5results about How to "Reduce cooling intensity" patented technology

The utility model discloses a multistage gradient water-cooling quenching mechanism for aluminum profiles, which relates to the technical field of aluminum profile processing and comprises a side frame, a protective cover fixed on the side frame through screws, a multistage gradient quenching component, a quenching control component and a water-cooling circulating component. According to the utility model, the multi-stage gradient quenching assembly is arranged, the flow speed of cooling water of each stage of cooling unit is accurately controlled, and controllable gradient cooling is realized, so that the cooling speed of each part of the aluminum profile tends to be consistent, the deformation stress generated by non-uniform cooling is effectively reduced, and the dimensional accuracy and the surface quality of the aluminum profile are improved; according to the equipment, the temperature change of the aluminum profile can be monitored in real time through the infrared temperature sensor, data are fed back to the control box, the control box automatically adjusts the flow speed of cooling water according to a preset temperature-flow speed curve, automatic and precise control over the cooling process is achieved, and the production efficiency and the stability of the product quality are improved.

This invention discloses an integrated heat pump drying module and its control method, comprising a housing and a compressor installed in the housing. The housing has an air duct with an air inlet and an air outlet, allowing air to enter the air duct from the air inlet and exit from the air outlet. An evaporator and a condenser are installed within the air duct of the housing, with the evaporator positioned closer to the air inlet than the condenser. A partition is installed between the evaporator and the condenser, its lower side dividing the air duct left and right, and its upper side forming an air guide between the partition and the upper sidewall of the housing. An air inlet is formed within the housing cavity between the air inlet and the evaporator, and this inlet is divided into an upper and lower half. A damper plate is installed at the air inlet, which is switched by a driver to close either the upper or lower half. This invention forms an integrated structure, improving equipment compactness and drying efficiency.

The application provides an insulating material auxiliary processing device and method for cable manufacturing, and relates to the field of cable manufacturing. The insulating material auxiliary processing device and method for cable manufacturing comprises a shell for being fixed outside a discharge port of an annular die sleeve. A rotating assembly is installed on the shell. A rotating cylinder of the rotating assembly is provided with a plurality of scrapers which are distributed in a circumferential direction of the rotating cylinder. The scrapers are arranged in an inclined manner. The tips of the scrapers are abutted against an annular end face of the discharge port of the die sleeve through elastic members. The insulating material auxiliary processing device and method for cable manufacturing adopts the inclined scrapers which are distributed in the circumferential direction and abut against the annular end face of the discharge port of the die sleeve through the elastic members. The rotating assembly drives the scrapers to rotate synchronously in a whole circle. The elastic members can adaptively compensate for the processing tolerance, the annular end face and the wear gap of the tips of the scrapers. The semi-solidified melt adhered to the annular end face can be scraped off. Manual cleaning is not needed. The unilateral scrapers are fixed. The material can be continuously removed without stopping.

The application discloses an AI prediction type temperature control system for server heat flow dynamic management, which comprises a data acquisition module, an AI prediction and control decision module and a dynamic temperature control execution module, wherein the data acquisition module acquires server load data, environmental temperature data and temperature data of each component of the server in real time. In the application, the AI prediction model is integrated, the server temperature trend can be accurately predicted in advance based on multidimensional real-time data load, environmental temperature and the like, the prediction accuracy reaches ±1°C, the control unit dynamically adjusts the cooling liquid flow and the pump speed in advance according to the prediction, the feedforward control of cooling before heating is realized, the temperature overshoot or repeated oscillation caused by response lag is avoided, the server is ensured to run in a more stable and safe thermal environment, the cooling intensity can be actively reduced when the predicted temperature is safe, the overcooling is avoided at the root, the accurate matching of the cooling capacity and the heat load is realized, and the invalid refrigeration energy consumption is obviously reduced.

This invention relates to a water-cooled pipe for the bottom of a blast furnace, belonging to the field of metallurgical industry. The water-cooled pipe (2) is arranged at the bottom of the blast furnace, divided into an inner ring region, a middle ring region, and an outer ring region from the inside out according to the distance from the center of the blast furnace. The diameter of the water-cooled pipe (2) in the inner ring region is smaller than that in the middle ring region, which is smaller than that in the outer ring region. The cooling intensity gradually decreases from the outside to the inside, forming a pot-bottom erosion curve (1) inside the blast furnace hearth, thereby increasing the core temperature of the blast furnace hearth. This invention can enhance the cooling of the elephant foot region of the hearth, slow down the erosion of the refractory material in the elephant foot region, reduce the diameter of the middle ring pipe, reduce the cooling area, and minimize the diameter of the inner ring pipe, resulting in the smallest cooling area. The cooling intensity gradually decreases from the outside to the inside, thus forming a pot-bottom erosion, while simultaneously increasing the core temperature, ensuring the hearth is active, and extending the hearth's lifespan.