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BASIC
LAMINOVA THEORY
Utilizing
laminar flow offers
an amazing heat
transfer
potential.
Intercooler
Integration
Installation
Best results are achieved when the heat exchanger is installed in the
inlet manifold.
This improves the response compared to traditional air-to-air
intercooler installations due to shorter flow length.
The Laminova intercooler reduces noise level and pulsation.
Charged
engines
A special core is used for air flow in charged engines.

This core has longer and higher
fins and fewer break-up zones (more surface) than the traditional core
for liquid applications.
Best
results are achieved when the heat exchanger is installed in the inlet
manifold. Normally, a package of 2-4 cores is needed to meet
specifications.

Cross section of a core showing
height of fins, distances between
them and their thickness in mm.
Separate
cooling circuit
The air-to-liquid intercooler system needs a separate cooling
circuit with a circulation pump and a separate radiator.
Usage
with air conditioning systems
The Laminova intercooler can be combined with the air conditioning
system for even better efficiency.
Now
Available
Intercooler
housings for use in racing/aftermarket applications and as prototypes
for test and evaluation.
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LAMINAR
FLOW INTERCOOLERS
With a Laminova heat
exchanger, maximum
heat transfer
can be achieved with low
pressure drop,
something not available until now.
This
is achieved by continuously restarting the flow passage after an optimal
flow length.
Laminova
eradicates the traditional problem of poor
heat transfer
from short flow length due
to a build-up of boundary layers.
Standard
Core Dimensions:
•
O.D. 1.55" x 13.07"
(39.5mm x 332mm long)
•
O.D. 1.77" x 13.07"
(45.0mm x 332mm long)
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Rule
of thumb
A
reduction in intake temp. of .5°C
(6°F) increases air density
by 1%
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Rule
of thumb
With the
same octane fuel -
every 4°C (20°F) reduction in intake temp. allows .5 psi
additional boost .
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