GREYVIC, LLC Computer Integrated Systems Design

The Hall Is Drawn Before the Rack Lands

GREYVIC, LLC is a computer integrated systems design and facility engineering practice working from its Layton design office at 1195 N 2100 W, Layton - 84041-2084. The firm draws the cold aisle, the power pathway, the airflow and the monitoring skeleton long before the first cabinet is bolted down. Every hall is planned aisle by aisle and load by load so that the room is ready the day equipment arrives.

Row A
Row B
>>>>> >>>>> >>>>>
Row C
Row D

Six Disciplines, One Continuous Elevation

Our work is organized the way a hall is organized: bottom to top, load by load. The six services below are delivered as a single connected engineering program, so the layout, the cooling, the power and the monitoring all agree with one another before construction begins. Each discipline is documented in a rack elevation set that the build team can follow without guesswork.

T1

Integrated Facility Layout

We model the whole hall as one integrated system rather than a list of rooms. Aisle pitch, row spacing, service clearance, delivery paths and maintenance access are resolved together so that the facility can be built in phases without ever blocking itself. Zoning studies establish where compute, power, cooling and storage should sit relative to one another.

Copper Grounding Reference Read the layout method
T2

Cooling and Airflow Planning

Thermal design begins with a clear cold aisle and an honest heat balance. We plan supply and return paths, containment strategy and set points so that airflow follows the aisle we drew instead of drifting over the tops of cabinets. The result is a room that holds its design temperature across the full load range.

Read the airflow method
T3

Power Pathway Design

Power is routed as a traced pathway: from the service entrance, through distribution and branch circuits, to the exact rack position that consumes it. We document breaker coordination, redundancy topology and receptacle mapping so that maintenance on one path never takes down an unrelated load.

Read the power method
T4

Rack and Containment Systems

Rack selection, baying, vertical clearances and containment hardware are specified as a set. Doors, blanking panels, brush strips and roof panels are chosen so the containment line stays continuous as cabinets are added later. Cable management is planned inside the same drawing, not left to the installer.

Copper Grounding Reference Read the rack method
T5

Monitoring and Sensor Networks

Sensors are placed where decisions actually happen: at the intake face, the return plenum, the branch circuit and the door frame. We design the sensor network, the naming scheme and the escalation thresholds so that operators see a condition change before it becomes a capacity problem.

Read the monitoring method
T6

Expansion and Migration Planning

Every hall we draw assumes it will grow. We stage the next row, the next power path and the next containment run so that expansion is a scheduled activity rather than an emergency project. Migration plans sequence the move of live equipment with defined checkpoints and rollback positions.

Read the migration method

GREYVIC, LLC opens its fourth-quarter facility survey window. Schedule a walkthrough of your hall and receive a written aisle-by-aisle assessment.

Engineering the Room Before the Equipment

Most facility problems are drawn into the building long before anyone notices them. A row placed six inches too close, a power path that shares a breaker with the wrong circuit, a return plenum that never had a clear route — each of these is a decision that was made early and then forgotten. GREYVIC, LLC exists to make those decisions deliberately. Our computer integrated systems design practice treats the physical hall and the digital systems inside it as a single engineered object, documented from the floor tiles upward.

We begin with an integrated facility layout that fixes aisle pitch, row geometry and service clearances against the actual delivery and maintenance equipment the site will use. From there, cooling and airflow planning establishes the cold aisle as the organizing line of the room. Power pathway design traces every circuit to its rack position. Rack and containment systems lock the physical line together. Monitoring and sensor networks make the resulting conditions visible. Finally, expansion and migration planning keeps the hall able to grow without a rebuild.

The output is a coordinated drawing set and a written sequence: what gets built first, what is left open for the next phase, and what conditions must be verified before the next load is energized. Teams receive drawings they can build from and checklists they can sign. Because the six disciplines are planned together, changes in one area do not silently invalidate another.

GREYVIC, LLC works from Layton, Utah and serves clients across the United States. Our teams are comfortable in new construction, in leased space with fixed constraints, and in operating halls where every change must be made without interrupting live loads. Whether you are drawing a first hall or adding a fourth row to an existing one, the method is the same: draw the aisle, trace the load, and verify before you energize. Explore our full facility services to see how each discipline is delivered.

How a GREYVIC Hall Comes Together

Our projects move through a deliberate sequence. We survey, we model, we draw, we stage, and only then do we energize. Each stage produces a document that the next stage depends on, so nothing is designed twice and nothing is assumed.

Survey and Constraint Mapping

We measure the room, the shell, the service entrance and the delivery path. Existing constraints are recorded before any design decision is made, so the layout fits the building that actually exists rather than a generic template.

Model and Coordinate

Layout, cooling, power, racks, sensors and expansion are modeled as one system. Conflicts between disciplines are resolved in the drawing, where changes are inexpensive, rather than on site, where they are not.

Stage and Verify

The build is sequenced into phases with defined checkpoints. Each phase ends with verification against the design before the next load is connected, keeping the hall safe and auditable throughout construction.