry takes too much of academics' time and effort, it might lead to a decline in research output [8] and a decrease in the quality of research in basic sciences [9]. This calls for consideration of the scale and intensity of university-industry engagement. For example, a previous large-scale survey in the UK revealed that faculty with industrial support tend to publish at higher rates and patent more frequently than faculty without industrial support, but those gains came at the expense of research ethics because some faculty with industry funds acknowledged that commercial considerations directly (and unethically) influenced their research projects [10].

The premise behind the second model is that universities create knowledge and form skilled workers, yet both outcomes are shared for “free” with many sectors including industry. Universities have been pondering for decades on how to retain talented researchers for potential financial returns, including nurturing the emergence of academic entrepreneurs. Academic entrepreneurship, traditionally meaning a “university spin-off,” allows the transformation of knowledge into products and processes and their commercialization and contribution to economic growth and innovation [11]. Academia has been striving to promote academic entrepreneurs by establishing incubators for new start-ups, where innovative solutions developed by its members can be commercialized. The process of transferring scientific innovations to the market is a multistage process [12], from idea inception, the recognition of idea's potential by customers, establishing a clear business model, and having a robust commercialization strategy. However, the success of this process requires substantial investments to support these solutions in a highly competitive market, given the significant time lag between academic findings and industrial/societal utilization of those findings [13]. This includes providing professional support through mentorship and networking opportunities, specialized training programs focused on entrepreneurship skills, and the necessary infrastructure and resources to develop and commercialize ideas and solutions. Additionally, policies that support academic entrepreneurship, such as flexible intellectual property rules and reduced teaching duties and administrative burdens, are essential.

Despite its appeal, this model may place pressure on academics who lack entrepreneurial skills to adapt to the new ecosystem, as a successful academic entrepreneurship must operate in a culture that rewards innovation and risk-taking. It also poses a risk of creating unhealthy work environments where academics may feel vulnerable or insecure about their jobs if they are unable to establish a successful track record in start-up creation and product commercialization. Furthermore, basic research and large projects with extended timelines may not attract significant interest from industrial partners. This model will also fundamentally change how academic performance is evaluated for hiring and promotion purposes.

Many academic services are provided to different stakeholders without remuneration. For instance, faculty are involved in many activities that do not always generate revenues for their respective universities, including involvement in the peer review process for for-profit publishers, drafting policy papers for diverse institutions and agencies, providing consultancy services to public or industrial partners, offering mentoring and professional development opportunities for a wide range of workforces, organizing events for the community at large, and actively engaging in the social media sphere. The traditional model promotes academic engagement to help companies and government agencies solve practical problems and advance innovation for the overall good of society [14]. Nevertheless, universities could monetize their faculty's expertise by charging for some of these activities. One example is to charge for-profit publishers for involvement in the peer review process [15], for example, in terms of monetary compensation for the time spent by faculty in peer review. Likewise, patenting faculty work and licensing it to companies as well as offering paid consultancy services would also provide other sources of income. Overall, universities can explore new ways to generate income from existing academic expertise.

Despite the appeal of this model, one cannot rule out real risks to open science. For instance, this model might reduce the appeal in the academic community for the development of free open-source tools and solutions that have been the pillars of open science and global knowledge sharing. Similarly, involvement in not-for-profit societies or other essential non-funded community engagement might be disregarded as faculty will have no incentive to give away their time and expertise for free.

The authors declare no conflicts of interest.

现代学术:从“出版或灭亡”到“货币化或崩溃”
学术界需要钱,而且需要很多,而且要快!最近来自许多国家的报告显示,现代学术界正在努力应对一个重大危机,即在不给学生带来高额学费负担或严重依赖政府资助者或私人捐助者的情况下,在经济上维持其核心使命。这一趋势在像英国这样的国家比在拥有强大的大学-产业合作关系(如硅谷)的美国更明显,或者在中国和许多欧洲国家,大学得到政府的支持。然而,随着政府对高等教育预算的大幅削减,公共资金正在迅速枯竭,迫切需要开发其他资助模式。例如,最近一些英国大学面临着关闭整个院系的风险,以及美国一些大学和机构在资金上的巨大损失,应该为所有利益相关者敲响警钟,以防止学术界破产。在这个不确定的时代,大学被要求进一步大幅削减或合并,以生存下去。英国为衡量金融动荡对学术界的真正影响提供了一个例子。例如,英国大学一半以上的收入来自学费,主要来自国际学生,而七分之一的收入来自研究补助金(政府机构或慈善机构)。根据英国学生办公室的数据,尽管收入高达数百亿美元,但英国40%的大学预计今年将出现预算赤字,英国有70多所大学宣布裁员、关闭部门、逐步取消项目和其他形式的重组。美国也出现了类似的令人担忧的情况:研究项目被关闭,特别是在新政策制定者认为不重要的领域,以及因不符合政府立场和政策而被大幅削减的大学。在当前的环境下,有三种传统模式正在获得拯救学术界的动力:扩大与工业界的合作伙伴关系,培养新型的学术企业家,以及将学术专长货币化。这些模式虽然并不新鲜,但正在以很高的速度和一定程度的紧迫性应用于学术界。例如,在过去的几十年里,在科学和工程学科的拨款申请中,对工业合作的强调已经显著扩大,从几条声明发展到一整页。因此,诸如市场地图、技术准备水平、成本节约、竞争力、衍生产品、专利和市场化等新术语在这些资助申请中变得司空见惯。同样,大学正在建立更多的孵化器和框架,以鼓励其学术人员将他们的想法和创新解决方案转化为可销售的产品。因此,研究人员现在不仅要应对传统的“发表或消亡”模式,还要应对一种新的“货币化或崩溃”模式。但学术界准备好迎接这种快速转变了吗?这对学术道德有什么影响?第一种传统模式以大学-工业技术转移框架为基础,这是知识经济的基石之一。学术界和产业界之间的友好关系有利于促进创新,并将研究导向具体的社会需求,并为研究人员及其机构带来潜在的经济回报。这就是为什么,例如,欧盟最近数十亿欧元的科学项目更加注重加强行业参与,以促进创新,并任命了一位负责初创企业、研究和创新的专员,以吸引更多私人投资于欧洲的研究。在世界其他地区也可以看到类似的趋势,工业界以研究基金或奖学金项目的形式对学术研究的贡献估计达到数十亿美元。然而,这种大学与产业的关系有变得过于安逸的风险,这可能不利于由官僚管理者和商业资助者主导的利润驱动的学术生态系统的出现,潜在地对学术研究的自主性产生负面影响。这一趋势也可能给学术界(包括早期职业研究人员)带来太大的压力,迫使他们从工业界吸引尽可能多的资金,从而产生不道德或非法行为的风险。在此背景下,也有人提出,当与工业界的合作占用了学者太多的时间和精力时,可能会导致研究产出下降bb1,基础科学研究质量下降bb1。这需要考虑大学与产业合作的规模和强度。 例如,之前在英国进行的一项大规模调查显示,有产业支持的教师往往比没有产业支持的教师发表论文的频率更高,申请专利的频率也更高,但这些成果是以牺牲研究伦理为代价的,因为一些有产业资助的教师承认,商业考虑直接(和不道德地)影响了他们的研究项目。第二种模式背后的前提是,大学创造知识并培养技术工人,但这两种成果都是与包括工业在内的许多部门“免费”共享的。几十年来,大学一直在思考如何留住有才华的研究人员,以获得潜在的经济回报,包括培养学术企业家的出现。学术创业,传统上意味着“大学衍生”,允许将知识转化为产品和过程,并将其商业化,为经济增长和创新做出贡献。学术界一直在努力培养学术企业家,为新创业企业建立孵化器,使其成员开发的创新解决方案能够商业化。将科学创新转化为市场的过程是一个多阶段的过程,从创意开始,到客户对创意潜力的认可,到建立清晰的商业模式,再到制定强有力的商业化战略。然而,这一过程的成功需要大量的投资来支持这些解决方案在高度竞争的市场中,因为学术发现和这些发现的工业/社会利用之间存在显著的时间滞后。这包括通过指导和网络机会提供专业支持,专注于创业技能的专业培训项目,以及开发和商业化创意和解决方案所需的基础设施和资源。此外,支持学术创业的政策,如灵活的知识产权规则和减轻教学职责和行政负担,也是必不可少的。尽管这种模式很有吸引力,但它可能会给缺乏创业技能的学者带来压力,使他们无法适应新的生态系统,因为成功的学术创业必须在一种奖励创新和冒险的文化中运作。它还可能造成不健康的工作环境,如果学者无法在创业和产品商业化方面建立成功的记录,他们可能会对自己的工作感到脆弱或不安全。此外,基础研究和时间较长的大型项目可能不会引起工业合作伙伴的极大兴趣。这一模式也将从根本上改变以招聘和晋升为目的评估学习成绩的方式。许多学术服务是免费提供给不同的利益相关者的。例如,教师参与的许多活动并不总是为各自的大学带来收入,包括参与营利性出版商的同行评审过程,为不同的机构和机构起草政策文件,为公共或工业合作伙伴提供咨询服务,为广泛的劳动力提供指导和专业发展机会,为整个社区组织活动,积极参与社交媒体领域。传统模式促进学术参与,帮助企业和政府机构解决实际问题,推动创新,造福社会。然而,大学可以通过对其中一些活动收费来将教师的专业知识货币化。一个例子是向参与同行评议过程的营利性出版商收取费用,例如,对教师在同行评议中花费的时间进行金钱补偿。同样,为教师的工作申请专利并将其授权给公司,以及提供有偿咨询服务,也会提供其他收入来源。总体而言,大学可以探索从现有学术专长中获得收入的新途径。尽管这种模式很有吸引力,但我们不能排除开放科学面临的真正风险。例如,这种模式可能会降低学术界对开发免费开源工具和解决方案的吸引力,而这些工具和解决方案一直是开放科学和全球知识共享的支柱。同样,参与非营利性社团或其他必要的非资助社区活动可能会被忽视,因为教师将没有动力免费奉献他们的时间和专业知识。作者声明无利益冲突。
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来源期刊
International Journal of Imaging Systems and Technology
International Journal of Imaging Systems and Technology 工程技术-成像科学与照相技术
CiteScore
6.90
自引率
6.10%
发文量
138
审稿时长
3 months
期刊介绍: The International Journal of Imaging Systems and Technology (IMA) is a forum for the exchange of ideas and results relevant to imaging systems, including imaging physics and informatics. The journal covers all imaging modalities in humans and animals. IMA accepts technically sound and scientifically rigorous research in the interdisciplinary field of imaging, including relevant algorithmic research and hardware and software development, and their applications relevant to medical research. The journal provides a platform to publish original research in structural and functional imaging. The journal is also open to imaging studies of the human body and on animals that describe novel diagnostic imaging and analyses methods. Technical, theoretical, and clinical research in both normal and clinical populations is encouraged. Submissions describing methods, software, databases, replication studies as well as negative results are also considered. The scope of the journal includes, but is not limited to, the following in the context of biomedical research: Imaging and neuro-imaging modalities: structural MRI, functional MRI, PET, SPECT, CT, ultrasound, EEG, MEG, NIRS etc.; Neuromodulation and brain stimulation techniques such as TMS and tDCS; Software and hardware for imaging, especially related to human and animal health; Image segmentation in normal and clinical populations; Pattern analysis and classification using machine learning techniques; Computational modeling and analysis; Brain connectivity and connectomics; Systems-level characterization of brain function; Neural networks and neurorobotics; Computer vision, based on human/animal physiology; Brain-computer interface (BCI) technology; Big data, databasing and data mining.
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