mhurhangee/ep-ind-claims huggingface dataset:
Connection device for an electronic box, comprising a connection module intended to be coupled with the longitudinal mating face of a box, the module and the box being mated by a system of slides (7, 8) allowing them to be fastened by longitudinal sliding, with locking by a resilient tab (10, 29, 32), characterized in that the device makes an electrical connection with, on the one hand, pins projecting from this longitudinal mating face and, on the other hand, with conducting cables, and the resilient tab (10, 29, 32) is associated with the box and is intended to cooperate with a locking member (16, 27, 42) associated with the connection module.
A painting system for painting a shoe sole portion (200, 600, 1000, 1411, 2910) of a shoe, the painting system comprising: a jig (400, 1318, 1410) adapted to hold the shoe sole portion (200, 600, 1000, 1411, 2910) in a fixed position when the jig (400, 1318, 1410) is in a closed position such that only a side surface (212, 612, 1010) of the shoe sole portion (200, 600, 1000, 1411, 2910) is exposed; a painting station adapted to paint the exposed side surface (212, 612, 1010) of the shoe sole portion (200, 600, 1000, 1411, 2910) while being held by the jig (400, 1318, 1410), wherein the painting station is controlled by a computing device having a predefined painting path associated with the jig (400, 1318, 1410); the painting system being characterized in that it further comprises an opening station having an opening mechanism adapted to translate movement of the jig (400, 1318, 1410) into an opening force that transitions the jig (400, 1318, 1410) from the closed position to an open position. a jig (400, 1318, 1410) adapted to hold the shoe sole portion (200, 600, 1000, 1411, 2910) in a fixed position when the jig (400, 1318, 1410) is in a closed position such that only a side surface (212, 612, 1010) of the shoe sole portion (200, 600, 1000, 1411, 2910) is exposed; a painting station adapted to paint the exposed side surface (212, 612, 1010) of the shoe sole portion (200, 600, 1000, 1411, 2910) while being held by the jig (400, 1318, 1410), wherein the painting station is controlled by a computing device having a predefined painting path associated with the jig (400, 1318, 1410); the painting system being characterized in that it further comprises an opening station having an opening mechanism adapted to translate movement of the jig (400, 1318, 1410) into an opening force that transitions the jig (400, 1318, 1410) from the closed position to an open position.
A radio frequency identification (RFID) reader system comprising: an RFID reader operable at a high frequency band, wherein the RFID reader is configured to: receive a first backscattered signal at the high frequency band from an RFID tag in response to a transmission of a first radio frequency interrogation signal; and determine a first phase angle of the received first backscattered signal; a radio transceiver device operable at a low frequency band, wherein the radio transceiver device is configured to: receive a second backscattered signal at the low frequency band from the RFID tag in response to a transmission of a second RF interrogation signal; and determine a second phase angle of the received second backscattered signal; and a main control unit coupled to the RFID reader and the radio transceiver device, wherein the main control unit is configured to: determine a plurality of first distances based on the first phase angle; determine a second distance based on the second phase angle; and select one of the plurality of first distances as a final distance between the RFID reader and the RFID tag based on the determined second distance. an RFID reader operable at a high frequency band, wherein the RFID reader is configured to: receive a first backscattered signal at the high frequency band from an RFID tag in response to a transmission of a first radio frequency interrogation signal; and determine a first phase angle of the received first backscattered signal; receive a first backscattered signal at the high frequency band from an RFID tag in response to a transmission of a first radio frequency interrogation signal; and determine a first phase angle of the received first backscattered signal; a radio transceiver device operable at a low frequency band, wherein the radio transceiver device is configured to: receive a second backscattered signal at the low frequency band from the RFID tag in response to a transmission of a second RF interrogation signal; and determine a second phase angle of the received second backscattered signal; and receive a second backscattered signal at the low frequency band from the RFID tag in response to a transmission of a second RF interrogation signal; and determine a second phase angle of the received second backscattered signal; and a main control unit coupled to the RFID reader and the radio transceiver device, wherein the main control unit is configured to: determine a plurality of first distances based on the first phase angle; determine a second distance based on the second phase angle; and select one of the plurality of first distances as a final distance between the RFID reader and the RFID tag based on the determined second distance. determine a plurality of first distances based on the first phase angle; determine a second distance based on the second phase angle; and select one of the plurality of first distances as a final distance between the RFID reader and the RFID tag based on the determined second distance.
A downhole cutting tool, comprising: a cutting member mounted on a rotatable shaft; a motor in operable communication with the shaft; a shaft-deflecting device in operable communication with the shaft; characterized in that the shaft-deflecting device comprises: a rotatable body with an axial through hole receptive of the shaft, the through hole being transversely elongated such that a first portion of the through hole is concentric with the rotatable body and a second portion of the through hole is eccentric with the rotatable body; and a piston located at the rotatable body and laterally extendable into the first portion in a direction toward the second portion. a cutting member mounted on a rotatable shaft; a motor in operable communication with the shaft; a rotatable body with an axial through hole receptive of the shaft, the through hole being transversely elongated such that a first portion of the through hole is concentric with the rotatable body and a second portion of the through hole is eccentric with the rotatable body; and a piston located at the rotatable body and laterally extendable into the first portion in a direction toward the second portion.
Process for preparing polyisocyanates containing isocyanurate groups by trimerising cycloaliphatic diisocyanates using a catalyst solution comprising at least one quaternary ammonium hydroxide, characterized in that the catalyst solution is metered in such that the reaction temperature is > 90°C and ≤ 140°C, wherein the cycloaliphatic diisocyanates used are 1,3- or 1,4-diisocyanatocyclohexane, 1,4-diisocyanato-3,3,5-trimethylcyclohexane, 1,3-diisocyanato-2 -methylcyclohexane, 1-isocyanato-3,3,5-trimethyl-5-isocyanatomethylcyclohexane (isophorone diisocyanate, IPDI), 1-isocyanato-1-methyl-4 -isocyanatomethylcyclohexane, 1,8-diisocyanato- p- menthane, 4,4'-diisocyanato-1,1'-bi(cyclohexyl), 4,4'-diisocyanato-3,3'-dimethyl-1,1'-bi(cyclohexyl), 4,4'-diisocyanato-2,2',5,5'-tetramethyl-1,1'-bi(cyclohexyl), 4,4'-diisocyanatodicyclohexylmethane, 2,4'-diisocyanatodicyclohexylmethane, 4,4'-diisocyanato-3,3'-dimethyldicyclohexylmethane, 4,4'-diisocyanato-3,3',5,5'-tetramethyldicyclohexylmethane, 1,3-diisocyanatoadamantane, 1,3-dimethyl-5,7-diisocyanatoadamantane, and also any mixtures of said diisocyanates and wherein 0.005 - 1% by weight of quaternary ammonium hydroxide is used as catalyst, based on the amount of diisocyanate used.
A computer-implemented method for automatically controlling audio input gain levels as a function of a background noise floor envelope, comprising: for each of one or more audio channels, estimating a background noise floor envelope through analysis of samples of a corresponding audio signal; determining whether the background noise floor envelope falls below a predetermined threshold for any of the audio channels; evaluating potential clipping of each of the audio signals resulting from an analog-to-digital conversion of the audio signals from each audio channel; increasing the gain for any audio channel where the noise floor envelope falls below the predetermined threshold and the corresponding audio signal is not any of predicted to clip and actually clipped, whereby increasing the gain is independent of a peak of the audio signal when the corresponding audio signal is not any of predicted to clip and actually clipped; and decreasing the gain for any audio channel where the corresponding audio signal is any of predicted to clip and actually clipped. for each of one or more audio channels, estimating a background noise floor envelope through analysis of samples of a corresponding audio signal; determining whether the background noise floor envelope falls below a predetermined threshold for any of the audio channels; evaluating potential clipping of each of the audio signals resulting from an analog-to-digital conversion of the audio signals from each audio channel; increasing the gain for any audio channel where the noise floor envelope falls below the predetermined threshold and the corresponding audio signal is not any of predicted to clip and actually clipped, whereby increasing the gain is independent of a peak of the audio signal when the corresponding audio signal is not any of predicted to clip and actually clipped; and decreasing the gain for any audio channel where the corresponding audio signal is any of predicted to clip and actually clipped.
A system for treating a tissue site on a patient with reduced-pressure, the system comprising: a reduced-pressure dressing for disposing proximate to the tissue site; a first reduced-pressure conduit fluidly coupled to the reduced-pressure dressing for delivery of reduced pressure thereto; an inline storage-and-liquid-processing pouch having a first chamber and a second chamber separated by a first high-moisture-vapor-transfer-rate member, wherein the first reduced-pressure conduit is fluidly coupled to the first chamber; a reduced-pressure source fluidly coupled to the first chamber; a pressure source fluidly coupled to the second chamber at a first evaporation port; a second evaporation port formed on the inline storage-and-liquid-processing pouch; and wherein the pressure source is configured to move air within the second chamber. a reduced-pressure dressing for disposing proximate to the tissue site; a first reduced-pressure conduit fluidly coupled to the reduced-pressure dressing for delivery of reduced pressure thereto; an inline storage-and-liquid-processing pouch having a first chamber and a second chamber separated by a first high-moisture-vapor-transfer-rate member, wherein the first reduced-pressure conduit is fluidly coupled to the first chamber; a reduced-pressure source fluidly coupled to the first chamber; a pressure source fluidly coupled to the second chamber at a first evaporation port; a second evaporation port formed on the inline storage-and-liquid-processing pouch; and wherein the pressure source is configured to move air within the second chamber.
A cryogenic cooling system comprising: a gas circulation source that circulates a cooling gas; a cryocooler including a cryocooler stage that cools the cooling gas; a cooling gas flow path that causes a cooling gas to flow from the gas circulation source via the cryocooler stage and an object to be cooled to the gas circulation source; and a control device that controls the gas circulation source to execute initial cooling of the object to be cooled from a room temperature to a target cooling temperature according to a prescribed flow rate pattern, characterized in that the control device is configured such that the prescribed flow rate pattern is predetermined such that the cooling gas flows through the cooling gas flow path at a first average flow rate from a start of the initial cooling to a transition timing, and the cooling gas flows through the cooling gas flow path at a second average flow rate from the transition timing to a completion of the initial cooling, and such that the second average flow rate is smaller than the first average flow rate such that a cooling capacity of the cryogenic cooling system is increased as compared to a case where the first average flow rate is maintained from the transition timing to the completion of the initial cooling. a gas circulation source that circulates a cooling gas; a cryocooler including a cryocooler stage that cools the cooling gas; a cooling gas flow path that causes a cooling gas to flow from the gas circulation source via the cryocooler stage and an object to be cooled to the gas circulation source; and a control device that controls the gas circulation source to execute initial cooling of the object to be cooled from a room temperature to a target cooling temperature according to a prescribed flow rate pattern, characterized in that the control device is configured such that the prescribed flow rate pattern is predetermined such that the cooling gas flows through the cooling gas flow path at a first average flow rate from a start of the initial cooling to a transition timing, and the cooling gas flows through the cooling gas flow path at a second average flow rate from the transition timing to a completion of the initial cooling, and such that the second average flow rate is smaller than the first average flow rate such that a cooling capacity of the cryogenic cooling system is increased as compared to a case where the first average flow rate is maintained from the transition timing to the completion of the initial cooling.
A method comprising: receiving, by a wireless device from a base station, at least one message comprising configuration parameters of a plurality of cells grouped into a plurality of physical uplink control channel, PUCCH, groups; transmitting, in a subframe and in a first PUCCH group, at least one sounding reference signal, SRS, employing a sounding procedure for the first PUCCH group, wherein the sounding procedure depends, at least in part, on transmissions of a physical uplink shared channel, PUSCH, or a PUCCH in the first PUCCH group, and is independent of transmissions of PUCCH and PUSCH in a second PUCCH group; and wherein the plurality of cells are in the same timing advance group. receiving, by a wireless device from a base station, at least one message comprising configuration parameters of a plurality of cells grouped into a plurality of physical uplink control channel, PUCCH, groups; transmitting, in a subframe and in a first PUCCH group, at least one sounding reference signal, SRS, employing a sounding procedure for the first PUCCH group, wherein the sounding procedure depends, at least in part, on transmissions of a physical uplink shared channel, PUSCH, or a PUCCH in the first PUCCH group, and is independent of transmissions of PUCCH and PUSCH in a second PUCCH group; and wherein the plurality of cells are in the same timing advance group.
An apparatus for unpacking objects built using build material in an additive manufacturing process, the apparatus comprising: an unpacking compartment; a collection hose to operate within the unpacking compartment to recover by suction non-fused build material from around built objects; a recovered build material tank coupled to the collection hose to receive non-fused build material recovered by the collection hose; a housing defining the unpacking compartment to be at least partially open to permit user access to a work area of the unpacking compartment to operate the collection hose; and a dust filter and a compartment airflow pump to create a laminar airflow across the work area from air outside the work area towards the work area and through the dust filter to contain powder in the apparatus; the apparatus to provision recovered non-fused build material from the recovered build material tank for an additive manufacturing process. an unpacking compartment; a collection hose to operate within the unpacking compartment to recover by suction non-fused build material from around built objects; a recovered build material tank coupled to the collection hose to receive non-fused build material recovered by the collection hose; a housing defining the unpacking compartment to be at least partially open to permit user access to a work area of the unpacking compartment to operate the collection hose; and a dust filter and a compartment airflow pump to create a laminar airflow across the work area from air outside the work area towards the work area and through the dust filter to contain powder in the apparatus; the apparatus to provision recovered non-fused build material from the recovered build material tank for an additive manufacturing process.
A method of treating cellulose pulp for use in regeneration of cellulose, characterized in that said method comprises the steps of: i) preparing an alkaline metal hydroxide solution having a concentration of 4-10% by weight; ii) adding cellulose pulp to form a slurry; iii) heating said slurry to a temperature of 40-100°C, preferably 50-90°C, and more preferably 60-80°C; and iv) dissolving the treated cellulose pulp in an alkaline solution having a temperature within the range of -10°C to 12°C; wherein the percentage by weight is based on the total weight of said slurry. i) preparing an alkaline metal hydroxide solution having a concentration of 4-10% by weight; ii) adding cellulose pulp to form a slurry; iii) heating said slurry to a temperature of 40-100°C, preferably 50-90°C, and more preferably 60-80°C; and iv) dissolving the treated cellulose pulp in an alkaline solution having a temperature within the range of -10°C to 12°C;
Packaging box made from a folded blank of cardboard or paperboard, having two first side walls (16, 18), which are located opposite one another at a distance from one another on opposite first sides of the box, two second side walls (20, 22), which are located opposite one another at a distance from one another on opposite second sides of the box and connect the two first side walls (16, 18) together, at least one closure flap, which, in a closed state, closes an interior space, delimited by the side walls (16, 18, 20, 22), on a third side of the box and is connected in a hinged manner to one of the two first side walls (16, 18), and an inner dividing wall arranged at a lateral distance from the two second side walls (20, 22) and parallel to the two second side walls (20, 22), and a hook-like protrusion on the dividing wall, characterized in that the closure flap has an insertion tab, which is introducible into the interior space in the vicinity of the other one of the two first side walls (16, 18), and the hook-like protrusion, upon the introduction of the insertion tab into the interior space during the closing of the closure flap, enters automatically into an opening passing through the insertion tab and subsequently keeps the closure flap in the closed state.
A prokaryotic vector comprising at least one DNA molecule encoding one or more siRNAs and at least one prokaryotic promoter comprising the P tac promoter (SEQ ID NO:378).
An adhesive dispensing system (30, 100, 130, 150, 170, 200), comprising: an adhesive dispensing module (32, 106, 138, 158, 188, 208) having an inlet and an outlet, said adhesive dispensing module (32, 106) adapted to receive liquid material through said inlet at low pressure and to rapidly develop high pressure at said outlet for jetting the liquid material (31, 102, 152, 172, 202, 212) therefrom; a supply (156, 176) of hot melt adhesive maintained at low pressure; a low pressure liquid passageway (42, 118, 166) communicating between said adhesive dispensing module inlet and said supply (156, 176); said adhesive dispensing module (32,106,138,158,188, 208) further comprising a liquid chamber communicating with said outlet, and a recess proximate said outlet; and a piston tip disposed in said liquid chamber; said recess shaped complementary to said piston tip and adapted to receive said piston tip therein; whereby as the piston tip begins to enter the recess, the piston tip substantially seals the recess along an upper edge to define a discrete volume of liquid between the piston tip and the recess; and whereby said piston tip develops said high pressure when said piston tip is moved into said recess. an adhesive dispensing module (32, 106, 138, 158, 188, 208) having an inlet and an outlet, said adhesive dispensing module (32, 106) adapted to receive liquid material through said inlet at low pressure and to rapidly develop high pressure at said outlet for jetting the liquid material (31, 102, 152, 172, 202, 212) therefrom; a supply (156, 176) of hot melt adhesive maintained at low pressure; a low pressure liquid passageway (42, 118, 166) communicating between said adhesive dispensing module inlet and said supply (156, 176); said adhesive dispensing module (32,106,138,158,188, 208) further comprising a liquid chamber communicating with said outlet, and a recess proximate said outlet; and a piston tip disposed in said liquid chamber; said recess shaped complementary to said piston tip and adapted to receive said piston tip therein; whereby as the piston tip begins to enter the recess, the piston tip substantially seals the recess along an upper edge to define a discrete volume of liquid between the piston tip and the recess; and whereby said piston tip develops said high pressure when said piston tip is moved into said recess.
A highly concentrated agent for the preparation of sunscreen final formulations, comprising (a) 20 to 35 wt.% of oily substances selected from linear and branched fatty alcohol carbonates, (b) 7 to 17 wt.% of anionic surfactant selected from alkyl polyalkylene glycol ether citrates, (c) 3 to 18 wt.% of further co-surfactant which differs from (b) and is selected from polyol and/or polyglycerol esters; (d) 35 to 65 wt.% of at least one oil-soluble UV filter; and (e) 0.01 to 5 wt. % of water and also optionally 0.5 to 5 wt.% of auxiliary substances; under the condition that all constituents add up to 100 wt.%. (a) 20 to 35 wt.% of oily substances selected from linear and branched fatty alcohol carbonates, (b) 7 to 17 wt.% of anionic surfactant selected from alkyl polyalkylene glycol ether citrates, (c) 3 to 18 wt.% of further co-surfactant which differs from (b) and is selected from polyol and/or polyglycerol esters; (d) 35 to 65 wt.% of at least one oil-soluble UV filter; and (e) 0.01 to 5 wt. % of water and also optionally 0.5 to 5 wt.% of auxiliary substances;