Views: 0 Author: Site Editor Publish Time: 2026-08-23 Origin: Site
An OEM portable camping kitchen project should not begin with a burner, a folding table or a list of accessories.
It should begin with a more practical question:
How will people actually cook, sit, talk, serve food and move around the kitchen at the campsite?
That question is especially important in a market already crowded with folding cabinets, standalone stoves and vehicle-mounted drawers. Adding another worktop or changing the colour of an existing product rarely creates a meaningful reason for distributors or retailers to introduce a new range.
INTECAMP takes a different starting point. Our product development work is built around a low-profile, group-oriented concept that keeps the person preparing the meal closer to everyone else.
We call it seated social cooking.
Instead of placing the cook at a standing-height station on the edge of the campsite, the kitchen can be arranged around low camping chairs and shared activity areas. Cooking, preparation, washing and serving become part of the gathering rather than a separate task performed with the cook’s back to the group.
For outdoor brands, importers, distributors and RV or 4×4 accessory suppliers, this creates more than a visual difference. It provides a clear product story, a modular assortment structure and a platform that can be developed for different retail channels.
This article explains how INTECAMP approaches the OEM portable camping kitchen development process, from the first commercial brief to pilot production and market launch.
Published by the INTECAMP Outdoor Product Development Team
Last reviewed: August 22, 2026
An OEM portable camping kitchen is a campsite cooking and organisation system manufactured according to a buyer’s approved product specification, branding and commercial requirements.
Depending on the project, it may combine:
A cooking module
Food-preparation surfaces
Washing or sink functions
Storage for cookware and ingredients
Folding or detachable tables
Wheels and a transport handle
Lighting or accessory mounting points
Gas, barbecue, induction or table-only configurations
Retail packaging and private-label presentation
OEM development can range from applying a buyer’s branding to an existing platform to creating a substantially modified product with new dimensions, materials, modules or structural features.
ODM development goes further. The manufacturer participates in product definition, engineering, prototyping and design-for-manufacturing work rather than producing only from a completed buyer drawing.
INTECAMP supports both approaches. The correct route depends on the buyer’s sales channel, investment level, expected order volume, launch schedule and desired degree of product exclusivity.
Traditional camp kitchens are usually designed as standing-height workstations. They can be effective for extended food preparation, commercial catering and customers who prefer an upright working posture.
However, this format often places the kitchen beside a vehicle, against a tent wall or at the outer edge of the campsite. One person stands and cooks while the rest of the group sits around a table, awning or firepit.
The equipment performs its mechanical function, but the campsite layout separates the cook from the social space.
That separation creates an opportunity for a different product category.
A seated camping kitchen can bring the working surfaces closer to the height of low outdoor furniture. Modules can open around the storage body, allowing several users to participate in preparation, serving or cleaning without turning the kitchen into a barrier between people.
The purpose is not to claim that seated cooking is universally better. It is to give outdoor brands a distinctive alternative for:
Family car camping
Couples and small groups
RV and caravan travel
Overlanding
Campsite rental fleets
Outdoor hospitality
Social backyard use
First-time campers who value intuitive setup
A credible OEM program should therefore begin by deciding which experience the product is intended to create—not by copying the dimensions of an existing folding table.
Lowering the working height alone does not create a successful seated kitchen.
A proper group-oriented layout requires several connected design decisions.
The cook should be able to see and speak with other people without continually turning away from the working area. Module direction and seating position therefore matter as much as the total worktop area.
Frequently used items should remain within a comfortable seated reach. Burner controls, utensils, chopping surfaces and serving areas cannot simply be positioned according to the geometry of the folded box.
A low cooking system must maintain a clearly defined heat zone. Cooking equipment should be separated from knees, seating fabric, food-preparation surfaces and frequently used storage access points.
Final clearances depend on the selected appliance, configuration and destination-market requirements.
The deployed kitchen should not block the route between the vehicle, chairs and dining area. Side tables and extension modules need to create useful surfaces without becoming obstacles at night or in a compact pitch.
A camping kitchen loses much of its value if users must remove the cookware, stove or table components before reaching the main storage area. The opening sequence should preserve access to food, cookware and accessories throughout normal campsite use.
A lower centre of gravity can support stability, but the complete product must still be evaluated in its fully deployed configuration. Table loads, uneven ground, opened modules and user interaction can all change how forces pass through the structure.
These details are considered during concept development and prototype review. They are also why a seated kitchen should be developed as a complete system rather than a collection of unrelated components.
The INTECAMP EC2.0 platform illustrates the storage-first, outward-deploying design approach.
The published EC2.0-G reference configuration has an expanded working height of approximately 422 mm. Its cooking and table surfaces open around a central mobile storage body, placing the kitchen closer to the level of common low camping chairs.
This dimension is specific to the referenced model and should not automatically be applied to every OEM project.
The underlying development logic is more important than one measurement:
Preserve useful storage volume during transport.
Deploy the main functions around the central body.
Keep the kitchen accessible after setup.
Position the user toward the group where practical.
Allow cooking, preparation and washing modules to be configured for the intended market.
Return the complete system to a manageable transport format.
The result is a product that can function as a storage unit during travel and become a social kitchen at camp.
A professional development program needs clear decision gates. Moving directly from an attractive sketch to mass production usually creates late changes, unclear responsibilities and avoidable tooling costs.
The following process provides a practical framework.
Development Stage | Main Question | Typical Buyer Approval |
|---|---|---|
1. Commercial brief | Who will buy the product and through which channel? | Approved product brief |
2. User scenario | How will people transport, deploy and use it? | Agreed use-case map |
3. System architecture | How will storage, cooking and work surfaces interact? | Concept layout |
4. Module configuration | Which functions belong in the base model and optional range? | Configuration matrix |
5. Market engineering | Which appliance, electrical, gas, label and manual requirements apply? | Market requirement list |
6. Detailed engineering | Can the design be produced consistently at the target cost? | Drawings and preliminary BOM |
7. Functional prototype | Does the physical product work as intended? | Prototype approval |
8. Validation | Is the product stable, usable, durable and packable? | Test and issue-closure record |
9. Pre-production | Can the factory reproduce the approved sample? | Golden sample approval |
10. Pilot and mass production | Are production, inspection and packing controlled? | Shipment release |
The first document should describe the business case, not the appearance of the product.
The buyer and manufacturer should define:
Target country or region
Target customer
Sales channel
Intended retail positioning
Expected annual volume
Initial order quantity
Preferred launch period
Target product cost
Required functions
Maximum packed dimensions
Target weight range
Private-label requirements
Packaging format
Spare-parts expectations
Planned product-family expansion
A product intended for a premium overland dealer will not follow the same development priorities as one intended for a mainstream family-camping retailer.
The commercial brief prevents the project from becoming over-engineered. It also helps determine whether the most sensible route is an existing EC2.0 configuration, a modified platform or a new ODM structure.
This is where the seated cooking concept enters the development process.
The team maps the product from vehicle loading to final cleaning:
Where is the kitchen stored during transport?
How does one person remove or move it?
Which parts open first?
Where are the chairs positioned?
Which direction does the cook face?
Can another person prepare or serve food at the same time?
Can storage be accessed while cooking?
Where are hot cookware and wet items placed?
How is the unit closed after use?
Where are waste, food residue and moisture handled?
This sequence often reveals problems that are not visible in a rendering. A table may look generous in CAD but block a drawer. A sink may fit the available panel but become difficult to reach from a chair. A handle may work when the box is empty but interfere with a fully loaded module.
The use-case map becomes the reference for later engineering decisions.
The next step is to decide which part of the product acts as the structural core.
For many INTECAMP concepts, the central body performs several jobs:
Transport enclosure
Main storage compartment
Support structure
Connection point for modules
Mounting location for wheels or a pull handle
Protective housing when the kitchen is folded
The challenge is to add functions without consuming the space that makes the product useful.
This is why storage-first engineering matters. Cooking and preparation components should be arranged so that the customer does not purchase a large box only to discover that most of its internal volume is occupied by mechanisms.
Key architectural decisions include:
Folded and expanded footprint
Storage opening direction
Module deployment sequence
Connection and locking method
Worktop support
Wheel and handle position
Centre of gravity
Service access
Cleaning access
Replaceable component strategy
A concept drawing is reviewed before detailed engineering begins.
A strong OEM project should be planned as a product range where commercially appropriate, rather than as one isolated SKU.
Possible modules include:
Gas cooking
Barbecue grilling
Induction cooking
Table-only worktops
Cutting-board surfaces
Foldable sink modules
Hanging rails
Storage extensions
Insulated inserts
Lighting supports
Utensil organisers
The buyer then decides which functions belong in:
The standard product
A premium model
An entry model
Optional accessories
Replacement parts
Dealer bundles
This structure can help a distributor serve different price points while sharing selected components, packaging language and after-sales parts.
It also reduces the pressure to put every possible feature into the first model.
Europe, North America and Australia should not be treated as one technical market.
The required review depends on the product configuration. A passive table-and-storage unit follows a different path from a product containing a gas burner or induction cooktop.
The project brief should identify:
Intended country of sale
Fuel type or electrical supply
Required connector and regulator configuration
Voltage and frequency
Plug format
Appliance rating
Warning labels
Manual languages
Packaging statements
Food-contact materials, where applicable
Required test reports or declarations
Importer responsibilities
Traceability requirements
No gas connection or electrical configuration should be described as universally suitable.
Where an OEM kitchen includes a third-party cooking appliance, the appliance specification, approval status and integration responsibilities should be recorded separately from the mechanical kitchen structure.
This prevents a mechanical design approval from being mistaken for approval of the complete market-ready product.
Once the concept is approved, the engineering team converts it into producible parts and assemblies.
This stage may include:
3D CAD development
Structural review
Sheet-metal part design
Moulded-component development
Hinge and slide selection
Fastener specification
Worktop material selection
Surface-treatment specification
Tolerance definition
Assembly-sequence planning
Preliminary bill of materials
Packaging-space assessment
Service and replacement-part review
Material selection should reflect how the product is actually used.
A worktop may need resistance to moisture, food residue and repeated cleaning. Metal structures may require appropriate coating and corrosion-control decisions. Handles and wheels should be evaluated against the loaded product, not only the empty sample.
Cost engineering also begins here. The purpose is not simply to remove material. It is to place cost where the end customer can see, feel or rely on it while simplifying components that do not add practical value.
A prototype should answer physical questions that drawings cannot settle.
The review normally considers:
Setup sequence
Folding sequence
Lock engagement
Worktop alignment
Storage access
Seated reach
Burner or appliance position
Sink position
Handle comfort
Wheel behaviour
Module interchangeability
Sharp-edge control
Cleaning access
Packing method
For seated cooking products, the prototype should be evaluated with the actual chair heights and user positions expected in the target market.
A tall designer standing over a prototype cannot accurately judge a product intended to be operated from a low chair.
Whenever practical, the review should involve more than one user. Cooking at a campsite is a shared activity, and the layout should support movement between the cook, food-preparation area and dining group.
The validation plan should be agreed for each project. Tests and acceptance criteria depend on the design, materials, appliance and destination market.
A typical review may cover:
Dimensional inspection
Static load on work surfaces
Worktop deflection
Deployed stability
Lock and latch operation
Hinge cycling
Slide-rail operation
Wheel and handle performance
Fastener retention
Coating adhesion
Corrosion considerations
Surface cleaning
Water exposure around washing areas
Heat-zone separation
Packaging fit
Carton handling
Transport vibration or drop evaluation
The purpose of validation is not to produce a folder of generic certificates. It is to confirm that the approved production configuration performs according to the buyer’s agreed requirements.
Any test claim published on the final product page should refer to the approved model and documented test method.
After prototype issues are closed, a pre-production sample becomes the physical reference for manufacturing and inspection.
The approval package should identify:
Final dimensions
Approved colours and finishes
Logo position
Component list
Appliance specification
Labels and warnings
Manual version
Packaging artwork
Included accessories
Assembly standard
Inspection points
Acceptable appearance criteria
Spare-parts list
Both parties should control changes after this point.
A small unrecorded component substitution can affect fit, durability, compliance documentation or after-sales service. Change approval is therefore part of product control, not unnecessary paperwork.
A pilot run tests whether the product can be reproduced under normal production conditions.
The team reviews:
Component consistency
Assembly time
Tooling performance
Operator instructions
Inspection feasibility
Packaging sequence
Carton protection
Identification and traceability
Defect causes
Rework requirements
Quality control should be linked to the product’s important functions.
For a modular kitchen, cosmetic inspection alone is not enough. Inspectors may need to confirm that tables connect correctly, locks engage, moving sections operate smoothly, the unit stands correctly when deployed and all specified accessories are packed.
The buyer and INTECAMP should agree on the production inspection plan before the commercial shipment is released.
A differentiated design is useful only when it creates commercial value.
The seated social-cooking concept offers several potential advantages for distributors and outdoor brands.
Retail staff can show how one mobile body unfolds into cooking, preparation and social space. This is easier to communicate than a product differentiated only by fabric thickness or the number of shelves.
A distinctive architecture is less likely to be compared solely on price with a generic folding camp table.
Gas, barbecue, induction, table, washing and storage configurations can support a coordinated range, subject to engineering and market requirements.
Compatible modules and service parts can support repeat business after the initial product sale.
Depending on the configuration, the concept can be presented to family-camping retailers, RV dealers, overland specialists, outdoor brands, rental operators and private-label programs.
“Move the kitchen into the conversation” describes an experience that customers can immediately understand. It gives the retailer a reason to discuss how the campsite feels, not only what the product contains.
For a deeper look at this market direction, see Outdoor Camping Kitchen Trends in Europe and North America for 2026–2027.
A product can look convincing in a rendering and still be awkward to load, unfold or clean.
Every additional component adds cost, weight, assembly work and potential failure points. A modular option is often better than forcing every feature into the base model.
Retail images usually show the kitchen open. Importers must also consider carton volume, vehicle loading, warehouse space and handling weight.
Gas fittings, electrical formats, manuals and compliance responsibilities vary. These decisions belong at the beginning of development.
A freestanding kitchen may serve many vehicle-based customers, but that does not make it universally compatible with every boot, tailgate or mounting system. Vehicle-installed products require defined fit information.
Packaging affects landed cost, damage risk, container loading and the customer’s first impression. It should develop alongside the product.
A handmade prototype proves that one sample can work. It does not prove that a production team can build the same result consistently.
B2B buyers can receive a more useful quotation by providing:
Target market and sales channel
Intended end user
Required functions
Preferred cooking format
Maximum folded dimensions
Target product weight
Expected annual volume
Initial order quantity
Target launch date
Logo, colour and packaging requirements
Required appliance or module specification
Destination-market documentation requirements
Target Incoterm and destination port
Drawings, reference images or concept notes
Required exclusivity or design ownership terms
A complete brief allows INTECAMP to distinguish between an existing-platform quotation, an OEM modification and a full ODM development project.
OEM normally means manufacturing an approved product specification under the buyer’s brand. ODM includes greater manufacturer participation in product definition, engineering and design development. Many projects fall between the two and use an existing platform with approved structural, functional and branding changes.
No single working height suits every user or activity. Standing kitchens remain appropriate for customers who prefer upright preparation or spend long periods cooking. Seated systems offer a differentiated alternative for social car camping, overlanding, families, couples and groups using low outdoor furniture.
Logo, colour, packaging and selected configuration changes can be discussed for OEM and private-label programs. Feasibility, MOQ, cost and development requirements depend on the requested changes.
The required appliance, connector, regulator, voltage, frequency, plug, labels and documentation must be reviewed for the destination market. A configuration approved for one market should not automatically be presented as suitable for another.
The schedule depends on the scope of modification, tooling, prototype rounds, appliance integration, testing, packaging and approval speed. INTECAMP prepares a project-specific schedule after reviewing the product brief rather than publishing one universal lead time.
Define the specification, acceptance criteria, approved components, golden sample, inspection plan and change-control process before mass production. Quality cannot be controlled reliably through a final visual inspection alone.
Yes. Starting with an existing platform can reduce development work when the buyer’s required function, size and market position are reasonably close to an available configuration. More extensive changes require engineering review.
The outdoor market does not need another folding cabinet with a different logo.
A successful OEM portable camping kitchen should solve a recognisable problem, fit a defined sales channel and give the retailer a product story that remains clear after the first demonstration.
For INTECAMP, seated social cooking provides that starting point.
It changes where the kitchen sits within the campsite, how modules are arranged, how storage is preserved and how people take part in preparing a meal. More importantly, it turns a design philosophy into a repeatable development method.
INTECAMP works with outdoor brands, importers, distributors, wholesalers and RV or 4×4 equipment companies on portable and modular camping kitchen programs.
To discuss an existing EC2.0 configuration, a private-label modification or a new ODM project, visit our OEM and ODM Portable Camping Kitchen Service or send your product brief to sales@intecamp.com.
Request an OEM Project Review
Please include your target market, required functions, expected order volume, branding requirements and preferred launch schedule. Our team will review the brief and recommend the most appropriate development route.
Editorial note: Product dimensions, appliance configurations, materials, order quantities, test requirements and market documentation are model- and project-specific. Confirm the final specification with INTECAMP before placing an order or publishing downstream product claims.
