mhurhangee/ep-ind-claims huggingface dataset:
A surgical fastening device, comprising: a handle assembly including a housing and a movable handle; an elongate shaft extending from the handle assembly; an end effector at a distal end of the elongate shaft, the end effector having an anvil and a staple cartridge containing a plurality of staples rotatably deployable into tissue; a drive assembly configured to move relative to the staple cartridge and the anvil to eject the staples from the staple cartridge; an actuation assembly extending through the housing and the elongate shaft and having a rack (9003, 9005) formed thereon, the movable handle having a pawl configured to engage the rack (9003, 9005) on the actuation assembly to move the actuation assembly in response to movement of the movable handle, wherein movement of the actuation assembly drives the drive assembly relative to the staple cartridge and anvil to eject the staples from the staple cartridge; a pair of retraction levers linearly slidable relative to the housing and coupled to the actuation assembly for retracting the actuation assembly and thus the drive assembly; and a retraction gear (9012, 9006) coupled to the rack (9003, 9005) and rotatably disposed within the housing such that rotation of the retraction gear (9012, 9006) retracts the actuation assembly and the drive assembly, the retraction gear (9012, 9006) having at least one tooth formed thereon; characterized in that the at least one tooth formed on the retraction gear (9012, 9006) engages the rack (9003, 9005) formed on the actuation assembly. a handle assembly including a housing and a movable handle; an elongate shaft extending from the handle assembly; an end effector at a distal end of the elongate shaft, the end effector having an anvil and a staple cartridge containing a plurality of staples rotatably deployable into tissue; a drive assembly configured to move relative to the staple cartridge and the anvil to eject the staples from the staple cartridge; an actuation assembly extending through the housing and the elongate shaft and having a rack (9003, 9005) formed thereon, the movable handle having a pawl configured to engage the rack (9003, 9005) on the actuation assembly to move the actuation assembly in response to movement of the movable handle, wherein movement of the actuation assembly drives the drive assembly relative to the staple cartridge and anvil to eject the staples from the staple cartridge; a pair of retraction levers linearly slidable relative to the housing and coupled to the actuation assembly for retracting the actuation assembly and thus the drive assembly; and a retraction gear (9012, 9006) coupled to the rack (9003, 9005) and rotatably disposed within the housing such that rotation of the retraction gear (9012, 9006) retracts the actuation assembly and the drive assembly, the retraction gear (9012, 9006) having at least one tooth formed thereon; characterized in that the at least one tooth formed on the retraction gear (9012, 9006) engages the rack (9003, 9005) formed on the actuation assembly.
Method for correction of periodic linearity errors of a magnetic strip measuring system, in which a sensor head is moved along magnetic poles (103, 105) of a periodic measurement body, characterised in that during the movement of the sensor head along the measurement body, the periodic time (t pol) of a magnetic pole or a pole pair (103, 105) is determined from a position (500, 505) measured by the sensor head, that during the determined periodic time (t pol), a deviation curve is determined based on a difference of positions between the measured position (500, 505) and a theoretical position determined from a movement speed assumed to be essentially constant by n measurements, and that based on the so determined deviation curve, the position of the subsequent period is corrected, so that periodic linearity errors of the magnetic strip measuring system are corrected dynamically during operation of the magnetic strip measuring system.
Glass ceramic plate, designed as a cooking surface for a hob, consisting of a glass ceramic of the type Li 2 O-Al 2 O 3 -SiO 2, which is transparent for visible light as well as for IR radiation, with an underside coating of the glass ceramic plate in the form of a noble metal film, characterized in that - the noble metal film consists of an alloy of gold and/or platinum and/or palladium, which gives it a reflective quality, - the noble metal film has a total noble metal content of 90-100wt% with respect to the total film material, - the content of silver, copper, silicon, bismuth and base metals in the noble metal film overall is at most 0-5wt% with respect to the total metal content, - the thickness of the noble metal film is <1 μm and - the spectral transmittance of the coated glass ceramic plate is 0-4% in the visible wavelength range and 0 to <12% in the infrared range, - and that a grid-shaped decoration is applied to the upper side of the glass ceramic plate. - the noble metal film consists of an alloy of gold and/or platinum and/or palladium, which gives it a reflective quality, - the noble metal film has a total noble metal content of 90-100wt% with respect to the total film material, - the content of silver, copper, silicon, bismuth and base metals in the noble metal film overall is at most 0-5wt% with respect to the total metal content, - the thickness of the noble metal film is <1 μm and - the spectral transmittance of the coated glass ceramic plate is 0-4% in the visible wavelength range and 0 to <12% in the infrared range, - and that a grid-shaped decoration is applied to the upper side of the glass ceramic plate.
A laundry washing machine (1; 101, 201; 301; 401) connectable to a water mains comprising: - a cabinet supporting a washing drum adapted to receive laundry and a washing tub external to said washing drum; - a treating agents dispenser (20; 320; 420) connectable to said water mains and comprising compartments (23a, 23b, 23c, 23d; 23e; 423d) adapted to be filled with at least one treating agent; - a supply line, fluidly connecting said treating agents dispenser (20; 320; 420) and said washing tub; - a control panel (50; 150, 250; 350; 450) comprising input devices (51i, 52i, 53i, 54i, 55i, 56i, 57i, 58i, 59i) allowing the user to select or set washing programs and/or parameters of said machine and comprising output devices for giving information to the user of features of said machine and/or a feedback to the user related to the settings/status of said machine; - a control unit for controlling functioning of said laundry washing machine; characterised in that at least one output device of said output devices and at least one compartment (23d; 23e; 423d) of said compartments (23a, 23b, 23c, 23d; 23e; 423d) comprise a common visual identifier (80, 81, 82, 83; 383; 483; 90, 91), wherein said at least one output device of said output devices comprises a first visual identifier (80, 81, 82, 83; 383; 483) and said at least one compartment (23d; 23e; 423d) of said compartments (23a, 23b, 23c, 23d; 23e; 423d) comprises a second visual identifier (90, 91) and wherein said first identifier (80, 81, 82, 83; 383; 483) and said second identifier (90, 91) have the same colouring. - a cabinet supporting a washing drum adapted to receive laundry and a washing tub external to said washing drum; - a treating agents dispenser (20; 320; 420) connectable to said water mains and comprising compartments (23a, 23b, 23c, 23d; 23e; 423d) adapted to be filled with at least one treating agent; - a supply line, fluidly connecting said treating agents dispenser (20; 320; 420) and said washing tub; - a control panel (50; 150, 250; 350; 450) comprising input devices (51i, 52i, 53i, 54i, 55i, 56i, 57i, 58i, 59i) allowing the user to select or set washing programs and/or parameters of said machine and comprising output devices for giving information to the user of features of said machine and/or a feedback to the user related to the settings/status of said machine; - a control unit for controlling functioning of said laundry washing machine;
Compounds with the general formula (IIIa/b) in which R 3 is hydrogen, trifluoroacetyl (C(=O)CF 3) or p -nitrobenzoyl (C(=O)PhNO2); Y= [C(=O)], [C(=N)-OH] or [CH-OH], [CH-NR 5 R 6] in both possible stereoisomer arrangements, wherein R 5 and R 6 each stand either for a hydrogen atom or for a hydrogen atom and a trifluoroacetyl group; wherein X = O, S or NR, with R = hydrogen or a C 1 to C 4 alkyl group; R 4 is an unbranched or branched alkyl or heteroalkyl chain with a chain length of 1 to 19 elements, wherein a maximum of 6 heteroatoms (O, N, S) in any combination are separated from each other by at least two carbon atoms, R 11 is hydrogen, trifluoroacetyl (C(=O)CF 3) or p- nitrobenzoyl [C(=O)PhNO 2] or a tetracyclic aglycone of the structure type of the anthracyclines and the wavy lines are each both possible configurations of -OR 3 and -OR 11 in relation to the base body.
Antenna arrangement comprising: an antenna array comprising a first antenna element including a first feed point, and a second antenna element including a second feed point, wherein the first antenna element and the second antenna element have different physical dimensions and different resonance frequencies; and a signal processing device configured to provide a first pilot signal, a 1p, to the first feed point and receive first pilot return signals, b 1p, at the first feed point and the second feed point, provide a second pilot signal, a 2p, to the second feed point and receive second pilot return signals, b 2p, at the first feed point and the second feed point, determine the electromagnetic scattering by determining corresponding scattering parameters, S 11, S 12, S 21, S 22, based on a 1p, a 2p, b 1p, and b 2p, receive an input signal, Sin, generate a first feed signal, a 1 based on Sin and a first complex weight, w 1, and a second feed signal, a 2 based on Sin and a second complex weight, w 2, wherein provision of a 1 to the first feed point and a 2 to the second feed point results in a first return signal, b 1, at the first feed point and a second return signal, b 2, at the second feed point, wherein b 1 and b 2 are determined by S 11, S 12, S 21, S 22, obtain w 1 and w 2, and thereby a 1 and a 2, so that the sum of b 1 and b 2 is below a predetermined threshold value, and provide a 1 to the first feed point and provide a 2 to the second feed point. a first antenna element including a first feed point, and a second antenna element including a second feed point, wherein the first antenna element and the second antenna element have different physical dimensions and different resonance frequencies; and a signal processing device configured to provide a first pilot signal, a 1p, to the first feed point and receive first pilot return signals, b 1p, at the first feed point and the second feed point, provide a second pilot signal, a 2p, to the second feed point and receive second pilot return signals, b 2p, at the first feed point and the second feed point, determine the electromagnetic scattering by determining corresponding scattering parameters, S 11, S 12, S 21, S 22, based on a 1p, a 2p, b 1p, and b 2p, receive an input signal, Sin, generate a first feed signal, a 1 based on Sin and a first complex weight, w 1, and a second feed signal, a 2 based on Sin and a second complex weight, w 2, wherein provision of a 1 to the first feed point and a 2 to the second feed point results in a first return signal, b 1, at the first feed point and a second return signal, b 2, at the second feed point, wherein b 1 and b 2 are determined by S 11, S 12, S 21, S 22, obtain w 1 and w 2, and thereby a 1 and a 2, so that the sum of b 1 and b 2 is below a predetermined threshold value, and provide a 1 to the first feed point and provide a 2 to the second feed point.
Computer-implemented method for setting a field of view for a magnetic resonance scan, in particular of a patient, with a magnetic resonance facility, which has a gradient coil arrangement for generating gradient fields to be used during the magnetic resonance scan for spatial encoding, and a control facility, wherein the control facility is designed for distortion correction on the basis of a distortion map of acquired magnetic resonance data sets at least for distortions caused by imperfections of the gradient fields, wherein by way of the control facility - exclusion information describing a region of the original field of view that is unmapped owing to the distortion is ascertained on the basis of the distortion map for at least one first set of field of view parameters describing a rectangular or cuboidal original field of view, - using the exclusion information a second set of field of view parameters to be used for the magnetic resonance scan is determined, and - the magnetic resonance scan takes place using the second set of field of view parameters, characterised in that the original field of view to be set in a user interface, in particular together with an anatomy of the patient to be scanned, is displayed on a display facility, wherein the exclusion information is used for displaying the unmapped region in accordance with the exclusion information and/or for adjusting the limitation of the field of view display for exclusion of the unmapped region, wherein with a change in the field of view to be set owing to a user input, the field of view parameters describing the changed field of view to be set are used as a new first set for updating the exclusion information, whereupon the unmapped region owing to the updated exclusion information is displayed for the changed field of view to be set. - exclusion information describing a region of the original field of view that is unmapped owing to the distortion is ascertained on the basis of the distortion map for at least one first set of field of view parameters describing a rectangular or cuboidal original field of view, - using the exclusion information a second set of field of view parameters to be used for the magnetic resonance scan is determined, and - the magnetic resonance scan takes place using the second set of field of view parameters,
A refrigeration system comprising: a refrigeration circuit comprising a compression device, a heat rejecting heat exchanger, an expansion device, and a heat absorbing heat exchanger; one or more sensors configured to measure a pressure associated with the heat rejecting heat exchanger; and a controller configured to compare the pressure measured by the one or more sensors to a predicted pressure, and to control the expansion device on the basis of the comparison; characterized in that: the controller is configured to continuously and/or periodically calculate the predicted pressure using one or more measured parameters; wherein the one or more measured parameters comprise: (i) an outdoor air temperature; (ii) a temperature associated with the heat absorbing heat exchanger; (iii) a capacity of the compression device; (iv) an area associated with the heat rejecting heat exchanger; (v) a pressure ratio associated with the refrigeration circuit; and/or (vi) a fan speed associated with the refrigeration circuit; and wherein the predicted pressure is a maximum predicted pressure of a refrigerant fluid absent a slug flow phenomenon. a refrigeration circuit comprising a compression device, a heat rejecting heat exchanger, an expansion device, and a heat absorbing heat exchanger; one or more sensors configured to measure a pressure associated with the heat rejecting heat exchanger; and a controller configured to compare the pressure measured by the one or more sensors to a predicted pressure, and to control the expansion device on the basis of the comparison; characterized in that: the controller is configured to continuously and/or periodically calculate the predicted pressure using one or more measured parameters; wherein the one or more measured parameters comprise: (i) an outdoor air temperature; (ii) a temperature associated with the heat absorbing heat exchanger; (iii) a capacity of the compression device; (iv) an area associated with the heat rejecting heat exchanger; (v) a pressure ratio associated with the refrigeration circuit; and/or (vi) a fan speed associated with the refrigeration circuit; and wherein the predicted pressure is a maximum predicted pressure of a refrigerant fluid absent a slug flow phenomenon. the controller is configured to continuously and/or periodically calculate the predicted pressure using one or more measured parameters; wherein the one or more measured parameters comprise: (i) an outdoor air temperature; (ii) a temperature associated with the heat absorbing heat exchanger; (iii) a capacity of the compression device; (iv) an area associated with the heat rejecting heat exchanger; (v) a pressure ratio associated with the refrigeration circuit; and/or (vi) a fan speed associated with the refrigeration circuit; and wherein the predicted pressure is a maximum predicted pressure of a refrigerant fluid absent a slug flow phenomenon.
Wrap for attaching a trailing arm to an axle tube, having an essentially tubular cross section which extends along a longitudinal axis, and which has an outer contour and an inner contour, wherein the inner contour has an internal diameter (Di), and wherein the wrap has at least one compensating portion which extends essentially along the longitudinal axis, wherein the at least one compensating portion is designed to alter the internal diameter (Di) by way of different adjustments, wherein the compensating portion is designed to alter the internal diameter (Di) by way of in each case at least one inner gap, which is arranged on the inner contour, and/or an outer gap (42"), which is arranged on the outer contour, wherein the gaps (42', 42") have gap widths (Bi, Ba) essentially along the circumferential direction of the wrap, and wherein the internal diameter (Di) can be altered by virtue of the gap widths (Bi, Ba) being altered.
Machine for manufacturing glass objects, particularly stemmed glass, comprising a blank mould configured to receive glass at flow temperature, and a pressing punch moveable in translation along a first axis, characterised in that the blank mould comprises a one-piece upwardly flared upper portion, and an upwardly non-flared lower portion and produced in a plurality of parts, the parts of the lower portion being moveable in translation with a component along axes arranged in a plane normal to the first axis, the upper portion having, along any axis normal to the first axis, a minimum dimension greater than the maximum dimension of the lower portion along said axis normal to the first axis so that the moulded object in the lower portion can pass into the upper portion in translation along the first axis.
Method for achieving a safety function for a safety control device for controlling an appliance or an installation, having the steps of: - providing a base control unit for controlling a connected appliance or a connected installation by means of the execution of a control program in the base control unit, - providing a security module for providing or performing a cryptographic functionality for the base control unit, and connecting the security module to the base control unit by means of a data connection, - providing at least one first partial secret, which is stored in the base control unit, - providing at least one second partial secret, which is stored in the security module, - combining the at least one first and one second partial secret to achieve the safety function, characterized by - breaking down the at least one first partial secret into a multiplicity of parts of a prescribable size and combining the multiplicity of parts with the at least one second partial secret in steps by means of a computation rule, the parts being processed according to size and quantity within a prescribable period of time during the execution of the computation rule. - providing a base control unit for controlling a connected appliance or a connected installation by means of the execution of a control program in the base control unit, - providing a security module for providing or performing a cryptographic functionality for the base control unit, and connecting the security module to the base control unit by means of a data connection, - providing at least one first partial secret, which is stored in the base control unit, - providing at least one second partial secret, which is stored in the security module, - combining the at least one first and one second partial secret to achieve the safety function, characterized by - breaking down the at least one first partial secret into a multiplicity of parts of a prescribable size and combining the multiplicity of parts with the at least one second partial secret in steps by means of a computation rule, the parts being processed according to size and quantity within a prescribable period of time during the execution of the computation rule.
A communications method implemented in a communications node used in a communications system, the communications method comprising: transmitting, to one or more first user equipments, UEs, (103, 104), a first uplink-downlink, UL-DL, subframe configuration at least at a first time interval; and transmitting, to one or more second user equipments, UEs, (103, 104) included in said one or more first UEs (103, 104), a secondary uplink-downlink, UL-DL, subframe configuration at least at a second time interval, wherein the secondary UL-DL subframe configuration contains information used for reconfiguring time division duplexing, TDD, wherein the secondary UL-DL subframe configuration indicates one of time division duplexing, TDD, UL-DL subframe configurations, wherein the secondary UL-DL subframe configuration is transmitted in downlink control information, DCI, and wherein the secondary uplink-downlink, UL-DL, subframe configuration is repeated at least at a second time interval of one radio frame, and the DCI is transmitted in a first downlink subframe in a first half of the second time interval and a predetermined second downlink subframe in a second half of the second time interval. transmitting, to one or more first user equipments, UEs, (103, 104), a first uplink-downlink, UL-DL, subframe configuration at least at a first time interval; and transmitting, to one or more second user equipments, UEs, (103, 104) included in said one or more first UEs (103, 104), a secondary uplink-downlink, UL-DL, subframe configuration at least at a second time interval, wherein the secondary UL-DL subframe configuration contains information used for reconfiguring time division duplexing, TDD, wherein the secondary UL-DL subframe configuration indicates one of time division duplexing, TDD, UL-DL subframe configurations, wherein the secondary UL-DL subframe configuration is transmitted in downlink control information, DCI, and wherein the secondary uplink-downlink, UL-DL, subframe configuration is repeated at least at a second time interval of one radio frame, and the DCI is transmitted in a first downlink subframe in a first half of the second time interval and a predetermined second downlink subframe in a second half of the second time interval.