Resource Efficiency

More Compute From
Every Resource We Use.

Resource efficiency is an engineering discipline, not a marketing position. Coresphere designs for PUE, WUE and embodied carbon with the same rigour applied to rack density and power architecture.

PUE

Measured & Improved

WUE

Measured & Improved

Closed Loop

Cooling Architecture

REC

Certified Supply

Resource Efficiency Framework

Six Engineering Disciplines

Each area is measured and engineered — not described.

Energy

Measure and continuously improve PUE. Maximize useful compute from every megawatt of secured capacity.

  • PUE measured, not estimated
  • Liquid cooling reduces energy overhead
  • On-site renewables reduce grid dependency
  • Direct PPA and REC certification available
💧

Water

WUE measured with the same seriousness as PUE. Operational water dependency minimized by design.

  • Closed-loop cooling architecture prioritized
  • WUE tracked as an operational KPI
  • Evaporative cooling avoided where feasible
  • Water balance incorporated into site selection
🌿

Land

Responsible site planning, biodiversity protection, and blue-green infrastructure integrated from the masterplan.

  • Biodiversity protection built into site layout
  • Blue-green infrastructure: stormwater + flood + landscape
  • Landscaped buffers for site integration
  • Land use efficiency maximized per MW of IT capacity
🏗️

Materials

Embodied carbon, equipment lifecycle and responsible material selection considered alongside operational efficiency.

  • Embodied carbon quantified in structural design
  • Equipment lifecycle and end-of-life planned
  • Responsible material sourcing
  • Construction waste managed by programme
🏘️

Community

Community impact designed around sensitive receptors — acoustic mitigation is an engineered solution, not a landscaping exercise.

  • Acoustic design around sensitive receptors
  • Landscaping is site integration, not acoustic mitigation
  • Community engagement during planning and operation
  • Noise targets set below statutory limits where feasible
🛡️

Resilience

Flood, extreme heat, water availability, climate change and grid resilience are engineering inputs, not risk addenda.

  • Flood risk assessed in site selection
  • Extreme heat and water availability modelled
  • Grid resilience and dual-source power by design
  • Climate change scenarios incorporated from the outset

Cooling Architecture

Designed for High Density.
Not Retrofitted for It.

Direct-to-chip liquid cooling is not an option we add to air-cooled buildings. It is designed into the facility from the first drawing.

Direct-to-Chip Liquid Cooling

Closed-loop cooling eliminates the inefficiency of air as a heat transfer medium. As GPU rack density rises toward 600 kW/rack, liquid cooling is the only engineering-credible approach.

  • 600 kW/rack capability at NNK (TH-01)
  • 142 kW/rack GB300 at Negeri Sembilan (MY-01)
  • N+1 ring chilled-water systems
  • No CRAC units — zero reliance on air cooling

Blue-Green Infrastructure

Water features, retention basins, and drainage on Coresphere campuses serve engineering functions: stormwater management, flood resilience, biodiversity and microclimate improvement.

  • Stormwater retention designed to local flood modelling
  • On-title water bodies used for raw water security
  • Floating PV candidate surfaces on water bodies
  • Landscape and water systems integrated from masterplan

Co-Located Renewables

Phetchaburi is Coresphere's clean-energy campus — 80 MW solar PV and 20 MW BESS on the same site. Grid connection provides firm backup. No off-site energy procurement risk.

  • 80 MW solar PV · 20 MW BESS on-campus
  • Behind-the-meter generation
  • Grid backup ensures continuous power availability
  • Direct PPA enabled by Thai ERC from December 2025
Phetchaburi campus with integrated solar infrastructure
Solar-Integrated CampusTH-02 · Phetchaburi · 80 MW Solar + 20 MW BESS
TH-02 · Clean-Energy Campus

Phetchaburi

300 rai total (~48 ha) with approximately 2 ha for the AI compute block and ~40 ha dedicated to solar generation. No recorded flooding in 48 years, stable geotechnical conditions, and a 230 kV grid tower already on the parcel.

Solar PV Capacity

80 MW (76.76 MWp)

Battery Storage

20 MW BESS

Grid Connection

230 kV on-site

IT Capacity

50 MW

Total Land

300 rai (~48 ha)

Target RFS

~May 2028

Why Phetchaburi Matters for CFE Tenants

  • Behind-the-Meter Solar

    Direct generation on the campus means zero transmission loss and real-time carbon-free energy matching.

  • 🔋

    Continuous Clean Power

    20 MW BESS bridges solar generation gaps. Grid backup ensures no outage risk during low-generation periods.

  • 📜

    Direct PPA Available

    Thai ERC enabled foreign-operator Direct PPAs from December 2025 — fully contracted clean energy.

  • 🌡️

    Climate Resilience

    No flooding history, stable soil, no seismic risk. Lowest natural-disaster exposure in the Thailand portfolio.

Acoustic Engineering

Acoustic mitigation at Coresphere campuses is an engineered solution based on equipment source levels and the location of sensitive receptors. Landscaping and green buffers are part of site integration and biodiversity design — they are not presented as the primary acoustic solution. Acoustic performance targets are set around community impact, not solely around statutory boundary compliance.

Efficiency Commitments Available Under NDA

Detailed PUE and WUE design targets, cooling architecture specifications, and CFE matching commitments are available through the project data room.