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Mission-critical infrastructure

Data Center Solutions

From Blueprint to Intelligent Infrastructure

TECH21 delivers end-to-end engineering solutions for conventional, mission-critical, cloud, edge, hyperscale and AI-ready data centers — from feasibility and location selection to engineering, construction, technology integration, commissioning and lifecycle support.

Overview

One partner — complete data center lifecycle

TECH21 coordinates every multidisciplinary infrastructure package from concept through operation, under a single plan, schedule and point of accountability.

01

Strategy

02

Feasibility

03

Site Selection

04

Concept Design

05

Detailed Engineering

06

BIM / Digital Twin

07

Procurement

08

Civil Construction

09

MEP Installation

10

ICT Integration

11

Testing

12

Commissioning

13

Migration

14

Operations

15

Maintenance

16

Optimization / Expansion

Data center types

Every facility class, engineered to purpose

From enterprise halls to GPU-dense AI factories and rapidly deployable modular facilities.

A

Traditional / conventional

Enterprise data centers using established hot/cold aisle, UPS, generators, precision cooling and structured cabling architecture.

B

AI data centers

GPU-intensive infrastructure: NVIDIA/AMD GPU clusters, HPC architecture, GPU fabric, InfiniBand, 100G–800G Ethernet, RDMA, NVMe and object storage, parallel file systems, high-density power and advanced cooling.

C

HPC data centers

High performance computing for research, universities, government, engineering simulation, oil & gas, scientific computing, digital twins and ML.

D

Hyperscale

Large-scale infrastructure for cloud providers, telecom operators, government cloud, AI infrastructure and digital platforms.

E

Colocation

Multi-tenant environments with secure cages, private suites, Meet-Me Rooms, cross-connects, carrier-neutral infrastructure, metering and DCIM.

F

Enterprise

For banks, healthcare, government, universities, industrial organizations and corporations.

G

Edge

Distributed low-latency facilities for 5G, IoT, smart cities, industrial automation, CCTV analytics, AI inference, CDN and telecom.

H

Micro data centers

Small self-contained infrastructure deployed close to the applications it serves.

I

Modular

Prefabricated, rapidly deployable modular data center solutions with scalable capacity blocks.

J

Containerized

Container-based IT, UPS or cooling modules for rapid deployment and remote sites.

K

Telecom

For mobile operators, ISPs, fiber networks, core network infrastructure, 5G, BNG, CDN, IMS and edge cloud.

L

Disaster recovery

Business continuity and DR sites with geographically separated, replicated architecture.

M

Cloud

Private cloud, hybrid cloud and sovereign cloud infrastructure environments.

N

Government / sovereign

High-security environments for Saudi government entities and regulated sectors.

O

Green / sustainable

Solar and renewable integration, high-efficiency cooling, heat management, intelligent energy monitoring, water optimization and low-PUE design targets.

Availability

Design for your required availability level

Tier classification describes the resiliency objective of the facility infrastructure. It is separate from NOC L1/L2/L3, which describes operational support escalation.

Tier I

Basic Capacity

  • Single distribution path
  • Basic infrastructure
  • Suitable for non-critical workloads

Tier II

Redundant Capacity Components

  • Additional redundancy
  • N+1 component strategy where required
  • Improved maintainability

Tier III

Concurrently Maintainable

  • Multiple distribution paths
  • Concurrent maintenance objectives
  • N+1 or project-specific redundancy
  • Mission-critical operations

Tier IV

Fault Tolerant

  • Highest resiliency objectives
  • Fault tolerant architecture
  • Independent distribution paths
  • 2N / 2N+1 strategies depending on design
Designed to support Tier I–IV availability objectives. Tier certification ultimately depends on detailed design, construction and formal assessment by the applicable certification body.

Section 04

Finding the right location before building

Site selection studies that de-risk power, connectivity, environment and expansion before a single foundation is poured.

01

Power & connectivity

  • Power capacity
  • Grid redundancy
  • Substation proximity
  • Fiber availability
02

Environment & risk

  • Water availability
  • Flood risk
  • Seismic considerations
  • Sand / dust exposure
03

Land, access & growth

  • Land availability
  • Security
  • Accessibility
  • Expansion potential
04

Site feasibility report outputs

  • Location comparison
  • Risk matrix
  • Power feasibility
  • Fiber feasibility

Section 05

Architectural, civil & structural engineering

Master planning through as-built BIM, coordinated with every mission-critical services package.

01

Architecture & planning

  • Master planning
  • Architectural design
  • Site development
  • Building layout
02

Structural & civil works

  • Structural engineering
  • Foundations
  • Steel structures
  • Equipment foundations
03

External works

  • Roads
  • Parking
  • Drainage
  • Stormwater
04

BIM & digital twin

  • 3D BIM
  • Clash detection
  • Coordinated shop drawings
  • Digital twin readiness

Section 06

Mission-critical power infrastructure

Utility intake to rack PDU, engineered for continuous availability.

Mission-critical power infrastructure
01

Utility & MV

  • Grid connection
  • Utility coordination
  • MV substations
  • Transformers
02

LV distribution

  • Main LV switchboards
  • Busduct
  • PDUs
  • RPPs
03

UPS

  • Modular UPS
  • Central UPS
  • Distributed UPS
  • N+1
04

Generators

  • Standby generators
  • Synchronization
  • Fuel systems
  • Bulk fuel tanks
05

Battery technology

  • VRLA
  • Lithium-ion
  • Battery monitoring systems
06

Protection & energy

  • Earthing
  • Lightning protection
  • Harmonic mitigation
  • Power quality

Section 07

Precision cooling for every workload

Conventional precision cooling and liquid architectures for high-density AI halls.

Precision cooling for every workload
01

Air cooling

  • CRAC
  • CRAH
  • Chillers
  • Cooling towers
02

AI / high-density cooling

  • Direct-to-chip liquid cooling
  • CDU systems
  • Liquid distribution
  • Rear-door heat exchangers
03

Design services

  • CFD analysis
  • Thermal modeling
  • Airflow optimization
  • Heat load calculations

Section 03 & 08

AI-ready infrastructure

Built for the next generation of accelerated computing.

AI facilities demand far higher rack densities, electrical capacity and heat rejection than conventional enterprise halls — TECH21 engineers the power, cooling, fabric and storage together.

AI-ready infrastructure

GPU compute & racks

  • GPU cluster design
  • NVIDIA infrastructure readiness
  • AMD GPU infrastructure readiness
  • High-density rack engineering
  • 30 kW rack environments
  • 50 kW rack environments
  • 80 kW+ rack environments
  • 100 kW+ rack engineering

Fabric & storage

  • GPU fabric
  • InfiniBand
  • High-speed Ethernet 100G–800G
  • RDMA
  • AI storage
  • High-performance parallel storage
  • NVMe and object storage

Power, cooling & operations

  • Liquid cooling
  • CDUs
  • High-density electrical distribution
  • Power quality
  • AI cluster orchestration
  • GPU monitoring
  • AI security
  • DCIM integration

AI reference architecture

AI compute to users

AI Compute
GPU Fabric
High Performance Storage
Core Network
Cloud / Internet / Users

Energy & sustainability

Solar PV inside the data center energy strategy

TECH21 integrates photovoltaic generation with the facility's electrical architecture — reducing grid dependency, lowering operating energy cost and supporting Saudi Vision 2030 sustainability targets, without compromising the reliability of critical power paths.

PUE

Improved power usage effectiveness

CO₂

Reduced operational emissions

OPEX

Lower long-term energy cost

2030

Aligned with Saudi Vision targets

Solar photovoltaic array beside a modern data center facility

On-site solar generation

Rooftop, carport and adjacent ground-mount PV arrays serving non-critical and support loads, configured for self-consumption or net metering per utility requirements.

Hybrid grid integration

Coordinated grid, PV, generator and UPS topology with switchgear and controls engineered to preserve dual-path distribution and required transfer times.

Battery energy storage

Storage for load shifting, peak shaving and transition coverage, with sizing studies plus dedicated safety, ventilation and fire protection design.

Measurement & efficiency reporting

Live PV yield and facility consumption metering inside DCIM, with PUE, carbon and renewable-share reporting for stakeholders.

Feasibility and solar resource assessment
Facility load profile analysis
Electrical design and grid interconnection
Protection and power quality studies
Procurement, installation and testing
Operations, monitoring and maintenance

The achievable renewable share is defined per project after site, load and utility studies. Critical IT loads remain protected by the approved primary power sources at all times.

Request a data center energy study

Interactive tool

PV sizing & energy strategy estimator

Set your expected IT load, efficiency target and available area to see an indicative solar array size, energy contribution, savings and storage allowance for your data center. Results update instantly.

Interactive tool
1,000 kW
1.40 PUE
25 %
12,000
0.32 SAR / kWh

Indicative results

Total facility load

1,400 kW

Annual consumption

12,264 MWh / yr

Recommended PV capacity

1,752 kWp

Array area required

10,512

Annual PV generation

3,066 MWh / yr

Achieved renewable share

25.0 %

Annual energy cost saving

981,120 SAR

CO₂ avoided per year

1,686 t / yr

Suggested battery storage

420 kWh

Indicative PV CAPEX

4,905,600 SAR

Simple payback

5.0 years

Available area is sufficient for the modelled array.

Request a detailed energy study

Assumptions

  • Specific yield of 1,750 kWh per kWp per year for a fixed-tilt array in Saudi Arabia, including soiling, temperature and system losses.
  • 6 m² of installable area per kWp, covering module rows, spacing, walkways and maintenance access.
  • Continuous operation at the entered load for 8,760 hours per year; no seasonal or ramp-up profile applied.
  • Facility load calculated as IT load multiplied by the target PUE.
  • Indicative turnkey CAPEX of 2,800 SAR per kWp for supply, installation, protection and commissioning.
  • 0.55 kg CO₂ avoided per kWh of grid electricity displaced.
  • Battery storage sized for 15% of facility load over 2 hours of peak shaving.
  • Renewable share is capped at 60%; critical IT loads remain served by the approved primary power sources.
  • Simple payback excludes financing, escalation, incentives, O&M and net-metering credits.

Disclaimer

This estimator provides indicative, non-binding figures for early planning only. It is not an engineering study, a design document, a performance guarantee or a commercial offer. Actual capacity, yield, savings and cost depend on site solar resource, structural and land constraints, utility and grid-connection requirements, protection and power-quality studies, equipment selection and market pricing at the time of tender. TECH21 confirms all values through a project-specific feasibility and energy study.

Section 09

From the rack to the cloud

01

Compute & platforms

  • Server architecture
  • Compute
  • Virtualization
  • Private cloud
02

Storage & continuity

  • Storage
  • SAN
  • NAS
  • Object storage

Section 10

Network & telecom infrastructure

01

Switching & fabrics

  • Core switching
  • Spine-leaf architecture
  • Data center fabrics
  • LAN
02

Connectivity

  • Internet connectivity
  • Carrier diversity
  • Meet-Me Room
  • Cross-connects
03

Cabling & speeds

  • Structured cabling
  • Cat6A
  • Fiber OM4 / OM5
  • OS2 fiber

Section 11

24/7 Network Operations Center

NOC escalation levels (L1/L2/L3) describe operational support — distinct from facility Tier classification.

24/7 Network Operations Center
01

NOC design

  • NOC architecture
  • Control room design
  • Video walls
  • Operator consoles
02

Platforms

  • NMS
  • EMS
  • DCIM
  • BMS dashboards
03

Operations processes

  • Incident management
  • SLA management
  • Performance monitoring
  • Capacity monitoring
04

NOC support levels

  • L1 — Monitoring and initial response
  • L2 — Technical diagnosis and resolution
  • L3 — Senior engineering / vendor escalation

Sections 12–13

Security Operations Center & physical security

01

SOC capabilities

  • Cybersecurity monitoring
  • SIEM
  • SOAR
  • Threat detection
02

Physical security

  • Perimeter security
  • Anti-ram barriers
  • Bollards
  • CCTV

Section 14

Fire & life safety

01

Detection & suppression

  • Very early smoke detection / aspirating detection
  • Fire alarm
  • Clean-agent suppression where appropriate
  • Pre-action sprinkler systems
02

Life safety & compliance

  • Emergency exits
  • Emergency lighting
  • Fire-rated construction
  • Civil Defense coordination

Sections 15–16

The intelligent data center

DCIM, BMS and EPMS integrated into a single operational picture.

01

DCIM

  • Rack capacity
  • Power
  • Cooling
  • Space
02

BMS

  • HVAC
  • Temperature
  • Humidity
  • Leak detection
03

EPMS

  • Utility
  • Transformers
  • Generators
  • UPS
04

Facilities we plan

  • Data halls
  • Meet-Me Rooms
  • NOC / SOC / command center
  • UPS and battery rooms

Sections 17–18

Prove it before it goes live

Structured testing, commissioning and migration to a controlled go-live.

01

Testing & commissioning

  • Factory Acceptance Testing
  • Site Acceptance Testing
  • Pre-functional testing
  • Functional testing
02

Migration & go-live

  • Migration planning
  • Risk assessment
  • Dependency mapping
  • Server and storage migration

Sections 19 & 21

Operations, maintenance & deliverables

01

24/7 services

  • Facilities Management
  • NOC
  • MEP maintenance
  • Preventive maintenance
02

Studies & design documents

  • Feasibility report
  • Site-selection report
  • Concept design
  • Basis of Design
03

Engineering deliverables

  • Network architecture
  • Rack layouts
  • Single-line diagrams
  • Cooling schematics
04

Commercial & handover

  • BOQ
  • Cost estimate
  • Specifications
  • Tender documentation

Turnkey delivery

Design • Build • Integrate • Operate

Consulting
Engineering
Procurement
Construction
Integration
Commissioning
Handover
Operation

Standards & compliance

Engineered to applicable standards

Uptime Institute Tier principles
TIA-942
ISO/IEC 22237
EN 50600 where applicable
ASHRAE TC 9.9
NFPA 75
NFPA 76
IEC
IEEE
BICSI
Saudi Building Code
Saudi Civil Defense requirements
Saudi Electricity requirements
CST requirements where applicable
National Cybersecurity Authority requirements where applicable
Applicable Saudi data protection and regulatory requirements
Designed in accordance with applicable Uptime Institute, TIA-942, ISO/IEC, Saudi and project-specific requirements. TECH21 does not claim formal certification unless documented for the specific project.

Industries we serve

Mission-critical sectors across the Kingdom

Government
AI & Cloud
Banking
Telecom
Healthcare
Oil & Gas
Industrial
Universities
Smart Cities
Airports
Commercial defense-related infrastructure where legally applicable
Hospitality
E-commerce
Enterprise

Why TECH21

One team. Every discipline.

TECH21 provides clients with one coordinated project interface across multidisciplinary data center engineering and technology packages.

Civil
Architecture
Structural
Electrical
Mechanical
HVAC
Fire
IT
Network
Cybersecurity
NOC
Security
BIM
Project Management
Commissioning

Let's build

Build your next data center with TECH21

From an enterprise Tier II facility to a mission-critical Tier III/IV campus or next-generation AI infrastructure, TECH21 can support the full project lifecycle.

Data Center Capability Statement

A printable overview of TECH21 data center engineering, delivery and operations capability.

Request the capability statement