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LIBS, an acronym for Laser-Induced Breakdown Spectroscopy, is a technique where a high-energy pulsed laser is focused to ablate the sample surface, generating plasma. The emitted
spectra from the plasma are then analyzed to determine the material composition and content of the sample. This method is characterized by no sampling required, no sample preparation, non-contact operation, and no radiation involved
Improving sinter quality effectively
reduces the return ore rate and lowers
material costs
By utilizing GS-LIBS (Gas-Solid Laser-Induced Breakdown Spectroscopy) for real-time composition detection, the system predicts the basicity index of sinter ore in advance. Through a
proportional control algorithm, it automatically adjusts the realtime discharge rate of flux silos, addressing the challenge of significant time lag in sinter production control. This achieves
closed-loop automatic control of sinter basicity and enhances the
stability rate of sinter basicity
By implementing intelligent proportioning
and optimized basicity control for
sintering, the fluctuation in finished sinter
basicity can be effectively reduced,
thereby increasing the achievement rate of
target basicity values.
Production practices demonstrate that for
every 10% increase in sinter basicity
stability rate, the blast furnace coke rate
decreases by 1%, while production output
increases by 1.5%.
LIBS, an acronym for Laser-Induced Breakdown Spectroscopy, is a technique where a high-energy pulsed laser is focused to ablate the sample surface, generating plasma. The emitted
spectra from the plasma are then analyzed to determine the material composition and content of the sample. This method is characterized by no sampling required, no sample preparation, non-contact operation, and no radiation involved
Enhances composition and temperature
data integration between iron and steel
processes, advances intelligent iron-tosteel coordination, and achieves dual
improvements in quality control and
operational efficiency
Optimize molten iron scheduling to meet
intelligent requirements for digitalization
and standardized process control, driving
the upgrade of smart blast furnace systems.
Replaces traditional sampling and testing
by directly transmitting molten iron
composition data to the steelmaking
process. Through feedforward control, it
improves production stability and refines
the "One-Click Steelmaking" system.