Welcome to the official scientific portal of KÜBERG TECHNOLOGY. We focus on the research, chemical formulation, and technical evaluation of next-generation specialty lubricants for extreme heavy-industrial applications.
Investigation into the phase transformation of overbased calcium sulfonate into crystalline structures, optimizing high-temperature and waterproof sealing capabilities under extreme shock loads.
R&D on non-soap organic thickeners utilizing clean chemical reactions to maximize mechanical shear stability and extend bearing lifetime in high-speed electric motors.
Technical analysis of dielectric silicone fluids thickened with fumed silica, ensuring zero elastomer swelling and maximum insulation for advanced electrical systems.
Advanced chemical engineering of high-stability synthetic base fluids to optimize friction coefficient and anti-wear protection in heavily loaded industrial gearboxes under extreme temperatures.
Development of ashless, high-VI hydraulic fluids utilizing advanced saturated ester technology to secure supreme shear stability and environmental compliance.
Technical evaluation of next-generation anti-oxidant additives in gas and steam turbine configurations to completely eliminate varnish and sludge formation.
Evaluating the structural synthesis of 400 TBN detergent core materials as the primary backbone for exceptional natural extreme-pressure anti-wear characteristics.
Thermodynamic mapping of the exothermic reaction pathways between raw diisocyanates and specialized amines to engineer high-purity polyurea thickener matrices.
Analyzing the network-forming efficiency of surface-treated fumed silica within dimethyl silicone fluid structures to maximize thermal gel stability.
KÜBERG TECHNOLOGY operates as an advanced international research division dedicated to decoding complex tribological phenomena. Our core scientific mission revolves around the synthesis of next-generation molecular thickener matrices and heavy-duty fluid frameworks designed to withstand extreme industrial operations.
Our central testing facility evaluates high-temperature shear stability, water washout resistance, and advanced anti-wear kinetics under extreme boundary lubrication phases. Through systematic chemical modeling and rigorous laboratory simulations, we bridge the gap between academic polymer chemistry and real-world heavy metallurgy demands.
We offer research positions for master and PhD students specializing in organic synthesis, tribology, and rheological fluid dynamics to join our laboratory framework.
Apply for ResearchConducting standard ASTM chemical evaluations and technical quality management metrics for next-generation high-pressure specialty lubricants development.
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