CarLifeCare · Protection System · Layer 1 of 3
BASEPOLYMER
CARBON NANOPARTICLE TECHNOLOGY  |  TG 45–55°C  |  SELF-HEALING
20–50 nm
particle size
5 µm
healing depth
10 years
max service life
18–20 ml
per vehicle
Base
Perfluorinated epoxypolymers
Filler
Graphene-like C nanoparticles
Solvent
C8–C12 hydrocarbons
Tg
45–55 °C
Application
Professional only
Storage
3 years from production
01
OVERVIEW
The first layer of the CarLifeCare three-layer system. Responsible for chemical bonding to the bodywork, elasticity and self-healing. Creates a "shape memory" effect — micro-scratches disappear when heated.
02
CHEMICAL COMPOSITION
Perfluorinated epoxypolymers
Provide chemical grafting to the factory paint. The –CF₂–CF₂– chains migrate to the surface, creating a primary hydrophobic barrier.
Carbon nanoparticles (20–50 nm)
Graphene-like structures. Responsible for reinforcement, thermal conductivity and UV stabilisation of the coating.
C8–C12 hydrocarbon blend
Provide matrix elasticity and the shape memory effect. The basis of self-healing properties.
03
CHEMISTRY OF THE PROCESS
1
The epoxy matrix forms covalent bonds with the hydroxyl groups (OH groups) on the surface of the factory lacquer. This provides CHEMICAL GRAFTING of the coating to the bodywork — not merely mechanical adhesion.
2
The perfluorinated chains (–CF₂–CF₂–) migrate to the surface, creating a primary low-energy barrier. This is the foundation of future hydrophobicity.
3
Carbon nanoparticles (graphene-like structures) act as a triple agent:
🔩
Reinforcing filler
Increases the mechanical strength of the coating
🌡
Thermal bridge
Distributes heat evenly when heated
☀️
UV stabiliser
Absorbs harsh ultraviolet radiation
04
PHYSICS OF THE PROCESS
"Ball bearing" effect
Nanoparticles redistribute mechanical load under impact
Prevent crack propagation
Thermal activation
When heated (sun, warm water) the epoxy matrix softens
Nanoparticles "close" the micro-scratch through surface tension forces
05
SELF-HEALING MECHANISM
STEP 01
Epoxypolymers have a glass transition temperature (Tg) of 45–55°C
STEP 02
When heated above Tg, the polymer enters a highly elastic state
STEP 03
Carbon nanoparticles create elastic stresses that pull the edges of the micro-scratch together
STEP 04
Upon cooling, the polymer locks in the new position — the scratch disappears
⬡  HEALING DEPTH: UP TO 3–5 µM — BRUSH MARKS, "SPIDER WEB" SCRATCHES
06
CONTRIBUTION TO THE SYSTEM
PropertyLayer contributionMechanism
Adhesion
50%
Covalent bonds with OH groups of the lacquer
Hardness
20%
Nanoparticle reinforcement
Elasticity
80%
Epoxy matrix with C8–C12 chains
Self-healing
90%
Carbon nanoparticles + shape memory
Hydrophobicity
10%
Primary CF₂–CF₂ barrier
Chemical resistance
10%
Basic epoxy protection
07
KEY ADVANTAGES
CHEMICAL GRAFTING
To factory paint — does not delaminate for years
SELF-HEALING UP TO 5 µM
Spider-web scratches from automatic washes disappear
CARBON NANOPARTICLES 20–50 NM
Reinforce the structure, increase durability
GLASS TRANSITION TEMP 45–55°C
Activated by sunlight without additional heating
PERFLUORINATED POLYMERS
Maximum adhesion to the lacquer surface
THERMAL BRIDGE
Even heating, even healing
"The layer that lives and breathes with your car"
08
APPLICATION INSTRUCTIONS
⚠ This product is intended for professional use only. Amateur application is very difficult to correct — the coating is harder than any automotive lacquer. For standard long-term protection, Base and Top products are sufficient.

Base Polymer can only be removed from the paint abrasively. If the vehicle has no mud flaps and the lower door edges are sandblasted by water and grit — the coating will be removed along with the top lacquer layer. We recommend protecting such areas with anti-gravel film.
1
Perform professional preparation of the paint surface with degreasing using isopropyl alcohol. Chips must be sealed with two-component lacquer, otherwise they will be washed out during application.

Heat the surface with an IR lamp to detect residual chemical agents. If spots are present — abrade with 1500–3000 grit and re-polish. If spots reappear after a second heating — they are too deep in the lacquer; discuss with the client. Full removal requires repainting.

Degreasing will reveal all finishing polish defects — these must be corrected.
2
Before application, shake the bottle. Do not leave the bottle open during work — cover it with your thumb.
3
Saturate the applicator and apply the product in a generous layer. Cross-hatch application is not required, but no gaps are permitted — the coating must be applied in a thick, rich layer. Divide the bonnet into sections; apply doors and wings in full. Replace the applicator every 15 minutes.
4
After application, buff immediately and intensively but without pressure. First pass with one microfibre, finish immediately with a second. After 20 minutes, microfibres will start scratching the bodywork — replace them together with the applicator.

The mark of mastery: apply leaving a thin layer with a slight hologram that disappears on its own within 30 seconds.
5
When polishing, start with short intensive movements and finish with long strokes across the full length of the panel. Check application quality using an inspection light.
6
For enhanced self-healing: apply 2–3 coats of BASE Polymer with 12–20 hours between coats.

Standard system: Base Polymer → Base → Top. Apply Base over Base Polymer after 4 hours. Allow Base 1 hour, then apply Top. Release the vehicle: after 1 hour in summer, after 8 hours in winter.

Allow long intervals between Polymer coats: within 1–2 hours it only dries rather than fully curing — a new coat will re-wet it. Base uses different solvents and does not re-wet Base Polymer.
09
PRECAUTIONS
Store in a dry, cool place out of reach of children.
Avoid contact with water during application.
Wear nitrile gloves and a protective mask during application.
Do not wash the car with chemicals for 5–7 days after application.
Store bottle tightly closed, in a dark place away from direct sunlight.
Not for internal use.
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