6results about How to "Improve water intake efficiency" patented technology

This utility model provides a deep well pump with rapid water intake, belonging to the field of deep well pumps. It solves the problem that traditional deep well pumps extract liquid by rotating an impeller, whose water intake efficiency relies entirely on the impeller's rotation speed, lacking independent water intake mechanisms and structures. Slow water intake efficiency leads to slow overall water delivery and discharge. This utility model includes a deep well pump body, an impeller chamber, a water outlet pipe located above the deep well pump body, and a water inlet pipe located below the deep well pump body. The key feature is that the water inlet pipe has an inlet port perpendicular to it. The inner wall of the inlet port has several annularly arranged blocking parts, with an inlet groove between every two adjacent blocking parts. Each blocking part has several stepped water-blocking parts, and a guiding water part is located below each blocking part, with guide grooves formed between the guiding water parts.

Embodiments of the present application provide a laundry treating apparatus. The laundry treating apparatus includes a cabinet, a water inlet assembly, a first drum assembly, and at least one second drum assembly. The first drum assembly is disposed in the cabinet. The second drum assembly is disposed in the cabinet and is positioned above or below the first drum assembly. The second drum assembly has a smaller drum diameter and / or a smaller volume than the first drum assembly. The water inlet assembly includes a first water inlet channel for supplying water to the first drum assembly and a second water inlet channel for supplying water to the second drum assembly. The first water inlet channel and the second water inlet channel can supply water simultaneously. The laundry treating apparatus provided by embodiments of the present application can improve water inlet efficiency, thereby improving the working efficiency of the laundry treating apparatus.

This utility model relates to the field of water conservancy facilities, specifically disclosing a vortex-breaking device for the inlet of a hydropower station unit. The device includes a central pipe, an outer baffle located outside the central pipe, an inner baffle located inside the central pipe, and several auxiliary inlets on the side of the central pipe. A floating unit is located on the upper side of the central pipe. When in use, this device needs to be placed in an area prone to vortex formation. The device obtains its main buoyancy through the floating unit and only requires simple rope fixation to prevent it from drifting with the water flow. When water flows towards the turbine, the outer baffle effectively blocks the water flow rotation, suppressing vortex formation at the source. To improve water intake efficiency, several auxiliary inlets are added to the central pipe. Simultaneously, to prevent water flow rotation inside the central pipe, an inner baffle is installed on the inner side of the central pipe, referencing the vortex-breaking principle of the outer baffle.

The utility model relates to the technical field of heat exchangers, and discloses a high turbulence heat transfer heat exchanger which comprises a shell and an embossed pipe body penetrating through the two sides of the shell, supporting frames are fixedly installed at the positions, close to the two sides, of the bottom of the shell, a water inlet pipe is inserted into the position, close to one side, of the top of the shell, and a connecting pipe is arranged at the top of the water inlet pipe. A detachable assembly is arranged between the connecting pipe and the water inlet pipe, a connecting ring fixedly sleeves the position, close to the top end, of the water inlet pipe, a plurality of rectangular grooves are formed in the periphery of the connecting ring, a fixing ring fixedly sleeves the position, close to the bottom end, of the periphery of the connecting pipe, a cleaning assembly is arranged at the top of the filter screen, and a water outlet pipe is inserted into the position, close to the other side, of the top of the shell. When the surface of the filter screen is cleaned, the turbine can rotate under the impact of water flow, and then the connecting block fixedly arranged on the periphery of the connecting shaft in a sleeving mode can rotate, so that the scraper blade can rotate, impurities on the surface of the filter screen can be cleaned, and the water inlet efficiency of the water inlet pipe is improved.

The utility model relates to the technical field of washing machines, in particular to a rapid water injection washing machine. The rapid water injection washing machine comprises a cylinder body, a cleaning machine core, a washing machine water injection port, a water storage device and a communication port. The water storage device is arranged on the tub body, and the washing machine water injection port is communicated with the inlet end of the water storage device; the cylinder body comprises a cleaning area, the cleaning machine core is arranged in the cleaning area, and the water storage device is communicated with the cleaning area through a communication port; the diameter of the communicating port is larger than that of a water injection port of the washing machine. According to an existing washing machine, water is injected into the washing machine through a water injection opening of the washing machine, and through the arrangement of the water storage device, water can be injected into the water storage device firstly when the washing machine carries out other washing procedures such as washing, dewatering and drainage procedures. Washing water is temporarily stored in the water storage device, water is supplied into the cylinder body through the communication port when a washing procedure needs to be carried out, and the water inlet efficiency of the washing water can be improved due to the fact that the caliber of the communication port is larger than that of the water injection port of the washing machine.

The utility model discloses an oil-immersed energy-saving multistage submersible pump which comprises a submersible motor, a multistage impeller and a water inlet filter cylinder, the water inlet filter cylinder is arranged above the submersible motor, the multistage impeller is arranged above the water inlet filter cylinder, a first cover plate is arranged at the top of the submersible motor, and a second cover plate is arranged at the bottom of the submersible motor. A first flange connected with the first cover plate is arranged at the bottom of the water inlet filter cartridge, and heat dissipation stop levers vertically extending to the outer side of the water inlet filter cartridge are arranged on the first cover plate at intervals. According to the oil-immersed type energy-saving multi-stage submersible pump, the heat dissipation stop levers are distributed on the outer side of the water inlet filter cylinder, the oil-immersed type energy-saving multi-stage submersible pump can make contact with flowing water flow to conduct heat exchange, the heat dissipation effect is improved, impurities can be blocked, large impurities are prevented from entering gaps between the heat dissipation stop levers and the water inlet filter cylinder, and therefore the probability that filter holes are blocked is reduced, and the service life of the submersible pump is prolonged. The water inlet efficiency is improved, and the energy consumption and cost are reduced.