What Goes Into a Complete Kitchen Cabinet Shop Drawing Set

Kitchen cabinets look deceptively simple on paper. But a drawing set that's missing the right views — or that leaves the drafter's assumptions for the fabricator to sort out — causes problems at every stage: wrong material orders, miscut panels, appliances that don't fit, and installers improvising on site. The purpose of a complete kitchen cabinet shop drawing is to eliminate every one of those questions before a single panel is cut.

Our cabinet shop drawing services cover residential kitchens through high-end commercial cabinetry. This guide walks through exactly what a complete set includes — and what gets left out in drawings that cause the most field problems.

The Floor Plan: Anchor for Everything Else

The kitchen floor plan is the foundation drawing. It establishes the spatial relationship between all base and wall cabinet runs, appliance locations, islands, and room boundaries. Everything else in the set is keyed back to it.

A production-ready floor plan shows overall room dimensions with wall-to-wall measurements at multiple reference points, since walls in real kitchens are rarely perfectly parallel or square. It shows the centerline of all appliances — refrigerator, range, dishwasher, microwave — with rough opening (RO) dimensions and clearances to adjacent cabinetry. Filler strips get their own callouts: a 3" filler between the refrigerator and a wall cabinet looks trivial on a design drawing but needs to be explicitly dimensioned on the shop drawing or the fabricator will make it wrong.

Corner treatments require specific attention on the plan. Blind corner cabinets, lazy Susan units, and diagonal corner cabinets each need their own dimensioning approach. The plan view needs to show the actual clearance inside the cabinet at the corner so the installer knows what access they have, not just the nominal opening size.

Elevations: The Face View Every Fabricator and Installer Uses

Elevations are drawn for every distinct wall run — base cabinets, wall cabinets, and tall units like pantries and oven towers. Each elevation shows the full face of the cabinet run in one view, with door and drawer layouts dimensioned from a consistent reference point (typically the floor or the top of the base run).

What elevations must show:

• Door and drawer heights: Each door and drawer face dimensioned individually, not just the cabinet overall height
• Reveals: Face frame reveal dimensions (for face frame construction) or gap dimensions between door faces (for frameless)
• Overlay type: Full overlay, half overlay, or inset — this affects every door and drawer hinge specification
• Applied end panels: Where visible ends receive a finished panel, call it out with the material and thickness; don't assume the fabricator knows which ends are exposed
• Toe kick height and depth: Standard is 3.5" high, 3" deep — but any deviation must be called out explicitly
• Hardware indication: Pull or knob location dimensioned from corner and from floor; this gets transferred to the CNC hole-boring file

Wall cabinet elevations follow the same rules. Also include the height above finished floor (AFF) dimension for the bottom of the wall cabinet run — this is almost always 18" above the countertop but needs to be confirmed and called out, especially around windows and above appliances where it deviates.

Section Views: Where Fabrication Detail Actually Lives

A section cut through a cabinet at the right location tells the fabricator more than any elevation can. The section view shows what happens inside the box: material thicknesses, shelf pin hole patterns, drawer box heights, soft-close hardware rough-in dimensions, and how the face frame connects to the box.

For a basic residential kitchen, one section per cabinet type (base, wall, tall) typically covers it. Custom cabinets — appliance garages, integrated refrigerator panels, built-in microwave cabinets — each need their own section because the internal configuration differs from the standard box.

What every section must show:

• Box dimensions (interior clear width, depth, and height)
• Material thickness callouts for sides, top, bottom, back, and any interior dividers
• Drawer box height and its relationship to the drawer face height
• Shelf positions (fixed and adjustable) with pin spacing noted
• Face frame dimensions if applicable: stile width, rail width, and attachment method
• Countertop substrate or support blocking if the cabinet carries stone

Material and Hardware Schedules

Material callouts on the drawing itself — noting "maple plywood" on a section cut — are useful but not sufficient for production. A proper material schedule summarizes everything in one place: substrate species and grade, core type (veneer core vs. MDF core vs. combination core), face material (solid wood species, veneer, or paint-grade MDF), and edge banding specification.

Hardware schedules deserve equal attention. For a 15-cabinet kitchen, specifying drawer slides by name matters: a Blum Tandem 563H has different rough-in depth requirements than a Grass Nova Pro, and if the drafter doesn't call out the brand and model number, the fabricator has to either call for clarification or guess. Include hinge brand and cup size — a 35mm cup Blum Clip Top vs. a 26mm cup Grass Tiomos has different boring dimensions. These details should be in the drawing, not in a separate email that might not make it to the shop floor.

See our guide on what a complete millwork drawing set must include for the full checklist that applies across all cabinet and millwork types.

CNC Compatibility: What Shops Running Automated Equipment Need

Shops running CNC routers and point-to-point machines need more from a drawing than shops cutting by hand. The material thickness you call out on the drawing must match actual available stock, not nominal sizes — a "3/4" plywood panel in the real world is typically 23/32" or 18mm, and CNC nesting software using 0.75" will produce parts that don't assemble correctly.

For CNC compatibility, confirm with the shop:

• Part naming convention (some shops use cabinet number + part code, others use part description)
• Whether drawings need a cutlist in the DWG file or as a separate spreadsheet
• Edge banding notation — whether the drawing should call out which edges get banding or just specify the material and leave it to the CNC program
• Grain direction — especially critical for visible faces with directional veneers or matched grain patterns

A drawing set produced without this information forces the shop operator to make decisions that should have been resolved in the drawing phase. See our cabinet drawing rates for an overview of what different project types typically cost.

Face Frame vs. Frameless Construction: How the Drawing Changes

Face frame and frameless (European box) construction require different drawing approaches, and a drafter who only knows one can produce an unusable set for the other.

Face frame drawings add a drawing layer for the frame itself: stile and rail dimensions, the reveal between adjacent doors (typically 1/8" for inset, varies for overlay), face frame attachment method (pocket screws, biscuits, or dowels), and how the face frame aligns with the box edge. The section view needs to show the applied face frame in relationship to the box, not just the box alone.

Frameless drawings eliminate the face frame but require more precise box dimensioning because the door and drawer faces attach directly to the box sides. The hinge boring pattern — cup hole center to door edge — is the critical dimension that must be correct. For frameless hinges, 37mm from the door edge to cup center is standard for a 35mm cup; European hinges have specific overlay requirements that translate directly to boring dimensions.

In my experience, the most common error in frameless cabinet drawings is using face frame hinge boring dimensions. The result is a door that either has too much or too little overlay — and by the time that's discovered, all the panels are drilled.

Frequently Asked Questions