mhurhangee/patent-ind-claim-en huggingface dataset:
An end effector of a circular stapling instrument, said end effector comprising: a frame; a cartridge body including staple cavities; staples removably stored in said staple cavities; and a closure drive, comprising: an anvil configured to deform said staples, said anvil comprising a plurality of attachment arms ; a trocar shaft movable between an extended position and a retracted position, said trocar shaft comprising an attachment shoulder ; characterised in that the closure drive comprises a clip attached to said trocar shaft, wherein said frame is configured to bias said clip into an attachment configuration when said trocar shaft is in said extended position and permit said anvil to be attached to said trocar shaft, and wherein said clip is configured to resiliently expand into a blocking configuration when said trocar shaft is in said retracted position and prevent said anvil from being attached to said trocar shaft, wherein said plurality of attachment arms are configured to engage said attachment shoulder when said clip is in said attachment configuration, and wherein said clip is configured to bias said attachment arms away from said attachment shoulder when said clip is in said blocking configuration. a frame; a cartridge body including staple cavities; staples removably stored in said staple cavities; and a closure drive, comprising: an anvil configured to deform said staples, said anvil comprising a plurality of attachment arms ; a trocar shaft movable between an extended position and a retracted position, said trocar shaft comprising an attachment shoulder ; characterised in that the closure drive comprises a clip attached to said trocar shaft, an anvil configured to deform said staples, said anvil comprising a plurality of attachment arms ; a trocar shaft movable between an extended position and a retracted position, said trocar shaft comprising an attachment shoulder ; characterised in that the closure drive comprises a clip attached to said trocar shaft,
A lubricating base stock comprising: a) an alkyl aromatic; b) a blend of additives; c) a blend of oil soluble polyalkylene glycols; and d) a blend of polyolefins, wherein the blend of polyolefins comprise at least one metallocene polyolefin, and wherein the amount of oil soluble polyalkylene glycols range from 5 wt% to 50 wt%. a) an alkyl aromatic; b) a blend of additives; c) a blend of oil soluble polyalkylene glycols; and d) a blend of polyolefins, wherein the blend of polyolefins comprise at least one metallocene polyolefin, and wherein the amount of oil soluble polyalkylene glycols range from 5 wt% to 50 wt%.
A radiofrequency transmission/reception system comprising: - an array (308; 308a, 308b, 308c, 308d; 308a', 308b', 308c', 308d') of active antennas comprising: • a main group (A0) of active antennas oriented in a main direction (d0); • at least one auxiliary group (A1; A2) of one or more active antennas, referred to as auxiliaries, oriented in an auxiliary direction (d1; d2), different from the main direction (d0); - a control device (3; 3a, 3b, 3c, 3d; 3a', 3b', 3c', 3d') for said active antenna array designed to: • receive a misalignment value (φ) among several possible misalignment values (φi,..,φn) ; • control the active antennas (1.1,..., 1.n, ..., 1.N) so as to emit a beam (F; Fa, Fb, Fb, Fc, Fa', Fb', Fb', Fc') that is misaligned by the received misalignment value (φ), relative to the main direction (d0); characterized in that the main group (A0) comprises a main number (N0) of antennas and said at least one auxiliary group (A1; A2) comprises an auxiliary number (N1; N2) of antennas between 1/7 and 1/3 of the main number (N0). - an array (308; 308a, 308b, 308c, 308d; 308a', 308b', 308c', 308d') of active antennas comprising: • a main group (A0) of active antennas oriented in a main direction (d0); • at least one auxiliary group (A1; A2) of one or more active antennas, referred to as auxiliaries, oriented in an auxiliary direction (d1; d2), different from the main direction (d0); • a main group (A0) of active antennas oriented in a main direction (d0); • at least one auxiliary group (A1; A2) of one or more active antennas, referred to as auxiliaries, oriented in an auxiliary direction (d1; d2), different from the main direction (d0); - a control device (3; 3a, 3b, 3c, 3d; 3a', 3b', 3c', 3d') for said active antenna array designed to: • receive a misalignment value (φ) among several possible misalignment values (φi,..,φn) ; • control the active antennas (1.1,..., 1.n, ..., 1.N) so as to emit a beam (F; Fa, Fb, Fb, Fc, Fa', Fb', Fb', Fc') that is misaligned by the received misalignment value (φ), relative to the main direction (d0); • receive a misalignment value (φ) among several possible misalignment values (φi,..,φn) ; • control the active antennas (1.1,..., 1.n, ..., 1.N) so as to emit a beam (F; Fa, Fb, Fb, Fc, Fa', Fb', Fb', Fc') that is misaligned by the received misalignment value (φ), relative to the main direction (d0);
Middle hoop system for a vehicle joint arranged between a first vehicle section and a second vehicle section of a multi-unit vehicle, comprising a middle hoop , which is oriented in a transverse direction, and a cable strand which extends between the first vehicle section and the second vehicle section , the middle hoop surrounding a passage intended for passengers, and the cable strand being arranged above the passage , characterized by a guide lever which is connected to the middle hoop by means of a first pivot joint and which is connected to the cable strand by means of a second pivot joint , characterized in that the axis of the first pivot joint and the axis of the second pivot joint intersecting a vertical longitudinal plane in the normal state, wherein a vertical longitudinal plane is a vertical plane which extends in the longitudinal direction.
A separator-equipped air electrode for a metal-air battery, the separator-equipped air electrode comprising: a separator comprising a hydroxide-ion-conductive inorganic solid electrolyte being a dense ceramic material; an air electrode layer disposed above the separator, the air electrode layer comprising an air electrode catalyst and an electron-conductive material, or comprising an air electrode catalyst also serving as an electron-conductive material; and an intermediate layer disposed between the separator and the air electrode layer, improving the adhesion between the separator and the air electrode layer, and exhibiting hydroxide ion conductivity, wherein the intermediate layer comprises a polymer material having hydroxide ion conductivity, or the polymer material having hydroxide ion conductivity and a ceramic material, and the ceramic material has hydroxide ion conductivity, or an organic binder and a ceramic material, and the ceramic material has hydroxide ion conductivity. a separator comprising a hydroxide-ion-conductive inorganic solid electrolyte being a dense ceramic material; an air electrode layer disposed above the separator, the air electrode layer comprising an air electrode catalyst and an electron-conductive material, or comprising an air electrode catalyst also serving as an electron-conductive material; and an intermediate layer disposed between the separator and the air electrode layer, improving the adhesion between the separator and the air electrode layer, and exhibiting hydroxide ion conductivity, wherein the intermediate layer comprises a polymer material having hydroxide ion conductivity, or the polymer material having hydroxide ion conductivity and a ceramic material, and the ceramic material has hydroxide ion conductivity, or an organic binder and a ceramic material, and the ceramic material has hydroxide ion conductivity.
A method performed by an MRM planning system for supporting planning of a minimal risk maneuver, MRM, of an Automated Driving System, ADS , of a vehicle , said method comprising: determining while a dynamic driving task, DDT, of said vehicle is performed by an autonomous driving mode of said ADS , a remaining distance to an upcoming operational design domain, ODD, exit at which an ODD defined for said autonomous driving mode is planned to end; assessing , when said remaining distance is shorter than a predeterminable distance, data associated with a stretch of road leading up to said ODD exit , said data being indicative of potential temporary and/or emergency stopping areas, shoulder lanes and/or margin space alongside a lane or lanes of said stretch of road , and/or potential occupancy and/or obstruction thereof; characterised by identifying based on the assessment of said data , a favourable region along said stretch of road for potentially bringing said vehicle to a stop deemed safe subsequent a potential MRM being triggered; and determining a timing at which to initiate an autonomous driving mode DDT termination procedure, for instance at which to provide a handover request prompting an occupant of said vehicle to take over the DDT, said timing being calculated to occur a predeterminable time duration and/or distance before the vehicle reaching said identified favourable region . determining while a dynamic driving task, DDT, of said vehicle is performed by an autonomous driving mode of said ADS , a remaining distance to an upcoming operational design domain, ODD, exit at which an ODD defined for said autonomous driving mode is planned to end; assessing , when said remaining distance is shorter than a predeterminable distance, data associated with a stretch of road leading up to said ODD exit , said data being indicative of potential temporary and/or emergency stopping areas, shoulder lanes and/or margin space alongside a lane or lanes of said stretch of road , and/or potential occupancy and/or obstruction thereof; characterised by identifying based on the assessment of said data , a favourable region along said stretch of road for potentially bringing said vehicle to a stop deemed safe subsequent a potential MRM being triggered; and determining a timing at which to initiate an autonomous driving mode DDT termination procedure, for instance at which to provide a handover request prompting an occupant of said vehicle to take over the DDT, said timing being calculated to occur a predeterminable time duration and/or distance before the vehicle reaching said identified favourable region .
A vehicle stability control device mounted on a vehicle, comprising: a yaw moment generation device that generates a yaw moment; and a control device that uses the yaw moment generation device to perform vehicle stability control, wherein a variation yaw moment generated by acceleration or deceleration and a turn performed simultaneously is expressed as a function of a longitudinal acceleration (A x ) and a lateral acceleration (A y ), each of a longitudinal force and a lateral force of a tire of the vehicle has non-linear load dependency, and the variation yaw moment when assuming that the load dependency is linear is a first variation yaw moment, characterized in that the variation yaw moment considering the non-linear load dependency is a second variation yaw moment that is expressed as a product of the first variation yaw moment and a correction gain (GainE), in the vehicle stability control, the control device controls the yaw moment generation device to generate a counter yaw moment (M zc ) counteracting the second variation yaw moment, based on the longitudinal acceleration (A x ), the lateral acceleration (A y ), and the correction gain (GainE), the correction gain (GainE) is expressed as a function of the longitudinal acceleration (A x ) and the lateral acceleration (A y ), and the control device calculates the correction gain (GainE) by using the longitudinal acceleration (A x ) and the lateral acceleration (A y ). a yaw moment generation device that generates a yaw moment; and a control device that uses the yaw moment generation device to perform vehicle stability control, wherein a variation yaw moment generated by acceleration or deceleration and a turn performed simultaneously is expressed as a function of a longitudinal acceleration (A x ) and a lateral acceleration (A y ), each of a longitudinal force and a lateral force of a tire of the vehicle has non-linear load dependency, and the variation yaw moment when assuming that the load dependency is linear is a first variation yaw moment, characterized in that the variation yaw moment considering the non-linear load dependency is a second variation yaw moment that is expressed as a product of the first variation yaw moment and a correction gain (GainE), in the vehicle stability control, the control device controls the yaw moment generation device to generate a counter yaw moment (M zc ) counteracting the second variation yaw moment, based on the longitudinal acceleration (A x ), the lateral acceleration (A y ), and the correction gain (GainE), the correction gain (GainE) is expressed as a function of the longitudinal acceleration (A x ) and the lateral acceleration (A y ), and the control device calculates the correction gain (GainE) by using the longitudinal acceleration (A x ) and the lateral acceleration (A y ).
Multi-channel physiotherapy device, which is fitted with an electrical source, a power supply unit, a plurality of photo-couplers, a microprocessor, and a plurality of electrodes which are configured to be connected to the power supply through channels; the electrical source is configured to be connected to a single power supply unit , the power supply unit is configured to be connected to the microprocessor , and the microprocessor is configured to be connected to the photo-couplers , characterized in that the channels are configured to send impulses through output with a time delay, and the electrodes are configured to stimulate individual muscles at different times; the microprocessor is connected to the electrodes through the photo-couplers and the channels ; the number of the electrodes is at least equal to the number of photo-couplers and channels ; the number of channels , photo-couplers , and electrodes each falls between 6 and 14 for each body side.
An aircraft comprising an air conditioning system and a fuel tank inerting system , the fuel tank inerting system comprising: a first air flow (A1) provided from a first source having a first temperature; a second air flow (Ac) including cabin outflow air having a second temperature, the first temperature being greater than the second temperature; a fuel tank inerting heat exchanger arranged in fluid communication with both the first air flow and the second air flow and configured to transfer heat from the first air flow to the second air flow; and at least one air separating module configured to separate an inert gas from the first air flow output from the fuel tank inerting heat exchanger; wherein the fuel tank inerting heat exchanger is operably coupled with the air conditioning system , characterised in that the first air flow is not conditioned by the air conditioning system before reaching the fuel tank inerting heat exchanger. a first air flow (A1) provided from a first source having a first temperature; a second air flow (Ac) including cabin outflow air having a second temperature, the first temperature being greater than the second temperature; a fuel tank inerting heat exchanger arranged in fluid communication with both the first air flow and the second air flow and configured to transfer heat from the first air flow to the second air flow; and at least one air separating module configured to separate an inert gas from the first air flow output from the fuel tank inerting heat exchanger; wherein the fuel tank inerting heat exchanger is operably coupled with the air conditioning system , characterised in that the first air flow is not conditioned by the air conditioning system before reaching the fuel tank inerting heat exchanger.
An optoelectronic module comprising: an illumination source ; a sensor including spatially distributed detection pixels and at least one reference pixel ; an optics member disposed over the illumination source and the sensor, the optics member having a first transmissive region over the illumination source and a second transmissive region over the detection pixels ; a light barrier separating an emission chamber of the module from a detection chamber of the module, wherein the illumination source and the at least one reference pixel are in the emission chamber, and wherein the detection pixels are in the detection chamber; and a partially reflective coating on a surface of the first transmissive region over the illumination source wherein the coating is partially reflective with respect to a wavelength detectable by the reference pixel and is arranged such that some light from the illumination source is reflected by the coating toward the at least one reference pixel. an illumination source ; a sensor including spatially distributed detection pixels and at least one reference pixel ; an optics member disposed over the illumination source and the sensor, the optics member having a first transmissive region over the illumination source and a second transmissive region over the detection pixels ; a light barrier separating an emission chamber of the module from a detection chamber of the module, wherein the illumination source and the at least one reference pixel are in the emission chamber, and wherein the detection pixels are in the detection chamber; and a partially reflective coating on a surface of the first transmissive region over the illumination source wherein the coating is partially reflective with respect to a wavelength detectable by the reference pixel and is arranged such that some light from the illumination source is reflected by the coating toward the at least one reference pixel.
A developing device comprising: a flexible container , provided with an opening for permitting discharge of a developer, for accommodating the developer; a frame for accommodating said flexible container and for accommodating the developer discharged from said flexible container ; an urging member , rotatably provided inside said frame , for urging said flexible container by rotation thereof to deform said flexible container ; and a developer carrying member for carrying the developer on its surface to feed the developer, characterized in that a distance X from a rotation center of said urging member to the surface of said developer carrying member and a length T from the rotation center of said urging member to a free end thereof for urging said flexible container satisfy a relationship of X < T, and a shielding member for preventing contact of said urging member with said developer carrying member is provided between the rotation center of said urging member and the surface of said developer carrying member or in a neighborhood thereof. a flexible container , provided with an opening for permitting discharge of a developer, for accommodating the developer; a frame for accommodating said flexible container and for accommodating the developer discharged from said flexible container ; an urging member , rotatably provided inside said frame , for urging said flexible container by rotation thereof to deform said flexible container ; and a developer carrying member for carrying the developer on its surface to feed the developer, characterized in that a distance X from a rotation center of said urging member to the surface of said developer carrying member and a length T from the rotation center of said urging member to a free end thereof for urging said flexible container satisfy a relationship of X < T, and a shielding member for preventing contact of said urging member with said developer carrying member is provided between the rotation center of said urging member and the surface of said developer carrying member or in a neighborhood thereof.
A method for user equipment, when a downlink bandwidth is greater than an uplink bandwidth or when an uplink transmission time interval is greater than a downlink transmission time interval, comprising: receiving downlink data in at least two consecutive downlink transmission time intervals from a base station; jointly encoding feedback signals responding to the downlink data in the at least two consecutive downlink transmission time intervals to obtain joint uplink feedback information, wherein the joint uplink feedback information comprises HARQ information in a joint uplink feedback; and transmitting , in an uplink transmission time interval corresponding to the at least two consecutive downlink transmission time intervals, the joint uplink feedback information for the at least two consecutive downlink transmission time intervals to the base station, wherein the at least two consecutive downlink transmission time intervals include at least two consecutive downlink transmission time intervals of a primary cell of the user equipment, and wherein a sum of lengths of downlink transmission time intervals of the primary cell is equal to a length of an uplink transmission time interval of the primary cell, or wherein the at least two consecutive downlink transmission time intervals include at least two consecutive downlink transmission time intervals of a secondary cell of the user equipment, and wherein a sum of lengths of downlink transmission time intervals of the secondary cell is equal to a length of an uplink transmission time interval of the primary cell. receiving downlink data in at least two consecutive downlink transmission time intervals from a base station; jointly encoding feedback signals responding to the downlink data in the at least two consecutive downlink transmission time intervals to obtain joint uplink feedback information, wherein the joint uplink feedback information comprises HARQ information in a joint uplink feedback; and transmitting , in an uplink transmission time interval corresponding to the at least two consecutive downlink transmission time intervals, the joint uplink feedback information for the at least two consecutive downlink transmission time intervals to the base station, wherein the at least two consecutive downlink transmission time intervals include at least two consecutive downlink transmission time intervals of a primary cell of the user equipment, and wherein a sum of lengths of downlink transmission time intervals of the primary cell is equal to a length of an uplink transmission time interval of the primary cell, or wherein the at least two consecutive downlink transmission time intervals include at least two consecutive downlink transmission time intervals of a secondary cell of the user equipment, and wherein a sum of lengths of downlink transmission time intervals of the secondary cell is equal to a length of an uplink transmission time interval of the primary cell.
An allulose syrup having a total dry solids content of from 70% to 80% by weight, and comprising allulose in an amount of at least 90% by weight on a dry solids basis, wherein the pH of the syrup is from 3.0 to 5.0.