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Things to do for Kids | Learning Lentor

eduKate Secondary students reviewing open books for How Super Intelligence Works: the SI Failure Map.

Things to do for kids in Lentor can become a learning day about new-neighbourhood planning, wind corridors, retained trees, landscape replacement, public transport and how Singapore tries to make dense housing greener and cooler.

Lentor Hills is one of the clearest current examples of a new residential district planned with sustainability from the beginning.

URA describes it as a lush garden district beside Teachers’ Housing Estate and near Lower Peirce Reservoir Park, served by Lentor MRT on the Thomson-East Coast Line.

The planning approach includes retained existing greenery, a hillock park, landscape-replacement requirements, sky terraces and wind-corridor strategies intended to improve outdoor thermal comfort.

For children, the central question is very practical.

How can a neighbourhood add many homes without treating trees, wind and walking routes as leftover details?

  • begin at Lentor MRT and read the district as a transport-oriented neighbourhood;
  • study retained greenery and the planned hillock park;
  • use building spacing to discuss wind corridors;
  • compare ground greenery with sky terraces;
  • learn what landscape replacement means;
  • use current construction and completed buildings to distinguish present from planned;
  • use site area, building height and route networks for Mathematics;
  • finish by explaining one design choice intended to make the neighbourhood cooler or more walkable.

Explore URA’s Lentor Hills case study

Read about cooler building design and Lentor wind-flow studies

Read the 2026 Lentor Central land-sale update


Begin at Lentor MRT: New Neighbourhoods Need Transport First

Lentor MRT opened before the entire surrounding district was fully built out.

Ask why transport may arrive early in a new neighbourhood.

Residents need access.

Construction workers need access.

Future development can grow around a reliable node.

Transport shapes land use.

Teach Transport-Oriented Development

Transport-oriented development places homes and daily services close to high-capacity public transport.

Ask what can change when the MRT is within walking distance.

Car dependence can reduce.

Walking becomes more practical.

Shops gain passing customers.

The station becomes a neighbourhood anchor.

Use Lentor as a Present-versus-Future Lesson

Lentor is still changing.

Some residential projects are complete.

Some are under construction.

Some sites were only recently awarded for development.

In March 2026, URA awarded a Lentor Central residential site of 15,925.8 square metres with a maximum permissible gross floor area of 47,778 square metres.

Ask the child to separate three states.

Built.

Building.

Planned.

Teach Time-State Vocabulary

A planning article may use words such as existing, upcoming, proposed and future.

Those are not decorative words.

They describe different realities.

A child who learns to read them carefully becomes less likely to treat an artist impression as a current visitor feature.

Use the 15,925.8-Square-Metre Site

The 2026 Lentor Central sale site covers 15,925.8 square metres.

Divide by 10,000 to convert to hectares.

That is about 1.59258 hectares.

Round to about 1.59 hectares for a simple comparison.

Real planning uses precise numbers while family learning may use sensible rounding.

Use Gross Floor Area

URA allows up to 47,778 square metres of gross floor area on that site.

Ask why this is much larger than the ground-site area.

Buildings stack floor area vertically.

47,778 ÷ 15,925.8 is exactly 3 under the published numbers.

That ratio is an example of floor-area intensity, though formal planning definitions use specific terms and exclusions.

Teach Plot Ratio Conceptually

If the gross floor area is three times the site area, the simplified ratio is 3:1.

That does not mean every building has exactly three storeys.

Some areas may be open space.

Some towers may be much taller.

The child learns that a total ratio describes the whole site, not one building.

Use Retained Greenery

URA’s Lentor Hills case study states that existing greenery was retained, including significant trees such as a prominent Alstonia angustiloba.

Ask why retaining an existing mature tree can be different from planting a small new one.

Canopy is already developed.

Shade exists immediately.

Habitat value may already be present.

Time is part of ecological value.

Teach Replacement versus Retention

Planting a new tree can be valuable.

Keeping a mature tree can also be valuable.

The two actions are not identical.

Ask what a young tree cannot replace immediately.

Large canopy.

Established root system.

Existing habitat.

Children learn that environmental planning includes time.

Use Hillock Park

URA’s planning material describes retained greenery developing into a hillock park serving the neighbourhood.

Ask what a hillock is.

A small hill.

Elevation changes views, drainage and walking effort.

The park can preserve landform while becoming public open space.

Teach Terrain-Based Design

A flat site and a sloping site produce different design problems.

Road grades.

Ramps.

Stormwater.

Views.

Retaining structures.

Ask why planners might preserve rather than completely flatten a hill.

Topography can become identity.

Use Landscape Replacement

URA’s case study states that developments in Lentor Hills are required to meet a 45 per cent landscape-replacement requirement through softscape planting.

Ask what landscape replacement means conceptually.

Development occupies land.

Design then reintroduces planted areas across ground, roofs or terraces according to planning requirements.

The child sees that greenery can be integrated vertically.

Use 45 Per Cent for Mathematics

Suppose a hypothetical development calculates landscape replacement against a 10,000-square-metre reference area.

Forty-five per cent equals 4,500 square metres.

This is an illustrative Mathematics model, not a claim about one specific Lentor project.

Ask where that greenery might go.

Ground.

Roof.

Terrace.

Different locations create different functions.

Teach Softscape

Softscape refers mainly to living landscape elements such as plants and soil, unlike hardscape such as paving, walls and structures.

Ask the child to classify visible elements.

Tree: softscape.

Path: hardscape.

Bench: hardscape.

Grass: softscape.

Planning language becomes visible.

Use Sky Terraces

URA’s Lentor case study describes sky terraces as part of the green design approach.

Ask why greenery is placed above ground.

Residents gain access to planted communal areas.

Building surfaces can contribute to green replacement.

Shade and microclimate can improve locally.

Vertical cities can contain vertical landscapes.

Teach Rooftop and Terrace Constraints

Plants above ground need engineering.

Soil has weight.

Water has weight.

Drainage matters.

Wind is stronger at height.

Maintenance access is required.

Ask why a sky garden is not simply a ground garden lifted upward.

Location changes the design constraints.

Use Wind Corridors

URA specifically highlights wind-flow studies for Lentor Hills.

Ask why building spacing affects comfort.

Buildings block and redirect wind.

Openings between towers can allow air movement.

Height differences can change flow.

Urban design can shape microclimate.

Teach Wind without Overclaiming

A breezy path does not prove the wind-corridor strategy succeeded across the whole district.

Wind changes by weather and time.

Ask what a proper study needs.

Measurements.

Repeated conditions.

Several locations.

Computer simulation or long-term data.

One family observation is a clue.

Use a Simple Airflow Model

At home, place two boxes close together in front of a fan.

Then move them farther apart.

Use light paper strips behind them to observe airflow qualitatively.

The model is highly simplified.

It demonstrates that obstacles change airflow.

Real building aerodynamics are much more complex.

Teach Passive Cooling

Passive cooling uses building form, shade, ventilation and materials to reduce heat without relying only on mechanical air-conditioning.

Ask which strategies can help outdoors.

Shade.

Wind.

Trees.

Covered walkways.

Urban comfort can be designed.

Use Shadow

Compare a shaded path with an exposed one.

Ask why the shaded surface may feel cooler.

Less direct solar radiation reaches it.

Use a thermometer only if the family can make a fair comparison.

Feeling can begin a question.

Measurement strengthens it.

Teach Building Porosity

Porosity in urban design refers to how open a building arrangement is to movement of wind, people or views.

Ask what a solid wall of towers might do.

Block flow.

Then compare with gaps between buildings.

The child sees why building arrangement matters at district scale.

Use Cycling Paths

URA’s current regional planning material indicates progressive cycling-path and park-connector improvements around Lentor and surrounding neighbourhoods.

Ask what makes cycling infrastructure useful.

Continuity.

Safe crossings.

Connections to MRT and destinations.

A short isolated cycle path has less network value.

Teach Network Continuity

Draw three destinations.

Home.

MRT.

Park.

Connect only two.

Then add the missing link.

Ask how the network changes.

Connectivity is created by complete relationships.

Use the Lower Peirce Context

Lentor Hills sits near Lower Peirce Reservoir Park and the Central Catchment landscape.

Ask why urban planning beside nature areas needs care.

Light.

Noise.

Runoff.

Wildlife movement.

Human access.

Dense housing can sit near nature only if edge conditions are managed.

Teach Edge Sensitivity

The boundary between housing and forest is not an invisible line with no effects.

Pets, artificial light, litter and people can affect wildlife.

Ask what responsible residents can do.

Keep to paths.

Do not feed wildlife.

Control pets.

Reduce litter.

Everyday behaviour becomes part of nature protection.

Use Building Height for Perspective

Lentor’s towers create strong contrast with retained trees and lower-rise Teachers’ Housing Estate nearby.

Ask what changes.

Skyline.

Density.

View.

Shadow.

The district shows several urban scales close together.

Teach Density without Judgement

Higher density can support more homes and public transport.

It can also increase pressure on open space and infrastructure.

Ask what design must add.

Greenery.

Transport.

Services.

Walkable routes.

Density is a trade-off system, not automatically good or bad.

Use Current Construction as Data

Where construction is visible from safe public areas, ask what stage the project appears to be in.

Foundation.

Structure.

Façade.

Landscaping.

Do not enter sites.

Visual clues can suggest a stage, but official project information is needed for exact timelines.

Teach Construction Sequence

A simplified high-rise sequence might be site preparation → foundations → structure → façade → services → interiors → landscaping.

Ask why landscaping often comes later.

Heavy construction can damage finished planting.

The sequence matters.

Use Lentor’s 2026 Land Award

URA awarded a new Lentor Central residential site in March 2026.

That means the district is still expanding.

Ask what happens before residents move in.

Design.

Approvals.

Construction.

Testing.

Completion.

A land sale is only one early step.

Teach Land Value Carefully

The awarded tender price was more than $657 million.

Do not turn that into a simple statement that the land itself is “worth” exactly that amount forever.

A tender price reflects one transaction under specific conditions.

Market value changes.

Children learn that economic numbers need context and date.

Use Wayfinding

Give the child one navigation task from Lentor MRT to a safe public destination.

Find the exit.

Identify Lentor Drive or Lentor Hills Road.

Locate a public open space.

The adult remains responsible for road safety.

The child practises translating a map into movement.

Teach Construction Diversions

New neighbourhoods often have temporary footpath changes.

Ask what should control the route.

Current signs and barriers.

Not an old screenshot.

Operational information changes faster than master plans.

Build English from Sustainable-Planning Vocabulary

  • wind corridor;
  • softscape;
  • landscape replacement;
  • porosity;
  • hillock;
  • microclimate;
  • transit-oriented;
  • retention.

Ask the child to use selected words in relation to one feature.

“Microclimate” describes local atmospheric conditions in a small area.

“Retention” means keeping an existing feature.

“Porosity” describes openness in the urban form.

Write One Lentor Scene

  • The Tree the New Estate Kept
  • The Wind between the Towers
  • The MRT Station before the Neighbourhood Finished
  • The Hillock that Became a Park
  • The Sky Garden above the Street

Ask for one visible detail, one planning fact, one calculation and one present-versus-future distinction.

A Simple Lentor Learning Route

Stage 1: Lentor MRT

Begin with transport-oriented planning.

Stage 2: Public streets

Observe building spacing, shade and construction state.

Stage 3: Retained greenery

Use tree retention and hillock-park questions.

Stage 4: Landscape replacement

Look for ground and elevated planting.

Stage 5: Network

Connect MRT, cycling paths and nearby nature areas on the map.

Stage 6: Reflection

Ask: “Which feature of Lentor would be hardest to add later if planners had ignored it at the beginning?”

How to Adjust the Day by Age

Ages 5 to 7

  • find three kinds of greenery;
  • compare high and low buildings;
  • feel shaded and sunny spaces;
  • draw home-to-MRT arrows.

Ages 8 to 10

  • convert the 2026 site area into hectares;
  • use five planning words;
  • calculate 45 per cent of a simple area;
  • compare built and planned features.

Ages 11 to 12

  • explain wind corridors;
  • compare retention and replacement;
  • analyse transit-oriented planning;
  • write a paragraph using evidence.

Secondary students

  • analyse urban microclimate;
  • discuss density and green replacement;
  • evaluate wind-flow planning;
  • compare current development with future site plans.

What Parents Should Avoid

  • Do not enter construction sites.
  • Do not treat future parks or cycling links as already complete.
  • Do not measure wind from one moment and generalise to the whole district.
  • Do not assume a sky garden has the same engineering constraints as ground planting.
  • Do not rank high-rise and low-rise living without defining criteria.
  • Do not use tender price as a timeless statement of land value.

Frequently Asked Questions

What is special about Lentor Hills planning?

URA highlights retained greenery, a hillock park, landscape replacement, sky terraces and wind-flow strategies as part of the district’s sustainable design approach.

What happened at Lentor Central in 2026?

URA awarded a 15,925.8-square-metre residential site in March 2026 with a maximum permissible gross floor area of 47,778 square metres.

What is landscape replacement?

It refers to replacing some greenery lost to development through planted areas integrated into the site, including ground and elevated softscape according to planning requirements.

How can Lentor support Mathematics?

Use site area, ratios, percentages, route time and network diagrams.

What is a useful final question?

Ask: “Which design decision helps the neighbourhood before air-conditioning is switched on?”

Helpful Links for a Lentor Learning Day


Things to do for Kids | Learning Lentor

Lentor teaches children that sustainable neighbourhoods are designed before residents notice the design.

Trees are retained.

Buildings are spaced for wind.

Greenery moves upward into terraces.

MRT arrives as a transport anchor.

Future sites continue the district over time.

A child who learns to see those choices begins to understand that liveability is built from relationships between land, climate, transport and people.

Properly taught kids shine a bright light into the future.

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