New-Site Readiness Assessment

6.1 Building the New-Site Physical Fact Base: Size, Layout, Access, Docks, Storage, and Parking

The physical fact base begins with the building, but it must go beyond basic square footage. A site brochure may describe total area, clear height, dock count, office space, and parking spaces. Those facts are useful, but they are not enough to determine whether the site can run the business. The move team needs to understand usable space, operating adjacencies, material flows, people flows, vehicle flows, expansion options, and constraints.

The first distinction is gross area versus usable operating area. Gross square footage includes spaces that may not support the future operation: columns, utility rooms, restrooms, corridors, mezzanines, unusable corners, fire lanes, mechanical rooms, offices, damaged floors, landlord-controlled areas, or spaces reserved for future expansion. Usable area is the space that can actually support production, storage, staging, offices, maintenance, quality, employee services, and circulation. A move plan built on gross square footage can create a false sense of capacity.

The layout assessment should document the building footprint, column grid, ceiling clear height, floor loading, door sizes, dock locations, grade-level access, office areas, support rooms, secure rooms, utility rooms, restrooms, locker rooms, break rooms, and emergency exits. It should also document what is missing. A warehouse may have ample storage space but too little staging. A plant may have room for equipment but inadequate maintenance access. An office may have enough desks but too few collaboration rooms, privacy rooms, or support spaces.

Access must be assessed from multiple perspectives. Truck access includes highway proximity, turning radii, gate configuration, yard depth, dock apron space, trailer parking, queuing, security checkpoints, and local traffic restrictions. Employee access includes commute patterns, parking, public transportation, pedestrian safety, shift-change congestion, and accessible entrances. Visitor and customer access includes reception, security, wayfinding, parking, and separation from operational areas. Emergency access includes fire lanes, emergency response routes, evacuation assembly points, and access for emergency vehicles.

Dock and yard readiness deserve specific attention. Docks are often bottlenecks because they connect the facility to the outside world. The team should evaluate dock count, dock height, levelers, seals, restraints, doors, weather exposure, yard layout, traffic circulation, trailer staging, live load and drop trailer practices, and inbound and outbound scheduling. A facility with ten docks may still fail if the docks are poorly positioned, shared with other tenants, constrained by yard traffic, or unsuitable for required vehicle types.

Storage capacity should be assessed by usable cube and operating logic, not only floor area. The team should consider racking, clear height, aisle width, sprinkler implications, product dimensions, pallet types, bin locations, temperature requirements, segregation needs, hazardous materials rules, quarantine areas, returns, waste, spare parts, tools, records, and temporary buffers. Storage design should reflect actual inventory behavior, including peaks, slow movers, quality holds, customer-owned inventory, and materials requiring special handling.

The physical fact base should end with a gap view. The question is not whether the site is attractive. The question is whether it can support the future operation without hidden bottlenecks. The output should identify physical constraints, required modifications, space trade-offs, sequencing issues, and decisions needed before layout design proceeds.

6.2 Assessing Power, Water, Gas, Compressed Air, HVAC, Drainage, Fire Protection, and Other Utilities

Utilities are one of the most common sources of facility move delay. Teams often assume that if a building has power, water, gas, HVAC, and fire protection, it can support the operation. That assumption is dangerous. A facility may have utilities, but not at the required capacity, quality, pressure, location, redundancy, compliance standard, or schedule. Utility readiness must be assessed against the actual requirements of the future operation.

Power assessment should begin with current service capacity and future load requirements. The team should understand main service size, transformer capacity, panels, switchgear, voltage, phase, distribution paths, grounding, power quality, backup power, metering, spare capacity, and utility provider lead times. Equipment may require dedicated circuits, special voltage, clean power, emergency shutdowns, or installation of new panels. Office moves also require power density for workstations, conference rooms, security systems, server rooms, charging, and employee amenities.

Water and gas should be assessed by capacity, pressure, quality, connection points, code requirements, and operational use. Water may support restrooms, cleaning, process operations, cooling, boilers, labs, food service, fire protection, eyewash stations, or sanitation. Gas may support boilers, ovens, dryers, process heating, cafeterias, or emergency systems. The team should identify whether existing service is adequate, whether upgrades require utility company work, and whether permitting or inspection steps are required before use.

Compressed air is frequently underestimated. Many manufacturing, packaging, maintenance, and material-handling processes depend on air pressure, dryness, filtration, distribution, and reliability. The team should determine required flow, pressure, dew point, air quality, compressor capacity, receiver tanks, piping, drops, drainage, redundancy, and maintenance access. A machine may be installed correctly but fail to perform if compressed air is inconsistent or undersized.

HVAC assessment should include both comfort and process needs. Office environments require temperature control, ventilation, humidity, indoor air quality, and zoning that match occupancy and work patterns. Manufacturing, labs, cold storage, clean rooms, electronic assembly, printing, food, pharmaceuticals, medical devices, and many other operations may require tighter temperature, humidity, filtration, pressure, or air-change controls. The team should distinguish base building HVAC from process HVAC. Base building systems may not be designed for production heat loads, dust, fumes, humidity control, or clean-room performance.

Drainage and wastewater requirements must be assessed early, especially where operations involve cleaning, process fluids, chemicals, food, laboratories, maintenance, cooling, or washdown. The team should review floor drains, trench drains, slope, oil-water separators, neutralization, sanitary versus process drains, containment, discharge limits, sampling points, permits, and local utility requirements. Drainage that looks minor during planning can become a major construction and compliance issue if floor cuts, permits, or treatment systems are required.

Fire protection must be matched to occupancy, storage, materials, racking, ceiling height, commodity classification, hazardous materials, and insurance requirements. The team should assess sprinklers, fire alarms, suppression systems, extinguishers, hydrants, hose connections, fire pumps, emergency lighting, exits, smoke control, and monitoring. Changes in racking, storage height, materials, or process use can trigger modifications even if the building was previously occupied.

Other utilities may include steam, chilled water, process gases, vacuum, dust collection, exhaust, nitrogen, oxygen, CO2, fuel systems, network connectivity, telecom, security infrastructure, environmental monitoring, wastewater treatment, and building automation systems. The readiness assessment should create a utility requirements matrix that identifies each utility, required capacity, current capacity, point of use, gap, upgrade owner, cost estimate, lead time, permit or inspection need, and readiness date.

6.3 Identifying Specialized Capabilities: Clean Rooms, Cold Storage, Labs, Security, Hazardous Materials, and Controlled Environments

Some facilities require capabilities that go beyond general building readiness. These specialized capabilities may be central to the move or may support a small but critical part of the operation. Either way, they must be identified early because they often carry long lead times, higher cost, validation requirements, specialized contractors, and regulatory or customer approval implications.

Clean rooms and controlled manufacturing environments require careful definition of performance requirements before design begins. The team should clarify required cleanliness classification, airflow, filtration, pressure relationships, temperature, humidity, gowning areas, material and personnel flows, cleaning procedures, environmental monitoring, maintenance access, and qualification evidence. It should also assess whether the building can support the required envelope, air handling, utilities, ceiling systems, walls, floors, drains, and pressure control. A clean room is not simply a room with better HVAC. It is an integrated operating environment.

Cold storage readiness should be assessed by temperature range, capacity, redundancy, monitoring, loading practices, product dwell time, door openings, backup power, alarms, and recovery procedures. Refrigerated, frozen, and temperature-controlled operations must consider how products move from dock to storage, from storage to processing, and from storage to shipping without breaking temperature control. The team should also assess defrost cycles, condensation, floor condition, insulation, door seals, dock shelters, and emergency response if the system fails.

Laboratory readiness depends on the type of lab and its role in the operation. Quality labs, R&D labs, metrology labs, microbiology labs, analytical labs, repair labs, and test labs have different requirements. The assessment should include benches, casework, ventilation, hoods, sinks, gases, electrical loads, vibration, temperature and humidity control, sample flows, waste handling, instrument calibration, data systems, access control, and documentation. A lab may be physically ready but not operationally ready if instruments are not qualified, methods are not transferred, or sample logistics are not defined.

Security requirements should be based on asset value, customer requirements, employee safety, data sensitivity, product risk, visitor patterns, and regulatory obligations. The team should assess perimeter control, gates, doors, badges, cameras, alarms, guard services, visitor management, secure cages, restricted rooms, key control, cybersecurity interfaces, and incident response. In a multi-tenant or shared site, security boundaries must be especially clear. The company must know what it controls directly and what depends on the landlord or another occupant.

Hazardous materials and controlled substances require specific review before occupancy or process startup. The assessment should identify materials, quantities, classifications, storage methods, segregation, secondary containment, ventilation, spill response, labeling, training, emergency plans, fire-code implications, waste disposal, transport, and reporting. The site may need permits, inspections, or engineered controls before these materials can be received. Hazardous waste and regulated waste should be included, not treated as afterthoughts.

Controlled environments also include humidity-controlled rooms, dry rooms, ESD-protected areas, high-security areas, food-grade areas, sterile or cleanable spaces, acoustic-sensitive rooms, records storage, server rooms, and areas requiring special lighting, vibration control, air pressure, or contamination control. The move team should identify the performance requirement, not only the room name. “Controlled room” is not sufficient. The requirement must state what condition is controlled, within what tolerance, how it is monitored, how exceptions are managed, and who signs off on readiness.

The output of this work should be a specialized capability register. Each capability should have an owner, technical requirement, design basis, qualification or commissioning requirement, supplier or contractor dependency, operating procedure impact, training requirement, monitoring requirement, and readiness gate. Specialized capabilities should not be buried inside the facilities plan. They are often decisive constraints on go-live.

6.4 Reviewing Zoning, Permits, Restrictions, Certifications, and Landlord Obligations

The new site must be legally and contractually able to perform the intended work. This is a broader question than whether the company can occupy the building. Occupancy approval, zoning use, environmental permissions, fire-code compliance, business licenses, customer certifications, quality approvals, insurance requirements, and landlord consent may all affect when and how the site can operate.

Zoning should be reviewed against actual use. A building may be zoned for industrial, warehouse, office, laboratory, light manufacturing, or mixed use, but the specific planned activity may still be restricted. Truck traffic, outdoor storage, noise, hazardous materials, waste, retail pickup, food handling, manufacturing, assembly, testing, or 24-hour operations may require additional approvals or may be prohibited. The team should not rely on general zoning labels. It should confirm the permitted use with qualified legal, real estate, or local permitting support.

Permits and inspections should be mapped by sequence. Some permits are needed before construction begins. Others are needed before equipment installation, hazardous materials storage, occupancy, production, shipping, environmental discharge, signage, or public access. The team should identify the issuing authority, application requirements, lead time, inspection prerequisites, dependencies, and responsible owner. Permit timelines can be unpredictable, so they should be built into the critical path rather than tracked as side tasks.

Restrictions may come from local authorities, neighbors, landlords, insurers, customer agreements, or internal policies. These can include limits on truck hours, noise, odor, parking, outdoor storage, waste handling, signage, visitors, security modifications, roof penetrations, floor cuts, structural changes, hazardous materials quantities, or hours of operation. A restriction that seems minor during site selection can become material when the operating design is finalized.

Certifications and approvals may be required before the new site can serve certain customers or produce certain products. These may include quality certifications, customer audits, regulatory registrations, food safety approvals, pharmaceutical or medical-device requirements, aerospace or defense controls, environmental certifications, security programs, or industry-specific standards. The team should determine whether certification can be transferred, amended, extended, or must be newly obtained. It should also identify what evidence is required: procedures, training records, equipment qualification, environmental data, inspection results, trial runs, or management-system updates.

Landlord obligations are critical in leased facilities. The lease may define what alterations are allowed, who approves contractors, who owns improvements, who maintains building systems, who pays for utility upgrades, what insurance is required, how hazardous materials are controlled, what signage is allowed, what restoration is required at exit, and what work must be performed by landlord-approved vendors. The move team should not wait until construction begins to discover that a wall penetration, roof unit, generator, racking system, or exterior sign requires landlord approval.

The output should be a permission-to-operate register. It should combine zoning, permits, restrictions, certifications, inspections, landlord approvals, insurance requirements, and customer approvals into one governed view. Each item should have a required-by date tied to move milestones. The move should not reach go-live with unresolved permission questions.

6.5 New-Site Readiness Checklist

The new-site readiness checklist brings the assessment together. It should not be used as a generic yes-or-no form. It should be used to confirm evidence, assign gaps, and decide whether the site is ready for the next stage of work. The checklist should be adapted by facility type and move scenario, but the core logic is consistent: the site must be able to receive the operation safely, legally, technically, and practically.

New-Site Readiness Checklist

• Site identity: Confirm address, ownership or lease status, site boundaries, tenant areas, shared areas, and intended operating role.
• Physical dimensions: Validate usable square footage, ceiling heights, floor loading, column spacing, door sizes, mezzanines, and expansion areas.
• Layout baseline: Obtain and validate drawings, current conditions, photos, measurements, and known discrepancies.
• Access: Assess employee, visitor, customer, supplier, carrier, emergency, and contractor access.
• Docks and yard: Validate dock count, configuration, yard depth, traffic flow, trailer parking, loading equipment, and scheduling assumptions.
• Storage: Assess usable cube, racking potential, staging, quarantine, returns, spare parts, records, hazardous materials, and temperature-controlled storage.
• Office and support space: Confirm offices, meeting rooms, break rooms, restrooms, locker rooms, training areas, first-aid areas, and administrative support spaces.
• Utilities: Confirm power, water, gas, compressed air, HVAC, drainage, fire protection, network, telecom, security, and other required systems.
• Utility gaps: Document upgrade requirements, owners, lead times, costs, permits, inspections, and readiness dates.
• Specialized capabilities: Confirm requirements for clean rooms, cold storage, labs, security, hazardous materials, controlled environments, server rooms, and other special areas.
• Permits and zoning: Confirm permitted use, required permits, inspections, application status, lead times, and restrictions.
• Certifications and approvals: Identify customer, regulatory, quality, safety, environmental, insurance, and industry approvals required before operation.
• Landlord obligations: Confirm approval rights, contractor rules, alteration limits, maintenance responsibilities, insurance requirements, signage rules, and restoration obligations.
• Safety readiness: Assess emergency exits, evacuation routes, fire protection, pedestrian paths, vehicle segregation, lighting, guarding, and temporary construction interfaces.
• IT and systems readiness: Confirm network access, Wi-Fi, telecom, badge access, cameras, printers, scanners, shop-floor devices, and systems infrastructure.
• Open gaps: List unresolved constraints, assumptions, decisions, owners, due dates, and impact on cost, schedule, risk, and go-live.
• Readiness gates: Define what must be true before construction, equipment move, employee move-in, inventory transfer, customer transition, and go-live.

A practical checklist should use status definitions. Ready means the requirement is confirmed and supported by evidence. Ready with actions means the gap is understood, owned, funded, and scheduled. At risk means the gap threatens a milestone or requires escalation. Not ready means the site cannot proceed to the next stage without leadership decision or corrective action.

The final output of the new-site assessment is not a report for the file. It is a readiness baseline that informs layout design, utility upgrades, contractor scopes, budget, permit planning, certification timelines, move sequencing, and go-live decisions. When the new-site fact base is complete, the team can move from optimism to execution. The site has been selected; now it must be made operational.