Open assembly
The project exposes the relevant floor area and can coordinate transitions and penetrations.
Renovation planning
Evaluate a Whole-Floor Renovation
Determine whether an open floor assembly, build-up allowance, project schedule, HVAC team, and service plan make a renovation suitable for waterless radiant.
[ FIT SCREEN ]
The renovation must control enough of the floor and mechanical scope.
Use the screen to distinguish a whole-floor opportunity from a small finish project that should not carry an embedded system.
Mechanical scope
The HVAC system, controls, cooling, and electrical work can be evaluated together.
Qualified team
The builder and refrigerant contractor can own protection, testing, commissioning, and service.
Common trigger events
- ■Full-floor replacement
- ■Major custom-home remodel
- ■New addition tied into mechanical work
- ■Radiant comfort requested before demolition
Usually not the starting fit
- ■Single small room with no broader mechanical scope
- ■Floor finishes already ordered with no build-up review
- ■No local refrigerant service partner
- ■Schedule does not allow design and hold points
[ PEOPLE + INPUTS + OUTPUTS ]
Define the operating requirements before implementation.
Inputs required
- ■Demolition and floor plans
- ■Existing structure and transitions
- ■Finish schedule
- ■Room loads
- ■Existing and proposed HVAC
- ■Electrical capacity
- ■Project team and schedule
Expected operating outputs
- ■Fit screen
- ■Assembly impacts
- ■Alternative comparison
- ■Required coordination list
- ■Go / revise / stop decision
[ CONTROLS + MEASUREMENT ]
Measure the workflow without inventing an outcome claim.
The program should define what requires approval and which leading indicators show whether the workflow is becoming more complete and usable.
Operating controls
- ■Existing-condition verification
- ■Floor-close inspection
- ■Testing records
- ■As-built layout
- ■Commissioning and service plan
[ DECISION QUESTIONS ]
Questions to resolve before scope is approved.
No. The renovation must provide enough access, build-up allowance, mechanical coordination, schedule, and qualified responsibility for an embedded refrigerant circuit.
Usually not. A small room may be better served by electric floor heat. Waterless radiant is more credible when the project controls a larger floor and the whole mechanical concept.
[ THE PROBLEM ]
The Problem
Homeowners often discover radiant heating during a kitchen, bath, or flooring project, but a small finish-only remodel may not provide the access, continuity, build-up allowance, mechanical coordination, or service plan required for an embedded refrigerant circuit. The key question is whether the renovation truly controls the whole floor and related mechanical work.
[ THE SOLUTION ]
How the System Addresses It
Review the renovation extent, demolition plan, floor structure, finish assembly, transitions, available build-up, penetrations, room loads, equipment location, cooling and humidity plan, electrical capacity, HVAC contractor, schedule, and inspection hold points. Compare waterless radiant with electric floor heat, hydronic radiant, and air-based alternatives for the actual scope.
[ INTENDED OUTCOME ]
The Operating Outcome
The intended outcome is an early fit decision that prevents a late, expensive substitution. Suitable projects move into detailed coordination; marginal projects receive a clear list of changes; finish-only or poorly controlled scopes should use another solution.
[ WORKFLOW CONTEXT ]
Connect the job to the capabilities and industry workflow.
Capabilities involved
Waterless Radiant Floor Heating
A heat-pump system sends refrigerant through engineered copper capillary loops beneath the floor for radiant heating. Cooling is handled through an air handler, and optional domestic hot water can be evaluated as part of the project. This is not a tankless water heater, an electric resistance mat, or an air-to-water hydronic loop.
Copper Capillary Floor Circuit
The embedded copper capillary layout distributes refrigerant through the heating floor. Material selection, circuit geometry, connection details, pressure testing, floor protection, commissioning, and future service ownership must be documented for the project.
Zoning & Control Strategy
Controls should reflect the actual building: room loads, floor response, occupancy schedules, air-side cooling, humidity, optional hot water, setbacks, alerts, and service access. App control is one interface, not the control strategy by itself.
Industry workflow examples
High-End Custom Homes
For custom-home owners and project teams comparing radiant, forced-air, mini-split, electric-floor, and hydronic options. The decision is not only how the rooms feel; it also includes floor construction, cooling and humidity, controls, local installer capability, commissioning, documentation, and future service.
Custom-Home Builders & Architects
For custom-home builders, architects, and mechanical design partners evaluating a premium all-electric comfort concept early enough to coordinate room loads, floor build-up, finish selections, equipment space, air-side cooling, controls, trade sequencing, and service responsibility.
More Use Cases
Plan a Cold-Climate All-Electric Custom Home
Coordinate radiant winter heat, air-side cooling, loads, electrical capacity, controls, floor assemblies, and service before the mechanical concept is fixed.
Qualify a First Waterless Radiant Partner Project
Turn contractor interest into a documented project review with clear inputs, responsibilities, hold points, commissioning, service, and expansion criteria.
Run an Early Builder & Architect Design Review
Put radiant heating, floor build-up, air-side cooling, controls, equipment space, trades, evidence, and service ownership on one design agenda.
Does one of these use cases match your project?
Share the building type, region, design stage, floor scope, HVAC team, timing, and current decision point. HT will review fit before proposing a next step.
Review Your Project