mhurhangee/ep-ind-claims huggingface dataset:
A hand held dispenser, comprising: a handle; a dispense material manifold supported by said handle; a dispense material mixing module supported at a forward, dispensing end of said manifold, said mixing module having a dispense material passageway (426, 428, 436) that opens out to a dispenser outlet; a driver supported by said handle; a reciprocating member in driving communication with said driver and positioned for reciprocation in said mixing module; a first valve assembly and a first valve housing receiving said first valve assembly, and said first valve housing extending rearwardly off of a first side of a main body portion of said manifold such that said first valve housing is rearward of a rearward end of said mixing module; a first dispense material hose fitting in dispense material communication with said first valve housing; a second valve assembly and a second valve housing receiving said second valve assembly, and said second valve housing extending rearwardly off of a second side of the main body portion of said manifold such that said second valve housing is rearward of a rearward end of said mixing module; and a second dispense material hose fitting in dispense material communication with said second valve housing, further comprising a drive transmission system comprising a ball screw transmission having a screw pitch of less than 11° degrees. a handle; a dispense material manifold supported by said handle; a dispense material mixing module supported at a forward, dispensing end of said manifold, said mixing module having a dispense material passageway (426, 428, 436) that opens out to a dispenser outlet; a driver supported by said handle; a reciprocating member in driving communication with said driver and positioned for reciprocation in said mixing module; a first valve assembly and a first valve housing receiving said first valve assembly, and said first valve housing extending rearwardly off of a first side of a main body portion of said manifold such that said first valve housing is rearward of a rearward end of said mixing module; a first dispense material hose fitting in dispense material communication with said first valve housing; a second valve assembly and a second valve housing receiving said second valve assembly, and said second valve housing extending rearwardly off of a second side of the main body portion of said manifold such that said second valve housing is rearward of a rearward end of said mixing module; and a second dispense material hose fitting in dispense material communication with said second valve housing, further comprising a drive transmission system comprising a ball screw transmission having a screw pitch of less than 11° degrees.
A habitable radiation shielding vault, comprising: a central vault room having sidewalls; a radiation emitting device in the central vault room; and a platform for holding a quantity of radiation shielding material above the central vault room; characterized in that the platform is supported by shear walls (62, 64) that are disposed outside the sidewalls of the central vault room such that the radiation shielding material is supported and suspended above the central vault room without being in contact with or bearing upon the central vault room or affecting the height or level of the central vault room. a central vault room having sidewalls; a radiation emitting device in the central vault room; and a platform for holding a quantity of radiation shielding material above the central vault room; characterized in that the platform is supported by shear walls (62, 64) that are disposed outside the sidewalls of the central vault room such that the radiation shielding material is supported and suspended above the central vault room without being in contact with or bearing upon the central vault room or affecting the height or level of the central vault room.
Device for winding toroidal cores without using a magazine, having a toroidal core retainer and elements used to guide the wire and magazine the wire disposed substantially in a wire guiding plane, comprising: a first transport roller (120 and a second transport roller disposed in such a way relative to the toroidal core retainer that a wire to be magazined and wound on the transport rollers in the wire guiding plane can be guided between the first and second transport roller through the toroidal core; a wire ejector disposed adjacent to the second transport roller; and a wire tensioner; wherein the wire ejector is configured during operation so that a loop of the wire to be wound, having passed through the toroidal core, is moved sideways out of the wire guiding plane adjacent to the second transport roller, the wire then runs into the wire tensioner and the wire tensioner is configured to firstly tension the wire loop and then release it again for continuing winding. a first transport roller (120 and a second transport roller disposed in such a way relative to the toroidal core retainer that a wire to be magazined and wound on the transport rollers in the wire guiding plane can be guided between the first and second transport roller through the toroidal core; a wire ejector disposed adjacent to the second transport roller; and a wire tensioner; wherein the wire ejector is configured during operation so that a loop of the wire to be wound, having passed through the toroidal core, is moved sideways out of the wire guiding plane adjacent to the second transport roller, the wire then runs into the wire tensioner and the wire tensioner is configured to firstly tension the wire loop and then release it again for continuing winding.
Process for making a device (100, 200, 300) comprising at least the following steps: - producing a getter structure comprising at least one portion of getter material permeable to gas (110, 110a, 110b) covered by at least one protective layer (112, 112a, 112b) hermetic to gas, then - hermetic encapsulation of the getter structure in a cavity (106, 150), then - production of at least one local opening (116, 124) passing through the protective layer (112, 112a, 112b) and forming an access to the portion of getter material permeable to gas (110, 110a, 110b). - producing a getter structure comprising at least one portion of getter material permeable to gas (110, 110a, 110b) covered by at least one protective layer (112, 112a, 112b) hermetic to gas, then - hermetic encapsulation of the getter structure in a cavity (106, 150), then - production of at least one local opening (116, 124) passing through the protective layer (112, 112a, 112b) and forming an access to the portion of getter material permeable to gas (110, 110a, 110b).
Method for identifying and sorting randomly distributed waste containers wherein the waste container consists of a thin-walled bag of flexible material, containing different types of refuse sorted at source, wherein the identification is based on an image analysis of a pattern, wherein the pattern comprises at least one well-defined object arranged on each container, wherein the method for identifying and sorting comprises the following steps: capturing at least one image of each container analyzing the image by determining following characteristics: a shade and/or color of the pattern; a type of the pattern arranged on the container; a size of the individual object; and a surface area of the pattern; calculating a sorting value based on the determined characteristics; comparing the calculated sorting value to a predetermined limit value or predetermined range of sorting values in order to classify the type of refuse contained in the container for sorting thereof. capturing at least one image of each container analyzing the image by determining following characteristics: a shade and/or color of the pattern; a type of the pattern arranged on the container; a size of the individual object; and a surface area of the pattern; a shade and/or color of the pattern; a type of the pattern arranged on the container; a size of the individual object; and a surface area of the pattern; calculating a sorting value based on the determined characteristics; comparing the calculated sorting value to a predetermined limit value or predetermined range of sorting values in order to classify the type of refuse contained in the container for sorting thereof.
A radio communication apparatus for transmitting data using MIMO and multiple code words, comprising: a transmitter (431,432,435) adapted to transmit data by the multiple code words to a receiving equipment; the radio communication apparatus characterized by further comprising: a response signal detector adapted (i) to detect a response signal from the receiving equipment for a high-order code word at a first response time after the transmission of the high-order code word, and (ii) to detect a response signal from the receiving equipment for a low-order code word at a second response time after the transmission of the low-order code word, wherein the second response time is longer than the first response time, and wherein the code word order is decided based on the SINR of each code word, as fed back from the receiving equipment and a retransmitting controller (433,442) adapted to control retransmitting of data transmitted by the multiple code words according to the respective response signal. a transmitter (431,432,435) adapted to transmit data by the multiple code words to a receiving equipment; the radio communication apparatus characterized by further comprising: a response signal detector adapted (i) to detect a response signal from the receiving equipment for a high-order code word at a first response time after the transmission of the high-order code word, and (ii) to detect a response signal from the receiving equipment for a low-order code word at a second response time after the transmission of the low-order code word, wherein the second response time is longer than the first response time, and wherein the code word order is decided based on the SINR of each code word, as fed back from the receiving equipment and a retransmitting controller (433,442) adapted to control retransmitting of data transmitted by the multiple code words according to the respective response signal. a response signal detector adapted (i) to detect a response signal from the receiving equipment for a high-order code word at a first response time after the transmission of the high-order code word, and (ii) to detect a response signal from the receiving equipment for a low-order code word at a second response time after the transmission of the low-order code word, wherein the second response time is longer than the first response time, and wherein the code word order is decided based on the SINR of each code word, as fed back from the receiving equipment and a retransmitting controller (433,442) adapted to control retransmitting of data transmitted by the multiple code words according to the respective response signal.
A method for wireless communication, comprising: identifying (1205, 1305, 1405) a first transient period between a transmit OFF power and transmit ON power for a wireless transmitter, the first transient period identified for a first transmission time interval, TTI, for an uplink transmission of the wireless transmitter, the first TTI having a first duration that is shorter than a second duration of a second TTI for a second uplink transmission of the wireless transmitter; identifying (1210, 1310, 1415) a second transient period between the transmit ON power and transmit OFF power for the wireless transmitter; identifying a transmission bandwidth for the uplink transmission, wherein one or more of the first transient period or the second transient period are identified based at least in part on the transmission bandwidth for the uplink transmission, and wherein one or more of the first transient period or the second transient period has a longer duration for narrowband transmission bandwidths than for wideband transmission bandwidths; applying (1215, 1325, 1420) the first transient period as an OFF-ON mask that starts before a start of the first TTI; applying (1220, 1335, 1425) the second transient period as an ON-OFF mask that ends after an end of the first TTI; and transmitting (1225, 1345, 1430) the uplink transmission during the first TTI. identifying (1205, 1305, 1405) a first transient period between a transmit OFF power and transmit ON power for a wireless transmitter, the first transient period identified for a first transmission time interval, TTI, for an uplink transmission of the wireless transmitter, the first TTI having a first duration that is shorter than a second duration of a second TTI for a second uplink transmission of the wireless transmitter; identifying (1210, 1310, 1415) a second transient period between the transmit ON power and transmit OFF power for the wireless transmitter; identifying a transmission bandwidth for the uplink transmission, wherein one or more of the first transient period or the second transient period are identified based at least in part on the transmission bandwidth for the uplink transmission, and wherein one or more of the first transient period or the second transient period has a longer duration for narrowband transmission bandwidths than for wideband transmission bandwidths; applying (1215, 1325, 1420) the first transient period as an OFF-ON mask that starts before a start of the first TTI; applying (1220, 1335, 1425) the second transient period as an ON-OFF mask that ends after an end of the first TTI; and transmitting (1225, 1345, 1430) the uplink transmission during the first TTI.
A flow cell, comprising: - a body that defines a cavity, - an inlet pipe for the inflow of a fluid to the cavity, - an outlet pipe for the outflow of the fluid from the cavity, and - an X-ray transparent window for allowing the fluid in the cavity to be irradiated with X-ray radiation, characterised in that the inner surface of the inlet pipe comprises a grooving for imparting rotational flow to the inflowing fluid, and that the inlet pipe is arranged to direct the inflowing fluid towards the X-ray transparent window or into the cavity in such a manner that the fluid flows essentially along the wall of the cavity. - a body that defines a cavity, - an inlet pipe for the inflow of a fluid to the cavity, - an outlet pipe for the outflow of the fluid from the cavity, and - an X-ray transparent window for allowing the fluid in the cavity to be irradiated with X-ray radiation,
Facility comprising high-bay racking having aisles, each having a primary conductor portion installed on the ground, wherein feed-in devices are configured to impress different frequencies on the primary conductor portions, and comprising at least one mobile component having a traction drive, an energy store and a secondary winding for inductively powering the mobile component, wherein the mobile component is configured to determine the frequency of the alternating current induced in the secondary winding using a frequency determination means and to determine therefrom the associated position region of the particular aisle.
A pressure regulator comprising a housing containing a channel arranged to communicate a fluid from a fluid inlet to a fluid outlet, said channel comprising a valve seat and closure member with said closure member operable with valve seat to control fluid flow through the channel and; wherein the housing comprises a resilient diaphragm in fluid communication with the fluid and in physical communication with the closure member such that the diaphragm is operable to deform in response to a change in pressure of the fluid and such that deformation of the diaphragm causes the closure member to change position and; characterised in that a straight and hollow member having a stem is located in the channel and the stem of said hollow member defines a narrow path between the channel and outside of said stem in a region proximate to the fluid outlet such that fluid passing through the channel is communicated from the fluid inlet to the fluid outlet via said narrow path such that the pressure of the fluid emerging from said narrow path into the channel is communicated from the downstream termination of the hollow member to the diaphragm via the inside of the hollow member, wherein the longitudinal axis of the hollow member is substantially coaxial with the fluid outlet.
A nonwoven carrier for immobilizing superabsorbent polymer particles in an absorbent article, comprising a nonwoven top layer, penetrable by the particles and a nonwoven bottom layer, said top layer being mechanically bonded by hydroentanglement to the bottom layer, wherein the nonwoven carrier, the bottom layer and the top layer are hydrophilic, and wherein the bottom layer is porous with a pore size smaller than said particles, characterized in that said top layer is a carded nonwoven made of staple fibers which are hydro-entangled to the bottom layer and wherein the bottom layer is a spunbond meltblown spunbond fabric.
A direct current plasma apparatus comprising: a housing; a cathode (14, 14') disposed in said housing; an annular channel generally disposed adjacent said cathode (14, 14'), said annular channel configured to fluidly transmit a plasma gas; an anode positioned operably adjacent to said cathode (14, 14') to permit electrical communication therebetween sufficient to ignite a plasma jet within the plasma gas; a precursor source containing a precursor material; a precursor outlet line extending through at least a portion of said cathode (14, 14'), said precursor outlet line terminating at at least one opening, wherein said plasma jet is capable of entraining, melting, and depositing at least some of said precursor materials upon a target; characterized in that said at least one opening is offset from a tip of said cathode (14, 14') to generally prevent deposition of said precursor material at said tip of said cathode (14, 14'). a housing; a cathode (14, 14') disposed in said housing; an annular channel generally disposed adjacent said cathode (14, 14'), said annular channel configured to fluidly transmit a plasma gas; an anode positioned operably adjacent to said cathode (14, 14') to permit electrical communication therebetween sufficient to ignite a plasma jet within the plasma gas; a precursor source containing a precursor material; a precursor outlet line extending through at least a portion of said cathode (14, 14'), said precursor outlet line terminating at at least one opening, wherein said plasma jet is capable of entraining, melting, and depositing at least some of said precursor materials upon a target;
Method for manufacturing a battery case comprising the steps of: - providing a Ni-plated steel sheet or strip, - applying a graphene based coating layer on the Ni-plated steel sheet or strip by chemical vapour deposition, comprising: - bringing the Ni-plated steel sheet or strip in an enclosure, - heating the content of the enclosure, - supplying a graphene precursor into the enclosure, followed by - cooling the steel sheet or strip, - cutting plates or discs from the steel sheet or strip, and performing a drawing operation on the plates or discs without applying a drawing lubricant on the steel sheet or strip or the plates and/or discs cut from it. - providing a Ni-plated steel sheet or strip, - applying a graphene based coating layer on the Ni-plated steel sheet or strip by chemical vapour deposition, comprising: - bringing the Ni-plated steel sheet or strip in an enclosure, - heating the content of the enclosure, - supplying a graphene precursor into the enclosure, followed by - bringing the Ni-plated steel sheet or strip in an enclosure, - heating the content of the enclosure, - supplying a graphene precursor into the enclosure, followed by - cooling the steel sheet or strip, - cutting plates or discs from the steel sheet or strip, and
A decoding method of implementing dequantization, comprising: parsing a bitstream from the header of an encoding unit to derive band parameters q_para[i] and a band distribution parameter q_mode; obtaining a coefficient matrix [coe] according to the band parameters q_para[i] and the band distribution parameter q_mode, wherein one of the band parameters q_para[i] is assigned for each frequency zone of the coefficient matrix([coe]) that is divided into different zones, and the band distribution parameter q_mode is assigned to correspond to a distribution configuration of the band parameters q_para[i] in the coefficient matrix [coe]; and performing dequantization on data QM of the encoding unit by using the coefficient matrix [coe] as a weight. parsing a bitstream from the header of an encoding unit to derive band parameters q_para[i] and a band distribution parameter q_mode; obtaining a coefficient matrix [coe] according to the band parameters q_para[i] and the band distribution parameter q_mode, wherein one of the band parameters q_para[i] is assigned for each frequency zone of the coefficient matrix([coe]) that is divided into different zones, and the band distribution parameter q_mode is assigned to correspond to a distribution configuration of the band parameters q_para[i] in the coefficient matrix [coe]; and performing dequantization on data QM of the encoding unit by using the coefficient matrix [coe] as a weight.
A surface wave excitation device, comprising: a multi-layer structure and a transmission line (16, 28), wherein the multi-layer structure comprises at least five layers of PCBs (11-15, 21-27); the transmission line (16, 28) is disposed on a wire layer PCB (13, 24) of the at least five layers of PCBs (11-15, 21-27), and PCBs of a same quantity of layers are respectively disposed above and below the wire layer PCB (13, 24); a copper wire is disposed on each layer of PCB of the at least five layers of PCB (11-15, 21-27), and the copper wire on each layer of PCB forms a closed region; closed regions on PCBs that are respectively disposed above and below the wire layer PCB (13, 24) and that have a same distance from the wire layer PCB (13, 24) are in a same shape, and a closed region on a PCB farther away from the wire layer PCB occupies a larger area; and there are two closed regions (13a, 13b, 24a, 24b) on the wire layer PCB (13, 24), one of which (13a, 24a) is disposed on one side of the transmission line (16, 28), and the other (13b, 24b) is disposed on the other side of the transmission line (16, 28), and shapes of the two closed regions (13a, 13b, 24a, 24b) are mutually symmetrical with the transmission line (16, 28) as a symmetry axis; and the copper wire disposed on each layer of PCB is configured to convert a signal propagated in a transverse electric magnetic, TEM, mode to a surface wave propagated in a transverse magnetic TM mode, and the transmission line (16, 28) is configured to guide the surface wave propagation.
A spacer for an insulating glazing unit which extends in a longitudinal direction and comprises first and second fixing parts (12, 14) spaced apart from each other in a lateral direction and each intended to be attached to a sheet of glass (2a, 2b) of the insulating glazing unit by adhesive-bonding fixing means (5a, 5b), and at least one transverse part (20, 22) connecting said first and second fixing parts and defining with them an inner space, the spacer comprising in the inner space a humidity-absorbing structure (40, 140, 240) formed from at least one absorbent unit (41, 41a, 41b, 41c, 41d; 141; 241) fixed to one of the first and second fixing parts (12, 14), the other of the first and second fixing parts (12, 14) not being in contact with the absorbent unit (41, 41a, 41b, 41c, 41d; 141; 241), said spacer being characterized in that said absorbing structure is an element or a set of elements which is self-supporting.