Abstract: Described herein is a method of using hollow fiber filter cartridge. The method includes: providing a hollow fiber filter cartridge inside or outside an environmental cleaning equipment; allowing a wastewater to enter the hollow fiber filter cartridge from an outside of the hollow fiber filter under no water pressure or low water pressure (such as under 30 gw/cm2); allowing the wastewater to cross a plurality of nanopores of the hollow fiber filter cartridge under no water pressure or low water pressure (such as under 30 gw/cm2) to produce a clean water; and allowing the environmental cleaning equipment to filter wastewater to produce clean water continuously, thereby improving cleaning efficiency and reducing water consumption.

Abstract: A cleaning bucket structure for automatically purifying foul water is provides. The cleaning bucket structure includes an outer bucket, an inner bucket, a transmission member, a pumping member, a filtering member and a covering plate. The outer bucket has a receiving space. The inner bucket has a diameter which is smaller than a diameter of the outer bucket and is disposed in the receiving space of the outer bucket. The transmission member is disposed in the inner bucket. The pumping member is disposed in the inner bucket for receiving the transmission member therein. The filtering member is disposed in the inner bucket and surrounding the transmission member and the pumping member. The covering plate is disposed in the inner bucket and above the filtering member and includes a plurality of openings.

Abstract: A rotary dewatering mop device comprises an outer casing, a barrel, a cleaning assembly and a holding assembly. The cleaning assembly is pulled upward through the holding assembly to be placed in the barrel and is moved upward and downward reciprocatically through a handheld rod to drive the barrel and the cleaning assembly to generate a centrifugal force of rotation, thereby achieving rapid dewatering.

Abstract: A cleaning bucket structure for automatically purifying foul water is provides. The cleaning bucket structure includes an outer bucket, an inner bucket, a transmission member, a pumping member, a filtering member and a covering plate. The outer bucket has a receiving space. The inner bucket has a diameter which is smaller than a diameter of the outer bucket and is disposed in the receiving space of the outer bucket. The transmission member is disposed in the inner bucket. The pumping member is disposed in the inner bucket for receiving the transmission member therein. The filtering member is disposed in the inner bucket and surrounding the transmission member and the pumping member. The covering plate is disposed in the inner bucket and above the filtering member and includes a plurality of openings.

Abstract: A rotary dewatering mop device comprises an outer casing, a barrel, a cleaning assembly and a holding assembly. The cleaning assembly is pulled upward through the holding assembly to be placed in the barrel and is moved upward and downward reciprocatically through a handheld rod to drive the barrel and the cleaning assembly to generate a centrifugal force of rotation, thereby achieving rapid dewatering.

Abstract: The present invention provides a telescopic storage can structure, which comprises a can, a hood and a cover. The can is disposed with an airtight member at an opening, and the hood is covered on the can and formed with an upper opening. The cover is disposed on the upper opening and formed with an air outlet and disposed with an air outlet valve assembly. The hood can be upwardly and downwardly displaced on the can according to a holding capacity, and when the hood is displaced downwardly, the cover will squeeze the internal air thereof and the internal air is sent out through the air outlet. Thereby achieving an effect of being able to adjust a size according to a holding capacity and facilitate an airtight purpose, and further, relative positions of the can and the hood can be telescopically adjusted according to a storage capacity.

Abstract: The present invention provides a structure of a gas sensor, comprising: a support, having a front side, a back side opposite to the front side, a cell region, and a peripheral region circling the cell region; a cavity, formed on the back side of the support in the cell region; a heater, disposed on the front side of the support covering the cavity; a sensing element, disposed on the heater; and a sealing layer, formed on the back side of the support covering inside the cavity.

Abstract: The present invention provides a structure of a gas sensor, comprising: a support, having a front side, a back side opposite to the front side, a cell region, and a peripheral region circling the cell region; a cavity, formed on the back side of the support in the cell region; a heater, disposed on the front side of the support covering the cavity; a sensing element, disposed on the heater; and a sealing layer, formed on the back side of the support covering inside the cavity.

Abstract: A foam structure is provided. The foam structure includes a plurality of resilient elements and a plurality of flexible connecting elements connected between the resilient elements. The resilient element comprises an upper material layer, a lower foam material layer, and an intermediate material layer. Two adjoining intermediate material layer are connected with each other through at least one connecting element provided therebetween, but an interspace is also provided therebetween. The resilient elements and flexible connecting elements may be integrally formed by integral molding with a foam material as a one-piece foam structure.

Abstract: A breathable elastic buffer material structure includes two breathable fabrics, a plurality of spaced elastic pillars between the two breathable fabrics and an elastic plate between the two breathable fabrics. The elastic plate has a plurality of spaced through holes and ribs between the through holes. The elastic pillars are inserted through the through holes, respectively. The ribs of the elastic plate are located between the elastic pillars. When the elastic pillars are applied with an impact force, the ribs not only provide an elastic buffer effect itself but also bear the impact force so the elastic pillars won't slant to enhance the buffer effect. In case a rod-like object penetrates between the elastic pillars, the ribs can block the rod-like object. The present invention provides better buffer and protection effects and is very practical.

Abstract: A spin-rinse-dry (SRD) apparatus includes a housing; a pedestal in the housing, comprising a rotatable wafer supporter for holding and spinning a semiconductor wafer; and at least a first liquid dispensing tube in adjacent to the pedestal. The first liquid dispensing tube includes a bended tubular part and an outlet nozzle that is situated beyond an edge of the semiconductor wafer.

Abstract: A polishing head used for CMP is described, including a retaining ring that is for engaging with a wafer, a membrane and an edge control ring. The membrane includes a bottom part for engaging with the wafer, and a lip part contiguous with the bottom part. The edge control ring is disposed between the retaining ring and the membrane, including a bottom part that has an abutting surface. The abutting surface of the edge control ring contacts with the external surface of the lip part of the membrane when the membrane is not inflated.

Abstract: A combination heat-transfer plate member for use with a heat sink to dissipate heat from a CPU is disclosed having a flat graphite base member and two metal sheet members respectively bonded to the top and bottom sides of the flat graphite base member.