Chairman Message Summary

Scope of Requirements (SOR)

Design Strategy: A structured approach outlining the conceptual and technical design process to achieve the desired architectural, functional, aesthetic, and sustainability goals.

Contracting Strategy: The method by which contracts are procured and structured, including roles, responsibilities, risk allocation, and engagement models for contractors.

Construction Strategy: A comprehensive plan that guides the construction process, logistics, sequencing, technology use, safety, and sustainability during execution.

Delivery Partner Model (Partner & Consultant): A collaborative model where delivery responsibilities are shared between partners and consultants to ensure timely, cost-effective, and quality project completion.

Concept Masterplan (Update, Upgrade, Enhance): The overarching spatial and functional design framework of the project, iteratively improved to align with current innovation, sustainability, and economic objectives.

Develop SOR for All Disciplinary Consultants: Define scope, deliverables, roles, and timelines for consultants across architecture, infrastructure, sustainability, finance, etc.

Develop SOR for Technology Supply and Integrating Companies: Specify technical requirements, integration interfaces, performance benchmarks, and service SLAs for tech vendors.

Develop SOR for Operators: Document operational strategies, performance metrics, and responsibilities for facility and city operators.

Develop SOR for Facility Management: Define FM responsibilities including lifecycle management, energy optimization, smart system integration, and ESG compliance.

Quantum Artificial Intelligence Machine Learning Environments

Quantum Artificial Intelligence Machine Learning Building: An intelligent building embedded with quantum computing and AI/ML systems, designed for high-performance data processing and autonomous operations.

Quantum Artificial Intelligence Machine Learning Community: A smart, connected residential and commercial neighborhood leveraging AI, ML, and quantum technologies for optimized living, mobility, and services.

Quantum Artificial Intelligence Machine Learning Hub: A central facility or cluster that incubates, accelerates, and operates AI, ML, and quantum technology development and deployment.

Quantum Artificial Intelligence Machine Learning Valley: A regional innovation ecosystem modeled like Silicon Valley but focused on quantum and AI-driven technologies, startups, R&D, and advanced infrastructure.

Quantum Artificial Intelligence Machine Learning City: A full-scale city infrastructure embedded with AI, ML, and quantum systems across governance, utilities, mobility, education, and economy.

Strategic Framework for Innovation Hub and Smart City Development

Ambitious and Transformative Initiative: A high-impact project designed to reshape urban, technological, and economic landscapes through next-generation planning, execution, and operations.

Innovation Hub: A centralized district or ecosystem where emerging technologies, research, entrepreneurship, and corporate innovation converge to accelerate digital and industrial transformation.

Smart City: An urban development concept that leverages digital technology, data, and AI to enhance the quality of life, improve sustainability, and optimize infrastructure, mobility, governance, and public services.

Our Objective is Clear: The foundational project directive: to Upgrade, Enhance, Improve, Correct, Fine-Tune, and Incorporate—across every system, component, and function.

USD $100 Billion Goal: The overarching financial and value-creation target for the project, encompassing capital investment, economic returns, and infrastructure assets.

Delivery Partner Model (Consultants & Partners): An integrated project execution strategy that embeds delivery partners—consultants and business partners—into the core operating structure. This model ensures faster outcomes, shared accountability, optimized resource use, and sustained innovation.

Accelerated Outcomes: The goal of delivering high-quality project phases faster than industry norms through digital tools, pre-fabrication, agile contracting, and efficient decision-making frameworks.

Accountability: Defined roles, KPIs, and performance metrics at every level of delivery to ensure transparency, traceability, and responsibility.

Long-Term Value: Economic, social, technological, and environmental benefits sustained over the project’s lifecycle, including ROI, community impact, and carbon-neutral legacy.

Replicating and Exceeding Singapore’s Innovation Hub: A strategic benchmark to model after Singapore’s world-class innovation ecosystem—while exceeding its standards through superior technology integration, governance, and commercial output.

Benchmark Beyond Singapore, Korea, or China: An ambition to create a globally recognized smart city model that surpasses the performance, innovation, and livability indices of leading regional examples.

High-Caliber Project Delivery Team: A multidisciplinary group of world-class professionals across architecture, engineering, infrastructure, technology, and management tasked with delivering the vision at scale and speed.

Orchestration: The process of coordinating various stakeholders, consultants, technologies, and workflows to ensure harmonized execution and holistic integration.

80+ Cutting-Edge Technologies: A curated portfolio of advanced solutions integrated into the Innovation Hub, addressing:

• Energy: Renewable generation, storage, smart grids.

• Mobility: Autonomous transport, multimodal systems, electric infrastructure.

• Healthcare: AI diagnostics, telemedicine, wellness tech.

• Education: Smart classrooms, digital campuses, research ecosystems.

• Lifestyle & Entertainment: Immersive experiences, digital platforms, community AI.

• AI & Gaming: Machine learning environments, gamified public services.

• Sustainability: Net-zero design, circular economy, carbon capture, green construction.

  
  

Vision and Strategic Imperatives: The unifying principles guiding all decision-making: future-readiness, global leadership, innovation, inclusivity, and sustainability.

Technology Integration Framework: The strategic blueprint for embedding interoperable, scalable, and intelligent systems into the city’s DNA—across digital infrastructure, data architecture, APIs, and cognitive platforms.

Strategic Replication: Applying successful frameworks and technologies from global exemplars to the local context while elevating them through customization, innovation, and scale.

Outcome-Driven Execution: Focusing on measurable, high-value results aligned with key milestones, investor returns, user experience, and ESG benchmarks.

Core Responsibilities & Deliverables

1. Implement and Manage the Delivery Partner Model (Partner & Consultant)

• Establish and operationalize a Delivery Partner Model to integrate consultants and partners into a unified execution framework.

• Define roles, responsibilities, and KPIs for each delivery entity to ensure accountability, efficiency, and innovation.

• Oversee coordination, governance, and contractual structures that enable on-time, on-budget, and value-drivenoutcomes.

• Foster collaboration across technical, commercial, financial, and operational disciplines to ensure strategic coherence.

2. Define and Execute a Clear Monetization Plan across all Smart Services and Digital Infrastructure

• Develop a monetization strategy for data, mobility, energy, utilities, healthcare, education, entertainment, and AI platforms.

• Implement digital business models including subscription services, usage-based pricing, public-private revenue sharing, and IP monetization.

• Integrate revenue capture into the design phase of digital infrastructure and urban systems to ensure long-term returns.

• Align monetization with market trends, user needs, investor expectations, and global best practices.

3. Build and Maintain an Integrated Smart City Ecosystem

• Architect and deliver a tech-enabled urban environment where physical infrastructure, digital systems, and citizen experiences are fully integrated.

• Deploy 80+ advanced technologies including Industry 5.0, AI, IoT, 10G networks, quantum systems, and cognitive API engines.

• Ensure interoperability, scalability, cybersecurity, and real-time data feedback across all systems.

• Facilitate continuous innovation through open platforms, R&D incubators, and cross-sector partnerships.

4. Develop and Refine a Revenue Stream Framework

• Create a dynamic framework identifying multiple primary and secondary revenue streams at the component, community, hub, and city level.

• Map revenue opportunities from digital services, asset leasing, advertising, events, licensing, carbon credits, and energy trading.

• Implement tools to monitor, evaluate, and optimize revenue performance continuously across lifecycle stages.

• Incorporate flexible mechanisms to adapt to technological evolution, market fluctuations, and policy incentives.

5. Align All Deliverables with the Overarching Objective: A Globally Replicable Model

• Ensure every milestone, deliverable, and system contributes to building a world-class, exportable model of innovation and sustainability.

• Integrate global benchmarking, including Singapore, Korea, and China, while setting new global standards in smart city planning and delivery.

• Prioritize ESG performance, economic impact, resilience, and livability in all deliverables.

• Produce comprehensive documentation, case studies, and operational models for global scalability and replication.

Advanced Technology Integration

Technology Integration of the FutureEmerging technologies forming the foundation of Industry 5.0, including:

AI & Quantum IoT's: Intelligent interconnected devices.

10G Network Infrastructure: Ultra-high-speed internet backbone.

Quantum Telco Subsurface: Quantum-powered communication networks with subsurface infrastructure.

Web 3 Platform with Cognitive API Engines: Decentralized digital ecosystems with AI-driven APIs enabling smart services and interoperability.

Benchmark Example Project Researched

1.     China Vanke: A leading Chinese real estate developer known for large-scale residential and mixed-use projects.

2.     Swire Property: A premium real estate developer and operator known for sustainable urban commercial developments.

3.     Zones: Designated spatial or functional divisions within the project masterplan, each with unique roles (e.g., innovation zone, residential zone).

4.     Components: Individual project elements such as buildings, parks, tech hubs, or infrastructure units.

5.     Co-Developers: Joint venture partners that share the responsibility, cost, and profit in project development.

6.     Investors: Entities providing capital for the development in exchange for returns or equity.

7.     EPC (Engineering, Procurement, Construction): A contractual model where one entity handles the full scope of engineering, procurement, and construction services.

8.     EPC + F (EPC plus Finance): An extended model where the EPC contractor also arranges financing for the project.

9.     Insurance: Risk management mechanisms to cover project risks including construction, operational, financial, and technological.

10.  Operators: Entities managing day-to-day operations of various components such as buildings, hubs, or city infrastructure.

11.  Facility Management: Teams or firms responsible for the long-term maintenance, sustainability, and performance of facilities across the city or components.

12.  Location (China, Singapore, Hong Kong, Korea, Germany, Malaysia, Munich): Strategic global references for benchmarking best practices, partnerships, or technology adoptions.

Special Project Features and Technologies

365 Operational Community: A community model designed for uninterrupted year-round functionality with resilient systems for living, work, health, and leisure.

Canopy (Al Maktoum International Airport (DWC)): A reference to large-scale architectural or infrastructural canopy systems providing shelter, energy generation, or branding (inspired by Dubai Airport).

Walkway (Dubai Loop): An innovative pedestrian mobility system or urban loop enabling efficient, connected foot travel (inspired by Dubai’s Loop initiative).

H2 Generator for Power: Hydrogen-based power generation systems contributing to clean energy goals.

CO2 Capture to Power: Technologies that capture carbon dioxide and convert it into usable energy, contributing to carbon neutrality.

Flywheel for Power: Energy storage systems using rotating flywheels for high-efficiency, kinetic energy storage and release.

Sustainability and Smart Intelligence

Sustainability (South Pole)Refers to global sustainability consulting and carbon project development services, e.g., South Pole’s advisory services.

Net Zero (Initiative)A commitment to eliminate or offset greenhouse gas emissions across the entire project lifecycle.

Cloud Brain (Neuron, Neurotech)Advanced digital twin and AI-powered city/asset management platform for real-time data processing, decision-making, and automation.

Sustainability Power Generations

Future Energy Technologies for Smart Cities

1. Solar Panel

Definition:Photovoltaic (PV) systems that convert sunlight directly into electricity.

Integration Use Case:

• Rooftop and building-integrated PV (e.g., solar skins, curtain walls)

• Street furniture, canopy structures (e.g., EV parking, pedestrian walkways)

• Microgrid support for community-level power autonomy

Sustainability Impact:

• Net zero energy contribution

• CO₂-free power generation

• Scalable and modular

2. Flywheel Energy Storage System (FESS)

Definition:A mechanical energy storage device that stores energy in a rotating mass for short-term, high-power output.

Integration Use Case:

• Stabilizing intermittent renewable sources (solar, wind)

• Smart grid frequency balancing and backup

• Emergency power for sensitive infrastructure (AI hubs, hospitals)

Sustainability Impact:

• Long lifecycle, low maintenance

• Recyclable materials, no chemical disposal

3. H₂ to Power (Green Hydrogen)

Definition:Production and use of hydrogen (via electrolysis) as a clean fuel for electricity generation or fuel cells.

Integration Use Case:

• Powering smart mobility fleets (buses, drones, delivery vehicles)

• Backup or base-load energy for large buildings or clusters

• Thermal systems integration (district heating/cooling)

Sustainability Impact:

• Emission-free combustion when sourced via renewables

• Supports decarbonization of hard-to-electrify sectors

4. BESS Power (Battery Energy Storage Systems)

Definition:Electrical storage systems using lithium-ion or other chemistries to store and discharge electricity on demand.

Integration Use Case:

• Load-shifting and peak shaving for buildings

• Grid resilience and demand-response

• Integration with renewable sources (solar/wind)

Sustainability Impact:

• Reduces fossil peaker plant dependency

• Enables 24/7 clean energy access

• Can be paired with second-life EV batteries

5. CO₂ to Power

Definition:Emerging technologies that capture CO₂ emissions and convert them into usable fuels or electricity.

Integration Use Case:

• Urban carbon capture and repurposing hubs

• Integration with waste-to-energy and industrial clusters

• Power generation while removing carbon

Sustainability Impact:

• Helps reach carbon-negative goals

• Transforms emissions into economic value

6. Modular Nuclear for Real Estate (SMR – Small Modular Reactors)

Definition:Compact, factory-fabricated nuclear reactors providing localized, continuous power with advanced safety.

Integration Use Case:

• Supplying base-load energy to Innovation Valleys, R&D Zones, and Energy Clusters

• Potential use in off-grid or isolated smart city zones

• Long-term contracts for zero-emission power supply

Sustainability Impact:

• 24/7 zero-carbon base load

• Reduced land footprint and water usage

• High resilience in energy-intensive applications

7. Solar Glass Windows (Building-Integrated Photovoltaics – BIPV Windows)

Definition:Transparent or semi-transparent photovoltaic (PV) glass that generates solar energy while functioning as architectural glazing for windows, skylights, or glass facades.

Integration Use Case:

• Integrated into commercial, residential, and mixed-use buildings

• Applied in atriums, curtain walls, and smart sun-shading systems

• Ideal for high-rise facades where roof space is limited

Sustainability Impact:

• Dual functionality: daylighting + power generation

• Reduces building cooling loads and carbon footprint

• Supports Net Zero building certification (LEED, BREEAM, EDGE)

Key Technologies:

• Organic PV (OPV), Dye-sensitized, Thin-film CIGS (e.g., AVANCIS Skala)

8. Solar Building Façade (Vertical Photovoltaic Systems)

Definition:Architectural building facades outfitted with solar panels—either opaque or semi-transparent—that serve both aesthetic and energy-generating purposes.

Integration Use Case:

• Applied to sun-facing vertical surfaces for energy harvesting

• Combined with insulation to improve building envelope efficiency

• Used for branding with custom colors, textures, or logos

Sustainability Impact:

• Converts unused vertical surfaces into energy assets

• Enhances energy performance and contributes to net zero targets

• Reduces reliance on fossil-based grid power

Design Considerations:

• Tilt angle, orientation, and integration with building structure

• Ventilation behind panels to avoid thermal buildup

• Urban design compatibility and aesthetic guidelines

9. Geothermal Energy

Definition:A renewable energy source derived from the natural heat of the Earth, used for heating, cooling, or electricity generation.

Integration Use Case:

• Ground-source heat pumps for residential and commercial buildings

• District heating and cooling networks

• Continuous clean energy for innovation hubs and underground structures

Sustainability Impact:

• Zero emissions at point of use

• High energy efficiency (up to 500% for heating/cooling)

• Long-term stable energy costs

Smart City Alignment:

• Ideal for “Energy of the Future” clusters

• Supports Net Zero buildings and smart grids

• Can be paired with AI for predictive thermal management

10. BINEX (Biological Innovation Exchange – Sorghum Carbon Sequestration)

Definition:An agritech initiative that aims to cultivate sorghum varieties engineered or selected to capture and store large volumes of carbon dioxide during growth. Additionally, sorghum grain is provided as a nutritious foodstuff.

Integration Use Case:

• Urban vertical farming or peri-urban agriculture zones

• Carbon farming credits and offset markets

• Dual purpose: carbon removal + food resilience

Sustainability Impact:

• Natural carbon sequestration in urban ecosystems

• Climate-resilient agriculture

• Supports circular economy principles in food-energy-water nexus

Innovation Insight:

• Potential to integrate with AI-driven agri-tech sensors

• Monetizable via voluntary or regulated carbon markets

• Enhances food security within smart city planning

11. Botanical Light (Plant-Based Electricity – Green Display Learning)

Definition:A cutting-edge biotechnology that uses the metabolic processes of living plants to generate small amounts of electricity. Often referred to as plant microbial fuel cells or Botanical Light.

Integration Use Case:

• Low-power decorative and educational lighting in smart parks or biospheres

• Interactive green displays for awareness, branding, and education

• IoT-enabled bio-interfaces for public engagement or ambient intelligence

Sustainability Impact:

• Emission-free, passive power generation

• Enhances biodiversity and green coverage

• Ideal for ecological integration in urban landscapes

Educational Value:

• Promotes STEM education in innovation schools

• Aligns with green curriculum initiatives

• Symbolic representation of the “green city of the future”

12. Carbonaide Cement

Definition:A climate-positive concrete technology that cures using captured CO₂ instead of water, thereby permanently storing carbon in the final concrete product.

Integration Use Case:

• Paving, structural components, precast modules, urban hardscaping

• Ideal for Innovation Hub infrastructure and smart mobility corridors

• Can be used for all standard concrete applications with enhanced sustainability

Sustainability Impact:

• Each tonne of Carbonaide concrete stores 60–150 kg of CO₂

• Reduces overall lifecycle emissions of the built environment

• Enables carbon-negative construction certifications

Strategic Benefit:

• Contributes to ESG goals and Green Building Certifications

• Aligns with Economic Decarbonization and Net Zero Studies

• Attracts green investment and carbon trading value

13. Cyanoskin (Algae-Based Carbon Capture Coating)

Definition:A bioengineered façade coating infused with live algae that photosynthesize, absorbing CO₂ and releasing oxygen, transforming buildings into living carbon sinks.

Integration Use Case:

• Applied to building envelopes, science parks, and innovation zones

• Ideal for facades with high solar exposure

• Works synergistically with BIPV (building-integrated photovoltaics)

Sustainability Impact:

• Active CO₂ sequestration via algae-based photosynthesis

• Aesthetic and symbolic green-tech showcase

• Supports biodiversity and urban biophilic design

Smart Feature:

• Can be monitored via IoT for biomass health and CO₂ capture rates

• Potential integration with Botanical Light for dual-function walls

14. Celour (Carbon-Absorbing Recycled Paint)

Definition:A highly sustainable architectural coating made from pulverized, demolished concrete and designed to absorb up to 20% of its weight in atmospheric CO₂ post-application.

Integration Use Case:

• External and internal walls across residential, commercial, and public buildings

• Especially effective on high-surface-area urban infrastructure (e.g., overpasses, schools)

• Ideal for rapid retrofitting of older buildings to meet green standards

Sustainability Impact:

• Passive carbon removal throughout lifespan

• Circular economy material use (concrete waste to climate solution)

• Enhances urban decarbonization strategies affordably

Strategic Note:

• May qualify for carbon offset credits in voluntary markets

• Can be included in Environmental Impact and Material Reuse Studies

15. Pavegen (Kinetic Pavement Technology)

Definition:An innovative pavement system that captures the kinetic energy generated from pedestrian footsteps and converts it into off-grid electrical energy. Each footstep generates 2–5 joules of power, which can be stored or used in real time.

Integration Use Case:

• High-footfall public areas (malls, stadiums, education zones, metro stations, innovation corridors)

• Pathways in “Smart Mobility” and “Walkable City” districts

• Interactive zones that combine energy generation with data insights

Sustainability Impact:

• Renewable, human-powered micro-generation

• Encourages walking and physical activity

• Can power smart lights, signage, sensors, and even charge devices

Smart City Features:

• Embedded IoT allows tracking of pedestrian data (flow, heatmaps)

• Visual feedback screens can display real-time power generation, engaging the public

• Symbol of participatory sustainability and active citizenship

Strategic Relevance:

• Demonstrates real-time renewable energy in action

• Ideal for public engagement campaigns (sustainability education, events)

• Monetizable via data insights or green branding partnerships

🧠 Strategic Integration Considerations

Technology	Use in Smart City Components	Revenue Potential	ESG & Net Zero Impact
Solar Panels	Buildings, Parking, Walkways, Street Furniture	High (PPA, carbon credits)	High
Flywheel	Grid services, labs, hospitals	Medium	Medium-High
H₂ to Power	Transport, energy, utilities	High (future-proofing)	Very High
BESS Power	All buildings and microgrids	High (resilience, arbitrage)	High
CO₂ to Power	Waste-to-energy hubs, industrial blocks	Medium (innovative IP)	Very High (carbon removal)
Modular Nuclear	Innovation Valley, Data Centers, Resilience Nodes	Long-term High	Zero-carbon base load

Technology	Application Areas	ROI / Revenue Opportunity	Sustainability Contribution
Solar Glass Windows	Office towers, shopping malls, universities	Medium-High (OPEX savings, green rating incentives)	Very High (Net Zero, daylighting)
Solar Building Façade	Innovation hubs, hotels, science parks	High (branding, energy sale/PPA)	Very High (full building envelope contribution)

Technology	Domain Use	Monetization & Value	ESG / Innovation Contribution
Geothermal	Buildings, Innovation Valleys	Stable energy pricing, long ROI	Very High (base load, renewable)
BINEX – Sorghum	Urban Farming, Food-Energy Corridors	Carbon credits, food production	Extremely High (carbon drawdown + food)
Botanical Light	Parks, Education Zones, Bio-Museums	Low (symbolic/interactive)	High (awareness + ecological art)

Material / Tech	Domain Use	Carbon Offset Potential	Circular Economy Impact
Carbonaide Cement	Buildings, roads, hubs, parking	Very High (permanent sequestration)	High (replaces standard cement)
Cyanoskin Coating	Vertical facades, R&D labs, smart city nodes	Moderate (photosynthetic drawdown)	Medium-High (bioactive façade)
Celour Paint	All painted surfaces (retrofit/new build)	Moderate (passive absorption)	Very High (recycled material use)

Pavegen

Kinetic (Pedestrian)

Walkways, Transport Hubs, Parks

Energy + Data + Community Engagement

Strategic Studies and Reports

Create Ecosystem Project Portfolio StudyA holistic evaluation of all interlinked projects under the development umbrella, including synergies, dependencies, and investment needs.

Commission and Oversee a Bankable Feasibility StudyA rigorous assessment of technical, legal, operational, and financial viability to support investment and funding decisions.

Deliver a Comprehensive Monetization Strategy StudyDetailed plan identifying 

all revenue streams, pricing models, asset value creation, and commercialization paths.

Deliver a Comprehensive Marketing Bankable StudyA market-aligned promotional and branding strategy ensuring investor confidence and project attractiveness.

Create and Validate an Economic Impact StudyQuantifies the project’s effect on local, regional, and national economies, including GDP, employment, and trade.

Create and Validate a Social Impact StudyEvaluates benefits to communities, education, equity, health, and well-being through project execution.

Create and Validate an EMS (Environmental Management System) StudyOutlines frameworks and best practices for environmental governance, waste, emissions, and ecological preservation.

Create and Validate an Economic Decarbonization StudyMeasures economic transformation through carbon-neutral policies, green investments, and sustainable industry practices.

Create and Validate an Economic Import & Export StudyAssesses the trade balance and international dependencies introduced by the project development.

Create and Validate an Economic Incentive StudyIdentifies subsidies, tax breaks, and economic advantages available from governments or multilateral agencies.

Create and Validate an Economic Land Rebate StudyExamines opportunities to reclaim value or cost savings from government land-use incentives or leaseback models.

Create and Validate an Economic Power Rebate StudyStudies potential for energy rebates through renewable production, smart grid participation, or carbon credits.

Create and Validate an Economic Viability BookA comprehensive documentation of all economic rationales justifying the project's investment, delivery, and return potential.

Create and Validate a Work of Science StudyAnalysis of technological and scientific innovations introduced by the project and their global contribution.

Financial Planning and Advisory

Develop Detailed Financial Models by ComponentCreate bottom-up and top-down financial projections, capex/opex models, revenue flow per project segment.

Explore Government Incentive Schemes and Support ProgramsEvaluate and pursue governmental financial or regulatory support to reduce project cost and enhance viability.

Consultant Recommendations

Recommendation of Consultant (SJ Side)Curated list of potential consultants to be appointed or endorsed by the stakeholder or sponsor (SJ) side.

Recommendation of Consultant (Client Side)Advisory for consultants to be appointed by the project owner or client entity to ensure alignment with project goals.

Strategic Meeting & Engagement Plan

📅 Ensure High-Level Meetings With:

1. Stakeholder Categories

• Technology Partners – For integration of energy, AI, mobility, Web3, etc.

• Facility Management (FM) – City-wide and component-specific O&M planning.

• Operators – Operators for buildings, community hubs, entertainment zones, etc.

• Investors – Strategic co-investment, JV structuring, financial model validation.

• Co-Developers – Execution and replication of component-level innovations.

• Developers – With global experience in smart urban ecosystems.

2. Target Partner Profiles

• Future Technology Providers –

  • Future energy (solar, hydrogen, geothermal)

  • Automated EV parking and solar canopies

  • AI and IoT for waste, water, cooling, energy

  • Microclimate and smart building skins

  • Digital twins, metaverse platforms

  • Mobility, robotics, e-gaming, biotech

• Consultants & Innovation Leaders –

  • Smart city master planners

  • Lab operators (Life Science, R&D, AI Labs)

  • Ecosystem builders with proven delivery track record

• Real Estate Leaders –

  • Developers and operators experienced in large-scale, mixed-use and smart urban projects

• Education & Health Experts –

  • For future-proof schools, AI-powered diagnostics, next-gen university models

🌏 Global Site Visit Objectives

🌐 Priority Countries:

• Singapore

• China

🤝 Target Companies to Meet:

• Frasers Property

• CapitaLand

• Surbana Jurong

• Keppel Land

• Heinz (China)

• Other regional leaders in ESG, R&D campuses, or public-private smart development

🧭 Thematic Meeting Clusters

🔋 Technology & Infrastructure

• Future Parking (EV, automated, solar canopy)

• Smart Building Skins and Microclimate Design

• Energy of the Future (Hydrogen, Solar, Geothermal)

• Passive & Active Cooling

• AI for Waste, Water, Energy

• Quantum Telecommunications

• 10G Network Infrastructure

• Web3/Cognitive APIs for Utilities

🧬 Science, Research & Labs

• Life Science and Biotech Clusters

• Digital Twin Cities & Metaverse Platforms

• Robotics, Drone, Space, AI Labs

• R&D Labs of the Future

🏫 Education & Healthcare

• Kindergarten to High School of the Future

• University-Industry Partnerships

• AI-Integrated Diagnostic Hospitals

• School & University of the Future

🎮 Entertainment & Lifestyle

• E-Gaming Arena Development

• Arena of the Future

• Hotel, Mall, and CoLiving of the Future

• Residential & CoWorking Innovation

🧩 Integration Mandate Across Future Components

Each component must reflect:

• Global Innovation Leadership

• Revenue Potential & Monetization Design

• Net Zero & Sustainability Integration

• Technology Convergence (AI, IoT, Quantum, Web3)

📍 Components to Be Developed:

• School, University, Hospital of the Future

• Innovation Hub, Science Park, Energy & Sustainable Projects

• Mall, Hotel, CoLiving, Residential, CoWorking

• Arena & E-Gaming Zone

• Elementary School (K1 to K12)

• R&D, AI, Robotic, Drone, and Space Labs

• Future Car Parking (EV, Automated, Solar)

• Digital Infrastructure (10G, Web3, Quantum Telco)

• Carbon Strategy: CO₂ reduction, carbon credits, circular economy

• Cost-Efficient Systems integrated from the start