mhurhangee/patent-ind-claim-en huggingface dataset:
A detachable header , configured to be detachably coupled to a frond end of a feeder of an agricultural working machine , wherein the header comprises a back wall and at least one support and transport wheel assembly , the assembly comprising an axle and two wheels attached at the two ends of the axle, the assembly being movable between a field position wherein the axle is essentially parallel to the longitudinal direction of the header and a transport position wherein the axle is transversal to said longitudinal direction, wherein the header comprises an actuating system configured to move the wheel assembly from the field position to the transport position and vice versa, the actuating system comprising a swivel actuator mechanism configured to actuate a swivel movement of the axle and the wheels , the swivel movement being configured to bring the wheel assembly to or from a position wherein the axle is transversal to the longitudinal direction of the header , characterized in that the wheel assembly comprises a deployable drawbar , that is pivotable between an essentially vertical storage position and an essentially horizontal deployed position, and further comprises a drawbar actuator configured to actuate a pivoting movement of the drawbar between said two positions, and wherein the actuator mechanism of the swivel movement and the drawbar actuator are configured so that the pivoting movement of the drawbar is synchronized with the swivel movement of the axle , so that the drawbar is brought from the storage position to the deployed position as the wheel assembly swivels towards the transversal position of the axle , and vice versa.
A rolling method that rolls a rolled material by a tandem rolling mill including a plurality of rolling stands (#1 to #5), supplying by mixing rolling oil supplied from a first rolling oil supply system and a second rolling oil supply system to one or two or more rolling stands selected from the plurality of rolling stands, wherein the first rolling oil supply system circulates and supplies rolling oil subjected to a removal treatment of wear powder generated by the rolling, characterized in that the second rolling oil supply system supplies rolling oil containing the wear powder generated by the rolling. supplying by mixing rolling oil supplied from a first rolling oil supply system and a second rolling oil supply system to one or two or more rolling stands selected from the plurality of rolling stands, wherein the first rolling oil supply system circulates and supplies rolling oil subjected to a removal treatment of wear powder generated by the rolling, characterized in that the second rolling oil supply system supplies rolling oil containing the wear powder generated by the rolling.
A CD27L antigen binding protein comprising a light chain variable domain and a heavy chain variable domain, wherein a) the light chain variable domain comprises an LCDR1 as set forth in SEQ ID NO: 74; an LCDR2 as set forth in SEQ ID NO: 82; and an LCDR3 as set forth in SEQ ID NO: 90; and the heavy chain variable domain comprises an HCDR1 as set forth in SEQ ID NO: 28; an HCDR2 as set forth in SEQ ID NO: 36; and an HCDR3 as set forth in SEQ ID NO: 44; b) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has an R24K-S26G mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20 but has an N31S-I34M mutation; c) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has an R24K-S26G mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20; d) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has an L55I-Y58F mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20; e) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has a Q95N-T96S mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20 but has an N31S-I34M mutation; or f) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has a Q95N-T96S mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20. a) the light chain variable domain comprises an LCDR1 as set forth in SEQ ID NO: 74; an LCDR2 as set forth in SEQ ID NO: 82; and an LCDR3 as set forth in SEQ ID NO: 90; and the heavy chain variable domain comprises an HCDR1 as set forth in SEQ ID NO: 28; an HCDR2 as set forth in SEQ ID NO: 36; and an HCDR3 as set forth in SEQ ID NO: 44; b) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has an R24K-S26G mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20 but has an N31S-I34M mutation; c) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has an R24K-S26G mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20; d) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has an L55I-Y58F mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20; e) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has a Q95N-T96S mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20 but has an N31S-I34M mutation; or f) the light chain variable domain comprises the amino acid sequence SEQ ID NO: 66 but has a Q95N-T96S mutation, and the heavy chain variable domain comprises the amino acid sequence SEQ ID NO: 20.
Method for securing a document, characterized in that it comprises: - a step of statistically determining the average magnitude of an unpredictable print variation dot by dot of at least one geometric characteristic among the size, shape and/or position of the dot, - a step of printing a distribution of dots on said document, said printing, as a result of unanticipated unknowns in printing, causing an unpredictable variation, dot by dot, of at least one geometric characteristic of the printed dots among the size, shape and/or position, and - prior to said print step, a step of generating said distribution of dots so that dots of said generated distribution have at least one geometric characteristic, among the size, shape and/or position, that can vary from one dot to the next, the geometric amplitude of the generated variation being of the order of magnitude of the average magnitude of said statistically determined unpredictable print variation; the printed dot distribution therefore representing two variations, one generated and one unpredictable dot by dot. - a step of statistically determining the average magnitude of an unpredictable print variation dot by dot of at least one geometric characteristic among the size, shape and/or position of the dot, - a step of printing a distribution of dots on said document, said printing, as a result of unanticipated unknowns in printing, causing an unpredictable variation, dot by dot, of at least one geometric characteristic of the printed dots among the size, shape and/or position, and - prior to said print step, a step of generating said distribution of dots so that dots of said generated distribution have at least one geometric characteristic, among the size, shape and/or position, that can vary from one dot to the next, the geometric amplitude of the generated variation being of the order of magnitude of the average magnitude of said statistically determined unpredictable print variation;
Seat longitudinal adjustment unit , comprising - a drive mechanism , - two tracks , each of which having at least one spindle , which are arranged parallel to a longitudinal axis (X) and at a distance to each other, and - two drive trains , which can be driven by the drive mechanism , - wherein each of the drive trains comprises a first transmission unit and a second transmission unit , and the second transmission unit is coupled to the drive mechanism by means of the first transmission unit , - wherein the second transmission unit of each respective drive train is coupled to one of the tracks in order to produce a forward motion along the longitudinal axis (X), characterized in that the first transmission unit is connected to the drive mechanism by means of a first shaft and the second transmission unit is connected to the first transmission unit by means of a second shaft . - a drive mechanism , - two tracks , each of which having at least one spindle , which are arranged parallel to a longitudinal axis (X) and at a distance to each other, and - two drive trains , which can be driven by the drive mechanism , - wherein each of the drive trains comprises a first transmission unit and a second transmission unit , and the second transmission unit is coupled to the drive mechanism by means of the first transmission unit , - wherein the second transmission unit of each respective drive train is coupled to one of the tracks in order to produce a forward motion along the longitudinal axis (X),
Wound care device for treating wounds by means of negative atmospheric pressure in the wound area, having: - at least one wound covering element , which delimits a wound cavity when used with a wound bed , and - at least one micropump, which is connected tubelessly via a flat adapter to the wound cavity , wherein the flat adapter consists of two plates (3.1, 3.2) congruent with one another, which are applied to the wound covering element from above and from below, wherein the device further comprises at least one substantially flat absorption body of absorption material, which body absorbs a wound exudate and comprises an absorbent nonwoven with superabsorbent polymers distributed therein, and wherein the nonwoven has cellulose fibres. - at least one wound covering element , which delimits a wound cavity when used with a wound bed , and - at least one micropump, which is connected tubelessly via a flat adapter to the wound cavity , wherein the flat adapter consists of two plates (3.1, 3.2) congruent with one another, which are applied to the wound covering element from above and from below,
A method of cleaning a surface having disposed thereon a soil comprising fatty acid, said method comprising the steps of: (a) contacting said soil disposed on said surface with a consumer product composition comprising a surfactant and a soil transforming enzyme selected from the group consisting of alpha-dioxygenases; and (b) converting said fatty acid of said soil on said surface into an active fatty acid derivative material selected from the group consisting of hydroperoxy fatty acids, hydroperoxy fatty acid derivatives, hydroxy fatty acids, and mixtures thereof. (a) contacting said soil disposed on said surface with a consumer product composition comprising a surfactant and a soil transforming enzyme selected from the group consisting of alpha-dioxygenases; and (b) converting said fatty acid of said soil on said surface into an active fatty acid derivative material selected from the group consisting of hydroperoxy fatty acids, hydroperoxy fatty acid derivatives, hydroxy fatty acids, and mixtures thereof.
A semiconductor device comprising: a semiconductor component; a diamond heat spreader; and a metal bond, wherein the semiconductor component is bonded to the diamond heat spreader via the metal bond, wherein the metal bond comprises a layer of chromium bonded to the diamond heat spreader and a further metal layer disposed between the layer of chromium and the semiconductor component, and characterised in that the semiconductor component is configured to operate at an areal power density of at least 1 kW/cm 2 and/or a linear power density of at least 1 W/mm. a semiconductor component; a diamond heat spreader; and a metal bond, wherein the semiconductor component is bonded to the diamond heat spreader via the metal bond, wherein the metal bond comprises a layer of chromium bonded to the diamond heat spreader and a further metal layer disposed between the layer of chromium and the semiconductor component, and characterised in that the semiconductor component is configured to operate at an areal power density of at least 1 kW/cm 2 and/or a linear power density of at least 1 W/mm.
An optical mixer comprising: a compound parabolic reflector with an input surface that receives light from a light source , and a lightguide coupled to the compound parabolic reflector, wherein a least one wall of the lightguide is substantially orthogonal to an exit surface of the compound parabolic reflector; wherein: a height of the walls of the lightguide is at least as large as 0.75 times a width of the input surface of the compound parabolic reflector, and is less than three times the width of the input surface; and at least a portion of the light received at the input surface of the compound parabolic reflector is reflected by the compound parabolic reflector , into and through the lightguide , to be emitted from an exit surface of the optical mixer, characterized in that the height of the compound parabolic reflector is between 0.15 and 0.40 times the width of the input surface of the compound parabolic reflector . a compound parabolic reflector with an input surface that receives light from a light source , and a lightguide coupled to the compound parabolic reflector, wherein a least one wall of the lightguide is substantially orthogonal to an exit surface of the compound parabolic reflector; wherein: a height of the walls of the lightguide is at least as large as 0.75 times a width of the input surface of the compound parabolic reflector, and is less than three times the width of the input surface; and at least a portion of the light received at the input surface of the compound parabolic reflector is reflected by the compound parabolic reflector , into and through the lightguide , to be emitted from an exit surface of the optical mixer, characterized in that the height of the compound parabolic reflector is between 0.15 and 0.40 times the width of the input surface of the compound parabolic reflector . a height of the walls of the lightguide is at least as large as 0.75 times a width of the input surface of the compound parabolic reflector, and is less than three times the width of the input surface; and at least a portion of the light received at the input surface of the compound parabolic reflector is reflected by the compound parabolic reflector , into and through the lightguide , to be emitted from an exit surface of the optical mixer, characterized in that the height of the compound parabolic reflector is between 0.15 and 0.40 times the width of the input surface of the compound parabolic reflector .
Method for producing an at least partially hardened profiled component , wherein a first profiled segment , which has a uniform cross-sectional shape along its extent , and a second profiled segment , which has a non-uniform cross-sectional shape along its extent , are initially joined together at a joining point in order to form at least a part of a semifinished product , and to this end the first and the second profiled segment have cross-sectional shapes which correspond substantially to one another at the joining point , wherein, after being heated to a hardening temperature, the semifinished product is formed in a forming tool by means of internal high pressure forming or pressing to form the profiled component , which is hardened by quenching after forming inside the forming tool , wherein the first profiled segment is produced by means of roll profiling and the second profiled segment is produced by means of a U-O bending process.
A method of wireless communication of a first user equipment, UE, comprising: receiving a signal comprising a device-to-device, D2D, discovery message from a second UE through a device-to-device, D2D, communication channel, wherein the discovery message includes the transmit power for transmitting the signal; determining a feedback based on the received signal, wherein the determining of the feedback comprises measuring a received power associated with the signal; and transmitting the feedback to adjust transmission of the signal at the second UE , wherein the feedback is transmitted to the second UE directly or via a base station , wherein the first UE is to relay data received from the second UE to the base station . receiving a signal comprising a device-to-device, D2D, discovery message from a second UE through a device-to-device, D2D, communication channel, wherein the discovery message includes the transmit power for transmitting the signal; determining a feedback based on the received signal, wherein the determining of the feedback comprises measuring a received power associated with the signal; and transmitting the feedback to adjust transmission of the signal at the second UE , wherein the feedback is transmitted to the second UE directly or via a base station , wherein the first UE is to relay data received from the second UE to the base station .
Fluid flow management apparatus of a vehicle, the apparatus comprising: an epicyclic gear set having first and second inputs configured to receive rotational drive input from a torque output feature of a powertrain of the vehicle and a rotary actuator (120; 220) respectively; a pump driver for driving a fluid pump , the pump driver configured to receive rotational drive input from an output of the epicyclic gear set ; a temperature sensor for generating output indicative of the temperature of fluid driven by the fluid pump ; characterised by a controller configured to receive the output generated by the temperature sensor and based on this control the rotary actuator (120; 220) such that the pump driver is caused to rotate at a speed such that the temperature of the fluid driven by the fluid pump is substantially maintained in accordance with a pre-specified fluid temperature, and wherein the torque output feature of the powertrain is rotationally fixed to either a transmission output shaft or a differential cross-shaft . an epicyclic gear set having first and second inputs configured to receive rotational drive input from a torque output feature of a powertrain of the vehicle and a rotary actuator (120; 220) respectively; a pump driver for driving a fluid pump , the pump driver configured to receive rotational drive input from an output of the epicyclic gear set ; a temperature sensor for generating output indicative of the temperature of fluid driven by the fluid pump ; characterised by a controller configured to receive the output generated by the temperature sensor and based on this control the rotary actuator (120; 220) such that the pump driver is caused to rotate at a speed such that the temperature of the fluid driven by the fluid pump is substantially maintained in accordance with a pre-specified fluid temperature, and wherein the torque output feature of the powertrain is rotationally fixed to either a transmission output shaft or a differential cross-shaft .
A resonating patch for acoustic treatment for a cell for acoustic treatment of an acoustic panel of a turbomachine of an aircraft, the resonating patch comprising a resonant plate , the resonant plate comprising a peripheral strip extending along the perimeter of the resonant plate , the resonant plate comprising cut-outs together defining deformable lamellae having at least one end connected to the peripheral strip characterised in that the resonating patch comprises a transducer and an electrical circuit electrically connected to the transducer .
A method performed by a second Mobility Management Entity, MME, the method comprising: obtaining , from a first Mobility Management Entity, MME, an indication that a user equipment participating in a Packet Data Network, PDN, session hosted by a Serving Gateway (SGW) and a PDN Gateway, PGW, is transitioning from the first MME to the second MME; obtaining , from the first MME, an indication that the SGW is co-located with the PGW and an identification of the SGW; based on the indication that the SGW is co-located with the PGW and the identification of the SGW, determining that the SGW is reachable from the second MME; and in response to determining that the SGW is reachable from the second MME, selecting the SGW to host the PDN session after the user equipment transitions from the first MME to the second MME, wherein obtaining the indication that the SGW is co-located with the PGW includes obtaining a flag indicating that the SGW is co-located with the PGW. obtaining , from a first Mobility Management Entity, MME, an indication that a user equipment participating in a Packet Data Network, PDN, session hosted by a Serving Gateway (SGW) and a PDN Gateway, PGW, is transitioning from the first MME to the second MME; obtaining , from the first MME, an indication that the SGW is co-located with the PGW and an identification of the SGW; based on the indication that the SGW is co-located with the PGW and the identification of the SGW, determining that the SGW is reachable from the second MME; and in response to determining that the SGW is reachable from the second MME, selecting the SGW to host the PDN session after the user equipment transitions from the first MME to the second MME, wherein obtaining the indication that the SGW is co-located with the PGW includes obtaining a flag indicating that the SGW is co-located with the PGW.
An apparatus for controlling supply of power of a battery, comprising: a relay configured to supply or block the power of the battery to various loads within a vehicle; and a voltage generator configured to generate a voltage; characterised in that it further comprises a switch configured to be operated by the voltage generated by the voltage generator to drive the relay to allow the power of the battery to be supplied to the various loads in the vehicle, wherein the switch is configured to be inactive when the voltage is not applied, wherein the voltage generator is configured to apply the generated voltage to the switch when a key inserted into a door-lock key box on the vehicle is rotated. a relay configured to supply or block the power of the battery to various loads within a vehicle; and a voltage generator configured to generate a voltage; characterised in that it further comprises a switch configured to be operated by the voltage generated by the voltage generator to drive the relay to allow the power of the battery to be supplied to the various loads in the vehicle, wherein the switch is configured to be inactive when the voltage is not applied, wherein the voltage generator is configured to apply the generated voltage to the switch when a key inserted into a door-lock key box on the vehicle is rotated.