What Can Be Customized

Engineered Carbon Fiber, Tailored to Your Build

From raw material selection to structural engineering — every JC AUTOCARBON component can be customized for performance, fitment, and visual impact. Five dimensions, top to bottom.

01 Material Selection — Wet & Dry Carbon Fiber

Two proven manufacturing routes, each optimized for a different balance of cost, weight, and performance. See the full dry vs. wet carbon comparison >>

Wet Carbon Fiber
Best Value

Wet Carbon Fiber

Best for exterior upgrades — front lips, side skirts, canards

Manufacturing Process: Carbon fiber fabric combined with resin, formed through vacuum infusion or composite molding, followed by polishing, painting and clear-coat protection.

  • Clear carbon weave appearance
  • High-gloss visual effect
  • Suitable for street modification projects
  • Better cost-performance balance
Front LipSide Skirt Rear LipSpoiler CanardsExterior Styling
Dry Carbon Fiber
Track Grade

Dry Carbon Fiber

Best for lightweight & high-strength, track-grade performance

Manufacturing Process: Prepreg carbon fiber formed under controlled temperature, pressure and curing time to achieve precise fiber orientation and resin content.

  • Lower weight
  • Higher strength consistency
  • Better stiffness control
  • For performance vehicles & premium projects
Carbon HoodRacing Splitter Large Rear WingTrack Components Structural Aero Parts

02 Weave Pattern — Twill, Plain, Forged & Hybrid

JC AUTOCARBON utilizes premium carbon fiber materials sourced from leading suppliers such as Toray, combined with advanced weaving technologies to produce high-quality fabrics in multiple grades (3K, 6K, 12K, unidirectional, and bidirectional). Each material undergoes rigorous tensile, thermal, chemical, and mechanical testing — ensuring consistency, reliability, and superior performance from raw material to final product.

The Iconic Motorsport Standard

2×2 Twill Weave

The most popular weave pattern in the automotive aftermarket. Characterized by its diagonal parallel rib pattern, it offers excellent drapability over complex curved automotive surfaces.

Visual Style: Deep, dynamic 3D reflection that accentuates the vehicle’s body lines.

Best For: Large exterior aero parts, including front hoods, rear diffusers, and side skirts.

Minimalist Precision & Classic OEM Aesthetics

1×1 Plain Weave

A tight, checkerboard pattern woven in a simple over-under structure. It offers a highly stable grid look with high structural uniformity.

Visual Style: Subtle, neat, and highly technical appearance — often preferred by European OEM manufacturers.

Best For: Mirror covers, interior dash trims, and steering wheel accents requiring extreme dimensional stability.

The Modern Supercar-Grade Marble Look

Forged Carbon

Formed by compressing chopped carbon fibers with resin under immense pressure. Because the fibers are randomly oriented, every single piece we manufacture is entirely unique.

Visual Style: A luxurious, multi-layered marble-like texture with metallic depth.

Best For: Premium bespoke projects, custom engine covers, wheel center caps, and high-end interior trims.

Forged vs. woven carbon fiber compared >>

Engineering Distinct Visual Patterns

Hybrid Weave

Custom weave variations engineered to break the mold — specialized loom setups produce unique structures such as Herringbone (V-weave), honeycomb, or custom checkerboard weaves.

Visual Style: Highly exclusive, technical look that immediately differentiates your brand’s products.

Best For: Premium signature aero packages and custom engine covers.

High-Impact Strength & Custom Colorways

Kevlar / Aramid Mix

Premium carbon fiber woven with high-tenacity DuPont™ Kevlar® (Aramid) fibers, introducing structural impact resistance combined with striking visual customization.

Visual Style: Seamless color integration (Red/Black, Blue/Black, Gold/Black) matching OEM paint or brand identities.

Best For: High-wear, impact-prone areas like front splitters, under-trays, and motorcycle fairings.

Kevlar vs. carbon fiber >>

03 Surface Finish — Matte, Gloss & Clear-Coat

A full range of surface finishes with precise control over reflectivity and final appearance. JC AUTOCARBON’s automotive-grade, dust-free spray facility combines multi-layer manual polishing to ensure mirror-like smoothness that withstands harsh weather, UV radiation, and high-speed road debris.

Surface Finish
Mirror-Deep Gloss

High-Gloss Clear Coat

The industry standard for showcasing intricate carbon weaves. We apply 3–4 layers of high-solid automotive clear coat, followed by rigorous multi-stage hand polishing.

Visual Effect: A wet-look, deep 3D gloss surface that accentuates the carbon pattern under any lighting.

Best For: Exterior aerodynamics (front lips, rear diffusers, spoilers) and high-visibility body panels.

Stealth Aesthetics

Matte / Satin Finish

A sophisticated finish offering a sleek, satin-smooth texture. It eliminates harsh reflections while maintaining the tactile, high-tech essence of raw carbon fiber.

Visual Effect: A non-glare, understated stealth look. Highly resistant to visible fingerprints and dust.

Best For: Interior dash trims, steering wheel bezels, engine covers, and vehicles with satin/matte wraps.

Standard on All Exterior Parts

Advanced UV-Protection Coating

Anti-yellowing & weather-resistant armor. Our coating formula is infused with advanced UV inhibitors that block harmful ultraviolet radiation.

Best For: Every exterior component exposed to long-term sunlight and extreme climates.

UV resistance, anti-yellowing & testing standards >>

04 Color Effect — Classic Black & Kevlar Blends

Carbon fiber is no longer limited to classic black. Through in-house dual-fiber weaving with genuine Kevlar® and specialized UV-stabilized chromatic clear coats, we offer rich, deep, and stable color infusions that align with your brand identity or vehicle paint codes — engineered to withstand extreme solar radiation without fading or yellowing. How colored carbon fiber is made >>

Gloss Black

Gloss Black

Standard black carbon with a high-gloss, mirror-polished clear coat.

Matte Black

Matte Black

Standard black carbon with a non-reflective, satin/matte clear coat.

Smoked Black

Smoked Black

Black carbon finished with a semi-transparent smoked black tint coat.

Red & Black

Red & Black Hybrid

1:1 interlaced weave of black carbon and red aramid (Kevlar) fibers.

Blue & Black

Blue & Black Hybrid

1:1 interlaced weave of black carbon and blue aramid (Kevlar) fibers.

Yellow & Black

Yellow & Black Hybrid

1:1 interlaced weave of black carbon and yellow aramid (Kevlar) fibers.

Texalium Silver

Texalium Silver

Glass fiber weave with micron-level aluminum coating — metallic silver finish.

Candy Green

Candy Green Tint

Black carbon base topped with semi-transparent green clear coat.

Candy Red

Candy Red Tint

Black carbon base topped with semi-transparent red clear coat.

Candy Blue

Candy Blue Tint

Black carbon base topped with semi-transparent blue clear coat.

Standard Forged

Standard Forged Carbon

Chopped carbon strands compressed under high pressure — irregular marble pattern.

Gold Flake Forged

Gold Flake Forged

Chopped carbon mixed with gold leaf flakes, molded under high pressure.

Silver Flake Forged

Silver Flake Forged

Chopped carbon mixed with silver/aluminum flakes, molded under high pressure.

Metallic Flake Forged

Metallic Flake Forged

Chopped carbon mixed with metallic colored pigment flakes, molded under high pressure.

05 Structure & Installation — Engineering-Validated Fitment

Select structural and mounting solutions based on part size, transport needs, replacement requirements and load-bearing conditions. From mounting strategy to fitment validation, we develop carbon fiber parts that fit precisely, install securely, and remain stable in real-world use.

Seamless & Rigid

One-Piece Structure Design

One-piece molding provides a cleaner appearance with no visible joint seams and higher overall rigidity.

DiffuserHood Structural Aero PartsHigh-Rigidity Parts
Flexible & Serviceable

Multi-Piece Structure Design

Multi-piece construction improves transportation efficiency, reduces replacement cost, and allows flexible assembly for larger body kit systems.

Large Body KitsMulti-Piece Front Lips Side Skirt KitsWidebody Kits
We help customers balance appearance, rigidity, mold complexity, shipping cost, and after-sales maintenance before confirming the structure.
Direct Fit

OEM Replacement Installation

For replacement parts such as hoods and fenders, we focus on OEM mounting points, hinge areas, lock positions, panel gaps, and direct-fit installation accuracy.

HoodFenderReplacement Panels
Exterior Add-On

Add-On Installation

For add-on exterior parts, we design the installation method using 3M adhesive, clips, bolts, or combined fixing solutions according to part shape and vehicle surface.

Front LipSide SkirtRear LipSmall Spoilers
High-Speed Stability

Bracket Installation

For large aerodynamic components, bracket-mounted installation distributes load and maintains stability under high-speed driving. Brackets and fasteners can be developed as part of the complete solution.

Large Rear WingRacing WingFunctional Aero
Embedded Hardware Service

Metal Mounting Inserts

Metal mounting inserts can be embedded during the carbon fiber molding process to improve load distribution, installation strength, and long-term stability.

  • Embedded mounting points
  • Stronger load distribution
  • Reduced loosening risk
  • Suitable for intake systems and structural parts
  • Better long-term assembly stability
Development Path

Choose the Right Development Path for Your Project

Different carbon fiber projects need different development logic. Choose the path that best matches your project type — exterior styling, aerodynamic performance, or structural composite parts.

P1

Exterior Body Kit

Styling-driven exterior parts that follow body lines, install cleanly and repeat in batch production.

Front LipSide Skirts DiffuserSpoiler HoodFull Kits
10-STEP PROCESS View Process ↓
P2

CFD Aero Parts

Functional aerodynamic components developed with CFD simulation, prototype validation and real track testing.

SplitterCanards Rear WingVents Track Kits
11-STEP PROCESS View Process ↓
P3

Structural Carbon Parts

CAD-driven structural composite parts with controlled layup, embedded inserts and OEM-level repeatability.

Intake SystemsBrackets Interior StructuresAssemblies
ENGINEERING-LED View Process ↓
Overall Timing After design data is confirmed, most projects can complete first samples in 45–58 days.
D1–D7

Requirement Alignment

D8–D14

Feasibility & Engineering Plan

D31–D50

Process & Tooling Validation

D51–D58

Final Manufacturing & Quality Control

* Early design and confirmation time are not included.

P1 Exterior Body Kit Development

For exterior styling parts, good appearance is only the starting point. A successful body kit must follow the vehicle’s body lines, install cleanly, protect the mounting structure, and remain repeatable in batch production.

JC AUTOCARBON develops carbon fiber front lips, side skirts, diffusers, spoilers, hoods, fenders and full body kits with fitment and manufacturability checked from the first design stage.

Front Aero StylingFront lips, splitters, front air ducts
Side Body PartsSide skirts, fender trims, side extensions
Rear Body PartsRear diffusers, rear bumper vents, rear spoilers
Large Exterior PartsHoods, fenders, roof spoilers
Full Kit ProgramsComplete body kits, widebody kits, private-label kits
Exterior Body Kit Development
Original vehicle 3D scan data for body kit development
Original vehicle 3D scan data for body kit development
On-site scan data collection for custom exterior body kit project
On-site scan data collection for custom exterior body kit project

Body Kit Development Process — 10 Steps

1

3D Scanning Data

Original full-vehicle or local 3D scanning; collect mounting points and body-line data. Overseas teams can provide on-site scanning in Europe / the United States.

2

Concept Sketch

Create 2–3 styling direction sketches based on the customer’s positioning and design style.

3

Render

Generate installation renderings based on the original vehicle model. These renderings are for visual confirmation only and do not mean tooling has started.

4

3D Reverse Engineering

Build an accurate base vehicle model by reverse engineering the scan data.

5

3D Design Modeling

Design front lip, side skirt, rear lip, wing/spoiler and other body kit structures; process mounting points, part-splitting plan and DFM review.

6

CNC Mold

Plan the mold solution, complete CNC precision machining and surface treatment.

7

Sample Production

Produce the first sample, complete surface treatment and clear coat, and issue the first-article inspection report.

8

Testing & Adjustment

Verify fitment, gaps, strength and appearance through real-vehicle trial installation; fine-tune the mold when necessary.

9

Customer Approval

Submit sample photos, videos and inspection report; lock the mass-production standard after customer approval.

10

Mass Production

Start batch production according to the locked standard; inspect each piece before shipment.

Engineering Checks

  • Body line matching
  • Gap and edge alignment
  • Mounting point strength
  • Split-line and transport logic
  • Mold demolding feasibility
  • Carbon weave direction
  • Gloss / matte surface quality
  • Batch fitment repeatability

Recommended Materials / Processes

Wet Carbon / Vacuum InfusionCost-effective exterior styling parts and medium-volume programs
Dry Carbon / PrepregPremium body kits, hoods, racing splitters and lightweight performance projects
Split ConstructionLarge parts or shipping-sensitive kits
Embedded Metal InsertsHigh-load mounting points and long-term installation stability

P2 CFD Aero Parts Development

Aerodynamic parts must do more than look aggressive. A splitter, diffuser, wing or canard should control airflow, improve stability, reduce unwanted turbulence and support the vehicle’s performance goal.

JC AUTOCARBON uses CFD-driven development logic, prototype validation and real-world testing to develop functional carbon fiber aero parts for track-focused and performance applications.

Front AeroFront splitters, front lips, canards
Airflow ManagementFender vents, hood vents, air guides
Rear AeroRear diffusers, rear wings, roof spoilers
Track PackagesFull CFD aero kits, performance-focused dry carbon kits
Performance Brand ProgramsAero parts requiring engineering proof and market credibility
CFD Aero Parts Development
CFD simulation for aero parts development
CFD simulation visuals for aero development
Aero part prototype validation
Prototype validation for functional aero parts

CFD Aero Parts Development Process — 11 Steps

1

Customer Intent

Define product goals, target vehicle, usage scenario and expected performance.

2

Feasibility Review

Evaluate structure space, installation limits, cost, material and development timeline.

3

Aero Concept Development

Define the airflow function: downforce, cooling, drag reduction or flow management.

4

Render Preview

Output design renderings and confirm styling coordination with the complete vehicle.

5

CFD Simulation

Use RANS baseline simulation to evaluate airflow path, pressure distribution, downforce and drag; use hybrid LES high-precision validation for key conditions.

6

Design Optimization

Iterate shape, angle, edges and guide structures according to CFD results until the target is met.

7

Mold Development

Plan the mold solution and complete CNC machining.

8

Sample Production

Produce the first dry-carbon sample and prepare for vehicle installation validation and functional testing.

9

Real Track Testing

Verify aerodynamic performance, installation stability and real-world effect on real roads or track.

10

Final Validation

Make final corrections according to test results and confirm the mass-production version.

11

Mass Production

Start formal mass production and pre-shipment inspection.

Engineering Checks

  • Airflow path and pressure distribution
  • Front / rear aero balance
  • Drag and downforce relationship
  • Wheel-arch airflow management
  • Wing profile and angle range
  • Diffuser exit flow
  • Cooling vent logic
  • Mounting rigidity under high-speed load
  • Dry carbon layup and stiffness design

Recommended Materials / Processes

Dry Carbon / PrepregLightweight and high-stiffness aero parts
Autoclave or Controlled CuringPremium performance parts requiring strength and repeatability
Reinforced Mounting ZonesRear wings, splitters and high-load aero parts
CFD-Informed Surface OptimizationFunctional aero programs requiring technical proof

Deliverables

Feasibility review Aero concept & render preview CFD simulation visuals or report basis Optimized 3D surface Prototype part Fitment and road / track validation record Production-ready tooling and QC standard

P3 Structural Carbon Parts Development

Structural carbon fiber parts require more than a cosmetic carbon surface. They need controlled layup, stable tooling, accurate interfaces, embedded mounting structures, heat or pressure resistance and reliable assembly.

JC AUTOCARBON supports CAD-driven and sample-driven structural composite projects including intake systems, interior structures, brackets, embedded parts and performance components.

Intake SystemsCarbon fiber intake pipes, air ducts, manifolds
Interior StructuresEV interior trim, structural interior panels
Mounting PartsBrackets, embedded inserts, connection structures
Replacement ComponentsHigh-strength carbon replacement covers or housings
CAD-Driven ProgramsOEM / ODM components with technical drawings
Composite AssembliesBonded, one-piece or multi-material carbon assemblies
Structural Carbon Parts Development
CAD design review for structural carbon fiber component
CAD design review for structural carbon fiber component
Tooling and sample preparation for structural carbon fiber parts
Tooling and sample preparation for structural carbon fiber parts

Engineering Checks

  • CAD data completeness
  • Assembly interface accuracy
  • Embedded metal insert design
  • Fiber layup direction
  • Resin and curing method
  • Bonding or one-piece forming feasibility
  • Heat / pressure / impact resistance
  • Dimensional control under production conditions
  • Batch repeatability

Recommended Materials / Processes

Prepreg Carbon / AutoclaveHigh-strength structural applications
Carbon + Kevlar Hybrid LayupParts requiring impact resistance
Adhesive BondingSeamless composite integration and reduced mechanical fasteners
Embedded Metal InsertsLoad-bearing mounting points
CNC Steel or High-Stability ToolingOEM-level dimensional repeatability
Four Stages

What We Do — From Concept to Production

You bring the idea. We help shape it into something that can actually be built — checking styling, fitment, composite behavior, mold logic and production consistency before expensive tooling decisions are made.

1

Concept & Design

You bring the sketch, CAD file, sample part or reference photos. We define styling direction, vehicle fitment, mounting strategy and production feasibility.

2

Engineering & DFM

Carbon fiber does not behave like metal. We plan layup direction, resin system, reinforcement, parting lines and demolding logic before tooling starts.

3

Tooling & Prototype

Molds and first samples are built for real fitment checks, surface review, installation testing and structural validation.

4

Production & Scale

Approved parts move into batch production with controlled QC for surface finish, dimensional accuracy, installation fitment and batch consistency.

Risk Control

Why Carbon Fiber Development Projects Go Wrong

Good renders are not enough. Carbon fiber development fails when design decisions are separated from tooling, installation, material behavior and repeatable production.

Risk 01

Good Looks, Bad Fitment

A render can look perfect, but if surface data is inaccurate or mounting points are weak, the part will not install cleanly.

Risk 02

Design Without Tooling Logic

If mold structure, parting lines and demolding direction are not planned early, production becomes expensive, unstable and hard to repeat.

Risk 03

Prototype Works, Mass Production Fails

Handmade samples can look great. The real question is whether the same part can be produced 100 times with the same surface, fitment and structure.

Risk 04

No Validation Before Delivery

Without fitment checks, dimensional control, UV testing and temperature cycling, problems appear after customers already receive the part.

How we solve it: JC AUTOCARBON solves these problems by connecting design, composite engineering, tooling, prototype validation and production under one development workflow.

Projects / Case Studies

Why JC AUTOCARBON

Why Brands Choose JC AUTOCARBON for Custom Carbon Fiber Development

A custom carbon fiber project is not only about making a good-looking part. It requires accurate vehicle data, composite engineering, tooling logic, fitment validation and stable batch production. JC AUTOCARBON connects these steps under one development workflow, so brands can reduce tooling mistakes, launch faster and scale with confidence.

01

In-House Development Workflow

Design, reverse engineering, DFM review, tooling, prototype validation and production are coordinated in one system instead of being separated across disconnected suppliers.

02

Composite Engineering First

We plan layup direction, resin system, reinforcement zones, embedded structures and curing methods according to the part’s function, not by guesswork.

03

Fitment Before Mass Production

Samples are checked on real vehicles or assemblies for gaps, mounting points, installation logic and structural performance before batch production begins.

04

Production-Ready Thinking

Every design is reviewed against mold structure, demolding direction, surface quality, repeatability, QC standards and future volume needs.

Get a free feasibility report before you start tooling

Send us your concept, sketch, CAD file, sample part or reference photos. Our engineering team will review your idea and send back a free feasibility report with material suggestions, structure advice and an estimated timeline.

Factory-Direct Carbon Fiber,
Built for You

Custom parts engineered and manufactured in-house — from one-off samples to bulk orders.

19+ Years Manufacturing 1,000 Parts / Day Capacity Reply within 12 Hours

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