MODULE X
SERVER RACKS
Modular Server Racks
Modular Architecture as a Strategic Asset for Your Data Center
In today’s environment, technology becomes obsolete faster than facilities are commissioned. Conventional IT racks become an anchor that drags the business down. We rewrote the rules by transforming the server rack from a cost item into an Adaptive Technology Platform.
Context of Modern Infrastructure
Today, data center operators, cloud providers, and HPC environments face a structural paradox. You must design infrastructure 5–10 years ahead, but the technological landscape refreshes every two years.
- Compute density is accelerating (AI, ML).
- Power consumption is increasing.
- Cooling requirements are tightening (transition to liquid cooling).
- Budgets are strictly controlled by investors and ESG frameworks.
The traditional model relies on purchasing monolithic racks. You choose a configuration once and hope it remains viable.
The Trap of Static Architecture and “Frozen” Capital
The fundamental flaw of monolithic racks is rigidity. A standard welded cabinet is a technological dead-end.
CAPEX Problem: Overpaying on Day One
To remain future-proof, you are forced to purchase “maximum configuration” upfront. You pay for capabilities you do not need today (seismic upgrades, liquid-cooling readiness, OCP form factor) “just in case.”
This freezes hundreds of thousands or even millions of dollars in idle capital.
OPEX Problem: Costly and Slow Modernization
What happens when technology shifts?
- Example: Switching from air cooling to liquid cooling (RDHx or Direct-on-Chip).
- Reality: A standard rack cannot accommodate this transition quickly. You must remove the rack entirely, shut down servers, extract hardware, dispose of the old cabinet, and purchase a new one.
- Result: High downtime, labor cost, and disposal overhead.
Form-Factor Lock-In
Migrating from classic 19-inch to OCP (Open Compute Project) typically requires a full infrastructure replacement in a standard hall.
Root issue: You either overpay now (CAPEX) or pay triple later (OPEX + Downtime).
Cost of Inaction
If you continue using standard welded racks, the consequences become structurally damaging:
- Financial Loss: TCO grows exponentially during any upgrade.
- Technological Lag: Fear of complex upgrades delays adoption of high-density technologies, reducing competitiveness.
- Energy Inefficiency: Poor aerodynamics and high air-bypass ratios force cooling units to overwork, worsening PUE and carbon footprint.
- Downtime Risk: Full rack replacement leads to hours or days of service interruption.
NEED–PAYOFF MODULE-X: Modular Construction as Your Competitive Advantage
We eliminate the tradeoff between saving today and preparing for tomorrow.
MODULE-X is a modular platform engineered to evolve with your infrastructure.
CAPEX Optimization: Pay Only for What You Need
Avoid overprovisioning. The block-based structure allows you to assemble the exact configuration required for your current project.
- Need a basic colocation rack? We supply a lightweight configuration.
- No unnecessary options. Working capital remains free.
OPEX Revolution: Fast and Cost-Efficient Upgrades
The core advantage of MODULE-X is transformation without structural replacement.
Air → Liquid Cooling Scenario
Instead of purchasing a new liquid-ready rack and dismantling the old one, you simply install an RDHx or Direct-on-Chip manifold module.
- Result: Upgrade requires hours, not days. Downtime cost reduction up to 80%.
19-inch → OCP Scenario
You do not replace the entire rack. You replace only two structural frames.
- Result: Hyperscale-grade flexibility without capital disruption.
Engineering Excellence in Every Detail
- Aerodynamics & PUE: Smooth structural panels and deflectors create a laminar airflow. Air bypass ratio is minimized, improving PUE by 10–20%.
- Seismic Readiness: For seismic zones, simply integrate NEBS-compatible isolation modules. The 3-mm steel frame supports loads up to 1500 kg.
- Operational Ergonomics: Integrated vertical organizers and recessed PDU channels ensure unblocked airflow and immediate service access.
MODULE-X
Not just a rack.
A foundation for adaptive infrastructure.
Buy only what the project requires now. Upgrade with minimal cost later.
TCO Comparison (5-Year Horizon)
The calculation illustrates how static racks force you to “pay twice,” while modular architecture protects your budget.
Scenario: “Evolution into AI”
A typical data center lifecycle:
- Year 0: Project launch. Standard load (5–8 kW per rack). Air cooling is sufficient.
- Year 3: Business adopts AI/ML workloads. Density rises to 20–30 kW. Liquid cooling (RDHx) becomes mandatory.
Comparison: Standard premium rack vs. MODULE-X.
TCO Comparison Table (Per Rack)
Cost Item Standard Monolithic Rack MODULE-X (Modular Architecture) 1. CAPEX (Year 0) $1,500–$3,000 $1,500–$2,500 What You Buy Complete fixed rack Modular platform 2. Upgrade Event (Year 3) FULL RACK REPLACEMENT MODULE REPLACEMENT ONLY Upgrade Hardware $3,500 (new liquid-ready cabinet) $2,200 (RDHx module only) Disposal Loss $1,500–$3,000 (Year-0 investment lost) $0 (reuse of components) 3. OPEX (Labor) $1,600 (16 man-hours) $250 (1–2 man-hours) TCO Over 5 Years Scenario A (min CAPEX): $6,600 Scenario C (min CAPEX): $3,950 Scenario B (max CAPEX): $8,100 Scenario D (max CAPEX): $4,950
Problem Analysis and Engineering SolutionsProblem 1: “Death of Investments” (CAPEX Loss)
In the traditional approach, buying a new rack for upgrades destroys the original $1,500 investment. You literally discard capital.
MODULE-X Solution:
Your baseline investment remains active indefinitely. You only swap modules when required.
Problem 2: “Administrative Nightmare” (OPEX Overhead)
Replacing a monolithic rack is a logistical operation: de-cabling, removing heavy servers, temporary storage, metal disposal.
High risk, high labor, and high stress.
MODULE-X Solution:
Modular upgrades require shallow intervention by one or two engineers.
Problem 3: Energy Efficiency as a Hidden Tax
Standard racks often have gaps and non-optimized geometry that produce turbulence and disrupt airflow.
MODULE-X Solution:
Front aerodynamic modules create a laminar stream with Air Bypass < 1–2%.
Even without liquid cooling, MODULE-X saves hundreds of dollars annually through efficient airflow management.
Key Conclusion
Using MODULE-X modular architecture delivers $3,150 to $7,150 in savings per rack over five years, depending on baseline monolithic rack cost.
Savings are driven by eliminating CAPEX loss during upgrades and drastically reducing OPEX (labor cost drops from $1,600 to $250).
- New Data Centers
- Cloud providers and Major IT Companies
- High-Performance Computing Users
- Research Institutions
- Financial Institutions
- Software Developers
MODULE-X allows you to pay only for what generates value today. No inflated upfront CAPEX. Most importantly, OPEX during scaling becomes negligible: transitioning to liquid cooling or OCP requires replacing a single module—not the entire rack.
Hazardous Substance Evaluation:
– The product fully complies with the European RoHS directive and either contains no prohibited substances or maintains them within allowable limits.
Manufacturing Process:
– Production takes place at facilities certified to ISO 14001 standards, ensuring high environmental management practices at every stage.
Operation:
– The product emits no harmful substances, generates no noise, and requires no special precautions during use.
– It consumes no electricity, and maintenance does not require any special procedures.
End of Life Cycle:
– The product is designed with up to 95% recyclability by weight, including metals and plastics that can be processed using existing methods.
– No special disposal measures are needed; the product can be recycled through standard procedures.
Systematic Approach:
– The product complies with the RoHS directive and is suitable for use in assemblies and installations without restrictions.
– It is designed with eco-friendly principles, reducing its environmental impact.
MODULE-X is not just a steel enclosure.
It is a financial and engineering safety mechanism for future change.
Performance, Reliability, and Cost Reduction
Operational Cost Optimization
“The liquid cooling system significantly reduces operating costs, leading to lower energy consumption and maintenance costs in the long run. This helps minimize PUE and your carbon footprint.”
High-Density Equipment Deployment
“With support for up to 54RU and a load capacity of up to 1500 kg, the Server Racks optimizes space and power usage, ensuring stable operation even in high-density environments.”
Protection for Critical Equipment
“Vibration isolation and seismic resistance mean that your equipment is safe even in seismically active regions. The racks protect data and mission-critical systems from external impacts.”
💡 What do you feel? – Peace of mind knowing that your equipment is protected and running at maximum efficiency, minimizing operational costs. Confidence in a high-tech infrastructure that can withstand any challenge.
Simplified Work and High Reliability
Innovative Solutions for Quick and Easy Installation
“Installing equipment is quick and hassle-free. We’ve made sure everything is in place: standard mounting, easy access to components, and cable organizers. You won’t waste time on setup and adjustments.”
Reliability in the Harshest Conditions
“It doesn’t matter how unstable the environment is. The Server Racks is resistant to vibrations and seismic impacts. You can be sure that the equipment will keep running even under heavy loads and in seismically active regions.”
Efficient Cooling with Minimal Maintenance
“The integrated liquid cooling system reduces energy costs and simplifies maintenance. It allows you to not only save on cooling but also quickly address potential temperature issues.”
💡 What do you feel? – Confidence that installation and maintenance will be quick and seamless. Peace of mind knowing that the equipment is reliable and performs efficiently in any condition.
Profit, Sustainability, and Environmental Responsibility
Investments That Pay Off
“The Server Racks offer long-term savings through low operating costs and enhanced reliability. You reduce maintenance costs and extend equipment lifespan, which leads to higher returns in the long run.”
Enhanced Status Through Environmental Responsibility
“Modern ESG standards demand the use of energy-efficient and eco-friendly solutions. RDHx helps reduce your carbon footprint and energy consumption, enhancing your reputation as a company focused on the future. This will attract new investors and clients.”
Flexibility and Lower Capital Expenditure
“By choosing modular equipment that can be scaled and adapted to new needs, you reduce upfront costs for long-term investments and improve your business scalability. This opens up new opportunities for growth.”
💡 What do you feel? – Confidence that your investment is sound, with a sustainable business model. Pride in being part of a company that cares for the future, and peace of mind knowing your money is working for you.
Innovation is not about saying yes to everything. It’s about saying no to all but the most crucial features.
- Height: Up to 54U
- Width: 600 mm
- Depth: 1000 mm and 1200 mm
The primary rack modules consist of welded 2 mm thick steel structures, providing high static load capacity and reliability up to 1500 kg.
- Structural Module with Smooth Side Surfaces:
Engineered with aerodynamic principles in mind, this module features smooth, tapered surfaces to minimize air resistance and promote laminar airflow. This enhances air circulation efficiency, improves equipment ventilation and cooling, prevents stagnant zones, and ensures uniform airflow distribution. - Structural Module with Vertical Cable Organizer and PDU Niche:
Equipped with a vertical cable organizer, this module facilitates structured cable placement, preventing airflow obstruction and ensuring unimpeded air circulation critical for effective cooling. The integrated vertical PDU niche accommodates power distribution units without interfering with airflow, optimizing ventilation and space utilization.
- Front Door:
A single, perforated door designed for optimal ventilation and heat exchange within the system. It incorporates an integrated LED indication system for real-time visual monitoring of equipment status, enhancing operational oversight. - Rear Door:
A double-hinged, perforated door engineered for efficient air circulation and thermal balance. The dual-panel design minimizes the opening radius, optimizing space usage while providing convenient access to internal components, streamlining installation, maintenance, and equipment replacement processes.
- Side profiles for 1000 mm or 1200 mm depth cabinets
- Roof and base for 1000 mm or 1200 mm depth cabinets
- Removable side panels for 1000 mm or 1200 mm depth cabinets
- Direct-on-Chip Liquid Cooling Collector Module:
This module is designed for secure mounting of Direct-on-Chip liquid cooling collectors, enabling seamless integration with advanced cooling solutions at the processor level. Its versatile design supports installation on either the front or rear of the rack, depending on cooling system connection points, ensuring adaptability and efficient coolant distribution. - Rear Door Heat Exchanger (RDHx) Module:
The RDHx module provides a highly efficient thermal energy absorption solution through direct heat exchange between warm exhaust air from equipment and a circulating coolant (e.g., water or refrigerant). It features a high-density heat exchanger paired with energy-efficient fans, reducing outlet air temperature and alleviating the burden on external cooling systems. Its compact, ergonomic design allows integration into standard racks without significant modifications, simplifying installation and maintenance. - Deflectors:
Deflectors offer an effective solution for optimizing airflow management in server cabinet cooling systems. Configured as a cluster of elements mounted on the front perforated doors, they redirect a greater volume of cooling airflow directly into the cabinet. Designed with aerodynamic principles, deflectors enhance airflow trajectory and volume without additional energy input, intensifying heat exchange, boosting cooling performance, and reducing thermal stress on equipment. - SEISMIC Component:
The SEISMIC component is a specialized module engineered to enhance the seismic resilience of server racks and equipment under dynamic loading conditions. Integrated into the system, it ensures stability and protection against vibrations from seismic activity or mechanical disturbances. Featuring reinforced mounting elements and damping nodes, its design adheres to dynamic engineering principles, effectively absorbing and distributing vibrational energy to maintain structural integrity.
SALES PROCESS (CUSTOMER INTERACTION)
The sales process in the Made-to-Order (MTO) model is based on product customization, strict adherence to customer requirements, and control over all stages—from initial communication to final delivery.
Stage 1: Needs Assessment and Initial Communication
Process Overview:
– The customer fills out a brief, specifying key equipment requirements (technical specifications, operating conditions, budget, and deadlines).
– If exact data is unavailable, a predefined selection of parameters based on the application is provided.
– The customer receives access to an online form or PDF questionnaire to facilitate information collection.
Actions Taken:
– A technical specialist analyzes the submitted data and forms a preliminary assessment of potential solutions.
– If clarifications are required, an additional consultation is conducted (via call, video conference, or email).
– The customer receives confirmation of request processing within 24–48 hours.
Stage Duration: 1–3 business days.
Stage 2: Preparation of the Commercial Proposal
Process Overview:
– Based on the collected data, specialists prepare a customized commercial proposal (CP).
– The CP includes:
– Equipment description and technical specifications.
– Available configuration options.
– Production and delivery timeframes.
– Pricing, including any customization costs.
– Alternative configurations (if applicable).
Actions Taken:
– The customer receives technical documentation (schematics, specifications, implementation examples).
– The proposal validity period and revision conditions are clearly defined.
Stage Duration: 3–5 business days.
Stage 3: Detailed Discussion and Final Order Confirmation
Process Overview:
– The customer reviews the proposal and provides feedback.
– Technical modifications, configuration adjustments, and service conditions (warranty, support) are discussed.
– A virtual meeting is conducted for final negotiations.
Actions Taken:
– If necessary, the proposal is revised, and a Final Agreement Document is prepared, fixing all key order parameters.
– Production and delivery schedules are confirmed and documented.
– If additional guarantees are required, a Service Level Agreement (SLA) is signed.
Stage Duration: 2–5 business days.
Stage 4: Invoice Approval and Payment
Process Overview:
– Based on the finalized CP, the customer receives a final invoice for payment.
Actions Taken:
– Payment structure is defined:
– 50% prepayment – initiates production.
– 50% balance payment – upon completion of assembly and readiness for shipment.
– Flexible payment terms may be offered for large orders.
– Shipping costs and logistics conditions are reviewed and confirmed.
Stage Duration: 1–3 business days after final order confirmation.
Stage 5: Production and Order Status Updates
Process Overview:
– Production begins once the prepayment is received.
– The customer receives regular updates on order status via a personal account or email notifications.
– Key production milestones:
– 30% completion – component procurement and preparation.
– 60% completion – core assembly finalized.
– 90% completion – testing and final inspection.
Actions Taken:
– The customer can request urgent modifications if technically feasible.
– If schedule adjustments are necessary, the customer receives an official notification with updated timelines and reasons.
Stage Duration: 4–12 weeks, depending on order complexity.
Stage 6: Final Preparation and Delivery
Process Overview:
– The final quality control and testing procedures are completed.
– All necessary shipping documents (certificates, invoices, customs declarations) are prepared.
– The customer is notified of shipment readiness.
Actions Taken:
– A final order verification is conducted based on a checklist.
– Direct shipment from the production facility is arranged to avoid intermediate handling.
– A tracking number and contact details of the responsible logistics coordinator are provided.
Stage Duration: 3–7 business days (depending on logistics).
Conclusion: Why Is This Process Effective?
Transparency and control – customers receive real-time updates at every stage.
Customization – solutions tailored to specific business requirements.
Flexibility – modifications are possible at key stages.
Risk minimization – fixed schedules and contractual execution conditions.
This structured approach ensures efficiency, predictability, and high-quality customer interactions in the Made-to-Order model.
The standard warranty on equipment is 3 years and covers all metal parts. This warranty protects against manufacturing defects and failures that may occur when the product is used as intended.
Warranty Details:
1. Warranty Period:
– The warranty period is 3 years from the date the equipment is shipped to the client.
2. Scope of Warranty Coverage:
– The warranty applies to all metal components, including the frame, mounting profiles, doors, panels, and other structural parts. It covers manufacturing defects in the metal, such as deformation, cracks, fractures, or corrosion that affect the equipment’s functionality.
– The warranty does not cover non-metal parts, such as locks, plastic or rubber components, seals, electronic parts, or separately supplied accessories.
3. Operating Conditions:
– The warranty is valid only if the equipment is used according to its intended purpose and in compliance with all operating conditions outlined in the manufacturer’s instructions.
– Damage resulting from misuse, improper installation, exposure to aggressive chemicals, or mechanical impacts is not covered.
4. Warranty Claim Procedure:
– If a defect is found, the client should contact support, describe the issue, and provide photographic or other evidence of the defect.
– If necessary, the equipment or its part may be sent for inspection to determine the cause of the defect.
– If the defect is confirmed to fall under warranty, the manufacturer will repair or replace the damaged part at no cost to the client.
5. Warranty Exclusions:
– The warranty does not cover damage caused by external factors such as fires, natural disasters, liquid exposure, or corrosion due to exposure to aggressive substances.
– Instances in which the equipment was modified or repaired by unauthorized personnel are also excluded from coverage.
These warranty terms provide assurance of the durability and reliability of the equipment’s metal components, offering support and protection to the client throughout the equipment’s service life.