mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising a core ; a protocol stack for a Peripheral Component Interconnect Express TM 'PCIe TM ' communication protocol coupled to the core , the protocol stack including a transaction layer and a link layer ; and a physical unit (130; 240; 300) directly coupled to the protocol stack to provide communication of data between the core and a device coupled to the apparatus via a physical link, characterized in that the physical unit (130; 240; 300) includes a link training and management logic (132; 242; 310) and a physical unit circuit (134; 250; 320) 'M-PHY' according to a Mobile Industry Processor Interface 'MIPI' specification, wherein the link training and management logic (132; 242; 310) is to configure and initialize the physical link to a link width of a plurality of supported link widths determined prior to training the link. a core ; a protocol stack for a Peripheral Component Interconnect Express TM 'PCIe TM ' communication protocol coupled to the core , the protocol stack including a transaction layer and a link layer ; and a physical unit (130; 240; 300) directly coupled to the protocol stack to provide communication of data between the core and a device coupled to the apparatus via a physical link, characterized in that the physical unit (130; 240; 300) includes a link training and management logic (132; 242; 310) and a physical unit circuit (134; 250; 320) 'M-PHY' according to a Mobile Industry Processor Interface 'MIPI' specification, wherein the link training and management logic (132; 242; 310) is to configure and initialize the physical link to a link width of a plurality of supported link widths determined prior to training the link.
A catheter comprising: a tubular member having a lumen and an outer surface; a proximal member disposed on a proximal end of the tubular member, the proximal member being configured to engage a urethra meatus, a distal member disposed on a distal end of the tubular member; a sleeve configured to be positioned in the lumen of the tubular member in a retracted configuration and to evert over at least a portion of the outer surface of the tubular member in an everted configuration; a filament configured to retract the sleeve into the retracted configuration; and an aperture disposed through a sidewall of the tubular member or through a sidewall of the distal member, the aperture being proximal of a distal end of the catheter, wherein the filament extends from the lumen through the aperture and out of the catheter. a tubular member having a lumen and an outer surface; a proximal member disposed on a proximal end of the tubular member, the proximal member being configured to engage a urethra meatus, a distal member disposed on a distal end of the tubular member; a sleeve configured to be positioned in the lumen of the tubular member in a retracted configuration and to evert over at least a portion of the outer surface of the tubular member in an everted configuration; a filament configured to retract the sleeve into the retracted configuration; and an aperture disposed through a sidewall of the tubular member or through a sidewall of the distal member, the aperture being proximal of a distal end of the catheter, wherein the filament extends from the lumen through the aperture and out of the catheter.
A latex composition, comprising a chloroprene-based polymer latex (A) containing a chloroprene-based polymer in an amount of 50 to 85 mass % as solid matter and an acrylic polymer latex (B) having a glass transition temperature of -52 to -9°C and containing an acrylic polymer containing a sodium alkylbenzenesulfonate having a structure represented by the following Chemical Formula in an amount of 15 to 50 mass % as solid matter, in a total amount of 100 parts by mass, and additionally at least one pH regulator (C) selected from boric acid, ammonium sulfate, and amino acids having an isoelectric point of 5.5 to 6.5 in an amount of 3 to 13 parts by mass as solid matter: (wherein, R represents an aliphatic alkyl group.)
Laboratory sample distribution system , comprising: - a number of container carriers , said container carriers each comprising at least one magnetically active device, preferably at least one permanent magnet , and being adapted to carry a sample container containing a sample, - a transport plane being adapted to carry said multiple container carriers, - a number of electro-magnetic actuators being stationary arranged below said transport plane in rows and columns, said electro-magnetic actuators being adapted to move a container carrier on top of said transport plane by applying a magnetic force to said container carrier, and said electro-magnetic actuators being configured to be independently activated, to independently and simultaneously move a plurality of different container carriers along different paths, and - at least one transfer device being arranged to transfer a Sample-Item, said Sample-Item being a container carrier, a sample container, part of the sample and/or the complete sample, between said transport plane and a laboratory station , preferably a pre-analytical, an analytical and/or a post-analytical station, - wherein said at least one transfer device is adapted to transfer said Sample-Item along only two axes. - a number of container carriers , said container carriers each comprising at least one magnetically active device, preferably at least one permanent magnet , and being adapted to carry a sample container containing a sample, - a transport plane being adapted to carry said multiple container carriers, - a number of electro-magnetic actuators being stationary arranged below said transport plane in rows and columns, said electro-magnetic actuators being adapted to move a container carrier on top of said transport plane by applying a magnetic force to said container carrier, and said electro-magnetic actuators being configured to be independently activated, to independently and simultaneously move a plurality of different container carriers along different paths, and - at least one transfer device being arranged to transfer a Sample-Item, said Sample-Item being a container carrier, a sample container, part of the sample and/or the complete sample, between said transport plane and a laboratory station , preferably a pre-analytical, an analytical and/or a post-analytical station, - wherein said at least one transfer device is adapted to transfer said Sample-Item along only two axes.
An apparatus comprising: decoder circuitry to decode a single instruction to generate a decoded instruction, the decoded instruction including one or more fields to identify a source/destination operand which as a source provides an identity challenge for a physically unclonable function, PUF, circuit to generate a wrapping/unwrapping key and as a destination to store an operation status after execution, one or more fields to identify a first source operand which is to provide an indication of a signature algorithm to use, one or more fields to identify a second source operand which is to store or encode a location of an input data structure to hold the wrapping/unwrapping key to use during execution and data to be decrypted, and one or more fields to identify a destination operand that is to store or encode a location of where a signed response generated during execution is to be placed, wherein an opcode is to indicate that execution circuitry is to at least decrypt secret information from the input data structure of the second source operand with the PUF generated wrapping/unwrapping key, generate a signed response of the decrypted secret information using the identity challenge of the source/destination operand according to the signature algorithm indicated by the first source operand, store the signed response in an identified destination, and store operational status of execution in the identified source/destination operand; and execution circuitry to execute the decoded instruction according to the opcode. decoder circuitry to decode a single instruction to generate a decoded instruction, the decoded instruction including one or more fields to identify a source/destination operand which as a source provides an identity challenge for a physically unclonable function, PUF, circuit to generate a wrapping/unwrapping key and as a destination to store an operation status after execution, one or more fields to identify a first source operand which is to provide an indication of a signature algorithm to use, one or more fields to identify a second source operand which is to store or encode a location of an input data structure to hold the wrapping/unwrapping key to use during execution and data to be decrypted, and one or more fields to identify a destination operand that is to store or encode a location of where a signed response generated during execution is to be placed, wherein an opcode is to indicate that execution circuitry is to at least decrypt secret information from the input data structure of the second source operand with the PUF generated wrapping/unwrapping key, generate a signed response of the decrypted secret information using the identity challenge of the source/destination operand according to the signature algorithm indicated by the first source operand, store the signed response in an identified destination, and store operational status of execution in the identified source/destination operand; and execution circuitry to execute the decoded instruction according to the opcode.
An apparatus for humidifying a flow of breathable gas, comprising: a water reservoir including a cavity structured to hold a volume of water, the water reservoir including a heat conductive portion ; and a water reservoir dock structured and arranged to receive the water reservoir in an operative position, the water reservoir dock including a heating assembly adapted to thermally engage the heat conductive portion of the water reservoir in the operative position to allow thermal transfer of heat from the heating assembly to the volume of water, wherein the heating assembly comprises a heater plate including a base surface to thermally contact the heat conductive portion of the water reservoir and a resilient sealing and/or supporting member to resiliently suspend the heater plate within the water reservoir dock, and wherein the resilient sealing and/or supporting member comprises a plurality of hollow tubes , each of the plurality of hollow tubes including an axis that is generally perpendicular to the base surface of the heater plate, characterized in that the plurality of hollow tubes are configured to resiliently deflect when the water reservoir is in the operative position, which resilient deflection provides an upward biasing force to bias the heater plate against the heat conductive portion of the water reservoir . a water reservoir including a cavity structured to hold a volume of water, the water reservoir including a heat conductive portion ; and a water reservoir dock structured and arranged to receive the water reservoir in an operative position, the water reservoir dock including a heating assembly adapted to thermally engage the heat conductive portion of the water reservoir in the operative position to allow thermal transfer of heat from the heating assembly to the volume of water, wherein the heating assembly comprises a heater plate including a base surface to thermally contact the heat conductive portion of the water reservoir and a resilient sealing and/or supporting member to resiliently suspend the heater plate within the water reservoir dock, and wherein the resilient sealing and/or supporting member comprises a plurality of hollow tubes , each of the plurality of hollow tubes including an axis that is generally perpendicular to the base surface of the heater plate, characterized in that the plurality of hollow tubes are configured to resiliently deflect when the water reservoir is in the operative position, which resilient deflection provides an upward biasing force to bias the heater plate against the heat conductive portion of the water reservoir .
A system for rehanging poultry which is suspended by the head in a first shackle of a first shackle conveyor to a second shackle of a second shackle conveyor in which the poultry is or will be suspended by the legs , wherein the system comprises a leg positioning unit arranged to support the poultry at the legs while the poultry is maintained suspended by the head in the first shackle of the first shackle conveyor, and wherein the system comprises a movable takeover unit which is movable towards the second shackle of the second shackle conveyor for moving the legs of the poultry into the second shackle of the second shackle conveyor, wherein the movable takeover unit is arranged to be operational at least when the leg positioning unit supports the poultry at the legs , characterized in that the movable takeover unit is independently and separate from the leg positioning unit movable towards the second shackle of the second shackle conveyor and is arranged to act directly on the legs of the poultry to move the legs of the poultry into the second shackle of the second shackle conveyor.
A nasal implant comprising: a central body having a proximal end and a distal end ; a first arm disposed at the distal end , the first arm having a proximal end fixed to the distal end of the central body and a distal end not fixed to the body , the distal end of the first arm being adapted to move away from a central longitudinal axis of the central body from a delivery configuration toward a deployed configuration; a second arm having a proximal end fixed to the distal end of the central body and a distal end not fixed to the body , the distal end of the second arm being adapted to move away from a central longitudinal axis of the central body from a delivery configuration toward a deployed configuration; and a plurality of barbs on the implant configured to engage with tissue when the nasal implant is deployed, characterized in that the plurality of barbs project outwards from the implant and towards the proximal end of the central body to provide resistance to migration in the proximal direction toward the proximal end and allow for movement of the implant in a distal direction toward the distal end . a central body having a proximal end and a distal end ; a first arm disposed at the distal end , the first arm having a proximal end fixed to the distal end of the central body and a distal end not fixed to the body , the distal end of the first arm being adapted to move away from a central longitudinal axis of the central body from a delivery configuration toward a deployed configuration; a second arm having a proximal end fixed to the distal end of the central body and a distal end not fixed to the body , the distal end of the second arm being adapted to move away from a central longitudinal axis of the central body from a delivery configuration toward a deployed configuration; and a plurality of barbs on the implant configured to engage with tissue when the nasal implant is deployed, characterized in that the plurality of barbs project outwards from the implant and towards the proximal end of the central body to provide resistance to migration in the proximal direction toward the proximal end and allow for movement of the implant in a distal direction toward the distal end .
Installation for treating the water of a swimming pool, the installation (100; 200; 300; 400; 500; 600) comprising: - a building that forms a swimming pool pavilion , such as an equipment room or a pool house, from which there extend water supply pipes and water return pipes which connect the building that forms a swimming pool pavilion to a swimming pool which is remote from the building that forms a swimming pool pavilion, - a heat pump (120; 420) which is adapted to transfer heat from the air to the water of the swimming pool, and - pieces of water treatment equipment , other than the heat pump, the pieces of water treatment equipment being arranged inside the building that forms a swimming pool pavilion while being connected there to the water supply and water return pipes, the heat pump (120; 420) is arranged inside the building that forms a swimming pool pavilion while being connected there to the pieces of water treatment equipment , and in that the installation (100; 200; 300; 400; 500; 600) further comprises air circulation means (150; 250; 350; 450; 550; 650) which include an admission mouth (151; 251; 451), at least one duct (153; 253, 256; 453) and a discharge mouth (152; 252; 452) which channel the air inside the building that forms a swimming pool pavilion while opening outside the building that forms a swimming pool pavilion, the admission mouth (151; 251; 451), the duct(s) (153; 253, 256; 453) and the discharge mouth (152; 252; 452) of the air circulation means being adapted to both supply the heat pump with air coming from outside the building that forms a swimming pool pavilion and to discharge the air delivered by the heat pump to outside the building that forms a swimming pool pavilion. - a building that forms a swimming pool pavilion , such as an equipment room or a pool house, from which there extend water supply pipes and water return pipes which connect the building that forms a swimming pool pavilion to a swimming pool which is remote from the building that forms a swimming pool pavilion, - a heat pump (120; 420) which is adapted to transfer heat from the air to the water of the swimming pool, and - pieces of water treatment equipment , other than the heat pump, the pieces of water treatment equipment being arranged inside the building that forms a swimming pool pavilion while being connected there to the water supply and water return pipes,
A method of model-based scan line encoding, the method comprising: defining a geometry model for describing a scan line of a scan, the scan line including a plurality of scan points collected during a sweep of a scanning device , the geometry model describing the scan line relative to mechanically-driven components of the scanning device, wherein the plurality of scan points are not described perfectly by the geometry model due to misalignments and/or offsets of the mechanically-driven components of the scanning device; calculating a trajectory model representing an approximate pattern of deviation of the plurality of scan points relative to the geometry model, wherein deviations are determined by comparing scan points and the geometry model; calculating a plurality of residuals , each of the plurality of residuals associated with a difference between the deviation of each of the plurality of scan points and the trajectory model; and compressing the plurality of residuals. defining a geometry model for describing a scan line of a scan, the scan line including a plurality of scan points collected during a sweep of a scanning device , the geometry model describing the scan line relative to mechanically-driven components of the scanning device, wherein the plurality of scan points are not described perfectly by the geometry model due to misalignments and/or offsets of the mechanically-driven components of the scanning device; calculating a trajectory model representing an approximate pattern of deviation of the plurality of scan points relative to the geometry model, wherein deviations are determined by comparing scan points and the geometry model; calculating a plurality of residuals , each of the plurality of residuals associated with a difference between the deviation of each of the plurality of scan points and the trajectory model; and compressing the plurality of residuals.
A human or veterinary diagnostic structure-borne sound sensor for placing on the skin of a living body to be examined, comprising a pressure-sensitive sensor element for registering structure-borne sound, the sensor having a pressure surface , characterised in that a transmission wedge for transmitting structure-borne sound is arranged in front of the pressure surface , wherein the transmission wedge has a contact surface and a coupling surface extending at an acute angle thereto, wherein the coupling surface is entirely in contact with the pressure surface and the contact surface is exposed in order to be able to be brought into contact with the skin.
A method of manufacturing an electrolytic capacitor comprising at least that a) on a porous body at least comprising a porous electrode body of an electrode material, and a dielectric covering the surface of said electrode material, a dispersion A) is applied, which contains at least particles B) of an electrically conductive polythiophene which is optionally substituted, and a dispersant D), the dispersion A) containing water as dispersant D), the polythiophene being a cationic polythiophene, b) and for forming a solid electrolyte which completely or partially covers the dielectric surface, the dispersion agent D) is at least partially removed, characterised in that - for dispersion A) the integral of the viscosity, which is represented as a function of the solids content, in the integration range from 0.4% solids to 5% solids is less than 1500 mPas×%, wherein the viscosity is determined by a rheometer in mPas at 20°C and a shear rate of 100 s -1 and the solids content is determined in percent, and - the particles B) of the conductive polymer in dispersion A) have an average diameter of 1-100 nm. a) on a porous body at least comprising a porous electrode body of an electrode material, and a dielectric covering the surface of said electrode material, a dispersion A) is applied, which contains at least particles B) of an electrically conductive polythiophene which is optionally substituted, and a dispersant D), the dispersion A) containing water as dispersant D), the polythiophene being a cationic polythiophene, b) and for forming a solid electrolyte which completely or partially covers the dielectric surface, the dispersion agent D) is at least partially removed, characterised in that - for dispersion A) the integral of the viscosity, which is represented as a function of the solids content, in the integration range from 0.4% solids to 5% solids is less than 1500 mPas×%, wherein the viscosity is determined by a rheometer in mPas at 20°C and a shear rate of 100 s -1 and the solids content is determined in percent, and - the particles B) of the conductive polymer in dispersion A) have an average diameter of 1-100 nm. - for dispersion A) the integral of the viscosity, which is represented as a function of the solids content, in the integration range from 0.4% solids to 5% solids is less than 1500 mPas×%, wherein the viscosity is determined by a rheometer in mPas at 20°C and a shear rate of 100 s -1 and the solids content is determined in percent, and - the particles B) of the conductive polymer in dispersion A) have an average diameter of 1-100 nm.