What Is “Tex9 Net Green IT”?
Meaning in search results. The phrase usually points to two things: (a) Green IT practices—everything from energy-efficient code to renewable procurement; and (b) content on the independent tech site tex9.net that discusses sustainability topics.
Two pillars of Green IT. Most credible treatments split it into Green by IT (technology enabling sustainability outcomes) and Green in IT (reducing IT’s own footprint). Keep these pillars in mind as you design your roadmap.
Evidence: How the real tex9.net uses “Green IT”
tex9.net is an active tech site with coverage that includes sustainability. You’ll find an About page describing its focus on IT/science/tech, and articles that explicitly define Green IT and distinguish “Green by IT” vs. “Green in IT.”
- About page: explains the site’s tech focus and editorial angle.
- Green IT posts: define the term and how it applies in practice (e.g., demand-shaping, efficiency, lifecycle).
- Tech news: semiconductor and device coverage that often touches power efficiency and performance-per-watt.
Why Green IT matters in 2025 (the data)
Data-centre electricity is accelerating. Independent analysis projects global data-centre electricity consumption could roughly double to ~945 TWh by 2030, with AI as a key driver. That’s just under ~3% of global electricity use and growing fast.
PUE has been stubbornly flat. Industry surveys show the fleet-wide average PUE remains largely unchanged (≈1.56) for multiple years—meaning efficiency improvements in new builds are offset by rising load and legacy sites.
E-waste is surging. The latest global monitor reports ~62 billion kg of e-waste in 2022, with only ~22.3% formally collected and recycled. Lifecycle strategy is not optional anymore.
The 9-Step Green IT Playbook (Tex9 approach)
- Define boundaries & baselines. Declare what you measure (Scope 2 electricity; relevant Scope 3 such as purchased hardware and end-of-life). Capture today’s PUE/WUE/CUE, grid factors, and workload mix.
- Right-size compute. Kill zombie resources, shrink over-provisioned instances, and enforce autoscaling tied to SLOs. Schedule batch and CI to off-peak, cleaner windows.
- Code efficiency as a product feature. Add performance-per-watt acceptance criteria to PRs. For AI, use quantization/distillation and smaller architectures where business-fit allows.
- Carbon-aware placement. Prefer regions/providers with cleaner grid mix and strong renewable matching; treat latency vs. carbon as an explicit trade-off with product owners.
- Facility & cooling levers. Airflow containment, sealing bypass paths, higher supply temps within vendor envelopes, liquid cooling where justified, and waste-heat reuse where feasible.
- Renewable procurement that counts. Favour additionality (e.g., PPAs/VPPAs) and hourly/locational matching over certificate-only approaches.
- Hardware lifecycle & circularity. Procure on performance-per-watt, extend lifecycles prudently, refurbish before recycle, and track e-waste outcomes against quarterly targets.
- FinOps × GreenOps. Merge cost and carbon dashboards; each new service must show expected $ and kgCO₂e deltas, with remediation if targets are missed.
- Governance & disclosure. Publish method notes (boundaries, factors, data quality), audit annually, align with CSRD/ISSB where relevant, and report wins in kWh, kgCO₂e, and $.
Practical examples & quick wins
1) PUE-first hygiene
- Seal bypass airflow; implement full hot/cold-aisle containment.
- Raise setpoints within vendor guidelines; monitor inlet temps tightly.
- Expect ~5–10% savings in legacy rooms from airflow tuning and better monitoring.
2) Smarter workload placement
- Move non-latency-sensitive jobs (rendering, analytics, CI) to cleaner regions or greener hours.
- Tie schedulers to carbon-intensity signals while preserving SLAs.
3) AI right-sizing
- Use compact models for high-QPS inference when accuracy parity is acceptable.
- Reserve frontier models for workloads that clearly benefit; measure cost/energy per task.
4) Circular hardware
- Adopt “reuse before replace.” Track devices by cohort and power/perf curves.
- Use certified refurbishers; require attestations for downstream recycling.
5) Transparent reporting
- Publish monthly kWh, PUE, and estimated kgCO₂e with emission factors.
- Set team OKRs that include both cost and carbon metrics.
One-page Green IT checklist (copy/paste)
- [ ] Boundaries defined (Scope 2 + relevant Scope 3) and baselines captured
- [ ] Autoscaling and right-sizing enforced; zombie resources eliminated
- [ ] Efficiency criteria in PRs; perf-per-watt tracked for critical paths
- [ ] Carbon-aware region/zone selection with latency trade-offs documented
- [ ] Cooling hygiene complete; setpoints and containment verified
- [ ] PPA/VPPA or hourly/locational renewable strategy documented
- [ ] Lifecycle policy: extend → refurbish → recycle (KPIs set)
- [ ] FinOps × GreenOps dashboard live; regressions trigger remediation
- [ ] Methods and metrics disclosed; annual audit scheduled
FAQs
Is “Tex9 Net” a real site or just a buzzword?
It’s both. The domain tex9.net is a functioning tech site that has covered Green IT, and “tex9 net green it” is also used broadly online as a topic heading.
What exactly is Green IT?
Two pillars: Green by IT (tech enabling sustainability) and Green in IT (reducing IT’s own energy, water, and materials footprint).
How big is the energy problem?
Credible projections show data-centre electricity could reach roughly ~945 TWh by 2030—with AI a key driver—representing just under ~3% of global electricity use.
Why hasn’t PUE improved much?
Fleet averages stay flat (~1.56) because efficiency gains in modern sites are offset by rising load and legacy estates. It’s why governance and workload strategy matter.
How serious is e-waste?
Global e-waste hit ~62 billion kg in 2022, and only ~22.3% was formally collected and recycled—making lifecycle and circularity essential parts of Green IT.