mhurhangee/ep-ind-claims huggingface dataset:
A product comprising: a dust collection device for a sanding tool comprising a bag having a sidewall and a coupler attached to the bag; the sidewall comprising a first filter layer, a second filter layer, and an outer support layer; the first filter layer comprising a plurality of fibers forming a nonwoven web, the first filter layer having a total pressure drop between 0.1 to 4.0 mm H 2 O, and the first filter layer having a total basis weight between 115 to 450 gram/m 2; and the second filter layer comprising a melt blown microfiber nonwoven web, the second filter layer having a total pressure drop between 5.5 to 20.0 mm H 2 0, and the second filter layer having a total basis weight between 15 to 75 gram/m 2. a dust collection device for a sanding tool comprising a bag having a sidewall and a coupler attached to the bag; the sidewall comprising a first filter layer, a second filter layer, and an outer support layer; the first filter layer comprising a plurality of fibers forming a nonwoven web, the first filter layer having a total pressure drop between 0.1 to 4.0 mm H 2 O, and the first filter layer having a total basis weight between 115 to 450 gram/m 2; and the second filter layer comprising a melt blown microfiber nonwoven web, the second filter layer having a total pressure drop between 5.5 to 20.0 mm H 2 0, and the second filter layer having a total basis weight between 15 to 75 gram/m 2.
A circular microwave ablation antenna, comprising a needle head, a needle bar, a coaxial cable, a conduit, and a choke ring; wherein the circular microwave ablation antenna is provided with a chamber for accommodating the coaxial cable and the conduit, and a water inlet channel is disposed between the conduit and the coaxial cable, and a water return channel is disposed between the conduit and the needle bar; the chamber and the conduit extend forward to a front end of the circular microwave ablation antenna, and an antenna emission window is at least partially located in the conduit to enable a cooling medium to cool the antenna emission window area; at least a portion of the conduit, within the antenna emission window area, is made of a microwave permeable material, so that a microwave radiates outward, and the rest of the conduit is made of a microwave shielding material; the choke ring is located at a rear side of the antenna emission window area and is hermetically fixed to the conduit, so that the choke ring is adapted to block the radiated microwave, a gap is provided between the choke ring and the needle bar, and the gap is adapted for a backflow of the cooling medium.
Process for manufacturing an electrode for medical use, such as a cortical electrode intended for use at brain level, in which, to manufacture said electrode, one uses a silicone strip to form a flexible substrate, one places on said flexible substrate a first mask determining a pattern arranged to define at least one electrical track having at least one contact pad, characterized in that one stiffens said silicone strip by depositing on at least one of its sides a layer of a polymer, and in that said first mask is made from a sheet of a metal or of an alloy of metals and one arranges a magnetized part on the side of the flexible substrate opposite to the side on which said mask is applied, in order to achieve tightness between said flexible substrate and said first mask, and one deposits a metal layer on said flexible substrate through said first mask by means of a physical vapor deposition technique.
An apparatus comprising: a skid comprising a frame defining an interior volume, the frame having a longitudinal axis extending along a level plane; a drivebox having mounting ears for connection to the skid, the drivebox extending along the longitudinal axis of the frame, and comprising a motor, a drive connected to the motor, a plurality of adjustment brackets (662, 664, 666, 668), and a plurality of adjustment gussets (658, 660); a basket located above and movably connected to the drivebox, the basket comprising a housing, an infeed end, a discharge end, and at least one screening deck; wherein the plurality of adjustment brackets (662, 664, 666, 668) of the drivebox comprise a pair of pivot brackets (664, 668) and a pair of vertical adjustment brackets (662, 666), with a pivot bracket (664, 668) and a vertical adjustment bracket (662, 666) being moveably connected to the basket via mounts (642, 644) on each opposing side of the housing and wherein the plurality of adjustment gussets (658, 660) are moveably connected to the basket at a bottom of the housing such that drivebox and basket are suspended from the frame; and wherein the pair of vertical adjustment brackets (662, 666) and the pair of pivot brackets (664, 668) are configured to connect the drivebox with the basket at a desired screening deck angle of between 2 and 15 degrees with respect to the level plane such that wherein at least a portion of the basket and at portion of the at least one screen deck is disposed within the interior volume of the skid. a skid comprising a frame defining an interior volume, the frame having a longitudinal axis extending along a level plane; a drivebox having mounting ears for connection to the skid, the drivebox extending along the longitudinal axis of the frame, and comprising a motor, a drive connected to the motor, a plurality of adjustment brackets (662, 664, 666, 668), and a plurality of adjustment gussets (658, 660); a basket located above and movably connected to the drivebox, the basket comprising a housing, an infeed end, a discharge end, and at least one screening deck; wherein the plurality of adjustment brackets (662, 664, 666, 668) of the drivebox comprise a pair of pivot brackets (664, 668) and a pair of vertical adjustment brackets (662, 666), with a pivot bracket (664, 668) and a vertical adjustment bracket (662, 666) being moveably connected to the basket via mounts (642, 644) on each opposing side of the housing and wherein the plurality of adjustment gussets (658, 660) are moveably connected to the basket at a bottom of the housing such that drivebox and basket are suspended from the frame; and wherein the pair of vertical adjustment brackets (662, 666) and the pair of pivot brackets (664, 668) are configured to connect the drivebox with the basket at a desired screening deck angle of between 2 and 15 degrees with respect to the level plane such that wherein at least a portion of the basket and at portion of the at least one screen deck is disposed within the interior volume of the skid.
A tube comprising an inner layer, a middle layer and an outer layer, wherein the tube is formed by a co-extrusion process, the inner layer, middle layer and outer layer are concentric and the inner layer, and outer layer are adhered to the middle layer and thus adhered to each other, wherein the inner layer comprises a polyethylene, the outer layer comprises a thermoplastic polyurethane and characterized in that: the inner layer comprises more than 90% by weight of the polyethylene, the outer layer comprises more than 90% by weight of an aromatic or aliphatic polyether based polyurethane and the middle layer comprises more than 90% by weight of an ethylene ethyl acrylate copolymer or an ethylene methyl acrylate copolymer or an anhydride grafted ethylene methyl acrylate copolymer, a copolymer of two or more of said acrylates or a mixture of two or more of the foregoing.
A tank (Tf) to be provided in a construction machine, comprising: a tank body having a first wall portion, a first opposing wall portion opposing to the first wall portion in a first direction, a second wall portion lying between the first wall portion and the first opposing wall portion, and a second opposing wall portion lying between the first wall portion and the first opposing wall portion and opposing to the second wall portion in a second direction crossing the first direction; at least one rod-shaped first reinforcement member disposed across the first wall portion and the first opposing wall portion, the at least one first reinforcement member having opposite ends welded to the first wall portion and the first opposing wall portion, respectively; characterized by at least one rod-shaped second reinforcement member disposed across the second wall portion and the second opposing wall portion while spatially crossing the at least one first reinforcement member, the at least one second reinforcement member having opposite ends welded to the second wall portion and the second opposing wall portion, respectively. a tank body having a first wall portion, a first opposing wall portion opposing to the first wall portion in a first direction, a second wall portion lying between the first wall portion and the first opposing wall portion, and a second opposing wall portion lying between the first wall portion and the first opposing wall portion and opposing to the second wall portion in a second direction crossing the first direction; at least one rod-shaped first reinforcement member disposed across the first wall portion and the first opposing wall portion, the at least one first reinforcement member having opposite ends welded to the first wall portion and the first opposing wall portion, respectively; characterized by at least one rod-shaped second reinforcement member disposed across the second wall portion and the second opposing wall portion while spatially crossing the at least one first reinforcement member, the at least one second reinforcement member having opposite ends welded to the second wall portion and the second opposing wall portion, respectively.
A consumable electrode type welding method in which, using a welding system comprising wire feed means (2, 3) for feeding a welding wire to a welding torch, an actuator for holding and moving the welding torch, a control unit for driving and controlling the actuator, and a welding power supply device for applying a welding output into between a member to be welded and the welding wire, the method comprising the step of: controlling the speed of the welding wire with respect to the member to be welded, and characterized by the step of: moving the welding torch by the actuator in a direction parting away from the member to be welded while feeding the welding wire; wherein, in a welding end time, while reducing the feed speed of the welding wire as well as the welding output, the welding torch is pulled apart from the member to be welded at a speed equal to or higher than the feed speed of the welding wire by the actuator and, at a timing where the feed speed of the welding wire balances substantially with the moving speed of the actuator, the welding output is caused to stop. controlling the speed of the welding wire with respect to the member to be welded, and characterized by the step of: moving the welding torch by the actuator in a direction parting away from the member to be welded while feeding the welding wire; wherein, in a welding end time, while reducing the feed speed of the welding wire as well as the welding output, the welding torch is pulled apart from the member to be welded at a speed equal to or higher than the feed speed of the welding wire by the actuator and, at a timing where the feed speed of the welding wire balances substantially with the moving speed of the actuator, the welding output is caused to stop. moving the welding torch by the actuator in a direction parting away from the member to be welded while feeding the welding wire; wherein, in a welding end time, while reducing the feed speed of the welding wire as well as the welding output, the welding torch is pulled apart from the member to be welded at a speed equal to or higher than the feed speed of the welding wire by the actuator and, at a timing where the feed speed of the welding wire balances substantially with the moving speed of the actuator, the welding output is caused to stop.
Compactor assembly (100, 1000, 1200) comprising a compactor and a transport device for supplying the compactor with empties, wherein the transport device comprises: • two tensioning rollers; • a transport belt which is tensioned by means of the two tensioning rollers; characterized by • a plurality of supporting arrangements for supporting the transport belt that are arranged in a first row and in a second row, wherein each of the plurality of supporting arrangements comprises a carrying roller and a rotary bearing, wherein the carrying roller is mounted so as to be rotatable about an axis of rotation by means of the rotary bearing, and wherein the carrying roller has an outer surface on which the transport belt rests, wherein the outer surface encloses, with a plane transversely with respect to the axis of rotation, an angle in a range from 10° to 45°, wherein the axes of rotation of the plurality of support arrangements are substantially parallel to one another, and wherein the respective axis of rotation is substantially vertical. • two tensioning rollers; • a transport belt which is tensioned by means of the two tensioning rollers; characterized by • a plurality of supporting arrangements for supporting the transport belt that are arranged in a first row and in a second row, wherein each of the plurality of supporting arrangements comprises a carrying roller and a rotary bearing, wherein the carrying roller is mounted so as to be rotatable about an axis of rotation by means of the rotary bearing, and wherein the carrying roller has an outer surface on which the transport belt rests, wherein the outer surface encloses, with a plane transversely with respect to the axis of rotation, an angle in a range from 10° to 45°,
A hood for a domestic kitchen comprising: - a centrifugal fan comprising a volute and a wheel positioned inside the volute, the wheel having an axis of rotation; the volute comprising a first inlet opening allowing entry of air inside the volute; the volute comprising a first side extending transversally to a direction identified by the axis of rotation; the first side circumscribing the first inlet opening; - an enclosure housing the volute and the wheel; the enclosure comprising a first and a second wall (51, 52) reciprocally convergent and connecting in a first zone of reciprocal connection, the first and the second wall (51, 52) not being coplanar; at least a part of the first side of the volute facing the first connection zone, the first connection zone being a junction edge between the first and the second wall (51, 52) or a rounded fitting or a flat chamfer; characterised in that a first translation of the junction edge or the rounded fitting or the flat chamfer intersect at least a part of the first inlet opening, the first translation occurring along a direction identified by the axis of rotation. - a centrifugal fan comprising a volute and a wheel positioned inside the volute, the wheel having an axis of rotation; the volute comprising a first inlet opening allowing entry of air inside the volute; the volute comprising a first side extending transversally to a direction identified by the axis of rotation; the first side circumscribing the first inlet opening; - an enclosure housing the volute and the wheel; the enclosure comprising a first and a second wall (51, 52) reciprocally convergent and connecting in a first zone of reciprocal connection, the first and the second wall (51, 52) not being coplanar; at least a part of the first side of the volute facing the first connection zone, the first connection zone being a junction edge between the first and the second wall (51, 52) or a rounded fitting or a flat chamfer; characterised in that a first translation of the junction edge or the rounded fitting or the flat chamfer intersect at least a part of the first inlet opening, the first translation occurring along a direction identified by the axis of rotation.
An upgraded preexisting flight management system having increased functionality over a preexisting FMS, the preexisting FMS having a legacy advanced flight management computer (AFMC) having aircraft performance capabilities exploitable throughout a flight of an aircraft having the preexisting FMS on board the aircraft; an inertial reference unit (110, 120), a central air data computer (CADC) (111, 121), a distance measuring equipment receiver (112, 122), and a digital flight guidance computer (DFGC) (113, 123), the IRU (110, 120), CADC (111, 121), DME receiver (112, 122) and DFGC (113, 123) being in communication with the legacy AFMC; the upgraded preexisting FMS comprising a data concentrator unit (201, 251), the CADC (111, 121), IRU (110, 120) and DME receiver (112, 122) being connected to the data concentrator unit (201, 251) for providing input information thereto, the data concentrator unit (201, 251) and the legacy AFMC being operatively connected to each other for exchanging input and output information therebetween, the DFGC (113, 123) being connected to the data concentrator unit (201, 251) for receiving output information therefrom; and a global positioning system receiver (202, 252) operatively connected to the data concentrator unit (201, 251) for providing input information thereto; wherein the upgraded preexisting FMS is configured to: blend GPS data from the GPS receiver (202, 252) with IRU position data from the IRU (110, 120); or in instances where GPS data from the GPS receiver (202, 252) is not available for a certain amount of time, use data from the DME receiver (112, 122) to augment the IRU position data from the IRU (110, 120); and transmit the blended data or augmented data to the AFMC; such that the upgraded preexisting FMS is capable of at least required navigation performance, vertical navigation (VNAV) and area navigation (RNAV) capability utilizing a GPS based navigation solution, while still enabling the legacy AFMC to exploit its aircraft performance capabilities throughout the flight of an aircraft having the upgraded preexisting FMS on board. blend GPS data from the GPS receiver (202, 252) with IRU position data from the IRU (110, 120); or in instances where GPS data from the GPS receiver (202, 252) is not available for a certain amount of time, use data from the DME receiver (112, 122) to augment the IRU position data from the IRU (110, 120); and transmit the blended data or augmented data to the AFMC;
Fibre guide channel device for an open-end spinning mechanism with a fibre guide channel body, which can be fixed in an opening roller housing and which, in the region of its fibre guide channel entry, has a receiving opening for a fibre guide channel insert and by means of the central fibre guide channel of which individual fibres, which are combed by an opening roller from a feed fibre band, are pneumatically transported to a spinning rotor revolving at a high rotational speed in a negative pressure-loadable rotor housing, characterised in that the fibre guide channel body is configured as a plastics material part and the fibre guide channel insert is manufactured as a sleeve-like component, which is closed all the way round and consists of a highly abrasion-resistant material.
A display device comprising: a housing; at least one roller configured to be positioned within the housing; a display portion comprising a display panel and a module cover; and a telescopic bar, one end of which is fixed to the interior of the housing and the other end is fixed to a bottom end of the display portion, whereby the display panel and the module cover are either in a first state where the display panel and the module cover are kept wound around the at least one roller or in a second state where the display panel and the module cover are kept unwound from the at least one roller, in contact with each other, and exposed out of the housing, the telescopic bar moves simultaneously with the display portion, characterised in that the module cover bends in a winding direction, the module cover includes a plurality of aprons, wherein one of the plurality of aprons is connected to an adjacent apron by a link, and each of the plurality of aprons includes a depressed part which is positioned at one end of the apron and a protuberance which is positioned at the other end of the apron, wherein, in the second state, the protuberance of the apron is inserted into the depressed part of the adjacent apron. a housing; at least one roller configured to be positioned within the housing; a display portion comprising a display panel and a module cover; and a telescopic bar, one end of which is fixed to the interior of the housing and the other end is fixed to a bottom end of the display portion, whereby the display panel and the module cover are either in a first state where the display panel and the module cover are kept wound around the at least one roller or in a second state where the display panel and the module cover are kept unwound from the at least one roller, in contact with each other, and exposed out of the housing, the telescopic bar moves simultaneously with the display portion, characterised in that the module cover bends in a winding direction, the module cover includes a plurality of aprons, wherein one of the plurality of aprons is connected to an adjacent apron by a link, and each of the plurality of aprons includes a depressed part which is positioned at one end of the apron and a protuberance which is positioned at the other end of the apron, wherein, in the second state, the protuberance of the apron is inserted into the depressed part of the adjacent apron.
A method for treating and/or pre-treating liquid manure or biogas plant reject for the elimination of harmful substances, particularly nitrogen, phosphorus, and odor molecules, said method comprising the use of an apparatus which includes at least two functionally sequential process tanks for conducting a biological treatment on a matter to be treated, said process tanks comprising inlet means for supplying the process tank with a substance to be treated, outlet means for passing the post-treatment matter out of the tank, and air inlet means for supplying the process tank with air required by an aerobic biological process, wherein the method comprises providing each process tank first with a microbe population adapted for processing the matter to be treated, said adaptation having been included a step of isolating a microbe population from soil, wherein isolating the microbe population includes (i) working the soil into a soil-water suspension and (ii) little by little adding the matter to be treated into the soil-water suspension for a period of time to produce an adapted microbe population for a deodorization treatment of the matter to be treated; supplying the matter to be treated gradually into the first process tank and thence further into a subsequent process tank/subsequent process tanks, such that the microbe population first provided in the process tanks displaces step by step the original microbe population present in the matter to be treated; conducting, downstream of at least one process tank, a nitrogen removal treatment by supplying a stripping tower with the matter to be treated from the process tank, in which the pH of the matter to be treated has been raised by means of the aerobic microbiological treatment to a level not lower than pH 8,5 which is sufficient from the standpoint of nitrogen removal in the stripping tower without a chemical addition; and returning the matter substantially free of original microbes from the stripping tower into the first process tank for diluting the matter to be treated and fed into the first process tank.