mhurhangee/ep-ind-claims huggingface dataset:
A man-portable antenna assembly adapted for being used whilst carried on a soldier's back, the man-portable antenna assembly comprising: an antenna with a driven element mounted to a support, the antenna being configurable between an erect operational arrangement and a collapsed stowed arrangement; the antenna assembly comprising a mechanism which allows the antenna to be configured by the soldier between the erect operational arrangement and the collapsed stowed arrangement; characterised in that the antenna assembly comprises a mechanical linkage including a pull cord that extends away from the antenna assembly by which the soldier can operate the mechanism to erect the antenna without taking the assembly off the soldier's back. an antenna with a driven element mounted to a support, the antenna being configurable between an erect operational arrangement and a collapsed stowed arrangement; the antenna assembly comprising a mechanism which allows the antenna to be configured by the soldier between the erect operational arrangement and the collapsed stowed arrangement; characterised in that the antenna assembly comprises a mechanical linkage including a pull cord that extends away from the antenna assembly by which the soldier can operate the mechanism to erect the antenna without taking the assembly off the soldier's back.
A computer-implemented method of configuring an image encoder emulator for use in image data processing, the method comprising: receiving input image data representing at least one image; encoding, at an encoding stage of the image encoder emulator, the input image data to generate encoded image data, the encoding stage comprising a network of inter-connected weights; decoding, at a decoding stage of the image encoder emulator, the encoded image data to generate a first distorted version of the input image data; receiving a second distorted version of the input image data generated using an external image encoder and a decoder; comparing the first distorted version of the input image data with the second distorted version of the input image data to determine a distortion difference score; predicting, using a rate prediction model, a first encoding bitrate associated with encoding the input image data to a quality corresponding to the first distorted version; receiving a second encoding bitrate used by the external encoder to encode the input image data to a quality corresponding to the second distorted version; determining a rate difference score by comparing the predicted encoding bitrate with the received second encoding bitrate used by the external encoder to encode the input image data to a quality corresponding to the second distorted version; and training the weights of the encoding stage based on the distortion difference score and the rate difference score, thereby to configure the image encoder emulator to emulate the behaviour of the external image encoder. receiving input image data representing at least one image; encoding, at an encoding stage of the image encoder emulator, the input image data to generate encoded image data, the encoding stage comprising a network of inter-connected weights; decoding, at a decoding stage of the image encoder emulator, the encoded image data to generate a first distorted version of the input image data; receiving a second distorted version of the input image data generated using an external image encoder and a decoder; comparing the first distorted version of the input image data with the second distorted version of the input image data to determine a distortion difference score; predicting, using a rate prediction model, a first encoding bitrate associated with encoding the input image data to a quality corresponding to the first distorted version; receiving a second encoding bitrate used by the external encoder to encode the input image data to a quality corresponding to the second distorted version; determining a rate difference score by comparing the predicted encoding bitrate with the received second encoding bitrate used by the external encoder to encode the input image data to a quality corresponding to the second distorted version; and training the weights of the encoding stage based on the distortion difference score and the rate difference score, thereby to configure the image encoder emulator to emulate the behaviour of the external image encoder.
A mould layer assembly (200; 300; 400; 500) comprising: a carrier defining a mould contact face on a first side, and a temperature control face on a second side opposite the first; and, an insert defining a mould profile for forming a moulded article; characterised in that: the temperature control face is separated into a plurality of temperature control zones, each zone comprising a fluid chamber at least partially defined by the temperature control surface; and, in that the insert is assembled in the carrier such that the insert overlaps at least one of the temperature control zones. a carrier defining a mould contact face on a first side, and a temperature control face on a second side opposite the first; and, an insert defining a mould profile for forming a moulded article; characterised in that: the temperature control face is separated into a plurality of temperature control zones, each zone comprising a fluid chamber at least partially defined by the temperature control surface; and, in that the insert is assembled in the carrier such that the insert overlaps at least one of the temperature control zones. the temperature control face is separated into a plurality of temperature control zones, each zone comprising a fluid chamber at least partially defined by the temperature control surface; and, in that the insert is assembled in the carrier such that the insert overlaps at least one of the temperature control zones.
A high-carbon steel wire rod, characterized in comprising the following ingredients calculated in weight percentage: 0.88%-0.94% of C, 1.25%-1.50% of Si, 0.45%-0.55% of Mn, 0.25%-0.45% of Cr, 0.16%-0.20% of V, 0.02%-0.08% of Ti, and optionally comprising one or more selected from 0.01%-0.15% of Mo, 0.001%-0.100% of Al, 0.0005%-0.0015% of B, 0.01 %-0.03% of Nb, the remainder being Fe and unavoidable impurities; wherein, the high-carbon steel wire rod has a full-pearlite structure with a sorbite content over 95% and the distances between pearlite layers being 80-100μm, wherein, the high-carbon steel wire rod has a tensile strength larger than 1530MPa. 0.88%-0.94% of C, 1.25%-1.50% of Si, 0.45%-0.55% of Mn, 0.25%-0.45% of Cr, 0.16%-0.20% of V, 0.02%-0.08% of Ti, and optionally comprising one or more selected from 0.01%-0.15% of Mo, 0.001%-0.100% of Al, 0.0005%-0.0015% of B, 0.01 %-0.03% of Nb, the remainder being Fe and unavoidable impurities; wherein, the high-carbon steel wire rod has a full-pearlite structure with a sorbite content over 95% and the distances between pearlite layers being 80-100μm, wherein, the high-carbon steel wire rod has a tensile strength larger than 1530MPa.
A system for monitoring heart function based on heart sounds, comprising: electrodes (1114, 1126, 1412, 1426) configured to sense electrical cardiac activity signals over a period of time; an HS sensor (1270, 1425) configured to sense HS signals over the period of time; memory (1260, 1422) to store specific executable instructions; one or more processors (1220, 1420) that, when executing the specific executable instructions, is configured to: identify a characteristic of interest of a heartbeat from the CA signals; calculate at least one of an electromechanical activation time (EMAT) or a systolic interval; and record the at least one of the EMAT or SI, characterized in that one or more processors (1220, 1420) is, when executing the specific executable instructions, further configured to: overlay a HS search window onto an HS segment of the HS signals based on the COI from the CA signals; calculate a center of mass for at least one of S1 or S2 HS based on the HS segment of the HS signals within the search window to obtain a corresponding at least one of S1 COM or S2 COM; and calculate the at least one of the EMAT or SI based on the at least one S1 COM or S2 COM. electrodes (1114, 1126, 1412, 1426) configured to sense electrical cardiac activity signals over a period of time; an HS sensor (1270, 1425) configured to sense HS signals over the period of time; memory (1260, 1422) to store specific executable instructions; one or more processors (1220, 1420) that, when executing the specific executable instructions, is configured to: identify a characteristic of interest of a heartbeat from the CA signals; calculate at least one of an electromechanical activation time (EMAT) or a systolic interval; and record the at least one of the EMAT or SI, characterized in that one or more processors (1220, 1420) is, when executing the specific executable instructions, further configured to: identify a characteristic of interest of a heartbeat from the CA signals; calculate at least one of an electromechanical activation time (EMAT) or a systolic interval; and record the at least one of the EMAT or SI, characterized in that one or more processors (1220, 1420) is, when executing the specific executable instructions, further configured to: overlay a HS search window onto an HS segment of the HS signals based on the COI from the CA signals; calculate a center of mass for at least one of S1 or S2 HS based on the HS segment of the HS signals within the search window to obtain a corresponding at least one of S1 COM or S2 COM; and calculate the at least one of the EMAT or SI based on the at least one S1 COM or S2 COM.
A fastening tool (20; 124) comprising: a housing (22; 126) having a fastener outlet (28; 132); a striker (30; 134) mounted for translation in the housing to drive a fastener from the fastener outlet in an unloaded position; a biasing member (34; 140) cooperating with the striker to urge the striker towards the unloaded position; a motor (38; 144) oriented in the housing; a transmission (40; 146) coupled to the motor to receive a rotary input from the motor and to provide a rotary output; and a cam (42; 148) coupled to the transmission to receive the rotary output, the cam having a cam surface (44; 150) in cooperation with the striker such that rotation of the cam translates the striker to a loaded position and to a release position whereby the biasing member drives the striker to the unloaded position, the cam surface being profiled to require a constant torque from the rotary input during translation of the striker to the loaded position while loading the biasing member, characterised in that the cam surface is profiled to reduce an input torque from the rotary input at an intermediate position between the loaded position and the unloaded position. a housing (22; 126) having a fastener outlet (28; 132); a striker (30; 134) mounted for translation in the housing to drive a fastener from the fastener outlet in an unloaded position; a biasing member (34; 140) cooperating with the striker to urge the striker towards the unloaded position; a motor (38; 144) oriented in the housing; a transmission (40; 146) coupled to the motor to receive a rotary input from the motor and to provide a rotary output; and a cam (42; 148) coupled to the transmission to receive the rotary output, the cam having a cam surface (44; 150) in cooperation with the striker such that rotation of the cam translates the striker to a loaded position and to a release position whereby the biasing member drives the striker to the unloaded position, the cam surface being profiled to require a constant torque from the rotary input during translation of the striker to the loaded position while loading the biasing member, characterised in that the cam surface is profiled to reduce an input torque from the rotary input at an intermediate position between the loaded position and the unloaded position.
Printed circuit board assembly with a printed circuit board including at least one footprint for attachment of a plug connector, said footprint having three or more coupling points (13, 14, 15) for coupling electrical contacts (23, 24) of the plug connector, and with a plug connector attached to the footprint, characterised in that the plug connector has exactly two signal conductors for transmitting a differential signal, wherein the first signal conductor has a first electrical contact coupled at a first coupling point of the three or more coupling points (13, 14, 15) and the second signal conductor has a second electrical contact coupled at a second coupling point of the three or more coupling points (13, 14, 15), wherein a third, free coupling point is arranged closer to the first (or second) coupling point (13 or 14) than the second (or first) coupling point (14 or 13).
A solid oral dosage form comprising: (a) an inert tamper resistant core having a breaking strength of at least 400 Newtons; and (b) a coating surrounding the core, the coating comprising active agent. (a) an inert tamper resistant core having a breaking strength of at least 400 Newtons; and (b) a coating surrounding the core, the coating comprising active agent.
A support arm arrangement for a local gas extractor arrangement, the support arm arrangement comprising a first support arm arranged to a plate member provided with means for fixedly attaching said plate member to an exterior surface, at least one second support arm, each support arm (3, 11) being pivotally coupled to each other by means of intermediately arranged friction joint arrangements, the support arm arrangement further comprises an extractor hood having a first opening provided with a circumferential flange and a second opening through which gas is extracted from a surrounding environment, said support arm arrangement is arranged to receive a tube device, coupled to the circumferential flange of the extractor hood and to an exterior pump device, wherein said tube device is coupled to the support arms (3, 11) by means of a plurality of retainer devices, characterized in that the extractor hood is arranged at a distance from an end portion of an outermost second support arm by means of an intermediary arranged linkage arm arrangement comprising a first link arm, pivotally coupled to the end portion of the outermost second support arm by means of first friction joint, which first friction joint is pivotable about a first pivoting axis which extends in a direction perpendicular to an extending direction of the outermost second support arm, the linkage arm arrangement further comprises a second link arm, fixedly attached to the extractor hood and pivotally coupled to the first link arm by means of a second friction joint, which second friction joint is pivotable about a second pivoting axis which extends in a direction perpendicular to the first pivoting axis, wherein the first link arm of the linkage arm arrangement comprises an L-shape and is arranged so as to encircle a quarter, or the vicinity of a quarter, of a circumference of a tube device arranged to the support arm arrangement at a radial distance from an outer surface of said tube device.
Process for producing polycarbonates comprising structural units of the general formula: where R 1 and R 2, independently of one another, are H, halogen, C 1 -C 8 -alkyl, C 5 -C 6 -cycloalkyl, C 6 -C 10 -aryl and C 7 -C 12 -arylalkyl, where m is 4 or 5, where R 3 and R 4 are freely selectable for each X and, independently of one another, are H or C 1 -C 8 -alkyl, where X is carbon, by the interfacial process or the melt transesterification process, characterized in that the sulphur content of the bisphenols used to produce the polycarbonate is less than 1.5 ppm.
A sheet image acquisition device configured to acquire an image of a sheet having a transparent portion (W1, W2), comprising a thickness detection sensor configured to collect thickness data of the sheet; and an optical line sensor configured to collect image data of an entire surface of the sheet, characterized in that the sheet image acquisition device is configured to correct outline information of the sheet derived from the image data of an entire surface of the sheet collected by the optical line sensor based on outline information of the sheet derived from the thickness data for improving a precision of extracting the shape of the sheet. a thickness detection sensor configured to collect thickness data of the sheet; and an optical line sensor configured to collect image data of an entire surface of the sheet, characterized in that the sheet image acquisition device is configured to correct outline information of the sheet derived from the image data of an entire surface of the sheet collected by the optical line sensor based on outline information of the sheet derived from the thickness data for improving a precision of extracting the shape of the sheet.
A tire comprising, in a tread surface, a block-shaped land portion partitioned by a partitioning groove or by the partitioning groove and a tread edge, wherein the block-shaped land portion includes a first sipe and a second sipe extending from different positions in a surface of the block-shaped land portion inwardly in a tire radial direction, and the first sipe includes, on a side of a sipe bottom, a widened portion with a larger sipe width than a side of the tread surface, and characterized in that the second sipe includes a plurality of holes recessed inwardly in the tire radial direction in a sipe bottom at positions separate in a sipe longitudinal direction. the block-shaped land portion includes a first sipe and a second sipe extending from different positions in a surface of the block-shaped land portion inwardly in a tire radial direction, and the first sipe includes, on a side of a sipe bottom, a widened portion with a larger sipe width than a side of the tread surface, and characterized in that the second sipe includes a plurality of holes recessed inwardly in the tire radial direction in a sipe bottom at positions separate in a sipe longitudinal direction.
A drinking water or sanitary water system comprising a line system including a connection to a public water supply system, and at least one forward-flow line or riser with at least one floor line (4, 18) branching therefrom and/or at least one annular line branching, in the flow direction of the water, from the riser and/or from floor line (4, 18), and at least one consumer connected at the riser and/or at the floor line (4, 18) and/or in the annular line, and a return line (11, 20), into which the forward-flow line and/or the riser and/or the floor line (4, 18) and/or the annular line opens out, the line system of forward-flow line or riser and return line (11, 20) forming a closed circulation line, and in this circulation line a device for cooling the flowing water being integrated, by means of which the drinking or sanitary water can be cooled or is cooled to a predetermined temperature, characterized by that in one or each annular line with at least one consumer a controlled line regulation valve (7, 7.1) is connected, which, depending on an adjustable temperature, for a temperature above a design value of the water flowing through the annular line, opens the flow up to a maximum value, and for a lower temperature, limits the flow to a minimum value, the line regulation valve (7, 7.1) preferably being connected within the annular line, in the flow direction, downstream of the last consumer or being integrated in an intermediate fitting between annular line and main line of the line system, or that at least in one or each floor line (4, 18) with at least one consumer a controlled line regulation valve (7, 7.1) is connected, which, depending on an adjustable temperature, for a temperature above a design value of the water flowing through the floor line (4, 18), opens the flow up to a maximum value, and for a lower temperature, limits the flow to a minimum value, the line regulation valve (7, 7.1) preferably being connected in the floor line (4, 18), in the flow direction of the water, downstream of the last consumer integrated therein or being integrated in an intermediate fitting between floor line (4, 18) and main line of the line system, or that at least in a riser with at least one consumer a controlled line regulation valve (7, 7.1) is connected, which, depending on an adjustable temperature, for a temperature above a design value of the water flowing through the riser, opens the flow up to a maximum value, and for a lower temperature, limits the flow to a minimum value, the line regulation valve (7, 7.1) preferably being connected, in the flow direction, downstream of the last consumer.
A method for distributing load among a plurality of interconnected computing devices, each computing device having a designated position in the or each dimension of an n-dimensional array of designated positions, the method comprising, individually, at one or more computing devices per designated position in a series of designated positions in one dimension of the n-dimensions, in which one dimension one direction is assigned as a load transfer direction, executing a process including: obtaining an indication of current capacity for additional load at the or each member of a group of one or more computing devices from among the plurality of computing devices; transferring load from the executing computing device to a member of the group at which it is indicated that there is capacity for additional load; wherein membership of the group is restricted to a computing device or computing devices to the load transfer direction side of the executing computing device in the one dimension. obtaining an indication of current capacity for additional load at the or each member of a group of one or more computing devices from among the plurality of computing devices; transferring load from the executing computing device to a member of the group at which it is indicated that there is capacity for additional load; wherein membership of the group is restricted to a computing device or computing devices to the load transfer direction side of the executing computing device in the one dimension.
Radiating device operating in two distinct frequency bands, a high frequency band and at least one sub-band of a low frequency band, the said device being characterized in that it comprises: • at least one element of patch type adapted to the high frequency band and connected to a first access, • at least one element of folded slot type, adapted to the low frequency band and connected to a second access different from the said first access, • a filter positioned between the said element of patch type and the said first access, configured to filter the low frequency band and to be passing for the high frequency band, and in that the elements of which it consists are positioned in a surface area of less than or equal to a square of edge λ/2, where λ is the wavelength corresponding to the maximum frequency of the high frequency band. • at least one element of patch type adapted to the high frequency band and connected to a first access, • at least one element of folded slot type, adapted to the low frequency band and connected to a second access different from the said first access, • a filter positioned between the said element of patch type and the said first access, configured to filter the low frequency band and to be passing for the high frequency band,