Brakes

Quick Summary

Proper installation, bedding, and maintenance are the three pillars of carbon ceramic brake longevity and performance. This guide covers every step — from pre-installation inspection and tool requirements through the complete bedding-in procedure, ongoing maintenance schedules for both street and track use, brake pad replacement, fluid selection, storage protocols, and knowing when to seek professional help. Whether you are fitting an AME Motorsport conversion kit to a steel-braked vehicle or replacing factory carbon ceramic rotors, this is the definitive reference for getting the most from your carbon ceramic brakes.

Before You Begin: Conversion Kits vs Replacement Rotors

AME Motorsport offers two categories of carbon ceramic brake products, and the installation process differs between them:

Conversion Kits (Steel to Carbon Ceramic)

Conversion kits are designed for vehicles originally equipped with conventional steel/iron brake rotors. Each kit includes:

• Carbon ceramic rotors (front, rear, or full set depending on the kit)
• Precision CNC-machined caliper bridge adapters
• Mounting brackets and hardware
• Fitting instructions specific to your vehicle

The conversion uses your existing OEM brake calipers — no caliper replacement is needed. The caliper bridge adapter repositions the caliper to align with the carbon ceramic rotor's friction surface.

Popular conversion applications include:

• BMW M2/M3/M4 F/G Series
• Audi RS6/RS7 C8
• Mercedes-AMG E63S W213
• Porsche 992 GT3
• Audi RSQ8
• Mercedes-AMG G63 W463A
• Bentley Bentayga

Replacement Rotors (Carbon Ceramic to Carbon Ceramic)

Replacement rotors are for vehicles that came from the factory with carbon ceramic brakes (such as Porsche PCCB, Ferrari CCM, or Lamborghini carbon ceramic). These are direct dimensional replacements — same diameter, thickness, hub pattern, and mounting interface as the OEM rotor.

No adapters or brackets are needed. The AME rotor bolts directly into your existing carbon ceramic caliper assembly.

Popular replacement applications include:

• Porsche 991 Turbo S/GT3 PCCB
• Ferrari 488 GTB/Spider/Pista
• Lamborghini Huracan
• McLaren 600LT/720S/765LT/GT
• BMW M5/M8 F90-F93
• Porsche 992 GT3/Turbo S PCCB

For a complete product listing by vehicle, see our Every Vehicle Buyer's Guide.

Tools and Materials Required

Essential Tools

Recommended Additional Tools

• Digital calliper — measuring rotor thickness for inspection records
• Infrared thermometer — monitoring rotor temperature during bedding-in
• Brake bleeding kit — vacuum or pressure type for fluid changes
• Dial indicator with magnetic base — checking rotor runout after installation

Materials to Have On Hand

• Fresh brake fluid (DOT 5.1 recommended for street, racing fluid for track — see Brake Fluid section below)
• Carbon ceramic-compatible brake pads (see Brake Pad Selection section)
• Clean microfibre cloths (lint-free)
• Nitrile gloves

Critical note: Never use petroleum-based cleaners, WD-40, or silicone spray on carbon ceramic rotor friction surfaces. These substances contaminate the friction surface and can cause permanent glazing. Use only dedicated brake cleaner formulated for non-metallic rotor surfaces.

Conversion Kit Installation: Step-by-Step

The following procedure covers the complete installation of an AME Motorsport conversion kit. While the exact steps may vary slightly between vehicle applications, the fundamental process is consistent across all platforms.

Estimated time: 3-5 hours for a full four-corner conversion (experienced technician). Allow additional time if performing your first carbon ceramic installation.

Pre-Installation

• Read the vehicle-specific fitting guide included with your AME Motorsport conversion kit before beginning work. Each vehicle application has unique torque specifications, bracket orientations, and alignment procedures.
• Inspect all components upon unboxing. Verify that all items listed on the packing slip are present: rotors, caliper bridge adapters, mounting brackets, hardware packs, and fitting instructions.
• Inspect the carbon ceramic rotors for shipping damage. Check both friction surfaces for cracks, chips, or deep scratches. Minor surface marks from protective packaging are normal and will disappear during bedding-in. Any structural damage should be reported to AME Motorsport before proceeding.
• Select and prepare your brake pads. Carbon ceramic rotors require pads specifically formulated for carbon ceramic surfaces. Have your chosen pads (Pagid RSC, Barbaro Racing, NetzschRacing, or Schaffen ZZ Racing) ready before beginning the installation. See Best Brake Pads for Carbon Ceramic Rotors for compound selection guidance.

Step 1: Vehicle Preparation

• Park the vehicle on a flat, level surface.
• Loosen wheel bolts/nuts while the vehicle is still on the ground (1/4 turn).
• Lift the vehicle and secure on jack stands at the manufacturer's recommended lift points. Never work under a vehicle supported only by a jack.
• Remove the wheels.

Step 2: Remove Existing Steel Brake Assembly

• Remove the brake caliper. Remove the caliper carrier bolts (typically 2 bolts per caliper). Support the caliper with a wire hook or bungee cord — never allow the caliper to hang by the brake hose.
• Remove the steel rotor. Remove the rotor retaining screw (if present). The rotor should slide off the hub. If the rotor is seized to the hub due to corrosion, use a rubber mallet on the rotor hat — never strike the friction surface. Apply penetrating oil to the hub/rotor interface if necessary and allow it to work for 10-15 minutes before attempting removal.
• Clean the hub face. Remove all rust, scale, and debris from the hub mounting surface using a brass wire brush or scotchbrite pad. The hub face must be clean and flat — any debris trapped between the hub and rotor will cause runout (wobble), leading to vibration and uneven pad wear. Apply a thin layer of copper anti-seize to the hub face to prevent future corrosion bonding.

Step 3: Install the AME Caliper Bridge Adapter

• Position the caliper bridge adapter onto the steering knuckle or hub carrier at the OEM caliper mounting points. The adapter repositions the caliper outboard to align with the larger carbon ceramic rotor.
• Install mounting bolts finger-tight initially. Ensure the adapter is oriented correctly per the fitting guide — incorrect orientation will prevent proper caliper alignment.
• Torque mounting bolts to the specification listed in your vehicle-specific fitting guide. Apply medium-strength thread locker to bolts where specified. Torque values are critical — under-torquing risks bolt loosening under vibration; over-torquing risks thread damage or bracket distortion.

Step 4: Mount the Carbon Ceramic Rotor

• Handle the carbon ceramic rotor with care. While carbon ceramic is extremely tough in service, rotor edges can chip if dropped onto hard surfaces. Wear clean gloves to prevent skin oils from contaminating the friction surface.
• Slide the rotor onto the hub. The rotor should mount flush against the hub face. If it does not sit flat, remove the rotor and re-inspect the hub face for debris or high spots.
• Install the rotor retaining screw (where applicable) and torque to specification. The retaining screw holds the rotor in position during wheel installation — the wheel bolts/nuts are the primary retention mechanism in service.
• Check rotor runout using a dial indicator if available. Position the indicator probe on the outboard friction surface approximately 15mm from the outer edge. Rotate the rotor through 360 degrees and record the total indicated runout (TIR). Maximum acceptable runout is typically 0.05mm (50 microns). Excessive runout indicates debris on the hub face, a bent hub, or a rotor dimensional issue — do not proceed until runout is within specification.

Step 5: Install Caliper and Brake Pads

• Install the new carbon ceramic-compatible brake pads into the caliper. Apply a thin layer of silicone-based anti-squeal compound to the pad backing plates (never to the friction surfaces). Ensure pad wear indicators (if present) are correctly positioned.
• Retract the caliper pistons using a caliper piston tool. Carbon ceramic rotors may be thicker than the original steel rotors, requiring full piston retraction. For vehicles with electronic parking brakes or rear calipers that require rotation during retraction, use the appropriate vehicle-specific tool or diagnostic procedure.
• Mount the caliper onto the bridge adapter. Install caliper carrier bolts and torque to the specification in your fitting guide.
• Verify clearances. With the caliper installed, visually confirm that the rotor is centred within the caliper — equal clearance between the rotor and each pad. Also verify that no part of the caliper, bracket, or pad hardware contacts the rotor during rotation. Slowly rotate the rotor by hand through 360 degrees to confirm free movement.

Step 6: Brake Fluid and Bleeding

• Check brake fluid condition. If the existing fluid is dark, contaminated, or has not been changed within the last 12 months, replace it entirely with fresh fluid. See the Brake Fluid Recommendations section below for fluid selection guidance.
• Bleed the brake system starting from the corner furthest from the master cylinder (typically right rear) and working toward the nearest corner (typically left front). Use either a vacuum bleeder or two-person pedal method.
• Verify pedal feel. After bleeding, the brake pedal should feel firm with no sponginess. Pump the pedal several times to seat the pads against the rotor. The pedal must not sink to the floor.

Step 7: Final Checks

• Re-check all fastener torques — caliper carrier bolts, bridge adapter bolts, and rotor retaining screws.
• Re-install wheels and torque wheel bolts/nuts to the vehicle manufacturer's specification.
• Lower the vehicle from jack stands.
• Re-torque wheel bolts/nuts after lowering — this is critical as the weight of the vehicle can slightly alter bolt loading.

Before driving: pump the brake pedal 10-15 times to establish full pad-to-rotor contact. The pedal will initially feel long as the pistons extend to contact the new pads. Continue pumping until the pedal feels firm.

Replacement Rotor Installation: Step-by-Step

For vehicles with factory carbon ceramic brakes, the replacement process is simpler since no bridge adapters are needed.

Estimated time: 2-3 hours for a full four-corner replacement.

Procedure

• Remove wheel, remove caliper carrier bolts, support caliper — identical to Steps 1 and 2 above.
• Remove the factory carbon ceramic rotor. Factory carbon ceramic rotors typically use a centre-lock or multi-bolt hub mounting system. Remove retaining hardware per the vehicle's workshop manual.
• Clean the hub face thoroughly. Even though there is no corrosion with carbon ceramic rotors, debris and pad residue can accumulate on the hub face. Clean with brake cleaner and a lint-free cloth.
• Install the AME Motorsport replacement rotor. The rotor is a direct dimensional match to the factory unit — same diameter, thickness, hub pattern, and mounting interface. It should seat flush on the hub with no adaptation required.
• Install fresh carbon ceramic-compatible brake pads. When replacing rotors, always install new pads simultaneously. Used pads have a transfer layer matched to the old rotor surface — installing used pads on a new rotor prevents proper bedding and can cause uneven wear.
• Reinstall caliper, bleed brakes, and perform final checks — identical to Steps 5-7 of the conversion kit procedure.
• Proceed to bedding-in procedure.

The Bedding-In Procedure: Critical for Performance and Longevity

Bedding-in (also called break-in) is the single most important step after installation. Proper bedding transfers an even layer of pad friction material onto the rotor surface. This transfer layer is essential for:

• Consistent friction — the transfer layer creates a uniform friction interface between pad and rotor
• Even wear — without proper bedding, pads wear unevenly, reducing service life and creating noise
• Optimal bite — full friction performance is only achieved once the transfer layer is established
• Rotor protection — gradual thermal cycling during bedding conditions the rotor structure, preventing thermal shock

Failure to properly bed in carbon ceramic brakes is the number one cause of premature noise, vibration, and uneven wear. This is not optional.

AME Motorsport Recommended Bedding Procedure

The following procedure is suitable for both CCB (SiC coated) and CCM (uncoated) rotors with any of the recommended pad compounds.

#### Phase 1: Initial Heat Cycling (Low to Moderate Temperature)

Purpose: Gradually bring the rotor and pad up to operating temperature, allowing the pad compound to begin transferring to the rotor surface.

• Find a safe stretch of road with minimal traffic — ideally a long, straight road where you can repeatedly decelerate without obstruction.
• Accelerate to 60 km/h.
• Apply brakes with moderate pressure (approximately 50% pedal force) to decelerate to 15 km/h. Do not come to a complete stop.
• Accelerate back to 60 km/h.
• Repeat 10 times with 30-second intervals between stops to allow partial cooling.

#### Phase 2: Progressive Heat Build (Moderate to High Temperature)

Purpose: Increase thermal load to fully develop the pad transfer layer across the rotor's operating temperature range.

• Accelerate to 80 km/h.
• Apply brakes with firm pressure (approximately 70-80% pedal force) to decelerate to 15 km/h. Again, do not come to a complete stop.
• Accelerate back to 80 km/h.
• Repeat 10 times with 30-second intervals between stops.

#### Phase 3: Cooling Cruise

Purpose: Allow the rotors to cool gradually and evenly, setting the transfer layer.

• Drive at varying speeds (50-100 km/h) for 10-15 minutes without applying heavy braking.
• Use gentle, brief brake applications only when necessary for traffic.
• Avoid coming to a complete stop during this phase if possible — holding the pads stationary against a hot rotor can create localised material transfer (pad imprint), leading to judder.

#### Phase 4: Initial Break-In Period

After the bedding procedure:

• Avoid hard stops for the first 500 km. The transfer layer continues to develop and stabilise during normal driving.
• Expect the pedal feel to improve progressively over the first 300-500 km as the transfer layer matures.
• Minor squeal during cold starts is normal during the break-in period and typically diminishes as the pads and rotor wear into each other.

Bedding Verification

After completing the bedding procedure and the 500 km break-in period, you can verify successful bedding by:

• Visual inspection: Remove a wheel and inspect the rotor surface. A properly bedded rotor will show a uniform, slightly discoloured friction band with an even matte appearance. Bright spots, localised dark patches, or visible scoring indicate incomplete or improper bedding.
• Pedal feel: A properly bedded system delivers a firm, progressive pedal with consistent bite. If the pedal feels grabby, inconsistent, or weak, additional bedding cycles may be needed.

For the complete detailed procedure with troubleshooting guidance, read Carbon Ceramic Brake Bedding: Step-by-Step Guide. For additional bedding reference, see our general How to Bed In Brake Pads guide.

Maintenance Schedule

Street Use Maintenance

For vehicles driven primarily on public roads:

Track Use Maintenance

For vehicles that see regular track days or competition use:

For track preparation essentials, read Track Day Brake Prep: Pads, Fluid & Bedding.

Rotor Inspection Guide: What to Look For

Normal Wear Indicators

These are expected and do not indicate any problem:

• Uniform friction surface — even colour and texture across the entire swept area
• Fine concentric scoring — very light surface marks from pad-to-rotor contact, barely perceptible to fingernail
• Pad transfer layer — thin, even discolouration on the friction surface
• Minor edge chamfer wear — slight rounding of the rotor edge from pad contact

Warning Signs Requiring Attention

These indicate a potential issue that should be investigated:

• Uneven wear or thickness variation — the rotor is thicker in some areas than others. This may indicate hub runout, caliper misalignment, or incomplete bedding. Measure thickness at 8 points around the rotor circumference — maximum variation should not exceed 0.02mm.
• Deep grooves or scoring — channels deeper than 0.5mm visible on the friction surface. This can indicate contaminated pads, incorrect pad compound, or foreign material trapped between pad and rotor.
• Localised dark patches (hot spots) — indicate uneven thermal loading. May be caused by caliper binding, pad taper wear, or improper bedding. Re-bedding may resolve minor hot spots.
• Blue/purple heat discolouration — on CCB (SiC coated) rotors, this indicates extreme temperatures were reached. While the rotor can withstand these temperatures, sustained operation at this level suggests the pad compound may be insufficient for the application.

Critical Indicators Requiring Immediate Action

Do not drive the vehicle if any of the following are present:

• Surface delamination — the SiC coating or friction surface is lifting or separating from the rotor body. This is extremely rare with quality rotors but requires immediate replacement.
• Radial cracks extending from the friction surface through the rotor body — hairline heat checking on the friction surface is normal on track-used rotors, but cracks that extend through to the back of the rotor indicate structural compromise.
• Rotor thickness below minimum specification — the minimum thickness is stamped on the rotor hat or documented in the fitting instructions. Operation below minimum thickness risks brake fade and structural failure.
• Chunks or large chips missing from the friction surface — indicates impact damage or material failure. Replace the rotor immediately.

Brake Pad Change Procedure

Carbon ceramic rotors will outlast multiple sets of brake pads. Pad replacement is a routine maintenance task that most competent home mechanics can perform.

When to Change Pads

• Minimum pad thickness: 3mm of friction material remaining. Most pads include a wear indicator groove or electronic wear sensor that alerts at this threshold.
• Uneven wear: If one pad is significantly thinner than the other in the same caliper, investigate and correct the cause (caliper binding, slide pin corrosion) before installing new pads.
• Surface glazing: If pads develop a glassy, smooth surface with reduced friction, they have been overheated and should be replaced. Glazed pads can sometimes be recovered by lightly scuffing the surface with 80-grit sandpaper, but replacement is preferred.

Pad Replacement Procedure

• Remove wheel.
• Remove caliper carrier bolts and support caliper.
• Remove old pads. Note the position of any anti-rattle clips or retaining springs.
• Inspect rotor friction surfaces (see Inspection Guide above).
• Retract caliper pistons using the appropriate tool.
• Clean caliper slide pins. Remove, clean with brake cleaner, inspect for wear or corrosion, re-lubricate with high-temperature brake grease, and reinstall.
• Apply anti-squeal compound to new pad backing plates (never to friction surfaces).
• Install new pads with all anti-rattle clips and retaining hardware correctly positioned.
• Reinstall caliper and torque to specification.
• Pump brake pedal until firm.
• Perform the bedding-in procedure — new pads on an existing rotor still require bedding to establish the transfer layer.

Important: Always replace pads in axle pairs (both left and right together). Never replace a single pad. Mixing old and new pads on the same axle creates uneven braking force.

For pad compound selection guidance, read Best Brake Pads for Carbon Ceramic Rotors and Barbaro Carbon Ceramic Brake Pads Guide.

Brake Fluid Recommendations

Brake fluid selection affects pedal feel, fade resistance, and system longevity. Carbon ceramic rotors generate different thermal characteristics than iron rotors, which influences fluid requirements.

Understanding Brake Fluid Specifications

Dry boiling point is the temperature at which fresh fluid boils. Wet boiling point is the temperature at which fluid boils after absorbing 3.7% water by weight — representative of fluid condition after 12-24 months of service.

AME Motorsport Recommendations

Street use: DOT 5.1 brake fluid. The higher boiling point provides additional safety margin for spirited driving and emergency stops, while remaining fully compatible with all OEM brake systems. DOT 5.1 is glycol-based and mixes with existing DOT 3 and DOT 4 fluid — a complete fluid change is recommended but partial top-ups are safe. Track use: A dedicated racing brake fluid with a dry boiling point above 300 degrees Celsius is strongly recommended. Racing fluid provides the thermal margin needed for sustained hard braking. However, racing fluid typically absorbs moisture faster than street-grade fluid and should be replaced more frequently (every 6-12 months or before every racing season). Important: DOT 5 (silicone-based) fluid is not compatible with most OEM brake systems and should not be used unless the vehicle was specifically designed for it. DOT 5 is not the same as DOT 5.1 — they are completely different formulations.

Fluid Change Interval

• Street use: Every 24 months, regardless of mileage
• Track use: Before every racing season, or every 6-12 months of active track use
• Moisture test: If fluid boiling point drops below 200 degrees Celsius (wet), replace immediately regardless of time interval

For additional fluid considerations, see Brake Fade: Causes, Prevention & Solutions.

Storage and Handling

Storing Carbon Ceramic Rotors

If you have spare rotors or are storing rotors during a vehicle rebuild:

• Store in a dry, temperature-stable environment. While carbon ceramic rotors are corrosion-immune, the mounting hardware may not be.
• Store flat, not on edge. Stacking multiple rotors is acceptable with a soft separator (foam or cardboard) between friction surfaces.
• Keep in original packaging if available — AME Motorsport packaging is designed to protect against shipping and storage damage.
• No special treatment needed — unlike iron rotors, carbon ceramic rotors do not require rust-preventive coatings or oil films during storage.

Handling Precautions

• Wear clean gloves when handling rotors to prevent contamination of friction surfaces with skin oils.
• Never drop a carbon ceramic rotor onto a hard surface. While the material is extremely strong in service, impact on edges can cause chipping.
• Never use petroleum-based solvents, WD-40, or silicone spray on friction surfaces.
• Clean friction surfaces with non-chlorinated brake cleaner only.
• If a rotor friction surface becomes contaminated (oil, grease, or chemical contact), clean immediately with brake cleaner and allow to fully dry. Severe contamination may require light scuffing with a scotchbrite pad followed by a full bedding procedure.

Seasonal Vehicle Storage

If storing a vehicle equipped with carbon ceramic brakes for an extended period (winter storage, collection vehicle):

• Clean the brake system — wash wheels and brake components to remove road debris and pad dust.
• Release the parking brake — storing with the parking brake engaged can create a pad impression on the rotor surface. Use wheel chocks instead.
• No corrosion concerns — unlike iron rotors, carbon ceramic rotors will not develop surface rust during storage. The vehicle will start and stop normally after any storage duration without the need for a de-rusting cycle.
• Check fluid before driving after extended storage. Fluid may absorb moisture during storage — test boiling point and replace if necessary.

When to Seek Professional Help

Carbon ceramic brake installation and maintenance is within the capability of experienced home mechanics with proper tools and a clean workspace. However, certain situations warrant professional assistance:

Seek Professional Help If:

• You are performing your first carbon ceramic installation — consider having a qualified workshop perform the initial installation, then managing subsequent pad changes yourself once familiar with the system.
• Your vehicle has an integrated electronic parking brake that requires diagnostic tool intervention during pad changes (common on BMW M, Audi RS, and Mercedes-AMG vehicles).
• Rotor runout exceeds specification after installation — this may require hub resurfacing or investigation of hub bearing condition, which requires specialised tooling.
• You encounter any of the "Critical Indicators" listed in the Inspection Guide section — surface delamination, through-cracks, or sub-minimum thickness require professional assessment.
• ABS or brake warning lights illuminate after installation — while rare with properly installed AME products, warning lights indicate a system issue that should be diagnosed with professional-grade scan tools.
• Persistent vibration or pulsation after installation and bedding — this indicates a runout, thickness variation, or caliper alignment issue that requires measurement and correction.

Finding a Qualified Workshop

Look for workshops with:

• Experience with carbon ceramic brake systems (not just standard iron brakes)
• Vehicle-specific expertise for your platform (marque specialists are ideal)
• Proper tooling including dial indicators, digital callipers, and vehicle-specific diagnostic tools
• Willingness to follow AME Motorsport's installation and bedding procedures

AME Motorsport maintains relationships with specialist installation partners worldwide. Contact AME directly for workshop recommendations in your region.

For more on brake system fundamentals, costs, and planning your upgrade, see Brake Replacement Cost Guide 2026 and Are Carbon Ceramic Brakes Worth It?.

Quick Reference: Installation Checklist

Use this checklist during installation to ensure no steps are missed:

Pre-Installation:

• [ ] All kit components verified against packing list
• [ ] Rotors inspected for shipping damage
• [ ] Carbon ceramic-compatible pads ready
• [ ] Fresh brake fluid available
• [ ] All required tools assembled

Installation:

• [ ] Vehicle securely supported on jack stands
• [ ] Hub faces cleaned and anti-seized
• [ ] Bridge adapters torqued to spec (conversion kits only)
• [ ] Rotors seated flush on hub
• [ ] Rotor runout checked (target: <0.05mm TIR)
• [ ] Caliper pistons fully retracted
• [ ] New pads installed with anti-squeal compound on backing plates
• [ ] Calipers torqued to specification
• [ ] All clearances verified — no contact during rotation
• [ ] Brake system bled — firm pedal confirmed
• [ ] Wheels installed and torqued to spec
• [ ] Pedal pumped 10-15 times — firm pedal before driving

Bedding:

• [ ] Phase 1: 10 stops from 60 km/h at moderate pressure
• [ ] Phase 2: 10 stops from 80 km/h at firm pressure
• [ ] Phase 3: 10-15 minute cooling cruise
• [ ] Avoid hard stops for first 500 km

Frequently Asked Questions

Can I install AME Motorsport carbon ceramic brakes at home, or do I need a professional workshop?

Experienced home mechanics with proper tools (calibrated torque wrench, jack stands rated for vehicle weight, brake bleeding equipment) can successfully install both conversion kits and replacement rotors. However, if this is your first carbon ceramic installation, or if your vehicle has an electronic parking brake requiring diagnostic tool intervention, professional installation is recommended. The most critical aspects are correct torque values, hub face cleanliness, and proper bedding-in — not the mechanical complexity of the installation itself.

How long does the bedding-in procedure take?

The active bedding procedure takes approximately 20-30 minutes and requires a safe road with minimal traffic. However, the full break-in period extends to the first 500 km of normal driving, during which you should avoid maximum-effort stops. The complete bedding procedure is detailed in Carbon Ceramic Brake Bedding: Step-by-Step Guide.

What happens if I skip the bedding-in procedure?

Skipping bedding-in is the most common cause of poor carbon ceramic brake performance. Without proper bedding, the pad transfer layer does not develop evenly, leading to inconsistent friction, grabbing, vibration, excessive noise, and accelerated pad wear. If you suspect your brakes were not properly bedded, you can repeat the bedding procedure at any time — it is never too late to bed in correctly.

Do I need to change my brake fluid when installing carbon ceramic brakes?

It is strongly recommended. Fresh DOT 5.1 brake fluid provides the best combination of pedal feel and thermal safety margin for carbon ceramic brake systems. If your existing fluid is more than 12 months old or has a wet boiling point below 200 degrees Celsius, replacement is essential. The brake system must also be bled after any rotor or caliper work to ensure no air is trapped in the hydraulic circuit.

How often should I inspect my carbon ceramic rotors?

For street use, a visual inspection every 10,000 km or 6 months is sufficient. Measure rotor thickness with a digital calliper every 20,000 km. For track use, inspect before and after every track day. Full inspection details — including what constitutes normal wear versus warning signs — are covered in the Rotor Inspection Guide section above.

Can I change brake pads on carbon ceramic rotors without any special tools?

Pad changes on carbon ceramic brakes are mechanically identical to pad changes on conventional brakes — the same caliper removal, piston retraction, and pad installation process applies. The only differences are: you must use pads specifically formulated for carbon ceramic rotors, and you must perform the bedding-in procedure with the new pads. No special carbon ceramic-specific tools are required beyond standard brake service equipment.

What brake fluid should I use for track days?

For regular track use, a dedicated racing brake fluid with a dry boiling point above 300 degrees Celsius is recommended. Racing fluid maintains its performance under the sustained high temperatures generated during repeated hard braking on track. Replace racing fluid every 6-12 months, as high-performance fluids typically absorb moisture faster than standard DOT 5.1. See our Track Day Brake Prep guide for complete track preparation advice.