The scope includes the design, permitting, and construction of a state-of-the-art HPC data center that supports advanced computational needs driven by complex simulations, big data analytics, and AI workloads. Ensuring scalability, resilience, and energy efficiency. This project, a 1M+ GSF project, developed on a 200-acre site, consists of multiple data center and administrative buildings, an administrative building, a central utility plant, and supporting infrastructure.

The project consists of the demolition of an existing building and replacing it with a 2-story, 20MW+ data center. including a Tier II network, an administrative building, and a loading dock. The project includes 2 x 10MW colocation rooms, mechanical, electrical, security and operational facility support spaces, in addition to 4 networking rooms.

The project consists of building a 2-story, 20MW+ data center including a Tier II network, an administrative building, and a loading dock. The project includes multiple colocation rooms, mechanical, electrical, security and operational facility support spaces, in addition to several networking rooms.

The project consists of a 10MW+ data center including a Tier II network, administrative spaces, and a loading dock. The data center includes multiple colocation room, mechanical, electrical, security and operational facility support spaces, in addition to several networking rooms.

The project consists of building an 8MW+ data center by deploying multiple Modular Data Centers (MDC). The MDC is a fully self-contained, standalone piece of UL certified outdoor equipment containing all the components required to function as a traditional stand-alone data center structure such as server room modules, modular electrical rooms, emergency reserves modules, prefabricated modular corridors, and prefabricated facility operations support building.

The project consists of building an 12MW+ data center by deploying multiple Modular Data Centers (MDC). The MDC is a fully self-contained, standalone piece of UL certified outdoor equipment containing all the components required to function as a traditional stand-alone data center structure such as server room modules, modular electrical rooms, emergency reserves modules, prefabricated modular corridors, and prefabricated facility operations support building.

The project consists of replacing the existing UPS modules (750kVA/675kW), the associated battery disconnects, and cable trays from existing colocations with higher efficiency, double conversion UPS modules (750kVA/750kW) with new battery disconnects, 2x600kVA PDUs, panel boards, and associated feeders.

The project consists of building a 2-story, 20MW+ data center, including a Tier II network, an administrative building, and a loading dock. The project includes multiple colocation rooms, mechanical, electrical, security and operational facility support spaces, in addition to networking rooms.

A first-of-kind liquid immersion pilot deployed in an operational data center in Chicago, with an initial deployment of 10 x 34 kW liquid immersion tanks, followed by a final deployment of 30 x 34 kW tanks. The tanks functionality required revisions to the electrical system, looping in the chilled water system to a Tier II IDF network, installation of a hot aisle containment (HAC) system to support electrical, mechanical, telecom modules, spill protection assemblies, as well as steel gantry supports for the cooling system. The project goal was to transition from a current conventional cooling system to liquid immersion cooling, proving the viability and scalability of this technology.

A major sustainability initiative, spanning multiple continents to audit, design, and retrofit/upgrade a hyperscale data center fleet’s backup power generation from traditional diesel fuels to alternative, sustainable fuels. The effort involved assessing compliance requirements in multiple countries, evaluating and designing modifications to existing electrical systems and backup generators, and procuring and installing components to convert site backup generators and fuel tank systems to operate on alternative fuels.

Consists of the design and construction of a 20,000 GSF+ annex attached to an operational Mission Critical facility. The scope is developed as part of a long-term strategy to optimize cloud asset dispositioning, increase regulatory compliance, lead environmental sustainability, and maximize revenue generation for our client. The space is intended to allow the client’s facility operations and hardware teams to decommission end-of-life IT hardware, securely destroy critical components, and harvest recyclable materials and components.

The project consists of the design and construction of a 12,000 GSF+ annex attached to an existing operational Mission Critical facility. The project scope is developed as part of a long-term disposition strategy with an objective to optimize cloud asset dispositioning, increase regulatory compliance, lead environmental sustainability, and maximize revenue generation.

A first-of-kind, high-tech pilot to design, build, and test a prototype of a new Liquid Power System for use in data centers, then disassemble, package and ship, and deploy in an operational data center. The program is designed to achieve production of self-contained modules for energy conversion between liquid and electric power that are adaptable to a wide range of data center structures and layouts.

The project involves developing an existing facility into a new 21MW-capacity data center located in Kirkland. The scope includes upgrading and expanding the infrastructure to support high-performance data center operations, with the installation of advanced cooling systems such as Computer Room Air Handlers (CRAHs), chillers, and Dedicated Outdoor Air Systems (DOAS). These systems will ensure efficient cooling, air handling, and temperature regulation to meet the data center’s high power demands and maintain optimal operating conditions.

The project promotes sustainability by minimizing the need for new materials and reducing waste, ensuring that data centers can meet current and future demands effectively. Upgrading to advanced telemetry hardware significantly enhances data center operations by providing real-time insights into network performance, which improves monitoring and troubleshooting capabilities. This leads to increased efficiency and reliability, as potential issues can be identified and resolved quickly, reducing downtime. The improved accuracy in data collection and analysis optimizes resource usage, resulting in cost savings and better scalability to handle the growing complexity of modern data centers.