Things to do for kids along Science Park Road can become a learning day about research and development, laboratories, universities, knowledge clusters, startup ecosystems, building names, land area, workplace design, sustainability and how Singapore deliberately created a place where science and industry could work side by side.
Singapore Science Park was conceptualised in the 1970s as the country began moving towards higher-value scientific and technological work. In September 1979, the park entered JTC’s master plan for the 1980s, with a location near the University of Singapore—today’s NUS—chosen partly to encourage interaction between academia and industry.
Construction began in 1981 on about 30 hectares along Ayer Rajah Road. DNV became the first tenant in 1982, starter blocks such as Faraday and Fleming followed, and the park was officially opened on 17 January 1984. It has since expanded into a much larger R&D district and now forms part of Greater one-north.
For children, the central question is useful: can innovation be designed into a place, or does it depend entirely on the people who work there?
- begin with the 1970s shift towards R&D;
- use the 30-hectare first phase for area Mathematics;
- use 1979–1984 for project sequencing;
- use DNV for first-tenant history;
- use scientist-named buildings for knowledge geography;
- use Science Park 2 for expansion and demand;
- use Greater one-north for cluster thinking;
- use Geneo for modern rejuvenation and car-lite design.
Explore Singapore Science Park history
Begin with the 1970s
Singapore Science Park was conceptualised in the 1970s as Singapore looked beyond basic manufacturing towards higher-value scientific work.
The park therefore belongs to a national economic-transition story.
Teach R&D
Research creates new knowledge; development turns knowledge into useful products, processes or services.
R&D connects curiosity with application.
Use Economic Upgrading
A country can move from labour-intensive production towards knowledge-intensive industries.
That shift changes the kinds of jobs, buildings and skills required.
Teach Human Capital
Human capital is the knowledge and skill held by people.
Science parks need trained researchers as much as they need laboratories.
Use September 1979
In September 1979, Singapore Science Park entered JTC’s master plan for the 1980s.
A concept became a formal development programme.
Teach Planning Maturity
Idea, master plan, construction, occupation and expansion are different stages.
Good timelines label each stage precisely.
Use Proximity to the University
The site was chosen near the University of Singapore, now NUS.
The aim was to encourage interaction between academic research and industry.
Teach Knowledge Spillovers
People exchange ideas through meetings, hiring, partnerships and informal contact.
Geographic proximity can make such exchange easier.
Use the 30-Hectare First Phase
Construction began in 1981 on about 30 hectares.
That equals around 300,000 square metres of land.
Teach Hectares
One hectare equals 10,000 square metres.
Area conversion helps compare science parks with campuses and housing estates.
Use a Square Comparison
A hypothetical square of 300,000 square metres would have sides of about 548 metres.
The real Science Park shape is not square; the model only gives scale.
Teach Site Planning
R&D campuses need roads, labs, offices, greenery and shared amenities.
Not every square metre becomes rentable building floor.
Use 1981 Construction
The first phase moved into construction in 1981.
Infrastructure and buildings had to exist before firms could relocate researchers.
Teach Lead Time
Research organisations cannot occupy a park that exists only on paper.
Development schedules convert policy into usable space.
Use DNV in 1982
Det Norske Veritas became the first tenant in 1982.
A first tenant signals that a new business district has moved from construction into operation.
Teach Anchor Tenants
An anchor tenant gives a new development credibility and early activity.
Other firms may be more willing to follow once the park proves usable.
Use International Firms
Science Park attracted multinational research and technology organisations.
Global firms bring capital, expertise and networks into a local cluster.
Teach Local-Global Networks
A Singapore laboratory can belong to a company with teams around the world.
Innovation flows through international networks.
Use Faraday and Fleming Blocks
Early starter blocks carried names such as Faraday and Fleming.
Building names turn scientific history into everyday wayfinding.
Teach Knowledge through Naming
A road or building name can become a research prompt.
Names can make a workplace feel connected to a larger scientific tradition.
Use Michael Faraday
Faraday is associated with major discoveries in electromagnetism and electrochemistry.
A building name can open a lesson on how scientific ideas become technologies.
Use Alexander Fleming
Fleming is associated with penicillin.
Naming links a modern R&D park with earlier scientific breakthroughs.
Teach Attribution Carefully
Scientific breakthroughs often involve teams, predecessors and later developers.
Avoid reducing complex discoveries to one heroic name.
Use the 1984 Official Opening
Singapore Science Park was officially opened on 17 January 1984.
An opening ceremony marks institutional recognition, not necessarily the first day anyone worked there.
Teach Occupancy before Opening
DNV had already become a tenant before the formal opening.
Operational milestones and ceremonial milestones can differ.
Use International Guests
The 1984 opening included Crown Prince Harald of Norway alongside Singapore officials.
The event reflected the park’s international ambitions.
Teach Science Diplomacy Conceptually
Research partnerships often cross national borders.
Scientific collaboration can become part of international relations.
Use Laboratories
Laboratories require more specialised infrastructure than ordinary offices.
Power, ventilation, gases, water, waste and safety systems may all be important.
Teach Controlled Environments
Experiments work better when temperature, contamination or measurement conditions are controlled.
Laboratory design supports scientific reliability.
Use Fume Extraction
Chemical laboratories may need local exhaust systems.
Source control helps remove hazardous vapours before they spread.
Teach Safety Systems
Science depends on safety procedures as well as equipment.
Risk assessment is part of good research practice.
Use Clean Rooms Conceptually
Some electronics and biomedical work needs very low particle levels.
Clean-room design controls airborne contamination.
Teach Tiny Particles
Particles invisible to the eye can damage microelectronics or affect experiments.
Scale changes what counts as contamination.
Use Shared Infrastructure
Research clusters can share meeting spaces, food, transport and some specialist services.
Shared infrastructure reduces duplication.
Teach Economies of Agglomeration
Firms gain advantages from being near suppliers, talent and partners.
Concentration can make an R&D district more productive.
Use Science Park 2
Rising demand led to a second science-park phase.
Expansion showed that the original concept had attracted sustained interest.
Use the 1992 Master Plan for SSP2
The Science Park 2 master plan was released in 1992.
A second phase requires another round of land, infrastructure and investment decisions.
Use 1993 Construction
Development of SSP2 began in October 1993 on about 20 hectares.
The park expanded rather than replacing the first phase.
Teach Expansion
Successful systems often grow by adding capacity next to existing networks.
Expansion can preserve shared identity while adding new functions.
Use the Institute of Microelectronics
The Institute of Microelectronics became the first tenant in Science Park 2 in 1994.
Public research institutes can act as anchors alongside private firms.
Teach Public-Private R&D
Innovation ecosystems include universities, government institutes and companies.
Different institutions contribute different incentives and capabilities.
Use 1995 Scale
By July 1995, Science Park 1 had around 240,000 square metres of R&D space in 21 buildings.
Physical growth mirrored organisational growth.
Use 4,600 Community Members
The same historical account records more than 4,600 people from around 100 organisations.
A science park is a community of workers, not only a real-estate project.
Teach Average People per Organisation
4,600 divided by 100 gives an average of 46 people per organisation.
Actual organisation sizes varied widely.
Teach Average Building Area
240,000 square metres divided by 21 buildings is about 11,400 square metres per building.
Averages help scale understanding but hide variation.
Use Sector Diversity
By the early 2000s, organisations represented IT, chemical engineering, electronics, life sciences and telecommunications.
Diversity reduces dependence on one technology sector.
Teach Innovation Portfolios
A cluster with several fields can generate unexpected combinations.
New ideas often appear where disciplines meet.
Use the 15-Hectare Expansion
A further 15-hectare expansion of Science Park 2 was announced in 2000.
R&D demand continued beyond the original second phase.
Teach Cumulative Land Area
Thirty hectares plus twenty plus fifteen gives 65 hectares across these simplified historical phases.
The actual present park boundary should still be checked from current maps.
Use The Galen
The Galen was completed in 2003 on the expanded Science Park 2 site.
Building names and phases record the park’s growth over decades.
Use The Kendall
The Kendall followed in 2009.
One campus can contain architectural layers from different economic eras.
Teach Building Chronology
Walking through Science Park can become a timeline of R&D architecture.
Facade, height and landscape often reveal different development generations.
Use the 2007 Facelift Plan
A multi-phase rejuvenation was announced in 2007.
Even knowledge districts need renewal as workplace expectations change.
Teach Workplace Obsolescence
An office can remain structurally sound while becoming less suitable for modern research or collaboration.
Functional obsolescence differs from physical collapse.
Use CINTECH IV
CINTECH IV was among the first completed projects of that renewal programme in 2009.
Rejuvenation often begins with demonstration buildings.
Teach Pilot Redevelopment
A first renewal project can test design and market response.
Later phases can learn from it.
Use DNV’s 2013 Building
DNV’s later technology centre was completed in 2013 and houses hundreds of staff.
A long-term tenant can evolve from early pioneer to modern built-to-suit user.
Use 9,895 Square Metres
The DNV building has a gross floor area of 9,895 square metres.
GFA measures total floor area rather than site area.
Teach GFA
Gross floor area helps planners compare building intensity.
A tall building can have much more GFA than its ground footprint.
Use 400 Staff
The DNV centre houses about 400 staff.
Dividing 9,895 square metres by 400 gives about 24.7 square metres per staff member in a simple building-wide average.
Teach Average Space Carefully
That average includes circulation and shared areas, not just desks.
Per-person calculations need scope labels.
Use Green Mark Awards
The building received BCA Green Mark recognition.
Sustainable workplace design considers energy, water, indoor environment and other factors.
Teach Building Performance
A green building is not defined only by visible plants.
Performance includes measured resource use and environmental systems.
Use Today’s 350-Plus Organisations
Current Science Park material describes more than 350 multinational companies, local firms, startups and laboratories.
The cluster has grown far beyond its first tenant.
Teach Network Density
More organisations increase possible connections among researchers and firms.
Not every proximity creates collaboration, but opportunity increases.
Use Greater one-north
URA now places Singapore Science Park within Greater one-north.
The park is part of a larger knowledge district that includes NUS, NUH and one-north.
Teach District Scale
A science park is one node; Greater one-north is a wider network.
Planning scale expands when institutions become connected.
Use Live-Work-Learn Planning
Greater one-north planning aims to bring homes, workplaces, learning spaces and recreation closer together.
Knowledge districts increasingly mix uses rather than isolate offices.
Teach Proximity and Time
Shorter trips between home, lab and university reduce travel time.
Time saved can improve convenience and collaboration.
Use Geneo
Geneo is a major current rejuvenation precinct within Science Park 1.
It reflects the shift from isolated office buildings towards a more mixed innovation community.
Teach Rejuvenation
Rejuvenation upgrades an existing district without abandoning its identity.
Old and new buildings can coexist.
Use Communal Spaces
Geneo includes shared outdoor and social spaces.
Informal encounters can matter in knowledge work because ideas often cross teams socially.
Teach Serendipity
Serendipity means useful discoveries that happen unexpectedly.
Design can increase chances of informal interaction, though it cannot guarantee innovation.
Use End-of-Trip Facilities
Geneo includes facilities supporting cycling and active travel.
Workplace design increasingly includes showers, lockers and bicycle support.
Teach Car-Lite Workplaces
Reducing car dependence requires realistic alternatives.
Cycling, walking and public transport must be convenient.
Use Kent Ridge Exchange Planning
URA describes a future Kent Ridge Exchange as a southern gateway connecting Science Park, Dover–Medway and the NUH area.
Transport and land-use planning now operate at district scale.
Teach Gateways
A gateway concentrates arrival, transfer and activity.
Good gateways make movement legible.
Use JRL Extension Studies Carefully
URA says studies are ongoing for a possible Jurong Region Line extension towards Kent Ridge.
A study is not an approved or operating railway.
Teach Planning Certainty
Existing, planned, under construction and under study are different statuses.
Accurate articles label them separately.
Use Scientist-Named Buildings
Science Park buildings carry names linked to scientists such as Curie, Chadwick and Cavendish.
The naming system turns the campus into a distributed science-history lesson.
Teach Curiosity from Wayfinding
A child can choose one building name and research the scientist behind it.
Wayfinding becomes retrieval practice.
Use the Pasir Panjang Pillbox
Science Park material highlights a surviving wartime pillbox near the park.
A modern R&D district can contain physical evidence from a very different historical era.
Teach Urban Palimpsest
New knowledge buildings do not erase every earlier layer.
The district is rewritten while traces remain.
Use Walking Steps
Science Park material notes that walking around the two park phases can produce thousands of steps.
Large employment districts are pedestrian systems as well as office collections.
Teach Campus Distance
Walking distance affects whether employees use shared amenities across the district.
A theoretically nearby building can feel far in heat or rain.
Use Shade and Greenery
The park emphasises landscaped environments around research buildings.
Greenery supports comfort and identity in a business district.
Teach Biophilic Workplaces
Biophilic design brings natural elements into built environments.
Its goals can include comfort, wellbeing and connection to nature.
Use a Child Innovation Map
Draw NUS, NUH, Science Park, one-north and public transport as nodes.
Add arrows for students, researchers, patients, startups and ideas.
Teach Flows of Knowledge
Ideas move through people, publications, meetings and digital networks.
A knowledge district has invisible flows as important as roads.
Use a Laboratory Workflow
Question → experiment → data → analysis → result → application.
The workflow turns curiosity into evidence.
Teach Reproducibility
A scientific result becomes stronger when methods are clear enough for others to repeat.
Good documentation is part of science.
Use Collaboration
Complex problems often require biologists, engineers, designers and data specialists.
Interdisciplinary teams combine different ways of thinking.
Teach Interfaces between Disciplines
Collaboration fails when teams use incompatible language or assumptions.
Shared definitions and communication act like technical interfaces.
Use Failure
Not every experiment works.
Failed tests can still provide information when recorded carefully.
Teach Iteration
Design and science improve through repeated cycles of testing and correction.
Innovation is rarely one perfect first attempt.
Use a 1979–2026 Timeline
1979 master plan → 1981 construction → 1982 first tenant → 1984 opening → 1993 SSP2 → 2007 rejuvenation → current Greater one-north.
The sequence shows a district evolving for nearly half a century.
Teach Long-Term Economic Infrastructure
Knowledge clusters take decades to mature.
Relationships and reputation accumulate over time.
Use Walking Time
A 1.8-kilometre Science Park learning walk at 3 kilometres per hour takes 36 minutes before stops.
Heat, crossings and building access affect real time.
Teach Public-Private Boundaries
Many laboratories and offices are private workplaces.
Observe from public paths and only enter publicly accessible spaces.
Use a Final Innovation Exercise
Ask the child to design a small science park with one university, three labs, a park, a café and public transport.
Then explain why each connection matters.
Teach Systems Thinking
Innovation depends on talent, place, infrastructure, funding and collaboration.
A science park is a system for making those ingredients easier to connect.
Build English from Science Park Road Vocabulary
- R&D;
- laboratory;
- agglomeration;
- anchor tenant;
- human capital;
- rejuvenation;
- serendipity;
- reproducibility.
Write One Science Park Road Scene
- The Planner Choosing a Site near the University
- The First Tenant Moving In during 1982
- The Researcher Entering the Faraday Block
- The Scientist Meeting a Startup Founder
- The Child Mapping Ideas across Greater one-north
A Simple Science Park Road Learning Route
Stage 1: 1970s concept
Begin with economic upgrading and R&D.
Stage 2: 1979–1984 launch
Use JTC planning, 30 hectares, DNV and official opening.
Stage 3: Laboratories
Use safety, clean rooms, shared infrastructure and documentation.
Stage 4: Expansion
Use SSP2, 20 hectares, 15-hectare extension and organisational growth.
Stage 5: Rejuvenation
Use 2007 onward, Geneo, Green Mark and car-lite facilities.
Stage 6: Greater one-north
Use NUS, NUH, one-north and future Kent Ridge planning.
How to Adjust the Day by Age
Ages 5 to 7
- draw a laboratory;
- find scientist names on buildings;
- draw a robot or microscope;
- learn the word experiment.
Ages 8 to 10
- convert 30 hectares;
- build a 1979–1984 timeline;
- make one scientist-name flashcard;
- use five science-park words.
Ages 11 to 12
- explain R&D;
- analyse anchor tenants and clusters;
- calculate average building area;
- write one evidence-based paragraph.
Secondary students
- analyse knowledge-economy geography;
- evaluate agglomeration benefits;
- discuss lab infrastructure and safety;
- compare district rejuvenation with greenfield development.
What Parents Should Avoid
- Do not enter private laboratories or office areas without permission.
- Do not treat a studied JRL extension as approved or operational.
- Do not assume building names imply a direct connection to that scientist.
- Do not handle research equipment or displays without permission.
- Use public paths and current visitor information.
Frequently Asked Questions
When was Singapore Science Park planned?
It was conceptualised in the 1970s and entered JTC’s master plan in September 1979.
When did construction begin?
The first phase began construction in 1981 on about 30 hectares.
Who was the first tenant?
DNV became the first tenant in 1982.
When was the park officially opened?
Singapore Science Park was officially opened on 17 January 1984.
What is a useful final question?
Ask: “Which matters more for innovation—smart people, specialised buildings, or the connections between them?”
Helpful Links for a Science Park Road Learning Day
Things to do for Kids | Learning Science Park Road
Science Park Road teaches children that innovation can be supported by geography.
Policy created the idea.
Land and buildings created capacity.
Universities supplied knowledge and talent.
Companies supplied problems, investment and markets.
Rejuvenation kept the district current.
Greater one-north now connects the park into a wider knowledge ecosystem.
A child who connects those layers begins to understand that discoveries happen in laboratories, but innovation ecosystems are built from relationships among people, institutions and place.
Properly taught kids shine a bright light into the future.