mhurhangee/patent-ind-claim-en huggingface dataset:
A method of detecting pressure during dispensing of a liquid, comprising: dispensing a volume of the liquid from a dispense port ; measuring a pressure of the liquid prior to dispensing the volume of the liquid from the dispense port to generate a reference pressure signal; measuring continuously a pressure of the liquid over a time period during the dispensing and providing a raw measured pressure signal in response to the measuring; subtracting the reference pressure signal from each successive measurement of the raw measured pressure signal to generate a measured pressure signal ; calculating an estimate of the instantaneous slope of the measured pressure signal; determining a start time when the slope passes a preset start threshold from the beginning of when a pump was started and determining a stop time to be when the slope exceeds a preset stop threshold i in the descending direction after the starting of the pump ; integrating the measured pressure signal between the start time and the stop time to provide an integrated measured pressure value; and comparing the integrated measured pressure value to one or more preset threshold values. dispensing a volume of the liquid from a dispense port ; measuring a pressure of the liquid prior to dispensing the volume of the liquid from the dispense port to generate a reference pressure signal; measuring continuously a pressure of the liquid over a time period during the dispensing and providing a raw measured pressure signal in response to the measuring; subtracting the reference pressure signal from each successive measurement of the raw measured pressure signal to generate a measured pressure signal ; calculating an estimate of the instantaneous slope of the measured pressure signal; determining a start time when the slope passes a preset start threshold from the beginning of when a pump was started and determining a stop time to be when the slope exceeds a preset stop threshold i in the descending direction after the starting of the pump ; integrating the measured pressure signal between the start time and the stop time to provide an integrated measured pressure value; and comparing the integrated measured pressure value to one or more preset threshold values.
A combustor assembly for a gas turbine engine, comprising: a static structure ; an annular combustor extending around a central axis (A) and being located radially inwards of the static structure , the annular combustor including an annular outer shell and an annular inner shell that define an annular combustion chamber therebetween, the annular outer shell including a radially-outwardly extending flange , wherein the annular combustor is free of any rigid attachments directly between the static structure and the annular outer shell ; and a stop member rigidly connected with the static structure , characterised in that : the stop member is adjacent the radially-outwardly extending flange such that axial-forward movement of the annular combustor is limited. a static structure ; an annular combustor extending around a central axis (A) and being located radially inwards of the static structure , the annular combustor including an annular outer shell and an annular inner shell that define an annular combustion chamber therebetween, the annular outer shell including a radially-outwardly extending flange , wherein the annular combustor is free of any rigid attachments directly between the static structure and the annular outer shell ; and a stop member rigidly connected with the static structure , characterised in that : the stop member is adjacent the radially-outwardly extending flange such that axial-forward movement of the annular combustor is limited.
A resin composition comprising: a poly(aryl ether ketone) resin (A); and a poly(ether imide sulfone) resin (B), wherein the poly(aryl ether ketone) resin (A) and the poly(ether imide sulfone) resin (B) are compatibly mixed, wherein the poly(aryl ether ketone) resin (A) is a poly(ether ketone ketone) resin having a repeating unit (a-1) represented by the following general formula and/or a repeating unit (a-2) represented by the following general formula : wherein Ar 1 to Ar 6 in the general formulae and independently denote an optionally substituted arylene group having 6 to 24 carbon atoms, Ar 3 in the general formula is bonded to a ketone group at positions 1 and 4 of the Ar 3 group, and Ar 6 in the general formula is bonded to a ketone group at positions 1 and 3 of the Ar 6 group. wherein the poly(aryl ether ketone) resin (A) is a poly(ether ketone ketone) resin having a repeating unit (a-1) represented by the following general formula and/or a repeating unit (a-2) represented by the following general formula : wherein Ar 1 to Ar 6 in the general formulae and independently denote an optionally substituted arylene group having 6 to 24 carbon atoms, Ar 3 in the general formula is bonded to a ketone group at positions 1 and 4 of the Ar 3 group, and Ar 6 in the general formula is bonded to a ketone group at positions 1 and 3 of the Ar 6 group.
Blankholder for a welding apparatus comprising an upper gripping element and a lower gripping element having longitudinal development along a direction (X), said upper gripping element being movable between a closed position, wherein a panel is clamped between said upper gripping element and said lower gripping element , and an open position, wherein the panel may slide between said upper gripping element and said lower gripping element ; said lower gripping element comprising a lower operating surface facing said upper gripping element ; characterized in that said lower gripping element comprises a plurality of movable plates arranged along said direction (X), said movable plates being suitable to be moved by handling means in a direction substantially perpendicular to said lower operating surface , between a first position, wherein they do not protrude or protrude by a minimum height relative to said lower operating surface , and a second position, wherein they protrude relative to said lower operating surface by a predetermined maximum height, said movable plates being arranged with a gripping surface .
A tire comprising a projection group having projections (110, 110B, 110C; 120, 120B, 120C; 130, 130B), each of which has a plate shape projected outward in a tire width direction from a surface of a tire side portion , wherein: the projection group is arranged between a tire maximum width position (P) in the surface of the tire side portion and an outer end of a bead core ; the projection group comprises a first projection extended in a tire radial direction, and a second projection arranged adjacent to the first projection and extended in the tire radial direction at an outer side in the tire radial direction with respect to the first projection ; a gap is formed between the first projection and the second projection in a view from a tire circumferential direction; and a size of the gap in the tire radial direction is smaller than a size of each of the first projection and the second projection in the tire radial direction, characterised in that : the projection group further comprises a third projection arranged adjacent to the second projection and extended in the tire radial direction at the outer side in the tire radial direction with respect to the second projection ; and in that a part of the third projection is overlapped with the second projection . the projection group is arranged between a tire maximum width position (P) in the surface of the tire side portion and an outer end of a bead core ; the projection group comprises a first projection extended in a tire radial direction, and a second projection arranged adjacent to the first projection and extended in the tire radial direction at an outer side in the tire radial direction with respect to the first projection ; a gap is formed between the first projection and the second projection in a view from a tire circumferential direction; and a size of the gap in the tire radial direction is smaller than a size of each of the first projection and the second projection in the tire radial direction, the projection group further comprises a third projection arranged adjacent to the second projection and extended in the tire radial direction at the outer side in the tire radial direction with respect to the second projection ; and in that a part of the third projection is overlapped with the second projection .
A studless tyre comprising a tread portion provided with a plurality of sipes, wherein in a cross-sectional view perpendicular to a circumferential direction, a profile of a tread face between an equatorial plane (CL) and each of tread edges is formed by three arcs each convex outward in a radial direction, the arcs include an arc ci counted an i-th from the equatorial plane in an axially outward direction and having a radius Ri, a tangent line of an arc C1 on the equatorial plane (CL) extends exactly in the axial direction, an arc C(i+1) and the arc ci make contact at a point where the arc C(i+1) and the arc ci intersect, a radius R(i+1) is equal to or less than the radius (Ri), characterized in that a ratio of a radius R2 with respect to a radius R1 is 40% or more and 70% or less, a ratio of a radius R3 with respect to the radius R1 is 15% or more and 30% or less, and in a cross-sectional view perpendicular to the circumferential direction, when an imaginary line having an inclination angle θ with respect to the axial direction is an imaginary line Lt and when a contact point where the imaginary line Lt contacts with the tread face is a contact point Pt, and when an axial width between the equatorial plane and the contact point Pt is an axial width Wt, a ratio of the axial width Wt when the inclination angle θ is three degrees with respect to an axial width W between the equatorial plane and each of the tread edges is 65% or less.
A group III nitride laminate comprising a substrate and an n-type first AlGaN layer represented by a compositional formula of Al X Ga 1-X N (0.5 < X ≤ 1), wherein a second AlGaN layer represented by a compositional formula of Al Y Ga 1-Y N (0.5 < Y < 1, with Y < X) is formed between the substrate and the n-type first AlGaN layer , characterized in that the thickness ty of the second AlGaN layer is 30 to 100 nm, and a thickness ratio tx / ty between the n-type first AlGaN layer and the second AlGaN layer is 2 or larger and 100 or less. a second AlGaN layer represented by a compositional formula of Al Y Ga 1-Y N (0.5 < Y < 1, with Y < X) is formed between the substrate and the n-type first AlGaN layer , characterized in that the thickness ty of the second AlGaN layer is 30 to 100 nm, and a thickness ratio tx / ty between the n-type first AlGaN layer and the second AlGaN layer is 2 or larger and 100 or less.
A method performed by an application function (AF) associated with a communication network, the method comprising: sending, to a network function (NF) of the communication network, a key request for a security key (K AF ) associated with an application session between the AF and a user equipment (UE), wherein the key request includes a request for a first identifier of the UE; receiving, from the NF, a response that includes the security key (K AF ) and the first identifier; and authenticating the UE for the application session based on the response. receiving, from the NF, a response that includes the security key (K AF ) and the first identifier; and authenticating the UE for the application session based on the response.
A detection system for receiving echo pulses from a material with a magnetic resonance response, the system comprising : a transmitter for transmitting a series of pulses of UWB electromagnetic radiation, and at least one receiver for identifying the echo pulses of the series of pulses, characterised in that the system also comprises a magnetic resonant tag, and the receiver is adapted to identify a signature of the magnetic resonant tag imposed on the echo pulses, the signature being indicative of reflection from the material exhibiting a magnetic resonance induced by the series of pulses. a transmitter for transmitting a series of pulses of UWB electromagnetic radiation, and at least one receiver for identifying the echo pulses of the series of pulses, characterised in that the system also comprises a magnetic resonant tag, and the receiver is adapted to identify a signature of the magnetic resonant tag imposed on the echo pulses, the signature being indicative of reflection from the material exhibiting a magnetic resonance induced by the series of pulses.
A data sending method applied to a terminal device, wherein the terminal device comprises a communication processor, CP, and an application processor, AP, wherein a Wi-Fi network is linked to the CP, and the method comprises: acquiring , by the CP of the terminal device, to-be-sent data; receiving, by the CP of the terminal device, an internet protocol, IP, address sent by a network device; determining, by the CP of the terminal device, port information of the terminal device, wherein the port information is notified by the network device to the terminal device, or the port information is determined by the network device and the terminal device through mutual negotiation; establishing, by the CP of the terminal device according to the IP address and the port information, the non-cellular mobile communication network link between the terminal device and the network device; and sending , by the CP of the terminal device, directly the to-be-sent data through the non-cellular mobile communication network link, without sending the to-be-sent data to the AP of the terminal device. acquiring , by the CP of the terminal device, to-be-sent data; receiving, by the CP of the terminal device, an internet protocol, IP, address sent by a network device; determining, by the CP of the terminal device, port information of the terminal device, wherein the port information is notified by the network device to the terminal device, or the port information is determined by the network device and the terminal device through mutual negotiation; establishing, by the CP of the terminal device according to the IP address and the port information, the non-cellular mobile communication network link between the terminal device and the network device; and sending , by the CP of the terminal device, directly the to-be-sent data through the non-cellular mobile communication network link, without sending the to-be-sent data to the AP of the terminal device.
A metal supported solid oxide fuel cell (SOFC) comprising; a metal substrate; an electrolyte layer adjacent the metal substrate; and at least one gasket through which fluids are delivered to and/or from the metal supported solid oxide fuel cell; wherein the electrolyte layer covers the region between the gasket and an active region of the SOFC, providing a non-porous protective coating preventing corrosion of the metal substrate; and wherein at least a portion of the electrolyte layer is positioned between the substrate and the gasket and/or on the metal substrate in regions proximate to the gasket. a metal substrate; an electrolyte layer adjacent the metal substrate; and at least one gasket through which fluids are delivered to and/or from the metal supported solid oxide fuel cell; wherein the electrolyte layer covers the region between the gasket and an active region of the SOFC, providing a non-porous protective coating preventing corrosion of the metal substrate; and wherein at least a portion of the electrolyte layer is positioned between the substrate and the gasket and/or on the metal substrate in regions proximate to the gasket.
A method for decellularizing a tissue graft wherein said method comprises contacting a tissue graft with an extraction composition that comprises an amphoteric detergent at a concentration, and for a contact time, that is sufficient to rupture cells in the tissue, and wherein the method is performed in the absence of an anionic detergent.
A composition comprising: a carrier comprising water; an abrasive particulate contained in the carrier; an accelerant contained in the carrier, the accelerant including free fluoride ions (F - ); and a buffer contained in a saturated concentration in the carrier, the buffer including a compound selected from M a F x , N b F x , M a N b F x , or any combination thereof, wherein M represents a metal element or metal compound; N represents a non-metal element; and a, b, and x is 1-6, and wherein the buffer is different than the accelerant. a carrier comprising water; an abrasive particulate contained in the carrier; an accelerant contained in the carrier, the accelerant including free fluoride ions (F - ); and a buffer contained in a saturated concentration in the carrier, the buffer including a compound selected from M a F x , N b F x , M a N b F x , or any combination thereof, wherein M represents a metal element or metal compound; N represents a non-metal element; and a, b, and x is 1-6, and wherein the buffer is different than the accelerant.
A respiratory interface system for use in delivering a flow of a positive pressure breathing gas to an airway of a patient, the respiratory interface system comprising a patient interface device comprising: a tubing assembly structured to be disposed on the head of the patient; a mask having a sealing element structured to sealingly engage about the airway of the patient; and an adaptor , wherein the mask is coupled to the tubing assembly via the adaptor, and wherein the tubing assembly, the mask, and the adaptor define a pathway structured to conduct the flow of the positive pressure breathing gas to the airway of the patient, and characterized in that the adaptor comprises: a first hollow male connector and a second hollow male connector for insertion respectively in correspondingly-shaped female connectors of the tubing assembly and the mask; or a first female connector and a second female connector for receipt respectively of correspondingly-shaped male connectors of the tubing assembly and the mask. a tubing assembly structured to be disposed on the head of the patient; a mask having a sealing element structured to sealingly engage about the airway of the patient; and an adaptor , wherein the mask is coupled to the tubing assembly via the adaptor, and wherein the tubing assembly, the mask, and the adaptor define a pathway structured to conduct the flow of the positive pressure breathing gas to the airway of the patient, and characterized in that the adaptor comprises: a first hollow male connector and a second hollow male connector for insertion respectively in correspondingly-shaped female connectors of the tubing assembly and the mask; or a first female connector and a second female connector for receipt respectively of correspondingly-shaped male connectors of the tubing assembly and the mask. a first hollow male connector and a second hollow male connector for insertion respectively in correspondingly-shaped female connectors of the tubing assembly and the mask; or a first female connector and a second female connector for receipt respectively of correspondingly-shaped male connectors of the tubing assembly and the mask.
A method for indicating an unmanned aerial vehicle (UAV) , the UAV having a main body and a propeller coupled to the main body , the method comprising: receiving an instruction from a processor carried by the UAV ; in response to the instruction, emitting a light ray, from a light source of the UAV , in a first direction (D1); receiving, by an illuminating component carried by the propeller , the light ray from the light source ; and while the propeller is rotating, emitting, by the illuminating component carried by the propeller , light in a second direction (D2) different than the first direction (D1) to form a visual indication corresponding to the UAV ;the method being characterized by determining, by the processor carried by the UAV , the second direction (D2) at least partially based on a location of an operator of the UAV . receiving an instruction from a processor carried by the UAV ; in response to the instruction, emitting a light ray, from a light source of the UAV , in a first direction (D1); receiving, by an illuminating component carried by the propeller , the light ray from the light source ; and while the propeller is rotating, emitting, by the illuminating component carried by the propeller , light in a second direction (D2) different than the first direction (D1) to form a visual indication corresponding to the UAV ;the method being characterized by determining, by the processor carried by the UAV , the second direction (D2) at least partially based on a location of an operator of the UAV .
An inflatable pool comprising: a pool wall ; a pool bottom comprising an outer bottom sheet and an inner bottom sheet , wherein the pool wall and the pool bottom together define a fluid accommodation cavity ; a strip comprising a lower rim connected to an outer annular portion of the outer bottom sheet and an upper rim connected to an outer annular portion of the inner bottom sheet ; wherein an inner annular portion of the inner bottom sheet is connected to an inner annular portion of the outer bottom sheet , such that a bottom channel is defined by the strip , a portion of the inner bottom sheet between the outer annular portion of the inner bottom sheet and the inner annular portion of the inner bottom sheet , and a portion of the outer bottom sheet between the outer annular portion of the outer bottom sheet and the inner annular portion of the outer bottom sheet ; wherein a plurality of holes are formed through both the strip and the inner bottom sheet , in an overlapping region where the strip overlaps with the inner bottom sheet , and the bottom channel is in communication with the fluid accommodation cavity through the plurality of holes. a pool wall ; a pool bottom comprising an outer bottom sheet and an inner bottom sheet , wherein the pool wall and the pool bottom together define a fluid accommodation cavity ; a strip comprising a lower rim connected to an outer annular portion of the outer bottom sheet and an upper rim connected to an outer annular portion of the inner bottom sheet ; wherein an inner annular portion of the inner bottom sheet is connected to an inner annular portion of the outer bottom sheet , such that a bottom channel is defined by the strip , a portion of the inner bottom sheet between the outer annular portion of the inner bottom sheet and the inner annular portion of the inner bottom sheet , and a portion of the outer bottom sheet between the outer annular portion of the outer bottom sheet and the inner annular portion of the outer bottom sheet ; wherein a plurality of holes are formed through both the strip and the inner bottom sheet , in an overlapping region where the strip overlaps with the inner bottom sheet , and the bottom channel is in communication with the fluid accommodation cavity through the plurality of holes.
A method for controlling a glass sheet heating furnace using information describing the load of glass sheets, in which method glass sheets are transported through a heating furnace , and, before thermal treatment, the glass load is photographed by at least one 2D camera , the information of the camera image is sent to a computer , on the basis of which information the computer defines the value of at least one dimension of the glass load, selects the value of at least one adjustment parameter of the heating furnace on the basis of this dimension before the glass load has transferred into the heating furnace , the method being characterized in that the information required for defining the dimensions of the glass load are also read by a line scanner , which information is sent to the computer , on the basis of which the computer determines the value of at least one dimension of the glass load.