mhurhangee/patent-ind-claim-en huggingface dataset:
A dermal applicator device comprising: a housing having a retainer configured to hold and engage positively a spherical surface; and a reservoir containing a liquid, the reservoir contained within a shell that is at least partially spherical and which shell is configured to be engaged within the retainer to permit relative rotation of the shell with respect to the housing , the liquid having at least one of: i) a freezing point below 0°C and (ii) a specific latent heat of fusion higher than that of water; characterised in that the shell further includes an outwardly protruding lug extending from its surface and the housing is configured to form an orbital chamber between an inner surface thereof and the shell when the shell is held by the retainer and retained in the housing , the protruding lug constrained within the orbital chamber such that rotation of the shell relative to the housing is restricted. a housing having a retainer configured to hold and engage positively a spherical surface; and a reservoir containing a liquid, the reservoir contained within a shell that is at least partially spherical and which shell is configured to be engaged within the retainer to permit relative rotation of the shell with respect to the housing , the liquid having at least one of: i) a freezing point below 0°C and (ii) a specific latent heat of fusion higher than that of water; characterised in that the shell further includes an outwardly protruding lug extending from its surface and the housing is configured to form an orbital chamber between an inner surface thereof and the shell when the shell is held by the retainer and retained in the housing , the protruding lug constrained within the orbital chamber such that rotation of the shell relative to the housing is restricted.
An intravascular catheter with fluoroscopically visible indicium of rotational orientation, comprising: an elongate flexible tubular body , having a proximal end , a distal end and a tubular side wall defining at least one lumen extending there through; first, second, and third opposing pairs of radiopaque rings in the side wall, spaced axially apart from each other, each ring surrounding an exit aperture formed within an eyelet in the side wall; wherein a first transverse axis extending through the first pair of rings is rotationally offset within the range of from about 10° to about 60° from a second transverse axis extending through the second pair of rings, and the second transverse axis is rotationally offset within the range of from about 10° to about 60° from a third transverse axis extending through the third pair of rings. an elongate flexible tubular body , having a proximal end , a distal end and a tubular side wall defining at least one lumen extending there through; first, second, and third opposing pairs of radiopaque rings in the side wall, spaced axially apart from each other, each ring surrounding an exit aperture formed within an eyelet in the side wall; wherein a first transverse axis extending through the first pair of rings is rotationally offset within the range of from about 10° to about 60° from a second transverse axis extending through the second pair of rings, and the second transverse axis is rotationally offset within the range of from about 10° to about 60° from a third transverse axis extending through the third pair of rings.
Container made of plastic material, provided with a body and a bottom extending from a bottom end of the body , the bottom comprising; - a peripheral seat defining a resting plane ; - a concave arch which extends from a central zone ; - a series of main reinforcing grooves which extend radially from the central zone to at least the seat , characterized in that the arch has three concentric regions, namely a central region , a median region and a peripheral region , separated respectively by an inner axial indentation and an outer axial indentation which extend annularly continuously around the central zone , such that the central region is raised relative to the median region , and the median region is raised relative to the peripheral region . - a peripheral seat defining a resting plane ; - a concave arch which extends from a central zone ; - a series of main reinforcing grooves which extend radially from the central zone to at least the seat ,
A mixed ink used for printing, containing a pigment blend mixed with a powdered far infrared radiant material, characterised in that the far infrared radiant material is mixed in 3 weight% to 10 weight% relative to an overall weight of the mixed ink, and wherein the far infrared radiant material has a diameter range from 1 μ m to 5 μ m; and wherein the pigment blend is prepared by adding an ink binder and an ink adjuvant to a pigment, wherein where the pigment blend is yellow, the pigment blend is prepared of the pigment of 10 weight% to 13 weight%, the ink binder of 70 weight% to 75 weight%, and the ink adjuvant of 5 weight% to 10 weight%, and unless the pigment blend is yellow, the pigment blend is prepared of the pigment of 18 weight% to 22 weight%, the ink binder of 65 weight% to 70 weight%, and the ink adjuvant of 5 weight% to 10 weight%. the far infrared radiant material is mixed in 3 weight% to 10 weight% relative to an overall weight of the mixed ink, and wherein the far infrared radiant material has a diameter range from 1 μ m to 5 μ m; and wherein the pigment blend is prepared by adding an ink binder and an ink adjuvant to a pigment, wherein where the pigment blend is yellow, the pigment blend is prepared of the pigment of 10 weight% to 13 weight%, the ink binder of 70 weight% to 75 weight%, and the ink adjuvant of 5 weight% to 10 weight%, and unless the pigment blend is yellow, the pigment blend is prepared of the pigment of 18 weight% to 22 weight%, the ink binder of 65 weight% to 70 weight%, and the ink adjuvant of 5 weight% to 10 weight%.
A heat transfer system, comprising a plurality of modules arranged in a stack, each of the modules comprising an electrocaloric element comprising an electrocaloric film , a first electrode on a first side of the electrocaloric film , and a second electrode on a second side of the electrocaloric film ; a fluid flow path between two or more electrocaloric elements; a first electrical bus element in electrical contact with the first electrode ; and a second electrical bus element in electrical contact with second electrode ; wherein the first electrical bus element is electrically connected to at least one other electrical bus of another electrocaloric element in the stack at the same polarity as said first electrical bus , or the second electrical bus element is electrically connected to at least one other electrical bus of another electrocaloric element in the stack at the same polarity as said second electrical bus ; characterised in that the first or second electrical bus element is in an interlocking configuration with an electrical bus of an adjacent electrocaloric element in the stack. an electrocaloric element comprising an electrocaloric film , a first electrode on a first side of the electrocaloric film , and a second electrode on a second side of the electrocaloric film ; a fluid flow path between two or more electrocaloric elements; a first electrical bus element in electrical contact with the first electrode ; and a second electrical bus element in electrical contact with second electrode ; wherein the first electrical bus element is electrically connected to at least one other electrical bus of another electrocaloric element in the stack at the same polarity as said first electrical bus , or the second electrical bus element is electrically connected to at least one other electrical bus of another electrocaloric element in the stack at the same polarity as said second electrical bus ; characterised in that the first or second electrical bus element is in an interlocking configuration with an electrical bus of an adjacent electrocaloric element in the stack.
A hearing device comprising a housing configured to be worn at a wearing position at an ear of a user, the hearing device comprising - an inertial sensor included in the housing ; - an orientation evaluator communicatively coupled to the inertial sensor , the orientation evaluator configured to provide orientation data indicative of a spatial orientation of the housing and/or the wearing position; - a walking evaluator configured to provide walking data indicative of a walking activity of the user; - an orientation calibrator configured to provide calibration data indicative of a deviation of the spatial orientation of the housing from a reference orientation, the orientation calibrator configured to provide the calibration data depending on the walking data, wherein the orientation evaluator is configured to provide the orientation data based on the calibration data; and - a controller configured to control an operation of the hearing device based on the orientation data, - a beamformer, wherein the operation comprises controlling a property of the beamformer; and - a behind-the-ear part configured to be worn at a wearing position behind an ear of a user, the behind-the-ear part comprising said housing. - an inertial sensor included in the housing ; - an orientation evaluator communicatively coupled to the inertial sensor , the orientation evaluator configured to provide orientation data indicative of a spatial orientation of the housing and/or the wearing position; - a walking evaluator configured to provide walking data indicative of a walking activity of the user; - an orientation calibrator configured to provide calibration data indicative of a deviation of the spatial orientation of the housing from a reference orientation, the orientation calibrator configured to provide the calibration data depending on the walking data, wherein the orientation evaluator is configured to provide the orientation data based on the calibration data; and - a controller configured to control an operation of the hearing device based on the orientation data, - a beamformer, wherein the operation comprises controlling a property of the beamformer; and - a behind-the-ear part configured to be worn at a wearing position behind an ear of a user, the behind-the-ear part comprising said housing.
A method of manufacturing an infrared detector comprising the steps of: - hybrid bonding of a detection chip onto a second chip , and during the hybrid bonding; ▪ said detection chip comprising a substrate topped with a deep oxide layer , a fully depleted semiconductor layer integrating transistors , a metal interconnection network , and an insulator layer ; ▪ said detection chip comprising a hybridization surface having contacts emerging from said insulator layer , and connected to the metal interconnection network ; and ▪ said second chip comprising a substrate having transistors and contacts emerging from an insulator layer at the level of a hybridization surface formed therein; the hybrid bonding step being formed by adhesion of the contacts and of the insulator layers of the two chips ; - removal of the substrate of said detection chip to reach said deep oxide layer ; - forming of conductive pads through said deep oxide layer to reach the transistors present in said semiconductor layer ; and - forming of microbolometers suspended over said deep oxide layer and electrically connected to the conductive pads . - hybrid bonding of a detection chip onto a second chip , and during the hybrid bonding; ▪ said detection chip comprising a substrate topped with a deep oxide layer , a fully depleted semiconductor layer integrating transistors , a metal interconnection network , and an insulator layer ; ▪ said detection chip comprising a hybridization surface having contacts emerging from said insulator layer , and connected to the metal interconnection network ; and ▪ said second chip comprising a substrate having transistors and contacts emerging from an insulator layer at the level of a hybridization surface formed therein; the hybrid bonding step being formed by adhesion of the contacts and of the insulator layers of the two chips ; ▪ said detection chip comprising a substrate topped with a deep oxide layer , a fully depleted semiconductor layer integrating transistors , a metal interconnection network , and an insulator layer ; ▪ said detection chip comprising a hybridization surface having contacts emerging from said insulator layer , and connected to the metal interconnection network ; and ▪ said second chip comprising a substrate having transistors and contacts emerging from an insulator layer at the level of a hybridization surface formed therein; - removal of the substrate of said detection chip to reach said deep oxide layer ; - forming of conductive pads through said deep oxide layer to reach the transistors present in said semiconductor layer ; and - forming of microbolometers suspended over said deep oxide layer and electrically connected to the conductive pads .
A computer-readable medium comprising codes causing user equipment to perform: obtaining multiple Transport Blocks, TBs, within one Transmission Time Interval, TTI, wherein the TBs are allocated by a base station; selecting a TB compliant with a condition of transmitting Buffer Status Reports, BSRs, among the multiple TBs; wherein the condition comprises at least one of: a first condition: padding bits of a single TB are capable of accommodating BSRs of all LCGs and CE sub-headers of the BSRs; and a second condition: padding bits of a single TB are capable of accommodating BSRs of one or more LCGs and CE sub-headers of the BSRs, but are incapable of accommodating the BSRs of all LCGs and the CE sub-headers of the BSRs; bearing BSRs of Logical Channel Groups, LCGs, and Control Element, CE, sub-headers of the BSRs onto the selected TB; and sending the selected TB to the base station. obtaining multiple Transport Blocks, TBs, within one Transmission Time Interval, TTI, wherein the TBs are allocated by a base station; selecting a TB compliant with a condition of transmitting Buffer Status Reports, BSRs, among the multiple TBs; wherein the condition comprises at least one of: a first condition: padding bits of a single TB are capable of accommodating BSRs of all LCGs and CE sub-headers of the BSRs; and a second condition: padding bits of a single TB are capable of accommodating BSRs of one or more LCGs and CE sub-headers of the BSRs, but are incapable of accommodating the BSRs of all LCGs and the CE sub-headers of the BSRs; a first condition: padding bits of a single TB are capable of accommodating BSRs of all LCGs and CE sub-headers of the BSRs; and a second condition: padding bits of a single TB are capable of accommodating BSRs of one or more LCGs and CE sub-headers of the BSRs, but are incapable of accommodating the BSRs of all LCGs and the CE sub-headers of the BSRs; bearing BSRs of Logical Channel Groups, LCGs, and Control Element, CE, sub-headers of the BSRs onto the selected TB; and sending the selected TB to the base station.
Apparatus for measuring a flow of a fluid, comprising a thermal flow sensor comprising a sensitive area , a channel for guiding the fluid, which channel comprises a measuring section with a profile (A) perpendicular to a direction of the flow (F) of the fluid, which profile (A) has a height orthogonal to the flow (F) of the fluid and perpendicular to a plane defined by the sensitive area , and a width orthogonal to its height wherein the thermal flow sensor has a sensor width (W2) orthogonal to the flow (F) of the fluid and parallel to the plane defined by the sensitive area , wherein the sensitive area is comprised in a semiconductor chip, wherein the sensor width (W2) is a width of the semiconductor chip perpendicular to the flow (F) of the fluid, wherein the profile (A) comprises an area adjacent to the sensitive area which adjacent area has an adjacent width (W3) defined as lateral extension of the adjacent area parallel to the plane defined by the sensitive area and orthogonal to the flow (F) of the fluid, and wherein the adjacent width (W3) is less than the sensor width (W2), wherein a core (C) of the profile (A) is defined as area of the profile (A) with maximal height (H1), wherein the core (C) has a characteristic width (W1) defined as minimal uniform width the core (C) takes along at least a quarter of its height (H1) irrespective of any branches laterally emanating from the core (C) or in view of any neck in the core (C) effecting an intermittent width of the profile (A) different from the characteristic width (W1), wherein the thermal flow sensor is arranged and configured to measure the flow of the fluid (F) in the measuring section , characterized by the maximal height (H1)being at least three times larger than the characteristic width (W1).
A method comprising: implanting a dopant into a doped semiconductor well covered by a barrier , wherein the doped semiconductor well is disposed on a buried first insulator and wherein the dopant is of opposite doping type to the doped semiconductor well, thereby forming a first semiconductor well disposed on a first insulator, the first semiconductor well having a first doping type, and forming a resistor on an edge of the doped semiconductor well, wherein the resistor has the opposite doping type; forming a second insulator adjacent to the first semiconductor well and to the resistor; removing the barrier; forming a gate layer disposed on the second insulator and over the doped semiconductor well, thereby forming a gate disposed over the first semiconductor well and the resistor; and forming a source and a drain such that they are on opposing sides of the gate layer, wherein: the resistor is disposed on an edge of the doped semiconductor well, adjacent to the second insulator; the resistor forms a conductive path between the source and the drain; and the dopant is implanted into only one edge of the doped semiconductor well by a self-aligned angled implantation, thereby forming the resistor as a self-aligned transistor sidewall edge resistor on only one edge of the doped semiconductor well. implanting a dopant into a doped semiconductor well covered by a barrier , wherein the doped semiconductor well is disposed on a buried first insulator and wherein the dopant is of opposite doping type to the doped semiconductor well, thereby forming a first semiconductor well disposed on a first insulator, the first semiconductor well having a first doping type, and forming a resistor on an edge of the doped semiconductor well, wherein the resistor has the opposite doping type; forming a second insulator adjacent to the first semiconductor well and to the resistor; removing the barrier; forming a gate layer disposed on the second insulator and over the doped semiconductor well, thereby forming a gate disposed over the first semiconductor well and the resistor; and forming a source and a drain such that they are on opposing sides of the gate layer, wherein: the resistor is disposed on an edge of the doped semiconductor well, adjacent to the second insulator; the resistor forms a conductive path between the source and the drain; and the dopant is implanted into only one edge of the doped semiconductor well by a self-aligned angled implantation, thereby forming the resistor as a self-aligned transistor sidewall edge resistor on only one edge of the doped semiconductor well. the resistor is disposed on an edge of the doped semiconductor well, adjacent to the second insulator; the resistor forms a conductive path between the source and the drain; and the dopant is implanted into only one edge of the doped semiconductor well by a self-aligned angled implantation, thereby forming the resistor as a self-aligned transistor sidewall edge resistor on only one edge of the doped semiconductor well.
Near field communication reader device comprising: a transmitter to transmit a request to a near field communication tag device ; wherein the request is formed according to a predetermined format including an identifier section for carrying a request identifier; a receiver to receive a response from the near field communication tag device ; wherein the response is formed based on the request according to the predetermined format including the identifier section for carrying a response identifier; a processor to generate the request identifier, to compare the request identifier with the response identifier and to accept the response as a valid response if the response identifier is different from the request identifier. a transmitter to transmit a request to a near field communication tag device ; wherein the request is formed according to a predetermined format including an identifier section for carrying a request identifier; a receiver to receive a response from the near field communication tag device ; wherein the response is formed based on the request according to the predetermined format including the identifier section for carrying a response identifier; a processor to generate the request identifier, to compare the request identifier with the response identifier and to accept the response as a valid response if the response identifier is different from the request identifier.
A method, comprising: emitting electromagnetic radiation from an electromagnetic radiation source ; optically interacting the electromagnetic radiation with a fluid and thereby generating fluid interacted radiation ; detecting a portion of the fluid interacted radiation with a reference detector arranged within an optical channel of an optical computing device , wherein the optical channel is a reference channel (B) defined within the optical computing device; optically interacting the fluid interacted radiation with an integrated computational element, ICE, arranged within a primary channel (A) of the optical computing device and thereby generating modified electromagnetic radiation ; receiving the modified electromagnetic radiation from the ICE with a primary detector ; generating an output signal with the primary detector corresponding to a characteristic of the fluid; generating a reference signal with the reference detector; normalizing the output signal of the primary detector based on the reference signal; monitoring the reference signal over time; detecting a change in the monitored reference signal; and indicating an emulsive state of the fluid based on the detected change. emitting electromagnetic radiation from an electromagnetic radiation source ; optically interacting the electromagnetic radiation with a fluid and thereby generating fluid interacted radiation ; detecting a portion of the fluid interacted radiation with a reference detector arranged within an optical channel of an optical computing device , wherein the optical channel is a reference channel (B) defined within the optical computing device; optically interacting the fluid interacted radiation with an integrated computational element, ICE, arranged within a primary channel (A) of the optical computing device and thereby generating modified electromagnetic radiation ; receiving the modified electromagnetic radiation from the ICE with a primary detector ; generating an output signal with the primary detector corresponding to a characteristic of the fluid; generating a reference signal with the reference detector; normalizing the output signal of the primary detector based on the reference signal; monitoring the reference signal over time; detecting a change in the monitored reference signal; and indicating an emulsive state of the fluid based on the detected change.