Babajide Alalade

Why Scientists and Medical Practitioners Must Become Digital Scientists in 2026 By Alalade Babajide Gboyega, Africa’s leading digital scientist and tech venture creation expert. As 2025 draws to a close, professionals across science, engineering, medicine, and health stand at a critical crossroads. The pace of technological change has outgrown traditional professional models. While degrees such as BSc, MSc, PhD, MD, and fellowships remain foundational, they are no longer sufficient on their own. To remain relevant, impactful, and financially sustainable, today’s professionals must evolve into Digital Scientists—experts who combine domain knowledge with digital platforms, data tools, AI systems, and global communication channels. This is no longer optional. It is a professional survival skill. What Is a Digital Scientist? A digital scientist is a professional who: Uses digital platforms to share knowledge globally Applies AI and data tools to improve productivity and research Builds a personal digital brand Monetizes expertise ethically through digital products and services Leverages cloud collaboration and automation Core Digital Platforms Every Scientist Must Leverage in 2026 1. YouTube: Your Global Lecture Hall YouTube has become the world’s largest free university. Scientists and clinicians can: Explain complex concepts in simple language Demonstrate experiments or procedures (ethically and safely) Discuss research trends and medical breakthroughs Build authority beyond academic journals Income opportunities: Ads, sponsorships, memberships, consulting leads. 2. Monetizing Social Media (Facebook, TikTok, Instagram) These platforms are no longer for entertainment alone. Strategic use cases: TikTok: Short science explainers, health tips, myth busting Instagram: Infographics, clinical pearls, research summaries Facebook: Live Q&A sessions, professional groups, webinars Monetization: Ads, brand partnerships, affiliate products, paid communities. 3. Personal Website & Blog: Your Digital Headquarters Your website is your professional identity online. It should include: Biography and credentials Publications and projects Services (consulting, speaking, training) Blog posts that demonstrate thought leadership Benefits: Search engine visibility (SEO) Credibility beyond social media Long-term professional legacy The Critical Role of Google and Its Ecosystem Google products are foundational tools for digital scientists in 2026. Google Drive Secure cloud storage for research data, presentations, manuscripts Easy collaboration across institutions and countries Essential for remote and multidisciplinary research teams Google Docs Real-time collaborative writing for papers, grants, and reports Version history prevents data loss Ideal for academic and clinical documentation Google Sheets Lightweight data analysis Research tracking, patient logs (non-identifiable), project timelines Integrates with AI tools and APIs Google Slides Professional presentations for conferences and teaching Easy sharing and online delivery Google Forms Surveys for research, audits, feedback, and data collection Direct integration with Google Sheets Google Scholar Literature discovery and citation tracking Monitoring your research impact Google Calendar & Gmail Professional scheduling Managing collaborations, meetings, and deadlines 📌 Why Google Matters: Google tools create a connected, cloud-based workflow that supports productivity, collaboration, visibility, and scalability. 4. WhatsApp Channels: Direct Knowledge Broadcasting WhatsApp Channels allow professionals to: Share research updates Announce webinars and courses Distribute exclusive educational content Build trusted professional communities This is especially powerful in regions with high mobile usage. 5. X (Formerly Twitter): Academic Micro-Publishing X remains influential for: Research discussions Conference networking Policy and public health conversations With subscriptions, you can offer: Premium threads Mentorship insights Advanced tutorials 6. Amazon Kindle Direct Publishing (KDP) Publishing books is no longer limited to traditional publishers. You can write: Textbooks Research summaries Clinical guides Career and professional development books Benefits: Authority, global reach, royalties, long-term income. 7. Digital Marketing: The Skill Scientists Can No Longer Ignore Every digital scientist must understand: Search Engine Optimization (SEO) Content strategy Audience analytics Email marketing Personal branding Without visibility, even the best ideas remain invisible. 8. Diversifying Digital Income Streams Beyond social media: LinkedIn: Professional visibility, collaborations, consulting Patreon: Subscription-based premium knowledge Online courses: Udemy, Teachable, Selar, Thinkific 10 Essential AI Tools for Scientists, Engineers, Medical & Health Professionals (2026) ChatGPT – Research assistance, explanations, drafting, idea generation Google Gemini – Multimodal AI integrated with Google Workspace Elicit – AI-powered literature review and research discovery Scite.ai – Smart citations and evidence analysis Consensus – Evidence-based answers from scientific papers Grammarly – Academic and professional writing refinement Notion AI – Research organization and knowledge management Zotero + AI plugins – Reference management and citation automation Canva AI – Scientific visuals, infographics, presentations Otter.ai – Transcription of lectures, meetings, interviews ⚠️ Important: AI is a productivity enhancer—not a replacement for expertise or ethics. Why Digital Transformation Matters ✅ Global Reach Share knowledge beyond borders. ✅ Professional Visibility Be discovered by collaborators, institutions, and funders. ✅ Financial Sustainability Multiple ethical income streams reduce dependence on a single employer. ✅ Career Longevity Future-proof your expertise in an AI-driven world. Conclusion: The Future-Ready Scientist The traditional career model is fading. The future belongs to professionals who: Communicate effectively Leverage AI responsibly Build digital ecosystems around their expertise Adapt continuously Becoming a digital scientist is not abandoning academia or medicine—it is amplifying it. As 2026 begins, the question is no longer if you should adapt, but how fast you will. ❎❎❎❎❎❎❎❎ To learn more, get a copy of the eBooks at: 👉 www.selar.com 📞 Call: 08161324910 The future belongs to those who adapt. Will you be one of them?

An independent review of Nigeria’s Science, Technology, Engineering, and Innovation (STEI) landscape, analyzing cross-sectoral progress, persistent gaps, and the integrated path forward for a diversified, trillion-dollar economy. Executive Summary: A Year of Strategic Diversification and Sectoral Disparities The year 2025 has been a defining period for Nigeria’s innovation ecosystem, characterized by strategic policy initiatives and a noticeable maturation beyond the digital sphere into foundational sectors. Driven by a governmental focus on economic diversification, the year witnessed landmark legislation in digital governance, significant reforms in solid minerals and power, and continued investor interest in homegrown solutions. However, this progress unfolds against a backdrop of deep-seated structural challenges—from stark funding disparities and unreliable infrastructure to regulatory uncertainty. As Nigeria positions itself for competitive regional and global roles, the convergence of coherent public policy, private sector investment beyond fintech, and international partnership will determine the trajectory of its innovation journey into 2026 and beyond. Government Performance & Policy Framework The administration has positioned technological innovation and economic diversification as central to its agenda, aiming to build a foundation for a trillion-dollar economy. Key Policy Initiatives · National Digital Economy and e-Governance Bill (2025): A landmark legislative effort to create a comprehensive framework for digital transformation, mandating digital government processes and establishing governance for AI and emerging technologies. · 3 Million Technical Talents (3MTT) Programme: A flagship human capital initiative. By December 2025, the program reported training 135,000 Nigerians, with 15,000 securing tech jobs. · Power Sector Liquidity Solution: Finalization of a N1.23 trillion Power Sector Bond to address the crippling legacy debts in electricity, aiming to restore investor confidence. · Solid Minerals Sector Reforms: Digitalization of the Mining Cadastre Office, establishment of Mining Marshals, and a new development roadmap focused on value addition. Sectoral Performance & Key Deliverables: A Whole-Economy View 1. Digital & Technology Backbone · Information & Communication Technology (ICT): The digital engine, contributing 11.18% to real GDP in Q2 2025 and growing at 6.61% year-on-year. Over 163 million Nigerians have internet access, fueling a telecom sector projected to reach $11.43 billion by 2029. · Fintech: Remains the investment champion, raising **$112.9 million in H1 2025** (64% of all startup funding). Success stories like LemFi ($53M round) underscore confidence in financial innovation. · Emerging Technologies (AI, Clean Tech): Gaining momentum. The AI market is forecast to reach $4.64 billion by 2030. Clean energy startups like Salpha Energy secured funding, addressing critical off-grid power needs. 2. Foundational Sectors Undergoing Transformation · Energy & Power: A sector in critical transition. The N1.23 trillion bond aims to settle legacy debts that have paralyzed generation. Oil’s contribution to GDP remained modest at 3.44%, highlighting the urgent need for a functional electricity market to unlock economic productivity across all sectors. · Solid Minerals: A rising star in diversification, with contribution to GDP rising to approximately 4.6% in 2025, up from less than 0.5% a decade ago. Reforms aim to attract investment and combat illegal mining. · Agriculture & Water Resources: The largest employer, with crop production adding ₦9.11 trillion (17.8%) to GDP in Q2 2025. The integrated Agritech market is projected at $600 million by 2025, focusing on supply-chain tech and precision farming. · Marine & Blue Economy: Holds vast, untapped potential, currently contributing less than 3% to GDP. The Ministry unveiled ambitious plans to generate $20 billion and create two million jobs, with a major investment summit planned for 2026. · Aviation: A vital enabler, contributing $2.5 billion to GDP (0.7%) and supporting 217,000 jobs. Challenges remain, with high costs meaning the average Nigerian must work 37.6 days to afford a plane ticket. 3. Health Sector in 2025: High Need, High Potential, Low Funding The health sector presents a stark paradox: immense demographic need and market potential juxtaposed with severe underinvestment, especially in innovative healthtech. · Achievements & Contribution:   · The sector’s core market value is projected to reach $1 billion by 2025.   · Incremental policy efforts focused on strengthening primary healthcare and pursuing local vaccine production capacity.   · Isolated healthtech innovations emerged in telemedicine, maternal health tracking, and hospital management systems, demonstrating local problem-solving capability. · Critical Challenges:   · Acute Funding Drought: Healthtech raised a mere $1.9 million in H1 2025, a minuscule fraction compared to fintech. This starves the sector of the capital needed for R&D and scaling.   · Fragmented and Weak Infrastructure: Public health infrastructure remains overburdened, while digital health solutions grapple with the same power and internet constraints affecting the broader economy.   · Complex Regulatory Pathway: Navigating approval processes for medical devices, digital therapeutics, and data privacy in healthcare creates high barriers for startups.   · Talent Drain: Medical professionals and biomedical engineers continue to emigrate at high rates, depriving the local ecosystem of critical expertise. · The Way Forward for Health & Healthtech in 2026:   · Government: Create a dedicated healthtech regulatory sandbox within NAFDAC to fast-track innovations. Implement preferential procurement policies for locally developed health solutions. Anchor funding for public-private partnerships in primary healthcare digitization.   · Investors: Consciously diversify portfolios to include healthtech, recognizing its long-term social impact and economic potential. Explore blended finance models that combine philanthropic and commercial capital for early-stage health ventures.   · Ecosystem: Founders should build sustainable B2B or subscription models targeting clear pain points (e.g., chronic disease management, diagnostic access). Strengthen ties with teaching hospitals for piloting and validation. 4. Cross-Cutting Sectors: Environment & Climate Change Nigeria submitted an enhanced NDC 3.0, committing to a 32% emissions reduction by 2035. However, climate finance flows remain below 1% of GDP, with adaptation projects receiving less than one-third of the total and covering only 6% of estimated needs. This financing gap represents both a critical vulnerability and a massive opportunity for green innovation and investment. Critical Challenges Constraining Growth 1. Glaring Innovation Deficit: Nigeria’s ranking of 113th out of 133 in the Global Innovation Index underscores systemic R&D underinvestment. 2. Infrastructure Fragility: Unreliable electricity remains the single largest operational tax on businesses. 3. Regulatory Uncertainty &

By the Editorial Team of Science and Tech Connect Blog , led by Dr. Babajide Gboyega Alalade On December 19, 2025, President Bola Ahmed Tinubu presented the 2026 Appropriation Bill, titled the “Budget of Consolidation, Renewed Resilience and Shared Prosperity,” to the National Assembly. With a total expenditure of ₦58.47 trillion, this fiscal plan is designed to lock in economic stability and translate recovery into tangible improvements in the lives of citizens. This overview, curated by our editorial team, breaks down what the budget means for the critical ecosystems of Science, Engineering, Technology, Innovation (SETI), Health, Agriculture, and Education. The Big Picture: Fiscal Reform and Strategic Allocation The 2026 budget is part of a significant fiscal reform aiming to reset Nigeria’s financial calendar. By aligning the fiscal year with the calendar year starting in 2026, the government seeks to eliminate the longstanding problem of overlapping budgets. This move is expected to enhance transparency, improve planning, and boost investor confidence. The budget is anchored on what analysts call more “realistic” economic assumptions: a crude oil price of $64.85 per barrel, daily production of 1.84 million barrels, and an exchange rate of ₦1,400 to the US dollar. A major focus is on capital expenditure, which is allocated ₦26.08 trillion for infrastructure and development projects, signalling an intent to drive long-term growth. However, a point of concern remains the high cost of debt servicing, projected at ₦15.52 trillion, which underscores the need for efficient and impactful spending in key sectors. Sectoral Breakdown: Where the Money is Going The budget outlines specific allocations for sectors vital to national development. Here is a focused look at the key areas: · Education   · Allocation: ₦3.52 trillion   · Context & Expectation: This allocation sustains funding for the educational sector. A key highlight is the Nigerian Education Loan Fund (NELFUND), which has already supported over 418,000 students. Citizens can expect continued efforts to improve access to tertiary education through this scheme. For the SETI ecosystem, this is foundational, as a robust education system is the bedrock for producing the next generation of scientists, engineers, and innovators. · Health   · Allocation: ₦2.48 trillion   · Context & Expectation: The government notes that healthcare spending represents about 6% of the total budget. Furthermore, Nigeria has secured over $500 million in U.S. grant funding for health interventions. Citizens can anticipate targeted investments in health infrastructure and programmes. For science and technology, this opens avenues for applied research in public health, laboratory strengthening, and local pharmaceutical innovation. · Infrastructure (Including Agriculture & Energy)   · Allocation: ₦3.56 trillion   · Context & Expectation: This broad category is crucial for agriculture, transport, and energy. President Tinubu explicitly described food security as “national security,” pledging investments in mechanisation, irrigation, storage, and agro-processing. Citizens should look for projects aimed at boosting agricultural productivity and reducing post-harvest losses. This sector is ripe for engineering and technological innovation, from renewable energy solutions for rural farms to smart logistics and climate-resilient practices. · Defence and Security   · Allocation: ₦5.41 trillion   · Context & Expectation: This is the largest sectoral allocation. The President announced a decisive shift in security doctrine, declaring all armed non-state actors as terrorists. Beyond military spending, this has profound implications for other sectors. For instance, a secure environment is a prerequisite for implementing the Safe Schools Initiative. As previously advocated on this platform, the integration of Science, Engineering, and Technology—such as AI surveillance, biometric access, and emergency communication systems—is critical for protecting students and creating a stable environment for learning and innovation. What This Means for You: A Citizen’s Perspective 1. A Push for Tangible Project Completion: With a focus on capital expenditure (₦26.08 trillion) and an instruction to prioritise completing ongoing projects, citizens should expect to see continued work on critical infrastructure like roads, power, and ports. 2. Accountability and Digital Tracking: The President has directed a full digitisation of revenue mobilisation and warned against leakages. This push for “strict budget discipline” means citizens can, and should, demand greater transparency in how public funds are used. 3. A Foundation for SETI-Led Solutions: While a direct line item for “Science and Technology” is not specified in the available data, the allocations for education, health, agriculture, and infrastructure create the demand and platform for SETI applications. The success of these sectors increasingly depends on homegrown innovation, data analytics, and engineering solutions. 4. The Imperative of Economic Diversification: Experts caution that the budget’s success hinges on moving away from oil dependence. For lasting prosperity, investments must catalyze a structural shift toward a knowledge-based and industrially diversified economy, a vision central to building the “science we need for 2050”. Conclusion: A Budget Framed by Vision The 2026 budget arrives at a pivotal moment. It seeks to consolidate recent economic reforms while addressing immediate needs in security, food production, and human capital development. From the perspective of the Science, Engineering, Technology, and Innovation ecosystem, the budget provides a framework within which our community must actively engage. The tasks are clear: to leverage the allocations in education to build capacity, to use the focus on health and agriculture to drive applied research and technological adoption, and to support the nation’s security and infrastructure goals with innovative solutions. As noted by our team lead, Dr. Babajide Alalade, and his team,  the journey towards 2050 requires that “science is central to Nigeria’s transformation”. The 2026 budget is one step on that path. Its ultimate impact will be determined not just by the figures approved, but by the efficiency of implementation, the commitment to accountability, and the active participation of all stakeholders—policymakers, scientists, private sector, and informed citizens. What This Means for You: A Citizen’s Perspective 1. A Push for Tangible Project Completion: With a focus on capital expenditure (₦26.08 trillion) and an instruction to prioritise completing ongoing projects, citizens should expect to see continued work on critical infrastructure like roads, power, and ports. 2. Accountability and Digital Tracking: The President has directed a full digitisation of

COLUMN BY AARE (ENGR.) BENJAMIN KAYODE ADERETI  The recent announcement of Nigeria’s return to Category C of the International Maritime Organisation (IMO) is more than a diplomatic achievement. It is a powerful affirmation of President Bola Ahmed Tinubu’s steady, deliberate, and reform-driven leadership of the Nigerian economy. At a time when nations worldwide are recalibrating their maritime strategies to respond to shifts in global trade, opportunities in the blue economy, and environmental considerations, Nigeria’s reinstatement into this critical category sends a clear and compelling message: our nation is back at the centre of global maritime conversations. It is a testament to the renewed trust the international community now places in Nigeria’s maritime governance, regulatory compliance, and policy direction. For a country with vast coastlines, strategic waterways, and one of the busiest shipping corridors in West and Central Africa, this development is not only symbolic. It is economically consequential. President Tinubu’s leadership is delivering results. Under President Bola Ahmed Tinubu, the maritime and blue economy sectors have experienced a new sense of purpose and direction. The administration’s bold reforms, from port efficiency improvements to enhanced security operations across the Gulf of Guinea, have contributed significantly to building confidence among global partners. The President’s Renewed Hope Agenda has shown that Nigeria’s economic revival will not rely solely on the oil sector but on diversified pathways that include maritime trade, ocean resources, shipbuilding, logistics, and marine technology. Today, Nigeria is once again recognised as a responsible and active maritime nation, capable of shaping policy, driving innovation, and making meaningful contributions to global shipping standards. Commendation to the Honourable Minister of Marine and Blue Economy I heartily congratulate the Honourable Minister of Marine and Blue Economy, Alhaji Adegboyega Isiaka Oyetola, whose visionary leadership and technical competence have been instrumental in this achievement. His active engagement with stakeholders, commitment to international best practices, and hands-on approach to sectoral reforms have positioned Nigeria for sustainable growth in the blue economy ecosystem. The Minister’s contributions reinforce the fact that good leadership at the sectoral level can unlock national opportunities. His tenure continues to inspire confidence in Nigeria’s maritime future, expand investor interest, and strengthen our position as a regional maritime giant. A new era for Nigeria’s blue economy. With our return to IMO Category C, Nigeria now has an even greater responsibility and a broader opportunity to influence global maritime policies. This achievement must mark the beginning of a strategic push towards: – Strengthening port infrastructure and efficiency – Expanding local capacity in shipbuilding, repairs, and marine engineering – Boosting maritime security for safer trade routes – Harnessing untapped blue economy resources – Promoting sustainable ocean practices in line with global standards Our maritime sector holds the key to massive job creation, enhanced revenue generation, and a diversified national economy. The Renewed Hope government has laid the foundation; it is now time to scale up implementation and drive transformational outcomes. Conclusion: A renewed mandate for progress. As a committed stakeholder and advocate for national development, I celebrate this milestone with pride and optimism. Nigeria’s reinstatement into IMO Category C reflects what is possible when leadership, vision, and dedication align with national interest. President Bola Ahmed Tinubu has once again demonstrated that he is firmly in charge of the Nigerian economy, steering it through reforms that may be tough but are already yielding tangible results. The Honourable Minister of Marine and Blue Economy has complemented this vision with diligence and strategic action. The journey continues, and the future of Nigeria’s blue economy is bright. — Aare (Engr.) Benjamin Kayode Adereti Telecommunications Expert|| Community Builder

BEING THE PAPER PRESENTEDAT THE 2025 INDUCTION CEREMONY OF GRADUATES OF SCIENCE LABORATORY TECHNOLOGY,DEPARTMENT OF SCIENCE LABORATORY TECHNOLOGY,UNIVERSITY OF NIGERIA, NSUKKA,ON 2ND DECEMBER 2025BYALALADE BABAJIDE GBOYEGA (AISLT) The main contents of the paper are as follows: 1.Introduction 2.SLT Landscape 3.Traditional Careers 4.Technology Trends 6. Value Addition 7.Conclusion  1 Introduction Distinguished guests, academic faculty, proud parents and most importantly, our 2025 inductees into the Nigerian Institute of Science Laboratory Technology – I am profoundly honored to stand before you today as your guest lecturer at this momentous induction ceremony. Today marks a significant professional milestone in your journey as scientists and technologists, a journey that formally transcends academic achievement to embrace professional recognition and responsibility. The theme I have been privileged to address – “Science and Technology: Unravelling Lucrative Career Prospects Through Innovative Value Addition” – has been carefully chosen to illuminate the vast landscape of opportunity that awaits you as newly inducted science laboratory professionals. In an era defined by rapid technological advancement and evolving economic priorities, the question we must collectively address is straightforward: How does the modern Science Laboratory Technology professional not only navigate but truly thrive in this dynamic environment? The answer, I will argue, lies in strategically positioning yourself at the intersection of fundamental laboratory competence and innovative value addition. Over the course of this presentation, we will explore the evolving scope of Science Laboratory Technology, examine traditional and emerging career pathways, analyze technological trends reshaping our profession, and ultimately develop a framework for creating distinctive value throughout your professional journey. Your training has provided the foundation; today we contemplate the architecture of exceptional careers built upon that foundation. 2 The Expanding Horizon of Science Laboratory Technology  2.1 Defining the Profession and Its Scope Science Laboratory Technology represents one of Nigeria’s most strategically vital professions with applicability across virtually every sector of our national economy. The Nigerian Institute of Science Laboratory Technology (NISLT), established by Act 12 of 26th June 2003, defines SLT as “the application of scientific principles and techniques to investigate and solve problems in different scientific fields” . This definition, while concise, encompasses a remarkable diversity of specializations including Biology Technology, Biochemistry Technology, Chemistry Technology, Chemical/Petroleum Technology, Geology/Mining Technology, Medical Microbiology, Microbiology/Biotechnology, Physics/Electronics Technology, and Physiology/Pharmacology Technology . This professional breadth underscores a fundamental characteristic of your qualification – its multidisciplinary applicability across the economic landscape. The regulatory framework governing our profession establishes a structured career pathway with clear designations corresponding to educational attainment. Holders of National Diplomas are designated as Laboratory Technicians; Higher National Diploma holders become Laboratory Technologists; and B.Sc./B.Tech degree holders achieve the designation of Laboratory Scientists . This structured progression system, maintained by NISLT, provides both professional legitimacy and a clear framework for career advancement. The Institute’s mandate includes determining standards of knowledge and practical skills, maintaining professional registers, conducting examinations, ensuring laboratory safety standards, and inspecting science laboratories across educational institutions, industries, and research institutes . This comprehensive regulatory framework ensures that your professional certification carries national recognition and establishes standards of excellence that transcend individual workplaces. 2.2 Comparative Advantages in the Labor Market When positioned alongside other laboratory-based professions, Science Laboratory Technology offers distinct competitive advantages in today’s dynamic job market. While often compared with Medical Laboratory Science (MLS), it is crucial to recognize that these represent complementary but distinct professional pathways with different regulatory frameworks – NISLT for SLT professionals and the Medical Laboratory Science Council of Nigeria (MLSCN) for MLS professionals . The strategic advantage of your SLT qualification lies in its remarkable flexibility and broader applicability across multiple sectors beyond healthcare, including environmental science, food science, chemical science, radiation science, and forensic science, among others . This professional breadth translates into tangible career benefits, including diverse employment options and significant opportunities for research and consultancy. SLT professionals often enjoy greater flexibility in terms of working arrangements, including opportunities for short-term projects and part-time engagements across different settings . This versatility proves particularly valuable in today’s competitive labor market, where adaptability across sectors represents a significant employment advantage. While MLS focuses specifically on human biological samples, your SLT qualification empowers you to work with diverse samples and systems – from environmental samples to industrial materials – significantly expanding your potential employment base beyond the healthcare sector to include manufacturing, energy, education, and environmental management, among others .  3 Traditional Career Pathways for SLT Graduates The foundational training you have received as Science Laboratory Technologists prepares you for diverse employment opportunities across multiple sectors of the Nigerian economy and beyond. Before we explore the innovative dimensions of value addition, it is essential to recognize the well-established career pathways that have traditionally employed SLT graduates. These conventional routes continue to offer stable career progression and opportunities for professional development while forming the essential ecosystem that employs laboratory science professionals. 3.1 Industry-Based Opportunities The industrial sector represents one of the most significant employers of Science Laboratory Technology graduates, with particular demand in quality control and assurance roles. In the food and beverage industry, SLT professionals perform crucial functions ensuring products meet regulatory standards, conducting tests for contaminants, and preparing detailed reports for production managers . Major companies like Nestlé, Guinness, and Dangote regularly employ SLT graduates for these essential roles that directly impact product safety and quality . Similarly, the pharmaceutical manufacturing sector depends heavily on SLT professionals for quality control of raw materials and finished products, drug formulation support, and production process monitoring . These roles demand rigorous attention to detail and understanding of analytical techniques – competencies central to your training. The oil and gas industry offers another significant pathway, particularly for those specializing in Chemical/Petroleum Technology and Chemistry. Within this sector, SLT professionals contribute to biomarker identification, petroleum migration tracing, environmental monitoring, and quality control of petroleum products . The energy and power sector additionally employs SLT graduates in monitoring processes, ensuring fuel quality, and environmental compliance roles . These positions often offer competitive remuneration and opportunities for professional development within some of Nigeria’s most strategically important industries. For those

Dr. Babajide Gboyega Alalade has been officially invited to serve as the Guest Lecturer at the 2025 Induction Ceremony of the Department of Science Laboratory Technology, University of Nigeria, Nsukka (UNN), scheduled to hold on December 2nd, 2025. The invitation was conveyed in a letter titled “Invitation to Serve as Guest Lecturer at the 2025 Induction Ceremony” issued by Dr. Innocent O. Eya, Head of Department, Science Laboratory Technology, UNN. The ceremony marks a major professional milestone as graduating students will be formally inducted into the Nigerian Institute of Science Laboratory Technology (NISLT)—a transition that signifies their readiness to contribute meaningfully to scientific development and national advancement. This year’s theme, “Science and Technology: Unraveling the Lucrative Career Prospects Through Innovative Value Additions,” reflects the growing importance of research, innovation, digital skills, and entrepreneurship in the 21st-century scientific landscape Dr. Alalade’s distinguished service, professional excellence, groundbreaking contributions, and exemplary leadership within the Institute and the wider scientific community make him a highly deserving choice for this prestigious role. His experience in advancing science laboratory technology, promoting capacity building, and championing the integration of artificial intelligence and modern digital tools into scientific practice positions him as the ideal scholar-practitioner to guide, inspire, and empower the new inductees on this memorable occasion.

By Dr Babajide Gboyega Alalade, AISLT 10 November 2025 – In commemoration of World Science Day for Peace and Development, themed “Trust, Transformation and Tomorrow: The Science We Need for 2050” Introduction Every year on 10 November, the global community marks World Science Day for Peace and Development, celebrating the central role of science in society and reflecting on how scientific enterprise contributes to peace, sustainable development, and global cooperation. This year’s theme — “Trust, Transformation and Tomorrow: The Science We Need for 2050” — places a spotlight on three inter-linked dimensions: the trustworthiness of science and scientists, the transformation that science must enable in our societies, and the preparation for a future horizon of 2050. As we reflect on this theme, it is timely to ask: where does Nigeria stand in the global science community? How have we contributed — and how might we further contribute — particularly in the domains of peace-building, sustainability, and global cooperation? What must be done between today and 2050 to ensure that Nigerian science plays its full part? In this commentary, I outline three parts: (1) Where are we now? (2) Where do we want to be by 2050? (3) How do we get there? 1. Where Are We Now? Nigeria’s Science Contribution and Status Trust in Science Trust in science means that the public, institutions, industry, and government believe that scientific processes are credible, transparent, ethical, and socially relevant. In Nigeria, there are positive signals. For example, the Federal Ministry of Innovation, Science and Technology recently affirmed that trust in scientific methodologies and research outcomes is critical for national development. Furthermore, programmes such as the annual “774 Young Nigerian Scientists Presidential Award (774-YONSPA)” seek to stimulate youth interest and bring visibility to scientific effort. However, challenges remain: public awareness of scientific work, communication of science to citizens, incentives for ethical research, reliable funding, and translation of findings into policy remain weak. Transformation Through Science: Sustainability and Peace-Building On the sustainability front, research in Nigeria increasingly addresses issues such as green construction materials, sustainable infrastructure, and technological adoption. Studies on sustainable construction in Nigeria reveal that advanced technologies like Building Information Modelling (BIM) and innovative materials are gaining traction, though hindered by cost, regulatory gaps, and awareness. On the peace-building front, tertiary institutions and NGOs are engaging with conflict transformation, social justice, and inclusive communication strategies. Several studies highlight how NGOs in Nigeria’s North-Central region have used dialogue, mediation, and local capacity-building to advance peace-building. Other research underscores that social justice, peace, and security are essential bedrocks of sustainable development in Nigeria. Global Cooperation Nigeria has also shown engagement with global science networks, though the scale is modest relative to our potential. The science-policy interface is developing, and research outputs are increasing in volume but often remain marginal in global indexing and international visibility. The establishment of national awards such as the Nigeria Prize for Science helps raise profile and encourage excellence. In summary, Nigeria is making important strides: trust is rising, science is being applied for sustainability and peace, and international engagement is growing — but we are still far from realising the full promise of science for 2050. 2. Where Should We Be by 2050? A Vision for Nigerian Science By the year 2050, guided by the theme “Trust, Transformation and Tomorrow,” Nigeria should aim to be a country where: Trust: The science ecosystem is robust, transparent, ethical, publicly engaged, and accountable. Citizens trust research outcomes; policy-makers consult scientific evidence; industry and academia work in partnership; funding and infrastructure are reliable and visible. Transformation: Science is central to Nigeria’s transformation in key areas — sustainable energy, climate resilience, circular economy, peace-building, and social cohesion. Nigeria should have reduced dependency on fossil fuels, adopted clean renewable technologies at scale, and built resilient infrastructure that bridges rural-urban divides. Tomorrow: Nigeria plays a meaningful role in global science cooperation, serving as a hub for research in Africa, engaging in large-scale international collaborations, contributing to global challenges such as climate change, food security, and public health, and exporting innovations while nurturing a new generation of STEM professionals. In concrete terms by 2050, we should expect: R&D investment reaching at least 1 % of GDP. A strong pipeline of home-grown innovations transitioning to commercialisation. Science-education parity across regions and inclusive STEM capacity. Policy decisions grounded in scientific evidence. Nigeria as a hub for African-led international research collaborations. Such a vision aligns with the international dimension of this year’s theme: the science we need for 2050 is global, requires trust, transformation, and tomorrow-oriented thinking. 3. How Do We Get There? Pathways for Nigeria a) Strengthening Science Infrastructure, Funding, and Institutions Increase public and private investment in R&D to ensure sustainable funding. Build modern laboratories, data systems, and research parks nationwide. Strengthen research institutions and align them with national development goals. b) Cultivating Trust, Ethics, and Public Engagement in Science Promote science communication through schools, media, and community outreach. Embed ethics and transparency in research practice. Encourage community-based science partnerships to enhance relevance and public trust. c) Mobilising Science for Sustainability and Peace-Building Direct research toward renewable energy, climate resilience, and circular economy. Integrate scientific evidence into conflict-resolution and peace-building strategies. Mainstream science into national development planning. d) Building Capacity and Nurturing Talent Expand STEM education access, particularly for underrepresented groups. Support early-career researchers through grants and mentorship. Create technology-transfer mechanisms linking universities with industry. e) Fostering Global Cooperation Strengthen participation in international research consortia. Establish Nigeria-led centres of excellence in science and technology. Promote open-science collaboration across borders. f) Monitoring, Evaluation, and Adaptation Develop measurable science indicators and track national progress. Evaluate societal impact of scientific programmes. Adapt policies dynamically as new technologies and global trends emerge. Conclusion On this World Science Day for Peace and Development — under the banner “Trust, Transformation and Tomorrow: The Science We Need for 2050” — Nigeria stands at a pivotal moment. We have made meaningful progress in building scientific capacity, integrating science into sustainability and peace-building, and engaging internationally.

PREAMBLEAs the ASLTON/NISLT RIVERS 2025: 40th Annual Conference and Scientific Workshop – Charting the Course for Policy, Sustainability, and Productivity in Science Laboratory Practice draws near, the anticipation within Nigeria’s scientific and professional community continues to build.In this insightful interview, Dr. Henrrietta O. Asuzu-Samuel, FISLT, Chairperson of the Local Organizing Committee (LOC) and Rivers State Chapter of the Association of Science Laboratory Technologists of Nigeria (ASLTON), discusses the strategic direction, key policy imperatives, and expected outcomes of the forthcoming conference. She highlights how the Rivers State Chapter of ASLTON has demonstrated exceptional preparedness and organizational commitment to delivering a landmark event that will redefine standards, strengthen professional capacity, and promote sustainable laboratory practices across the nation. ASLTON National Executive with the Rivers state executive and RIVERS 2025 LOC TEAM on a courtesy visit to Dean SSLT University of PortHarcourt SCI &TECH CONNECT TEAM: Dr. Henrrietta Asuzu Samuel, could you kindly introduce yourself and share a bit about your role as the Chairperson of the Local Organizing Committee for the 40th Annual Conference and Scientific Workshop? DR Henrrietta: Good morning everyone, I am Dr. Henrrietta Ogadimma Asuzu-Samuel FISLT a Fellow of the Nigerian Institute of Science Laboratory Technology (NISLT) with my specialty in Physiology/Pharmacology Technique; A Senior Lecturer at School of Science Laboratory Technology, University of Port Harcourt; An Assistant Director of Exchange and Linkage Programmes Unit of Uniport; Chairperson, State Chapter of the Association of Science Laboratory Technology of Nigeria (ASLTON), Rivers State Chapter and the Local Organizing Committee (LOC) of 40th Annual Conference and Scientific Workshop of ASLTON/NISLT Conference Tagged “RIVERS 2025”. On behalf of the entire Local Organizing Committee, it is my genuine privilege and honor to welcome you to the 40th Annual Conference and Scientific Workshop.” As the Chairperson of the Local Organizing Committee (LOC), I must first express our profound gratitude to the association’s leadership, the sponsoring organizations, and, most importantly, to all of you, our dedicated attendees, for making this milestone event possible.” “My role, at its core, is to act as the chief conductor for the orchestra that runs this conference. I have the responsibility of overseeing and integrating the work of all our sub-committees – from scientific programming and abstract review to logistics, venue management, and social events “as follows:  * Strategic Direction: Ensuring the conference’s format, theme, and schedule align perfectly with the association’s mission and the expectations for this 40th anniversary celebration. * Team Leadership: Guiding, motivating, and supporting our diverse team of volunteers and professionals to ensure every detail – from your registration badge to the final session – is executed flawlessly.  * Stakeholder Liaison: Serving as the primary point of contact between the LOC, the National Steering Committee, our sponsors, and the host state/venue.  * Ensuring the Experience: My ultimate goal is to create an environment that is scientifically stimulating, logistically seamless, and personally enriching for every single delegate.”  We have worked tirelessly to craft a program that honors the four decades of scientific progress and looks forward to the next. Our commitment as the LOC is to ensure you can focus entirely on the science, the networking, and the collaboration.” “If you see me throughout the week, please feel free to stop me and say hello! We are here to serve you and ensure you have a truly productive and memorable experience. Welcome again!” SCIE &TECH Connect TEAM: . The theme of the upcoming conference, “Efficient Policy Matrix: A Pathway to Sustainability and Productivity of the Science Laboratory Profession,” sounds both timely and important. Can you elaborate on what this theme means and why it was chosen? DR. Henrrietta  : The theme centers on three key components — Efficient Policy Matrix, Sustainability, and Productivity — which together define a modern, forward-looking framework for advancing the science laboratory profession. A. Efficient Policy Matrix (Strategy & Solution):This represents a comprehensive system of clear, coherent, and cost-effective policies governing laboratory operations—covering safety, waste disposal, quality control, procurement, accreditation, human resources, and funding. Efficiency means these policies are streamlined, easy to follow, and mutually supportive rather than conflicting. B. Sustainability (Long-Term Goal):Sustainability has two aspects: C. Productivity (Core Output):Productivity reflects laboratory success through increased output, improved quality, and reduced delays. Efficient policies enhance productivity by preventing accidents, minimizing bureaucracy, and ensuring quality assurance. The theme addresses key sectoral challenges: Scie &Tech ConnectTeam: One of the sub-themes of the conference focuses on “The Human Cost for Poor Laboratory and Vendor Regulation.” Can you explain the significance of this issue and how it impacts both public safety and the economy in Nigeria? DR. Henrrietta: The sub-theme, “The Human Cost for Poor Laboratory and Vendor Regulation,” highlights how weak regulatory systems in Nigeria’s laboratory and vendor sectors endanger public safety and hinder economic growth. It connects the scientific and commercial environments, emphasizing that poor regulation leads to both human suffering and national economic loss. 1. Dual Failure of Quality Assurance:Two major regulatory breakdowns compound the crisis: 2. Impact on Public Safety and Health: 3. Impact on the Economy: Scie &Tech Connect Team: Another sub-theme addresses “Yesterday, Today, and Tomorrow: My Story and Vision in Starting, Running, and Maintaining a Science Laboratory.” What role do you see personal experiences playing in shaping the future of science laboratory practices in Nigeria? DR. Henrrietta: The sub-theme, “The Role of Personal Experience in Shaping Nigeria’s Laboratory Future,” emphasizes that policies and systems are only as effective as the people implementing them. It highlights how the experiences, insights, and resilience of current leaders can guide and inspire the next generation of laboratory professionals in Nigeria. 1. Bridging the Theory–Practice Gap:Personal experiences help translate theory into practice by offering real-world solutions to Nigeria’s unique challenges—such as power shortages, foreign exchange barriers, and bureaucratic delays. Leaders’ success stories provide practical, low-cost strategies and demonstrate that achieving international standards (like ISO accreditation) is possible even with limited resources. 2. Building Resilience and Professional Identity:Sharing personal stories of struggle and success fosters mentorship, motivation, and pride among younger professionals. It helps reduce burnout

By Dr. Babajide Gboyega Alalade, AISLT Introduction: A Holistic Transformative Shift in Nigerian Education In a landmark move set to redefine the educational landscape of Nigeria, the Federal Ministry of Education has unveiled a comprehensively revised **national curriculum for basic, secondary, and technical education**. Scheduled for a synchronized implementation starting in the **2025/2026 academic session**, this overhaul represents the most significant educational reform in over a decade. As an education specialist, Scientist and Techentreprenuer with decades of experience, I find this new framework particularly remarkable for its deliberate emphasis on **Science, Technology, Entrepreneurship, and Numeracy (STEN)** education across all streams—a critical foundation for national development in the Fourth Industrial Revolution era. The revised curricula, developed through extensive collaboration between the Nigerian Educational Research and Development Council (NERDC), examination bodies, and industry stakeholders, aim to reduce content overload while dramatically enhancing practical skill development and global competitiveness. This article provides an in-depth analysis of this new educational blueprint for **Nigeria’s primary schools, secondary schools, and technical colleges**, highlighting its advantages, potential challenges, and recommendations for successful implementation. 1.  Overview of the New Curriculum Structure The new curriculum introduces a streamlined subject structure across foundational levels: – **Primary 1–3**: 9–10 subjects (reduced from 13–15) – **Primary 4–6**: 10–12 subjects (reduced from 15–17) – **Junior Secondary School (JSS 1–3)**: 12–14 subjects (reduced from 15–18) – **Senior Secondary School (SSS 1–3)**: 8–9 subjects (reduced from as many as 20) **In a significant addendum to this reform, the Federal Government announced on Wednesday, September 17th, a parallel review of the curriculum for technical colleges.** This complementary curriculum, also taking effect from September 2025, is designed to be deeply integrated with industry needs, ensuring graduates possess advanced, hands-on expertise in high-demand technical fields. 2.  Key Advances in STEN Education Across All Tiers 2.1 Enhanced Digital and Technological Integration The academic curriculum introduces **digital literacy** from Primary 4, evolving into **digital technologies** at the junior secondary level, and expanding to advanced topics like **programming, artificial intelligence, data science, and cybersecurity** at the senior secondary level. The technical college curriculum will mirror and deepen this focus, incorporating industry-standard software, automation, and smart technologies into vocational training. 2.2 Strengthened Practical and Vocational Skills A cornerstone of the academic curriculum is the introduction of **compulsory trade subjects** at both junior and senior secondary levels, including areas like Solar Photovoltaic Installation, Computer Hardware Repairs, and Fashion Design. The **technical college curriculum** will serve as the advanced tier of this initiative, offering specialized, intensive training in these and other high-priority fields such as advanced manufacturing, mechatronics, and sustainable agriculture. This creates a clear, articulated pathway from secondary school trades to technical college expertise, directly addressing Nigeria’s skills and unemployment challenges by fostering a highly competent workforce. 2.3 Project-Based Learning and Innovation Senior secondary students will undertake a **research project**, while technical college students will likely engage in advanced apprenticeships and industry project work. This initiative across both streams cultivates critical thinking, innovation, and practical problem-solving skills—essential attributes for success in the modern economy. 3.  Advantages of the Unified Curriculum Strategy 3.1 Creation of a Cohesive Skills Ecosystem By reforming both academic and technical curricula in tandem, the government creates a cohesive ecosystem where skills are nurtured and advanced along multiple pathways. This ensures that every student, whether in an academic or technical track, graduates with market-relevant competencies. 3.2 Alignment with Global Best Practices and Industry Needs The redesign positions Nigerian education to compete effectively within global frameworks. The technical college update, in particular, ensures that vocational training is no longer outdated but is instead aligned with cutting-edge industrial technologies and processes. 3.3 Reduced Content Overload, Enhanced Depth By streamlining the number of subjects in academic schools, the curriculum allows for deeper engagement with core concepts rather than superficial coverage. The technical curriculum will focus on depth of skill mastery rather than breadth of outdated practices. *Table: Comparison of Subject Load Between Old and New Academic Curriculum* | **Educational Level** | **Old Curriculum** | **New Curriculum** | **Reduction** | |————————|———————|———————|—————| | Primary 1-3 | 13-15 subjects | 9-10 subjects | 4-5 subjects | | Primary 4-6 | 15-17 subjects | 10-12 subjects | 5-6 subjects | | Junior Secondary | 15-18 subjects | 12-14 subjects | 3-4 subjects | | Senior Secondary | Up to 20 subjects | 8-9 subjects | 11-12 subjects | 4.  Implementation Challenges 4.1 Teacher and Instructor Preparedness The success of this ambitious reform hinges on **educator competency**. Teachers in secondary schools will need training in new digital and trade subjects, while instructors in technical colleges will require upskilling on modern industrial technologies and pedagogical methods. 4.2 Infrastructure and Resource Gaps The digital and technical components require adequate **computer facilities, reliable internet, power supply, workshops, and modern equipment**—resources notably lacking in many Nigerian schools and technical colleges, particularly in rural areas. 4.3 Equity and Access Issues The technological focus risks **widening the educational gap** between urban and rural institutions. Without deliberate intervention, students in underserved communities may not benefit equally from these modernized curricula. 4.4 Funding Requirements Successful implementation requires significant **financial investment** in teacher training, infrastructure development, and learning resources for thousands of secondary schools and technical colleges simultaneously. *Table: Potential Implementation Challenges and Implications* | **Challenge** | **Potential Impact** | **At-Risk Institutions** | |————————|—————————————————-|————————————-| | Educator Readiness | Ineffective delivery of new subjects | Rural schools, underfunded tech colleges | | Infrastructure Gaps | Limited access to practical learning | Rural and low-income institutions | | Equity Issues | Widening educational divide | Rural, low-income students | | Funding Constraints | Inadequate resources for implementation | Public schools and technical colleges | 5.  Recommendations for Successful Implementation 5.1 Phased Rollout with Pilot Testing A **phased approach** is recommended, beginning with well-resourced pilot schools and technical colleges across different geopolitical zones. This allows for identifying and addressing challenges before a full-scale rollout. 5.2 Intensive Educator Training Programs The government should collaborate with tertiary institutions, industry experts, and corporations to develop **comprehensive training programs** for both secondary school