With the same DC drive as the J6-HC, the J6-MC offers the same performance advantages,
plus the added precision, convenience and separation efficiency provided by microprocessor
The smooth, rugged drive of the J6-Hc and the J6-MC minimizes downtime because its
belt drive allows it to be positioned near the front of the instrument, where it
is readily accessible for periodic brush changes. Throughput is maximized due to
its high-torque performance and its favorable drive ratio, giving it a significant
mechanical advantage over the rotors it spins.
This conversion allows a commercially available J6 Beckman centrifuge originally
configured for room conditions centrifuge core displacement experiments to be converted
for use under overburden pressure conditions. The hydrostatic coreholders are provided
in sets of four and individually balanced to the spindle and trunion present in
the centrifuge. It is recommended that two sets of four be purchased to allow for
sample preparation of four samples whilst another set is being run in the centrifuge.
The core holder assembly places the sample between the metal end pieces within an
elastic sleeve, which acts as a barrier from the fluid, used to exert the hydrostatic
confining pressure. The system accommodates confining pressure of 50 psi to a maximum
of 4000 psi with temperatures ranging from ambient to 160 °F and a maximum of 3,500
RPMs. (centrifuge model selected controls maximum temperature range).
Low heat output
Because of the belt-drive motor design, motor load is minimized, providing low heat
output (less than 6,500 Btu/h).
Precise control over run parameters
The microprocessor control system provides you with parameters that are within ±20
rpm of set speed; ±1º C of set temperature after dynamic calibration (no more freezing
of samples due to poor temperature control!).
You can quickly and easily program and recall up to 10 run protocols, virtually
eliminating erroneous settings when doing repetitive runs.
Three dual-ramp settings provide controlled accel/decel between 0 and 500 rpm, protecting
gradients from abrupt speed transitions that might damage the separation. A unique
rotor identification system adjusts temperatures to compensate for each individual
A rotor recognition/overspeed protection system prevents setting speeds that are
higher than the maximum speed of the rotor
By your continued use of our website you agree to Core Lab's usage of cookies. More Information