mhurhangee/patent-ind-claim-en huggingface dataset:
A porous tower diffuser assembly in a front opening wafer container , the diffuser assembly comprising: an inlet fitting with a base portion , a unitary offset portion, and a unitary upwardly facing nipple ; and a porous media diffuser including a wall defining an open porous structure that enables gaseous working fluid to exit radially through the porous media diffuser characterized in that the porous media diffuser comprises a flared lower portion , the flared lower portion being engageable or engaged on the upwardly facing nipple , wherein the porous media diffuser has at least two different portions with different porosities and wherein a higher porosity portion is positioned closer to a fitting end of the porous media diffuser than a lower porosity portion. an inlet fitting with a base portion , a unitary offset portion, and a unitary upwardly facing nipple ; and a porous media diffuser including a wall defining an open porous structure that enables gaseous working fluid to exit radially through the porous media diffuser characterized in that the porous media diffuser comprises a flared lower portion , the flared lower portion being engageable or engaged on the upwardly facing nipple , wherein the porous media diffuser has at least two different portions with different porosities and wherein a higher porosity portion is positioned closer to a fitting end of the porous media diffuser than a lower porosity portion.
An information transmission method, implemented in a Long Term Evolution, LTE, system or Long Term Evolution-Advanced, LTE-A, system, the method comprising: determining (S101, S201) a subframe for enhanced transmission of first information; repeatedly transmitting (SI02, S202) the first information multiple times in the determined subframe for the enhanced transmission of the first information; and when a subframe for channel state information-reference signal, CSI-RS, transmission collides with a subframe for the enhanced transmission of the first information, the first information is not transmitted on the resource element occupied by the CSI-RS transmission in a subframe in which the enhanced transmission of the first information collides with the CSI-RS transmission, wherein the first information is a system information block type 1, SIB 1, and in at least two consecutive radio frames, a number of times of repeatedly transmitting the SIB 1 is greater than one; for a frequency division duplex, FDD, system, the subframe for enhanced transmission of the first information comprises: a subframe 9; or a subframe 4 and the subframe 9; or the subframe 4; or the subframe 9 and a subframe 0. determining (S101, S201) a subframe for enhanced transmission of first information; repeatedly transmitting (SI02, S202) the first information multiple times in the determined subframe for the enhanced transmission of the first information; and when a subframe for channel state information-reference signal, CSI-RS, transmission collides with a subframe for the enhanced transmission of the first information, the first information is not transmitted on the resource element occupied by the CSI-RS transmission in a subframe in which the enhanced transmission of the first information collides with the CSI-RS transmission, wherein the first information is a system information block type 1, SIB 1, and in at least two consecutive radio frames, a number of times of repeatedly transmitting the SIB 1 is greater than one; for a frequency division duplex, FDD, system, the subframe for enhanced transmission of the first information comprises: a subframe 9; or a subframe 4 and the subframe 9; or the subframe 4; or the subframe 9 and a subframe 0. a subframe 9; or a subframe 4 and the subframe 9; or the subframe 4; or the subframe 9 and a subframe 0.
A safety element assembly for a secondary battery , the safety element assembly comprising: a first thin metal sheet for coupling to the secondary battery; a safety element coupled to the first thin metal sheet; and a second thin metal sheet coupled to the safety element, further comprising an insulator interposed between the first thin metal sheet and second thin metal sheet, wherein the insulator and the safety element facing the second thin metal sheet have a uniform thickness, wherein the first thin metal sheet comprises a first region on which the safety element, the insulator and the second thin metal sheet are stacked (B), and a second region on which the safety element and the second thin metal sheet are not stacked (A), wherein a surface of the second thin metal sheet opposite to a surface of the second thin metal sheet on which the safety element is attached is exposed, wherein the second region of the first metal sheet is for welding an end of an external lead plate of an electric/electronic device requiring high power, and the second thin metal sheet is for welding to an end of an external lead plate of an electric/electronic device requiring high capacity, and wherein the safety element comprises a positive temperature coefficient, PTC, element or a thermal fuse; wherein the insulator is arranged on a sidewall of the safety element, and the first thin metal sheet has a surface that is larger than surfaces of the safety element and the insulator combined. a first thin metal sheet for coupling to the secondary battery; a safety element coupled to the first thin metal sheet; and a second thin metal sheet coupled to the safety element, further comprising an insulator interposed between the first thin metal sheet and second thin metal sheet, wherein the insulator and the safety element facing the second thin metal sheet have a uniform thickness, wherein the first thin metal sheet comprises a first region on which the safety element, the insulator and the second thin metal sheet are stacked (B), and a second region on which the safety element and the second thin metal sheet are not stacked (A), wherein a surface of the second thin metal sheet opposite to a surface of the second thin metal sheet on which the safety element is attached is exposed, wherein the second region of the first metal sheet is for welding an end of an external lead plate of an electric/electronic device requiring high power, and the second thin metal sheet is for welding to an end of an external lead plate of an electric/electronic device requiring high capacity, and wherein the safety element comprises a positive temperature coefficient, PTC, element or a thermal fuse; wherein the insulator is arranged on a sidewall of the safety element, and the first thin metal sheet has a surface that is larger than surfaces of the safety element and the insulator combined.
A light emission structure comprising: a light guiding space defining portion configured to define a light guiding space having a light reception opening and a light emission opening , the light guiding space being configured to receive light emitted by a light source provided on a circuit substrate through the reception opening and reflect the introduced light to radiate through the emission opening , wherein an inside wall of the light guiding space has a mirror-like surface; and a holding portion provided adjacent to the light guide space defining portion along an edge part of the circuit substrate for holding the edge part of the circuit substrate , wherein at least a part of the light guiding space defining portion abutting the edge part of the circuit substrate and a part of the holding portion abutting the circuit substrate are made of a soft and resilient material. a light guiding space defining portion configured to define a light guiding space having a light reception opening and a light emission opening , the light guiding space being configured to receive light emitted by a light source provided on a circuit substrate through the reception opening and reflect the introduced light to radiate through the emission opening , wherein an inside wall of the light guiding space has a mirror-like surface; and a holding portion provided adjacent to the light guide space defining portion along an edge part of the circuit substrate for holding the edge part of the circuit substrate , wherein at least a part of the light guiding space defining portion abutting the edge part of the circuit substrate and a part of the holding portion abutting the circuit substrate are made of a soft and resilient material.
A surgical stapling instrument comprising: a handle assembly ; a body portion extending from the handle assembly, the body portion having a rod and a staple cartridge assembly , the staple cartridge assembly defining staple receiving slots and having a knife defining a cutting edge disposed therein; and an anvil assembly including an anvil head , a planar anvil member proximal of the anvil head, and an anvil shaft , the anvil shaft defining a longitudinal axis (x) and being connectable to the rod , the anvil head having an inner recess and a cutting ring disposed in the inner recess, the anvil member having a proximally facing planar tissue contacting surface defining staple forming recesses; characterized in that the anvil member is pivotally secured to the anvil head about a transverse axis, the transverse axis being transverse to the longitudinal axis (x) and laterally spaced therefrom such that the two axes do not intersect, the anvil member being pivotally secured to the anvil head by a pivot member provided at an edge of the anvil head, the anvil member thus being pivotable with respect to the anvil head from a first position in which the planes of the cutting ring of the anvil head and the tissue contacting surface of the anvil member are parallel to each other and substantially perpendicular to the longitudinal axis (x) to a second position in which the planar tissue contacting surface of the anvil member is tilted obliquely away from the plane of the cutting ring of the anvil head. a handle assembly ; a body portion extending from the handle assembly, the body portion having a rod and a staple cartridge assembly , the staple cartridge assembly defining staple receiving slots and having a knife defining a cutting edge disposed therein; and an anvil assembly including an anvil head , a planar anvil member proximal of the anvil head, and an anvil shaft , the anvil shaft defining a longitudinal axis (x) and being connectable to the rod , the anvil head having an inner recess and a cutting ring disposed in the inner recess, the anvil member having a proximally facing planar tissue contacting surface defining staple forming recesses; characterized in that the anvil member is pivotally secured to the anvil head about a transverse axis, the transverse axis being transverse to the longitudinal axis (x) and laterally spaced therefrom such that the two axes do not intersect, the anvil member being pivotally secured to the anvil head by a pivot member provided at an edge of the anvil head, the anvil member thus being pivotable with respect to the anvil head from a first position in which the planes of the cutting ring of the anvil head and the tissue contacting surface of the anvil member are parallel to each other and substantially perpendicular to the longitudinal axis (x) to a second position in which the planar tissue contacting surface of the anvil member is tilted obliquely away from the plane of the cutting ring of the anvil head.
A solid dosage form comprising: liposomes; water in an amount of between 5% and 95% (w/w), based on the total mass of the solid dosage form; and one or more solidifier(s); wherein said solidifier(s) form(s) a solid matrix in which said liposomes are embedded, and is/are contained in the inner lumen of said liposomes. liposomes; water in an amount of between 5% and 95% (w/w), based on the total mass of the solid dosage form; and one or more solidifier(s); wherein said solidifier(s) form(s) a solid matrix in which said liposomes are embedded, and is/are contained in the inner lumen of said liposomes.
A hair pack configured for the user to wear on his head comprising: a first sheet formed in an elliptical/oval shape; and a second sheet formed in a shape corresponding to said first sheet and defining an opening , said first and second sheets being sealed along a sealing line (L) by using at least one of sewing, heat sealing or an adhesive, wherein an inner space is formed between the first and second sheets said hair pack comprising a pack agent for treating the hair of said user accommodated into said inner space, wherein the first sheet includes a first end portion and a second end portion that is wider than the first end portion, and wherein the opening is arranged in the second sheet closer to said first end portion than said second end portion of said first sheet . a first sheet formed in an elliptical/oval shape; and a second sheet formed in a shape corresponding to said first sheet and defining an opening , said first and second sheets being sealed along a sealing line (L) by using at least one of sewing, heat sealing or an adhesive, wherein an inner space is formed between the first and second sheets said hair pack comprising a pack agent for treating the hair of said user accommodated into said inner space, wherein the first sheet includes a first end portion and a second end portion that is wider than the first end portion, and wherein the opening is arranged in the second sheet closer to said first end portion than said second end portion of said first sheet .
A method for producing a circuit substrate, the method comprising: a step at which a resin composition is thermally cured to obtain a magnetic cured product , a step at which at least part of a surface of the magnetic cured product is polished, and a step at which a conductive layer is formed by wet plating on at least part of the surface of the magnetic cured product thus polished, the steps being included in this order, the resin composition comprising: (A) a magnetic powder containing nickel, (B) an epoxy resin, and (C) a curing agent, characterised in that a nickel content in the component (A) is in a range of 30 to 90% by mass and the component (A) comprises at least one selected from a group consisting of nickel-containing iron oxide powders and nickel iron alloy type metal powders. a step at which a resin composition is thermally cured to obtain a magnetic cured product , a step at which at least part of a surface of the magnetic cured product is polished, and a step at which a conductive layer is formed by wet plating on at least part of the surface of the magnetic cured product thus polished, the steps being included in this order, the resin composition comprising: (A) a magnetic powder containing nickel, (B) an epoxy resin, and (C) a curing agent, characterised in that a nickel content in the component (A) is in a range of 30 to 90% by mass and the component (A) comprises at least one selected from a group consisting of nickel-containing iron oxide powders and nickel iron alloy type metal powders. the resin composition comprising: (A) a magnetic powder containing nickel, (B) an epoxy resin, and (C) a curing agent, (A) a magnetic powder containing nickel, (B) an epoxy resin, and (C) a curing agent, characterised in that a nickel content in the component (A) is in a range of 30 to 90% by mass and the component (A) comprises at least one selected from a group consisting of nickel-containing iron oxide powders and nickel iron alloy type metal powders.
A method of controlling an electric motor (M) by means of at least one pulse-width modulated control signal (PWM, ADC) having edge transitions occurring for at least one transition count value (C DUTY_F_W_N , C ADC_CONV_K_N ) of the pulses of a clock signal which is frequency-modulated with a step-wise frequency modulation (f mod ), the method including: - providing a frequency unmodulated clock signal having a fixed period (T PWMNOM ) indicative of the period of said at least one pulse-width modulated control signal (PWM, ADC); and - setting said at least one transition count value (C DUTY_F_W_N , C ADC_CONV_K_N ) as a function of at least one of a predicted count value (C N_PRE ) and a predicted frequency value (f sys_mod_N_PRE ) for said frequency-modulated clock signal predicted as a function of said frequency unmodulated clock signal , whereby said at least one transition count value (C DUTY_F_W_N , C ADC_CONV_K_N ) is compensated against said step-wise frequency modulation. - providing a frequency unmodulated clock signal having a fixed period (T PWMNOM ) indicative of the period of said at least one pulse-width modulated control signal (PWM, ADC); and - setting said at least one transition count value (C DUTY_F_W_N , C ADC_CONV_K_N ) as a function of at least one of a predicted count value (C N_PRE ) and a predicted frequency value (f sys_mod_N_PRE ) for said frequency-modulated clock signal predicted as a function of said frequency unmodulated clock signal , whereby said at least one transition count value (C DUTY_F_W_N , C ADC_CONV_K_N ) is compensated against said step-wise frequency modulation.
A liquid-crystal display device comprising: an array substrate on which a sub-pixel is disposed; a color filter substrate on which a color filter corresponding to the sub-pixel is disposed; and a liquid-crystal layer between the array substrate and the color filter substrate , wherein the array substrate comprises a lens hole , the color filter substrate comprises a lens hole guide , and a diameter of the lens hole is smaller than a diameter of the lens hole guide , wherein the array substrate comprises a measurement pattern , which is arranged to facilitate an accurate measurement of a thickness of the array substrate by a confocal sensor, configured to be concentric with the lens hole , and wherein the measurement pattern is made of a metal material and is opaque. an array substrate on which a sub-pixel is disposed; a color filter substrate on which a color filter corresponding to the sub-pixel is disposed; and a liquid-crystal layer between the array substrate and the color filter substrate , wherein the array substrate comprises a lens hole , the color filter substrate comprises a lens hole guide , and a diameter of the lens hole is smaller than a diameter of the lens hole guide , wherein the array substrate comprises a measurement pattern , which is arranged to facilitate an accurate measurement of a thickness of the array substrate by a confocal sensor, configured to be concentric with the lens hole , and wherein the measurement pattern is made of a metal material and is opaque.
An aircraft propulsion system comprising: a gas turbine engine ; an environmental control system (ECS) ; and a bleed flowpath from the gas turbine engine through the ECS , and further comprising: a turbine along the bleed flowpath ; and a propulsion fan mechanically coupled to the turbine to be driven by the turbine , characterized in that the ECS has, sequentially along the bleed flowpath : a primary heat exchanger ; a first leg of a reheater heat exchanger ; a first leg of a condenser heat exchanger ; a water collector ; a second leg of the reheater heat exchanger in heat exchange relation with the first leg of the reheater heat exchanger ; the turbine ; a second leg of the condenser heat exchanger in heat exchange relation with the first leg of the condenser heat exchanger ; and a load (60; 62; 64). a gas turbine engine ; an environmental control system (ECS) ; and a bleed flowpath from the gas turbine engine through the ECS , and further comprising: a turbine along the bleed flowpath ; and a propulsion fan mechanically coupled to the turbine to be driven by the turbine , a turbine along the bleed flowpath ; and a propulsion fan mechanically coupled to the turbine to be driven by the turbine , characterized in that the ECS has, sequentially along the bleed flowpath : a primary heat exchanger ; a first leg of a reheater heat exchanger ; a first leg of a condenser heat exchanger ; a water collector ; a second leg of the reheater heat exchanger in heat exchange relation with the first leg of the reheater heat exchanger ; the turbine ; a second leg of the condenser heat exchanger in heat exchange relation with the first leg of the condenser heat exchanger ; and a load (60; 62; 64). a primary heat exchanger ; a first leg of a reheater heat exchanger ; a first leg of a condenser heat exchanger ; a water collector ; a second leg of the reheater heat exchanger in heat exchange relation with the first leg of the reheater heat exchanger ; the turbine ; a second leg of the condenser heat exchanger in heat exchange relation with the first leg of the condenser heat exchanger ; and a load (60; 62; 64).
An authentication method, comprising: receiving , by a broadband remote access server, BRAS, control plane, CP, device in a BRAS architecture with data forwarding and control separated, a control packet with a VXLAN encapsulation through a VXLAN tunnel between the BRAS CP device and a BRAS data plane, DP, device in the BRAS architecture; searching , by the BRAS CP device, for port information of a user access port corresponding to a VXLAN ID in the VXLAN encapsulation locally when the control packet is a packet for authenticating a user, wherein the user access port resides on the BRAS DP device ; sending , by the BRAS CP device, the port information and identity information of the user carried in the control packet to an authentication server for authentication; receiving, by the BRAS CP device , the port information sent by a user control management, UCM, network element; and configuring, by the BRAS CP device, the port information on a locally created virtual switch interface, VSI, corresponding to the VXLAN ID. receiving , by a broadband remote access server, BRAS, control plane, CP, device in a BRAS architecture with data forwarding and control separated, a control packet with a VXLAN encapsulation through a VXLAN tunnel between the BRAS CP device and a BRAS data plane, DP, device in the BRAS architecture; searching , by the BRAS CP device, for port information of a user access port corresponding to a VXLAN ID in the VXLAN encapsulation locally when the control packet is a packet for authenticating a user, wherein the user access port resides on the BRAS DP device ; sending , by the BRAS CP device, the port information and identity information of the user carried in the control packet to an authentication server for authentication; receiving, by the BRAS CP device , the port information sent by a user control management, UCM, network element; and configuring, by the BRAS CP device, the port information on a locally created virtual switch interface, VSI, corresponding to the VXLAN ID.