Methods of filtering a liquid feed are disclosed. In one version, the method comprises passing a liquid feed through a single pass tangential flow filtration (SPTFF) system and recovering the retentate and permeate from the system in separate containers without recirculation through the SPTFF system. In another version, the method of filtering a liquid feed, comprises passing a liquid feed through a tangential flow filtration (TFF) system, recovering permeate and a portion of the retentate from the system in separate containers without recirculation through the TFF system, and recirculating the remainder of the retentate through the TFF system at least once. The methods can be performed using an SPTFF or a TFF system that comprises manifold segments to serialize the flow path of the feed and retentate without requiring diverter plates.

A data display system and method for new energy digital water purifier is disclosed. The data display system includes a data recording module and a lifetime calculation module. Herein the data recording module is configured to detect and record an initial electric energy generated by the generator when there is a water stream flowing through the new energy digital water purifier after the new energy digital water purifier has replaced a filter element. By calculating the electric energy generated by the generator to reflect the degree of obstruction of the filter element, and by recording generation duration of the generator as the usage duration of the filter element, the user is alerted to replace the filter element in time when the degree of obstruction of the filter element is high or the usage duration is too long.

The present disclosure relates, according to some embodiments, to methods, systems, and apparatuses for dewatering solid particles in a liquid mixture, such as those, for example, comprising receiving a liquid mixture, the liquid mixture including solid particles; suspending a filter in the liquid mixture; agglomerating, at the filter, solid particles in the liquid mixture, the agglomerating including potentiating passage of liquid in the liquid mixture through the filter and potentiating accumulation of solid particles in the liquid mixture to collect and agglomerate at the filter; and applying a shockwave to the filter, the applied shockwave operable to remove the agglomerated solid particles from the filter.

A system for filtering particles from a fluid includes a strainer. The strainer includes a housing having an inlet, a first outlet, a second outlet. A filter element is positioned in an internal volume of the housing. The filter element defines a bore formed axially-therethrough and openings that are substantially transverse to the bore. A first portion of the fluid that enters the housing through the inlet flows through the openings in the filter element and exits the housing through the first outlet, and a second portion of the fluid that the housing through the inlet bypasses the openings and exits the housing through the second outlet.

A filtration system with a filter out of which filtered medium exits is provided. The system includes a control panel that receives pressure and flow rate information of the medium and uses the pressure information to send a first signal to prevent a pressure differential of the medium from exceeding a first set point yet maintain filtration of the medium. The control panel uses the flow rate information to send a second signal to prevent the flow rate of the medium from exceeding a second set point yet maintain filtration of the medium. An actuated flow control valve is present that opens at different amounts, and the medium flows through the actuated flow control valve.

A filtering and concentrating apparatus having a stirring function for small ternary precursor particles, comprising a barrel (100). One end of the barrel (100) is provided with a first closure (101), and the other end of the barrel (100) is provided with a second closure (102). The barrel (100) or the first closure (101) or the second closure (102) is provided with a feed port (103). One or more discharge pipes (200) are provided on the inner wall of the barrel (100). Microporous filtering mediums (300) communicated with the interior of the discharge pipe (200) are provided on the discharge pipe (200). An end portion of the discharge pipe (200) is communicated with the exterior of the barrel (100). A stirring means (800) is provided inside the barrel (100).

The present disclosure discloses a circulating water pump for a data center computer room, including a circulating water pump main body. A water inlet pipe and a water outlet pipe are respectively arranged on a left side and a right side below the circulating water pump main body. An end of the water inlet pipe is fixedly connected to a connecting pipe, on which there is provided with a cleaning pipe component I and a cleaning pipe component II having a same structure, and an electric butterfly valve is fixedly installed at an end of the cleaning pipe component I and of the cleaning pipe component II away from the water inlet pipe.

The present disclosure relates to an automatic separation system and method for target objects designed to prevent external exposure. In one embodiment, the automatic separation system for target objects may include: a fluid injection device; a target object separation unit containing one or more target object separation devices; an integrated inlet for injecting fluid into the target object separation unit using the fluid injection device; a target object integrated outlet for discharging target objects concentrated in a specific direction from the target object separation unit; a target object collection unit; and a connection unit that includes at least one of a first connection part connecting the fluid injection device and the integrated inlet, or a second connection part connecting the target object integrated outlet and the target object collection unit.

Disclosed are a filter device for cutting fluid, a cleaning method for the filter device, and a filter circulation system. The filter device includes a filter cartridge, a filter screen and an ultrasonic cleaning assembly, where the filter screen is disposed in the filter cartridge, and the filter screen is provided with a cutting fluid inlet and a drain outlet. The cutting fluid inlet is configured to allow to-be-filtered cutting fluid to flow into. The drain outlet is configured to discharge cleaning liquid and sewage in the filter screen. The filter cartridge is provided with a cutting fluid outlet, and the cutting fluid outlet is configured to discharge cutting fluid filtered.

A measurement module for a water filtration system including a filter body having at least one body electrical contact. The measurement module includes a module electrical contact selectively coupled with the at least one body electrical contact to transfer electrical signals between the measurement module and the filter body; and a fluid flow measuring device configured to determine an amount of fluid passing through the water filtration system, the fluid flow measuring device receiving electrical power from the filter body.