mhurhangee/patent-ind-claim-en huggingface dataset:
Medical fluid control device for a medical fluid conduction system, with a fluid flow housing (2 to 2b) which has at least one attachment port (3 to 3b) for attaching and removing an external medical fluid-guiding component and at least one connection port (4 to 4b, 5 to 5b) for connecting to a further functional component of the medical fluid conduction system, and with an adjustment member (8 to 8b) for controlling a flow of fluid relative to the at least one attachment port (3 to 3b) and/or the at least one connection port (4 to 4b, 5 to 5b), wherein a particulate filter (9 to 9b) with a pore width of between 2 μm and 15 μm is integrated in the at least one attachment port (3 to 3b) and/or the at least one connection port (4 to 4b, 5 to 5b), wherein the particulate filter (9 to 9b) is designed as a longitudinally extending hat body (12 to 12b) spatially inside the attachment port (3 to 3b) or the connection port, and wherein the hat body (12 to 12b) is designed as a hollow body open at one end, with a tapering configuration, characterized in that the hat body has a tip narrowing to a point.
Angling tool to bend a edge of a first part to a edge of a second part , with the English tool consisting of a first part forming a blade carrier and a body on which at least one block of blood is mounted , the first part being intended to be attached to a robot arm; the English tool comprising at least a second part forming a support, the second part(s) being intended to be attached to a weaving island , in that both parts present means of assembly for the assembly to each other for their cooperation in an anglophone operation age, the tool of blood being characterized in that the said means of assembly form a pivot binding allowing a rotation movement of the first part in relation to the second part on a axis of rotation, and include a male element intended to be inserted into a female element by a parallel translation movement of that axis of rotation.
A fuel tank inerting system for an aircraft, the system comprising : a ram air duct ; a fuel tank ; a pressurized air source ; an air separation module ASM arranged between the pressurized air source and the fuel tank, the air separation module configured to generate an inerting gas from pressurized air supplied from the pressurized air source and supply the inerting gas to the fuel tank; an upstream thermal conditioning system arranged upstream of the air separation module, the upstream thermal conditioning system configured to increase a temperature of the pressurized air prior to entry into the air separation module; a downstream thermal conditioning system arranged downstream of the air separation module, the downstream thermal conditioning system configured to decrease a temperature of the inerting gas prior to entry into the fuel tank, characterized in that the downstream thermal conditioning system comprises a product gas cooler located in the ram air duct; and in that the upstream thermal conditioning system comprises an ASM cooling heat exchanger arranged within the ram air duct of the aircraft, wherein the pressurized air passes through the ASM cooling heat exchanger upstream of the air separation module, the upstream thermal conditioning system further comprising a bypass line and a bypass valve , wherein the bypass valve is operable to divert at least a portion of the pressurized air around the ASM cooling heat exchanger . a fuel tank ; a pressurized air source ; an air separation module ASM arranged between the pressurized air source and the fuel tank, the air separation module configured to generate an inerting gas from pressurized air supplied from the pressurized air source and supply the inerting gas to the fuel tank; an upstream thermal conditioning system arranged upstream of the air separation module, the upstream thermal conditioning system configured to increase a temperature of the pressurized air prior to entry into the air separation module; a downstream thermal conditioning system arranged downstream of the air separation module, the downstream thermal conditioning system configured to decrease a temperature of the inerting gas prior to entry into the fuel tank, characterized in that the downstream thermal conditioning system comprises a product gas cooler located in the ram air duct; and in that the upstream thermal conditioning system comprises an ASM cooling heat exchanger arranged within the ram air duct of the aircraft, wherein the pressurized air passes through the ASM cooling heat exchanger upstream of the air separation module, the upstream thermal conditioning system further comprising a bypass line and a bypass valve , wherein the bypass valve is operable to divert at least a portion of the pressurized air around the ASM cooling heat exchanger .
A knob assembly for a cooking apparatus, comprising: a knob coupled to an adjustment shaft for adjusting a power level of a power source; a knob ring rotatable independently of the knob , wherein the knob ring surrounds the knob and supports the adjustment shaft at two or more points thereof; wherein the knob ring includes: a knob ring main body configured to form an exterior appearance thereof, a rear surface plate coupled to a rear surface of the knob ring main body and provided with a support hole configured to support the adjustment shaft which passes through the support hole , and a support pipe coupled to the rear surface plate and configured to support the adjustment shaft ; characterized in that a display is provided on the knob ring ; and wherein the support pipe includes: a flange coupled to the rear surface plate , and a tapered pipe formed to extend from the flange and provided with a cap configured to support the adjustment shaft . a knob coupled to an adjustment shaft for adjusting a power level of a power source; a knob ring rotatable independently of the knob , wherein the knob ring surrounds the knob and supports the adjustment shaft at two or more points thereof; a knob ring main body configured to form an exterior appearance thereof, a rear surface plate coupled to a rear surface of the knob ring main body and provided with a support hole configured to support the adjustment shaft which passes through the support hole , and a support pipe coupled to the rear surface plate and configured to support the adjustment shaft ; characterized in that a display is provided on the knob ring ; and a flange coupled to the rear surface plate , and a tapered pipe formed to extend from the flange and provided with a cap configured to support the adjustment shaft .
A random access method, comprising: in a random access process, sending a first random access signal via a first resource, and then sending a second random access signal via a second resource , by a terminal; and detecting , by the terminal, at least one of a first random access response signal and a second random access response signal sent by a network device, a start time of a transmission period of the second random access signal being earlier than an end time of a detection period of the first random access response signal, wherein, the first random access signal is sent by a first beam, and the second random access signal is sent by a second beam, and characterized in that , the terminal selects an uplink target beam from the first beam and the second beam, and uses the beam except the uplink target beam as an alternative beam, and when the uplink target beam is invalid, the terminal communicates with the network device through the alternative beam. in a random access process, sending a first random access signal via a first resource, and then sending a second random access signal via a second resource , by a terminal; and detecting , by the terminal, at least one of a first random access response signal and a second random access response signal sent by a network device, a start time of a transmission period of the second random access signal being earlier than an end time of a detection period of the first random access response signal, wherein, the first random access signal is sent by a first beam, and the second random access signal is sent by a second beam, and characterized in that , the terminal selects an uplink target beam from the first beam and the second beam, and uses the beam except the uplink target beam as an alternative beam, and when the uplink target beam is invalid, the terminal communicates with the network device through the alternative beam.
A shell-and-tube heat exchanger assembly, comprising: a first tubesheet configured for being secured to a shell of the shell-and-tube heat exchanger assembly, the first tubesheet including: a first section and a second section ; the second section configured to be secured to a first shell end of the shell ; and the first section including a plurality of holes configured to support a respective plurality of aluminum tubes extending through the shell , wherein the first section is configured to limit a galvanic response of the plurality of aluminum tubes when exposed to a chiller water; wherein the first section is a radially inner section and the second section is a radially exterior section; characterized in that : the first section is an insert having a rectangular surface area and is secured to a rectangular cutout in the second section , the first section is press fit into the second section or the first section is welded to the second section , the second section being disc shaped; and a first plenum that is a water-box is secured to the first section , the first section having a surface area that is at least as large as a contact area between the first plenum and the first section . a first section and a second section ; the second section configured to be secured to a first shell end of the shell ; and the first section including a plurality of holes configured to support a respective plurality of aluminum tubes extending through the shell , wherein the first section is configured to limit a galvanic response of the plurality of aluminum tubes when exposed to a chiller water; wherein the first section is a radially inner section and the second section is a radially exterior section; characterized in that : the first section is an insert having a rectangular surface area and is secured to a rectangular cutout in the second section , the first section is press fit into the second section or the first section is welded to the second section , the second section being disc shaped; and a first plenum that is a water-box is secured to the first section , the first section having a surface area that is at least as large as a contact area between the first plenum and the first section . the first section is an insert having a rectangular surface area and is secured to a rectangular cutout in the second section , the first section is press fit into the second section or the first section is welded to the second section , the second section being disc shaped; and a first plenum that is a water-box is secured to the first section , the first section having a surface area that is at least as large as a contact area between the first plenum and the first section .
A process for the preparation of copper containing molecular sieve with the CHA structure which have the aluminosilicate composition having a silica to alumina mole ratio greater than 10, wherein the copper is ex-changed into the Na + -form of the molecular sieve with the CHA structure, which is the calcined form of this zeolite without any ion exchange containing a mixture of Na + and H + cations in the exchange sites, wherein the calcination temperatures are in the 400 °C to 850 °C range , using a liquid copper solution wherein the initial concentration of copper is in the range of 0.05 to 0.3 molar, wherein the liquid to solid ratio which is defined as the weight of water and copper salt used to prepare the Cu solution relative to the dry weight of the starting zeolite used in the copper exchange step is in the range from 2 to 15, wherein the reaction temperature of the copper-exchange step is in the range of 20 to 60°C, wherein copper acetate or an ammoniacal solution of copper ions is used as copper source, and wherein the copper exchange step is conducted once and not repeated. wherein the reaction temperature of the copper-exchange step is in the range of 20 to 60°C, wherein copper acetate or an ammoniacal solution of copper ions is used as copper source, and wherein the copper exchange step is conducted once and not repeated.
A vehicle peripheral observation device comprising a plurality of cameras (25 to 28) for imaging an area including a road surface of a vehicle periphery, an image processor for displaying the images captured using the plurality of cameras (25 to 28) on a monitor , and obstacle-detecting means for detecting an obstacle in the vehicle periphery; the image processor having overhead-image-generating means for generating an overhead image looking down on the vehicle periphery from above from the images captured using the plurality of cameras (25 to 28) and displaying the resulting image in an overhead image display area of the monitor , and specified information output means that, when an obstacle (X) is detected by the obstacle-detecting means , displays the position of the detected obstacle (X) on the monitor , characterized in that the overhead image displayed on the overhead image display area is divided into and managed as a plurality of divided areas, the specified information output means emphasizes the display of a frame (f) in the outer periphery of the divided area containing the obstacle (X) detected by the obstacle-detecting means from among the plurality of divided areas, and the frame (f) is defined in an outer periphery of the overhead image display area. the image processor having overhead-image-generating means for generating an overhead image looking down on the vehicle periphery from above from the images captured using the plurality of cameras (25 to 28) and displaying the resulting image in an overhead image display area of the monitor , and specified information output means that, when an obstacle (X) is detected by the obstacle-detecting means , displays the position of the detected obstacle (X) on the monitor , characterized in that the overhead image displayed on the overhead image display area is divided into and managed as a plurality of divided areas, the specified information output means emphasizes the display of a frame (f) in the outer periphery of the divided area containing the obstacle (X) detected by the obstacle-detecting means from among the plurality of divided areas, and the frame (f) is defined in an outer periphery of the overhead image display area.
A method for inspecting a medical container made of a light transmissive material, said medical container having a cylindrical shape, the method comprising: scanning a portion of the medical container to be inspected, by a white light emitted from a confocal chromatic system , the confocal chromatic system being configured to direct the light on an inner surface of the medical container; during the scanning, rotating the medical container around a central axis of the medical container to perform inspection of the portion of the medical container at different positions along a circumference of the medical container , detecting light reflected by the portion of the medical container by the confocal chromatic system ; and determining whether a particle is present or not in or on the said inner surface of the portion of the medical container , based on a detection result obtained by the confocal chromatic system . scanning a portion of the medical container to be inspected, by a white light emitted from a confocal chromatic system , the confocal chromatic system being configured to direct the light on an inner surface of the medical container; during the scanning, rotating the medical container around a central axis of the medical container to perform inspection of the portion of the medical container at different positions along a circumference of the medical container , detecting light reflected by the portion of the medical container by the confocal chromatic system ; and determining whether a particle is present or not in or on the said inner surface of the portion of the medical container , based on a detection result obtained by the confocal chromatic system .
A thermoforming device , comprising: an upper hot plate comprising a first heating surface configured to heat a sheet from above; a lower hot plate comprising a second heating surface configured to heat the sheet from below; and a substrate-supplying unit comprising a base configured to hold a molded substrate , and configured to attach the molded substrate to and detach the molded substrate from the base and to dispose the molded substrate at a molding position (P0) below the first heating surface with the sheet interposed therebetween, wherein the upper hot plate and the lower hot plate are configured to heat the sheet simultaneously from an upper surface and a lower surface of the sheet, the lower hot plate is provided to be movable in a horizontal direction with respect to a position below the upper hot plate, and the thermoforming device die-molds or adheres, onto the molded substrate held by the base, the sheet softened by being heated by the upper hot plate and the lower hot plate, wherein in heating the upper hot plate suctions the sheet to the first heating surface and contacts and heats the upper surface of the sheet, and the lower hot plate is disposed below the sheet with a gap therebetween, and is configured to heat the lower surface of the sheet using radiant heat from the second heating surface. an upper hot plate comprising a first heating surface configured to heat a sheet from above; a lower hot plate comprising a second heating surface configured to heat the sheet from below; and a substrate-supplying unit comprising a base configured to hold a molded substrate , and configured to attach the molded substrate to and detach the molded substrate from the base and to dispose the molded substrate at a molding position (P0) below the first heating surface with the sheet interposed therebetween, wherein the upper hot plate and the lower hot plate are configured to heat the sheet simultaneously from an upper surface and a lower surface of the sheet, the lower hot plate is provided to be movable in a horizontal direction with respect to a position below the upper hot plate, and the thermoforming device die-molds or adheres, onto the molded substrate held by the base, the sheet softened by being heated by the upper hot plate and the lower hot plate, wherein in heating the upper hot plate suctions the sheet to the first heating surface and contacts and heats the upper surface of the sheet, and the lower hot plate is disposed below the sheet with a gap therebetween, and is configured to heat the lower surface of the sheet using radiant heat from the second heating surface.
A method of transferring small packets in a wireless network, the method comprising: generating, by a station, STA, a control frame, wherein the control frame is a power save PS-poll frame; on a condition that the STA has data available for transmission, indicating, in a field of the control frame, an estimated time in microseconds, wherein the estimated time includes at least a time required for transmission of the data; transmitting the control frame; and receiving a response frame associated with the control frame, wherein the response frame includes a response duration field set to a value of at least the estimated time. generating, by a station, STA, a control frame, wherein the control frame is a power save PS-poll frame; on a condition that the STA has data available for transmission, indicating, in a field of the control frame, an estimated time in microseconds, wherein the estimated time includes at least a time required for transmission of the data; transmitting the control frame; and receiving a response frame associated with the control frame, wherein the response frame includes a response duration field set to a value of at least the estimated time.
A method for sending an end marker, characterized by comprising: receiving , by a source access node, AN, through a source transmission path between the source AN and a core-network user-plane device, a first end marker from the core-network user-plane device, wherein the first end marker is used to indicate that sending downlink data of user equipment, UE, on the source transmission path is completed, and the source transmission path corresponds to one session; generating , by the source AN, N second end markers based on the first end marker, wherein N is the number of source data radio bearers, DRBs, corresponding to the source transmission path, and the N is greater than or equal to 2; and sending , by the source AN, the N second end markers to a target AN through N forwarding paths corresponding to the source transmission path, wherein the forwarding paths are used by the source AN to forward, to the target AN, data of the UE received through the source transmission path, and one forwarding path corresponds to one source DRB. receiving , by a source access node, AN, through a source transmission path between the source AN and a core-network user-plane device, a first end marker from the core-network user-plane device, wherein the first end marker is used to indicate that sending downlink data of user equipment, UE, on the source transmission path is completed, and the source transmission path corresponds to one session; generating , by the source AN, N second end markers based on the first end marker, wherein N is the number of source data radio bearers, DRBs, corresponding to the source transmission path, and the N is greater than or equal to 2; and sending , by the source AN, the N second end markers to a target AN through N forwarding paths corresponding to the source transmission path, wherein the forwarding paths are used by the source AN to forward, to the target AN, data of the UE received through the source transmission path, and one forwarding path corresponds to one source DRB.