Southeast Asia Data Center Bubble — supply pipeline vs demand analysis across 6 markets
SEA Data Center Market: $37B invested across 6,068 MW of new capacity pipeline

Executive Summary

Southeast Asia's data center market is undergoing an unprecedented expansion: $37B+ committed across 6,068 MW of new capacity. Johor alone has a 5.8 GW pipeline — enough to power 4.6 million homes — in a state of 3.8 million people. Indonesia's installed capacity reached 1,717 MW with operators racing to build ahead of demand. The critical question: does committed hyperscaler demand actually materialize at the pace needed, or does the region face a Southeast Asian version of the mid-2000s fiber-optic overbuild? For the bull case counter-argument, see our companion analysis of the $37 billion SEA data center opportunity.

1. The Supply Explosion: $37 Billion and Counting

Between 2024 and 2026, Southeast Asia witnessed the largest wave of data center investment in its history. The numbers are staggering: 135 upcoming facilities joining 290 existing ones, involving 149 major operators and investors, with a combined pipeline exceeding 6 GW of IT power capacity.

Market Operational (MW) Under Construction Pipeline/Planned Vacancy Risk Level
Singapore ~780 MW Limited ~900 MW 2% LOW
Malaysia (Johor) 487 MW 422 MW 5.8 GW total 1.1%* CRITICAL
Indonesia 1,717 MW Active 4,145 MW by 2031 ~14% MEDIUM-HIGH
Thailand ~200 MW Rapid ~1,092 MW by 2030 ~12% MEDIUM
Vietnam Growing 11 facilities 560 MW by 2030 Low LOW-MED
Philippines ~100 MW 13 upcoming ~1 GW target Moderate MEDIUM

*Johor vacancy at 1.1% reflects current state; pipeline absorption is the risk. Sources: Cushman & Wakefield H1 2025, ResearchAndMarkets, Arizton. For educational and research purposes only.

The math that should concern everyone: Johor's 5.8 GW pipeline is 12x its current operational capacity. Even at aggressive 20% annual absorption, it would take until 2035+ to fill. Much of this capacity is carrier-neutral and speculative — tenants not yet secured.

2. Indonesia: The 1,717 MW Frontier

Indonesia's data center market is the largest in Southeast Asia by installed capacity, reaching an estimated 1,717 MW in 2026. Jakarta retains 56.7% of national capacity, but the geography of investment is shifting rapidly toward Greater Jakarta's industrial corridors: Bekasi, Cibitung, Cikarang, and Karawang.

2.1 The Operator Landscape

Indonesia's DC market is dominated by a mix of domestic and regional players. To illustrate the competitive dynamics without commercial bias, we anonymize the operators:

Operator Location Capacity Status Key Note
DC-IDX-1 (Listed) Cibitung, Karawang, Jakarta 119 MW (live) + 36 MW (H1'25) Expanding Rev +36% YoY; NI margin 54%
DC-Global-2 Bekasi (Greater Jakarta) 120 MW campus $1B investment AI-ready hyperscale
DC-Telco-3 Multiple cities ~150 MW (est.) Expanding State-owned telco subsidiary
DC-Regional-4 Greater Jakarta, Batam 500 MW planned (AI Campus) PPAs signed Wholesale deals 250+ MW
DC-US-5 Jakarta New entrant $403M financing Sustainability-linked
DC-Japan-6 Greater Jakarta Multiple facilities Established Enterprise + cloud focus

Source: Publicly available industry data and published standards. For educational and research purposes only.

2.2 DC-IDX-1: The Indonesian Market Benchmark

The most visible indicator of Indonesia's DC market health is its only publicly listed pure-play data center operator, which we designate DC-IDX-1. With a portfolio spanning three campuses (Cibitung at 73 MW being the largest, Karawang at 27 MW, and Jakarta CBD at 19 MW), this operator provides the rare transparency of public financial reporting in an otherwise opaque market.

2024 Revenue
Rp 1.81T
+36% year-over-year growth
Q1 2025 Revenue
Rp 774B
+119% YoY acceleration
Net Income Margin
54%
Q1 2025 profitability
2025 Capex
Rp 1T
JK6 (36 MW) + DCI-E2 Surabaya

The JK6 facility at their Cibitung campus adds 36 MW of AI-ready capacity with liquid cooling support, bringing total capacity to 155 MW by mid-2025. Beyond that, the company has disclosed plans for a massive DCI-H3 in Bintan with projected capacity exceeding 1,000 MW — a tenfold increase over their current portfolio.

The question DC-IDX-1 investors should ask: Current financials are exceptional (54% net margin, triple-digit revenue growth). But the 1,000 MW Bintan ambition represents a $8-10B capex commitment over the next decade. Can a company generating ~Rp 3T annual revenue fund this without massive dilution or debt? And who are the pre-committed tenants for a 1,000 MW facility on an island?

2.3 The PLN Power Bottleneck

Jakarta's transmission backbone is near saturation, a constraint that compounds the electricity cost pressures on citizens already facing rising tariffs. Data center bookings are forecast to absorb 2,200 MW by 2030 — more than one-third of PLN's incremental substation additions. The state utility's RUPTL 2025-2034 calls for 69.5 GW of new generation, but the gap between data center demand and grid capacity is a binding constraint that could determine which projects succeed and which stall.

Greater Jakarta (covering 70% of Indonesia's DC capacity) is particularly vulnerable. Operators in Bekasi and Cikarang are already competing for limited transformer capacity, and new substations take 2-3 years to commission.

3. Johor: Boom or Bubble?

No market in Southeast Asia demands more scrutiny than Johor. The numbers are extraordinary: from a standing start of near-zero five years ago, Johor now has 487 MW of live capacity, 422 MW under construction, and a total pipeline of 5.8 GW.

3.1 The Bull Case

Proximity to Singapore (~2ms fiber latency) makes Johor a natural overflow market for the world's tightest DC hub (2% vacancy). Land costs are a fraction of Singapore's. Hyperscaler commitments are real: Microsoft ($2.2B), AWS ($6B by 2037), Google active. Malaysia's data center capacity is set to double by end-2026 (Nikkei Asia). Current vacancy in Johor: just 1.1%.

3.2 The Bear Case

Much carrier-neutral capacity is speculative — tenants not yet secured. 3.4 GW of the 5.8 GW pipeline is early-stage projects. Power infrastructure may not keep pace: operators are having to solve their own energy problems (DayOne's 500 MW solar PPA with TNB). Sources close to the Johor state government indicate discussions about potential limits on new DC approvals, echoing the community opposition patterns already playing out from Virginia to Johor. The region risks becoming overbuilt for hyperscalers that may not come at the expected pace.

Here's the math that matters: AWS's $6B investment in Malaysia spans 15 years. That's ~$400M per year. Microsoft's $2.2B is over 4 years. These are not lump-sum capacity injections — they're gradual deployments that the 5.8 GW pipeline dramatically outpaces.

4. Building on Borrowed Promises: The Hyperscaler Dependency Trap

An estimated 60-70% of new large-scale builds (50 MW+) in SEA are build-to-suit or pre-leased to hyperscalers. The remaining 30-40% are speculative, carrier-neutral builds hoping to attract tenants post-construction. This creates a dangerous concentration of risk.

4.1 The Self-Build Trend Nobody Discusses

While colo providers build for hyperscalers, the hyperscalers themselves are quietly building their own facilities:

  • Microsoft: Self-build data centers under development in Cyberjaya, Malaysia
  • Google: Self-build facility in northern Kuala Lumpur
  • AWS: Self-build operations across Singapore ($17B commitment)

The hyperscaler playbook is clear: use colocation for speed-to-market, then progressively shift workloads to owned infrastructure where economics favor it. Every MW of self-build capacity is a MW that won't be leased from a colo provider.

4.2 The $602 Billion Question

Hyperscaler capex is projected at $602 billion in 2026 (36% increase over 2025), with 75% directed to AI infrastructure. The Big Five now spend 45-57% of revenue on capex — ratios historically associated with overinvestment. They've raised $108 billion in debt in 2025 alone to fund this expansion.

"The projected $3 trillion in AI infrastructure investment by 2028 would rival the railroad build-out of the 1800s in scale. AI CapEx is approximately 0.9% of US GDP, compared to 4% for railways and 1.2% for telecom during their respective build-outs." — Goldman Sachs, 2026

What happens if hyperscaler capex slows? DeepSeek's R1 model — trained for allegedly $5.6M using 2,000 H800 GPUs vs. $80-100M and 16,000 H100s for comparable Western models — demonstrated that the relationship between AI capability and infrastructure demand is not linear. If efficiency improvements outpace demand growth, the SEA colo pipeline faces a brutal correction.

5. The Stranded Assets Nobody Talks About

While billions pour into new AI-ready facilities, a quieter crisis unfolds in the region's older data centers. Pre-2015 facilities designed for 5-10 kW per rack are fundamentally incompatible with modern AI workloads demanding 50-100 kW per rack.

Metric Legacy DC (pre-2015) Modern AI-Ready DC Gap
Rack Density 5-10 kW/rack 50-100 kW/rack 10x
Cooling Raised-floor CRAC/CRAH DLC, Immersion Complete redesign
Floor Loading Standard (~2,000 lbs) 5,000-8,000 lbs/rack 4x
PUE 1.8-2.5 1.2-1.3 40% less efficient
Power Architecture Single-feed, basic Dual-grid, on-site gen Full rebuild

Source: Publicly available industry data and published standards. For educational and research purposes only.

Legacy facilities face a dual compression: their existing enterprise tenants migrate to cloud (AWS, Azure, GCP), while hyperscaler/AI tenants exclusively target purpose-built, AI-ready facilities. Retrofitting from 5 kW to 15-20 kW/rack is feasible at ~$5-6M per MW, but reaching true AI-ready density (50+ kW/rack) is impractical in most pre-2015 buildings due to structural, electrical, and cooling limitations.

For smaller operators stuck with aging facilities, selling VPS or managed hosting services is a survival strategy, not a growth strategy. Margins have compressed 15-30% over four years, and the hyperscalers' own cloud services progressively eliminate every competitive advantage local providers once held.

The Philippines warning: SM Investments Corporation, one of the country's largest conglomerates, announced in late 2025 it was exiting the data center business entirely, citing soaring electricity costs and heightened disaster risks. When a diversified conglomerate can't make DC economics work, what chance do subscale operators have?

6. Is This a Bubble? The Historical Parallels

To answer this question honestly, we need to examine what happened before in similar infrastructure build-outs.

1996-2000: The Telecom Fiber Boom
Companies laid enough fiber to circle the earth 1,500 times. By 2001, less than 3% was lit. Bankruptcies: WorldCom, Global Crossing, 360networks. Total losses: $2 trillion. The infrastructure eventually proved valuable — but most original investors lost everything.
2007-2009: US Data Center Overbuild
Speculative DC construction in Northern Virginia, Chicago, and Dallas outpaced demand. Vacancy rates spiked to 20-30% in some markets. Multiple operators went bankrupt or were acquired at distressed valuations. Recovery took 3-4 years.
2015-2020: China's DC Ghost Towns
Inner Mongolia, Guizhou, and other provinces built massive DC parks with government subsidies. Many sat empty or severely underutilized. Provincial governments offered free land and electricity subsidies, but demand never materialized as projected.
2024-2026: The SEA Build-Out
$37B+ invested. 6,068 MW pipeline. Johor: 5.8 GW for a state of 3.8M people. Build-to-suit concentration on hyperscalers spending 45-57% of revenue on capex. Bullwhip effect warning: analysts flag 2027-2029 as the likely correction window.

6.1 The Bullwhip Effect

The bullwhip effect — where supply decisions lag demand signals, causing amplified boom-bust cycles — is the most dangerous dynamic in the current market. Here's how it works in data centers:

  1. Demand signal: Hyperscalers announce massive AI investments (2023-2024)
  2. Supply response: Colo operators begin 18-36 month construction cycles (2024-2025)
  3. Lag period: New supply comes online 2-3 years after demand signal (2026-2028)
  4. Potential mismatch: If AI capex decelerates or efficiency improves, supply arrives into weakening demand (2027-2029)

Analysts at Gadallon Research explicitly warn of "periods of overcapacity and unstable pricing for multiple years" as the bullwhip unwinds, with mid-decade (2025-2026) identified as a potential inflection point. Occupancy rates are projected to peak at >95% in late 2026, followed by moderation starting 2027.

6.2 Bubble Indicators Scorecard

Indicator Classic Bubble Signal SEA DC Market 2026 Signal?
Supply outpacing demand Construction > absorption rate Johor: 5.8 GW pipeline, ~200 MW/yr absorption STRONG
Speculative building Building without anchor tenants 30-40% of large builds are spec MODERATE
Easy money / cheap debt Low-cost financing fueling expansion $2.8B (Bridge), $1B+ REIT (AirTrunk) MODERATE
"This time is different" Belief that old rules don't apply "AI demand is insatiable" STRONG
New entrants flooding in Non-traditional players entering Real estate, PE, sovereign funds STRONG
Customer concentration Revenue depends on few buyers 60-70% hyperscaler dependency STRONG
Demand actually materializing Revenue growth validating investment DC-IDX-1: +119% Q1'25 revenue HEALTHY
Structural demand driver Fundamental shift supporting growth AI, cloud, digital transformation HEALTHY

Assessment: 4 strong bubble signals, 2 moderate, 2 healthy counter-signals. Verdict: selective bubble — not uniform across all markets. For educational and research purposes only.

7. Investment Analysis: The Numbers Behind the Bets

7.1 Build Economics

Cost per MW (Greenfield)
$8-10M
AI-ready, liquid cooling, Tier III+
Cost per MW (Retrofit)
$5-6M
Limited to 15-20 kW/rack max
Revenue per MW/Year
$1.5-2.5M
Varies by market and tenant
Target Payback
5-7 years
At 85%+ occupancy rate

7.2 The Break-Even Trap

A typical 20 MW data center in Southeast Asia requires approximately 60-70% occupancy to break even on operating costs, and 80-85% occupancy to achieve the IRR targets that justify the initial investment. Here's what happens at different occupancy levels:

Occupancy Revenue (20 MW DC) OPEX Coverage Capex Payback Status
90%+ $36-45M/yr Full 5-6 years Healthy
70-85% $28-38M/yr Full 7-10 years Marginal
50-70% $20-28M/yr Partial 10+ years Distressed
<50% <$20M/yr Negative cash flow Never Failure

Source: Publicly available industry data and published standards. For educational and research purposes only.

If vacancy rates across SEA rise by just 10-15 percentage points (from ~14% regional average to 25-30%), the revenue impact cascades: operators cut pricing to fill space, which compresses margins for everyone, which delays capex payback, which triggers covenant breaches on debt, which forces distressed sales. This is how infrastructure bubbles unwind.

8. What Happens When the Music Stops

8.1 The Correction Scenario (2027-2029)

Based on the evidence, here is the most likely correction scenario:

  1. Late 2026: Occupancy peaks at 95%+ as current pipeline absorbs pent-up demand
  2. 2027: Massive new supply comes online (Johor, Thailand, Indonesia). Vacancy begins rising
  3. 2027-2028: Pricing pressure as operators compete for tenants. Spec builds particularly affected
  4. 2028-2029: Consolidation wave. Smaller/subscale operators acquired or exit. Legacy DCs face accelerated obsolescence
  5. 2029-2030: Market stabilizes at new equilibrium. Survivors emerge stronger with consolidated positions

8.2 Who Survives

Operators with Secured Power
PPAs and dedicated substations give structural advantage. Power availability — not demand — is the binding constraint.
Pre-Committed Anchor Tenants
Operators with long-term hyperscaler contracts weather downturns. Build-to-suit > speculative builds.
Spec Builders Without Tenants
Carrier-neutral facilities without signed LOIs are the first casualties of a correction.
Legacy DCs on VPS Revenue
Sub-10 kW/rack facilities with declining hosting revenue face stranded asset risk.

8.3 The Verdict

Is this a bubble? Yes — but a selective one.

This is not a uniform bubble across all SEA markets. Singapore (2% vacancy, strict government controls) is undersupplied and will remain so through 2028. Indonesia has strong domestic demand but power infrastructure constraints will self-regulate growth. Vietnam is early-stage with genuine structural demand.

The bubble is concentrated in Johor (5.8 GW for 3.8M people), parts of Thailand (20x investment jump in 6 months), and among speculative, carrier-neutral operators building without anchor tenants. The 2027-2029 correction will be real, but it will be geographic and operator-specific — not a market-wide collapse.

The infrastructure being built will eventually prove valuable. But as the fiber-optic crash of 2001 taught us: the infrastructure can be right while the investment timing is catastrophically wrong.

9. Interactive: SEA DC Bubble Risk Calculator

Model the supply-demand dynamics for any SEA market. Adjust the variables below to see how different scenarios affect bubble risk, vacancy projections, and investment outcomes.

SEA Data Center Bubble Risk Analyzer

Model supply-demand dynamics and risk exposure for any SEA market. Hover ?Hover over any ? icon for detailed explanations of each input parameter and how it affects the risk calculation. icons for parameter explanations.

Supply & Market Parameters
?Pre-loaded with real market data from Cushman & Wakefield, Arizton, and CBRE H1 2025 reports. Select "Custom" to model a hypothetical market.
?Currently live and energized IT load capacity in the market. This is the baseline that represents proven, absorbed demand. Source: Cushman & Wakefield H1 2025.
?Total announced + under construction + planned capacity through 2030. Includes committed builds (with LOIs/PPAs) and speculative builds (no anchor tenants). Source: Arizton 2025-2030.
?Market population for computing pipeline-to-population ratio. Helps contextualize whether the pipeline is proportional to the addressable market or wildly excessive.
Demand & Absorption Dynamics
?How much new DC capacity the market actually fills per year. Based on historical take-up rates. SG: ~150 MW/yr, ID: ~300 MW/yr, Johor: ~200 MW/yr (optimistic). This is the most critical input — it determines how fast supply gets absorbed.
?Percentage of pipeline with signed hyperscaler LOIs, PPAs, or build-to-suit contracts. Pre-committed capacity is "safe" — it has guaranteed demand. Higher % = lower bubble risk. AWS, Google, Microsoft, and Meta are the primary hyperscaler tenants.
?Percentage of pipeline built WITHOUT anchor tenants or signed LOIs. These are carrier-neutral facilities betting that "demand will come." Speculative builds are the first casualties in a correction — they bear the most risk. Higher % = higher bubble risk.
?Annual organic demand growth rate for data center capacity, driven by digital economy expansion, cloud adoption, and enterprise migration. SEA average: 15-20%. Used to model whether absorption will accelerate over time.
Financial & Investment Parameters
?Greenfield construction cost per MW of IT load. Includes land, building, MEP, commissioning. Ranges: $7-8M (VN/PH), $8-10M (ID/MY/TH), $12-15M (SG). AI-ready with liquid cooling adds 15-20%. Used to compute total capital at risk.
?Annual colocation revenue per MW. Includes power pass-through, space rental, cross-connects, and managed services. SG: $2.5-3.5M, ID/MY: $1.5-2.2M, VN/TH: $1.4-2.0M. Used for break-even and payback calculations.
?Operating expenses as % of revenue. Includes electricity (40-55%), staff (8-12%), maintenance (5-8%), insurance, land lease, and SGA. Typical range: 55-70% for SEA operators. Used to calculate break-even occupancy and EBITDA margin.
?Weighted average cost of capital for NPV calculations. Reflects risk premium for the market. Infrastructure funds: 8-10%, SEA premium: 2-4% above US/EU. Higher WACC = more conservative assessment of whether the investment returns justify the risk.
Supply-Demand Analysis
Supply-to-Demand Ratio ?
Supply-to-Demand Ratio
Pipeline capacity divided by projected demand. Ratio >2.0 indicates oversupply risk.
<1.5 Undersupplied · 1.5-2.5 Balanced · >2.5 Oversupplied
-
-
Years to Absorb Pipeline ?
Pipeline Absorption
Time for the market to fill current pipeline at the given absorption rate.
>5 years = high oversupply risk
-
At current absorption rate
Projected 2028 Vacancy ?
2028 Vacancy Rate
Projected percentage of DC capacity sitting empty by 2028.
<10% healthy · >30% distressed
-
-
Pipeline / Population ?
MW per Million People
DC capacity per million population — measures market maturity.
-
-
Capital at Risk ?
Capital at Risk
Total investment capital exposed to oversupply risk (vacant capacity × build cost).
-
Speculative builds only
Total Pipeline Capex ?
Total Pipeline Capex
Total capital expenditure for all pipeline capacity in the market.
-
Full pipeline build cost
Financial Risk Metrics
Break-Even Occupancy ?
Break-Even Occupancy
Minimum occupancy rate needed to cover operating costs and debt service.
-
OPEX coverage threshold
Projected Avg Occupancy ?
Projected Avg Occupancy
Expected average occupancy rate across the market by analysis end.
-
-
Annual Revenue (Proj.) ?
Projected Annual Revenue
Expected yearly revenue based on occupancy and revenue-per-MW assumptions.
-
-
Annual EBITDA ?
Annual EBITDA
Earnings before interest, taxes, depreciation, and amortization.
-
-
Payback Period ?
Payback Period
Years to recover total capital investment from operating cash flows.
-
-
10-Year NPV ?
10-Year Net Present Value
NPV of all cash flows over 10 years at the given discount rate.
Positive NPV = value-creating investment
-
At given WACC
BUBBLE RISK ASSESSMENT
Low Risk Moderate High Risk Critical
-
SUPPLY vs DEMAND VISUALIZATION
Total Pipeline-
-
Pre-Committed Demand-
-
3-Year Absorption (Projected)-
-
SENSITIVITY ANALYSIS (OPTIMISTIC / BASE / PESSIMISTIC)
All calculations run in your browser — no data is sent to any server
Model v1.0 Updated Feb 2026 Sources: C&W, Arizton, CBRE 2025 5-Factor Risk Model + MC 10K + Tornado
Calculation Methodology & Assumptions

Supply-Demand Analysis:

  • S/D RatioSupply-to-Demand Ratio. Compares total pipeline capacity against projected 5-year demand. A ratio above 1.5x typically signals oversupply risk; above 2.0x is a red flag.: pipeline / (absorption × 5) — total pipeline divided by 5-year cumulative demand projection
  • Vacancy 2028: Based on 3-year absorptionAbsorption Rate is the amount of new data center capacity (MW) that gets leased/filled by tenants each year. Higher absorption = healthier market. vs 60% of new capacity expected to come online by 2028
  • Pipeline/Population: pipeline / population — MW per million people. Helps identify disproportionate builds (e.g., Johor's 1,526 MW/M vs Indonesia's 15 MW/M)

Financial Risk Metrics:

  • Break-even OccupancyThe minimum occupancy rate at which a data center covers its operating expenses (OPEX). Below this threshold, the facility operates at a cash-flow loss even if it has some tenants.: OPEX% + speculative% × 15 — higher speculative builds need higher fill rates to survive
  • Projected Occupancy: max(40%, 95% - S/D ratio × 15%) — oversupplied markets push average occupancy down
  • Revenue: rev/MW × pipeline × occupancy — annual colocation revenue at projected fill rate
  • EBITDAEarnings Before Interest, Taxes, Depreciation & Amortization. The primary profitability metric for data centers. Calculated as Revenue minus Operating Expenses. Typical DC EBITDA margins: 35-45%.: revenue × (1 - OPEX%) — operating profit before financing costs
  • NPVNet Present Value. The total value of future cash flows discounted back to today using the WACC. Positive NPV = the investment creates value; negative NPV = it destroys value. Accounts for the time value of money.: 10-year DCFDiscounted Cash Flow. A valuation method that projects future cash flows and discounts them to present value using a discount rate (WACC). Standard methodology for infrastructure investment analysis. with 3-year ramp-up from 30% to stabilized occupancy, discounted at WACCWeighted Average Cost of Capital. The blended cost of debt and equity financing. Represents the minimum return an investment must generate to create value. SEA infrastructure typically: 8-12%.
  • Payback Period: totalCapex / annualEBITDA — years to recover initial investment. Under 7 years = attractive; over 10 years = high risk

Bubble Risk Score (0-100):

  • S/D ratio weight: 30 pts — the dominant risk factor
  • Speculative build %: 25 pts — builds without tenants
  • Low pre-commitment: 20 pts — lack of hyperscaler contracts
  • Absorption timeline: 15 pts — penalty if >3 years to fill
  • Extended payback: 10 pts — penalty if >6 years ROI

Disclaimer: This calculator provides directional estimates for educational purposes. Actual investment decisions require detailed feasibility studies, site-specific analysis, and professional advisory.

All content on ResistanceZero is independent personal research derived from publicly available sources. This site does not represent any current or former employer. Terms & Disclaimer

References & Sources

  1. ResearchAndMarkets, "South East Asia Colocation Data Center Portfolio Report 2025-2029," January 2026. globenewswire.com
  2. Arizton, "Southeast Asia Data Center Colocation Market Supply & Demand Analysis 2025-2030." yahoo.com
  3. Cushman & Wakefield, "APAC Data Centre H1 2025 Update." cushmanwakefield.com
  4. Data Center Dynamics, "The Past, Present, and Future of Johor." datacenterdynamics.com
  5. Nikkei Asia, "Malaysia's data center capacity set to double by end-2026." nikkei.com
  6. CBRE, "Asia Pacific Data Centre Trends & Opportunities 2026." cbre.com
  7. IndoPremier, "DCII Targetkan Data Center JK6 Cibitung Beroperasi Semester I 2025." indopremier.com
  8. IDNFinancials, "DCII prepares IDR 1 trillion to boost data centre capacity." idnfinancials.com
  9. Goldman Sachs, "Why AI Companies May Invest More than $500 Billion in 2026." goldmansachs.com
  10. IEEE ComSoc, "Hyperscaler CapEx >$600B in 2026." comsoc.org
  11. Gadallon Research, "AI's Great Infrastructure Boom: Bullwhip or Building the Future?" substack.com
  12. GlobeNewsWire, "Indonesia Data Center Industry Report 2026." globenewswire.com
  13. Mordor Intelligence, "Indonesia Data Center Market Size & Share 2031 Outlook." mordorintelligence.com
  14. Data Center Knowledge, "Retrofitting Legacy Data Centers for AI Hardware." datacenterknowledge.com
  15. Eco-Business, "High costs, higher risks: Can the Philippines power its data centre hub ambitions?" eco-business.com
  16. Introl, "Hyperscaler CapEx Hits $600B: The AI Infrastructure Debt Wave." introl.com
  17. KR-Asia, "Malaysia's data center boom: An inside look at Asia's battle for AI supremacy." kr-asia.com
Bagus Dwi Permana

Bagus Dwi Permana

Engineering Operations Manager | Ahli K3 Listrik

12+ years professional experience in critical infrastructure and operations. CDFOM certified. Transforming operations through systematic excellence and safety-first engineering.