mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle with autonomous driving capability, wherein the autonomous vehicle is adapted for at least two different driving modes, characterized in that the at least two different driving modes comprises a first driving mode which is predefined for less complex and more predictable traffic environments, such as a highway, and configured for a first type of autonomous driving and a second driving mode which is predefined for a more challenging traffic environment, such as a city, and configured for a second type of autonomous driving in which the autonomous vehicle is being guided by a pilot vehicle in such a manner that the autonomous vehicle follows the pilot vehicle.
Crystalline salt forms of palbociclib formed with 4-toluenesulfonic acid.
Composite pane for a head-up display, at least comprising a first pane (1.1) and a second pane (1.2) that are joined to one another via a composite layer as well as a transparent, electrically conductive coating , wherein the composite layer has a first thermoplastic film , a polyester film , and a second thermoplastic film having a ratio of the thicknesses of the second thermoplastic film to the first thermoplastic film of 1.5:1 to 20:1, wherein the first thermoplastic film and the polyester film have a common edge that is at least partially spaced at a distance (A) from an edge (4.1) of the second thermoplastic film , and wherein the first thermoplastic film has a thickness of 40 μm to 110 μm, wherein the transparent, electrically conductive coating is arranged at least partially on a surface of the polyester film , and wherein the second thermoplastic film has a wedge angle, und wherein a capacitive switching region is separated by at least one coating-free separating line out of the transparent, electrically conductive coating .
A hinge, in particular for glass doors, with two hinge parts (10, 20; 10, 40) connected to one another in an articulated manner about a pivot axis (S) by means of a hinge pin and with a lockable detent device for setting a closed or open position, which detent device has a detent body assigned to the first hinge part , guided in a linearly movable manner in a guide recess against the action of at least one spring element and a detent roller assigned to the second hinge part with a detent recess interacting with the detent body in a detent position, wherein the detent roller is arranged coaxial to the pivot axis (S) between two hinge webs (21; 41) formed on the second hinge part (20; 40) and can be locked in different angular positions of its detent recess , wherein the first hinge part has a first guide recess for a first detent body and a second guide recess for a second detent body movable relative to the first detent body and both detent bodies interact with a detent roller , and wherein the detent recess in the detent roller for the first detent body is arranged angularly offset from the detent recess for the second detent body , characterized in that the detent roller has a detent groove extending over the entire height of the detent roller as the detent recess, wherein the detent groove has a first groove section and a second groove section angularly offset from the first groove section, and that the two detent bodies can move independently of one another.
A method of transmitting and receiving a signal by a user equipment, UE, in a wireless communication system, the method comprising: performing (S1201) a random access channel, RACH, procedure; receiving (S1203) configuration information related to the UE based on the RACH procedure; detecting (S1205) downlink control information, DCI, scheduling a single physical uplink shared channel, PUSCH, or multiple PUSCHs to be transmitted on a serving cell based on the configuration information; and transmitting (S1207) the single PUSCH or the multiple PUSCHs on the serving cell based on the DCI, wherein the DCI is received based on an assumption that a payload size of the DCI is determined based on a larger of a number of information bits for scheduling the single PUSCH and a number of information bits for scheduling the multiple PUSCHs, wherein the DCI includes a codeblock group transmission information, CBGTI, field based on the scheduling of the single PUSCH, and wherein the DCI includes no CBGTI field based on the scheduling of the multiple PUSCHs, wherein the DCI includes a two-bit redundancy version, RV, field based on the scheduling of the single PUSCH, wherein the DCI includes an N-bit RV field based on the scheduling of the multiple PUSCHs, and the N bits are based on a maximum number of PUSCHs schedulable by the DCI, and wherein the number of information bits for scheduling the single PUSCH is based on the CBGTI field and two-bit the RV field, and the number of information bits for scheduling the multiple PUSCHs is based on no CBGTI field and the N-bit RV field. performing (S1201) a random access channel, RACH, procedure; receiving (S1203) configuration information related to the UE based on the RACH procedure; detecting (S1205) downlink control information, DCI, scheduling a single physical uplink shared channel, PUSCH, or multiple PUSCHs to be transmitted on a serving cell based on the configuration information; and transmitting (S1207) the single PUSCH or the multiple PUSCHs on the serving cell based on the DCI, wherein the DCI is received based on an assumption that a payload size of the DCI is determined based on a larger of a number of information bits for scheduling the single PUSCH and a number of information bits for scheduling the multiple PUSCHs, wherein the DCI includes a codeblock group transmission information, CBGTI, field based on the scheduling of the single PUSCH, and wherein the DCI includes no CBGTI field based on the scheduling of the multiple PUSCHs, wherein the DCI includes a two-bit redundancy version, RV, field based on the scheduling of the single PUSCH, wherein the DCI includes an N-bit RV field based on the scheduling of the multiple PUSCHs, and the N bits are based on a maximum number of PUSCHs schedulable by the DCI, and wherein the number of information bits for scheduling the single PUSCH is based on the CBGTI field and two-bit the RV field, and the number of information bits for scheduling the multiple PUSCHs is based on no CBGTI field and the N-bit RV field.
A feedback ANC system comprising a microphone and a loudspeaker arranged in a distance of each other; in which the microphone is acoustically coupled to the loudspeaker via a secondary path ; the loudspeaker being electrically coupled to the microphone via an ANC filter ; and the distance (d) between the microphone and the loudspeaker is larger than a value that is determined by the speed of sound divided by twenty times an upper critical frequency (f UL ) of the ANC system, wherein the distance (d) between the microphone and the loudspeaker is smaller than or equal to a value that is determined by the speed of sound divided by two times an upper critical frequency (f UL ), wherein the system further comprises: a first subtractor that is connected downstream of the microphone and a first useful-signal path, wherein the ANC filter is connected downstream of the first subtractor ; and a second subtractor that is connected upstream of the loudspeaker and connected downstream of the ANC filter and a second useful-signal path; wherein both useful-signal paths are supplied with a useful signal (x[n]) to be reproduced, characterized in that the second useful-signal path comprises a second spectrum shaping filter that has a transfer characteristic (1/S(z)) that is equal to the inverse secondary path transfer characteristic. the microphone is acoustically coupled to the loudspeaker via a secondary path ; the loudspeaker being electrically coupled to the microphone via an ANC filter ; and the distance (d) between the microphone and the loudspeaker is larger than a value that is determined by the speed of sound divided by twenty times an upper critical frequency (f UL ) of the ANC system, wherein the distance (d) between the microphone and the loudspeaker is smaller than or equal to a value that is determined by the speed of sound divided by two times an upper critical frequency (f UL ), wherein the system further comprises: a first subtractor that is connected downstream of the microphone and a first useful-signal path, wherein the ANC filter is connected downstream of the first subtractor ; and a second subtractor that is connected upstream of the loudspeaker and connected downstream of the ANC filter and a second useful-signal path; wherein both useful-signal paths are supplied with a useful signal (x[n]) to be reproduced, characterized in that the second useful-signal path comprises a second spectrum shaping filter that has a transfer characteristic (1/S(z)) that is equal to the inverse secondary path transfer characteristic. a first subtractor that is connected downstream of the microphone and a first useful-signal path, wherein the ANC filter is connected downstream of the first subtractor ; and a second subtractor that is connected upstream of the loudspeaker and connected downstream of the ANC filter and a second useful-signal path; wherein both useful-signal paths are supplied with a useful signal (x[n]) to be reproduced, characterized in that the second useful-signal path comprises a second spectrum shaping filter that has a transfer characteristic (1/S(z)) that is equal to the inverse secondary path transfer characteristic.
Method for mounting a duct or electrical harness referred to as CNB cable , intended to detect and warn of the non-buckling of a seat belt provided on a seat of a motor vehicle (S), the CNB cable being connected to the passenger compartment electrical harness of the vehicle by a connector , after having passed through a flange with a metal frame of the seat portion of the seat (S), comprising a preliminary step of moulding an assembly ring formed in a material that is not as resistant as the metal of the flange , said ring having an open perimeter that is complementary with a cut-out made in the flange of the frame , a step of integrating the CNB cable into the assembly ring after having passed through the open perimeter of this ring , a step of passing the connector through the cut-out of the flange , a step of adjusting the perimeter of said ring in this cut-out , the assembly ring being made of a material that is sufficiently elastic so that the perimeter can return to its initial position after the CNB cable has passed through it, and a step consisting in housing the CNB cable in a central zone of the assembly ring, with the CNB cable being integrated into this central zone via an access ; the central being blocking in order to prevent the CNB cable from combing back out of this central zone .
An intravenous catheter assembly comprising: a catheter tube ; a catheter hub having a distal end and a proximal end , wherein the distal end is joined to the catheter tube and the proximal end defines a housing having inner space ; a needle extending through the catheter hub and the catheter tube and defining an axial direction (A), wherein the needle has opposite proximal and distal ends, the distal end forming a needle tip ; a port extending outwardly in a direction perpendicular to the axial direction (A) from a sidewall of the catheter hub ; a needle hub attached to the proximal end of the needle ; a first valve provided in the inner space in the catheter hub to prevent foreign contamination from entering the catheter hub ; a blood control second valve arranged within the inner space of catheter hub to prevent the outflow of fluid during and following removal of the needle , wherein the second valve is configured with a plug also housed in the inner space of the catheter hub wherein the plug is in fluid communication with the second valve and an inner space of the catheter hub ; characterized in that an inner surface at a distal end of the second valve being provided with at least one projection or groove or vice versa matching with at least one projection or groove provided in an outer wall/surface of the plug at a proximal end thereof. a catheter tube ; a catheter hub having a distal end and a proximal end , wherein the distal end is joined to the catheter tube and the proximal end defines a housing having inner space ; a needle extending through the catheter hub and the catheter tube and defining an axial direction (A), wherein the needle has opposite proximal and distal ends, the distal end forming a needle tip ; a port extending outwardly in a direction perpendicular to the axial direction (A) from a sidewall of the catheter hub ; a needle hub attached to the proximal end of the needle ; a first valve provided in the inner space in the catheter hub to prevent foreign contamination from entering the catheter hub ; a blood control second valve arranged within the inner space of catheter hub to prevent the outflow of fluid during and following removal of the needle , wherein the second valve is configured with a plug also housed in the inner space of the catheter hub wherein the plug is in fluid communication with the second valve and an inner space of the catheter hub ; characterized in that an inner surface at a distal end of the second valve being provided with at least one projection or groove or vice versa matching with at least one projection or groove provided in an outer wall/surface of the plug at a proximal end thereof.
A surgical instrument , comprising: a handle; a shaft comprising a longitudinal shaft axis; an end effector comprising a frame with a geared face, a jaw assembly movable between an open configuration and a clamped configuration and a drive element ; a rotation joint , wherein the frame of the end effector is rotatably connected to the distal end of the shaft about the rotation joint such that the end effector is configured to rotate relative to the shaft about the longitudinal axis; an articulation joint , wherein said articulation joint is distal with respect to said shaft, wherein said articulation joint rotatably connects said end effector to said shaft; an articulation drive including a rotatable articulation drive shaft operably engaged with said end effector, wherein said end effector is rotatable about an articulation axis by said articulation drive shaft; and characterised by a jaw drive including a rotatable and translatable jaw actuation shaft operably engaged with said jaw assembly, the rotatable and translatable jaw actuation shaft comprising a distal end configured to engage with the drive element ; wherein the rotatable and translatable jaw actuation shaft and the drive element are translatable between a proximal position in which the drive element is engaged with the geared face of the frame and a distal position in which the drive element is engaged with the jaw assembly; wherein the end effector is configured to rotate with the rotatable and translatable jaw actuation shaft when the rotatable and translatable jaw actuation shaft and the drive element are in the proximal position, and said jaw assembly is movable between said open configuration and said clamped configuration by rotation of said rotatable and translatable jaw actuation shaft when the rotatable and translatable jaw actuation shaft and the drive element are in the distal position.
An energy storage system comprising a temperature control apparatus , a case with an inner space, a battery module provided inside the case , a temperature sensor provided inside the case and spaced apart from the battery module , and an a Heating, Ventilation and Air Conditioning system (HVAC system, 130) provided inside the inner space of the case and configured to heat, cool or ventilate the inner space of the case, the temperature control apparatus comprising: a first communication unit configured to receive first temperature information indicating a temperature of the battery module ; a second communication unit configured to receive, from the temperature sensor , second temperature information indicating a temperature measured by the temperature sensor ; and a control unit connected with the first communication unit and the second communication unit in an operable manner, and configured to determine whether or not the first temperature information is received by the first communication unit and to determine whether or not the second temperature information is received by the second communication unit , characterized in that the control unit is configured to control the HVAC system based on the first temperature information while the first temperature information is received by the first communication unit , to estimate the first temperature information based on the second temperature information while the first temperature information is not received by the first communication unit and the second temperature information is received by the second communication unit , and to control the HVAC system based on the estimated first temperature information. a first communication unit configured to receive first temperature information indicating a temperature of the battery module ; a second communication unit configured to receive, from the temperature sensor , second temperature information indicating a temperature measured by the temperature sensor ; and a control unit connected with the first communication unit and the second communication unit in an operable manner, and configured to determine whether or not the first temperature information is received by the first communication unit and to determine whether or not the second temperature information is received by the second communication unit , characterized in that the control unit is configured to control the HVAC system based on the first temperature information while the first temperature information is received by the first communication unit , to estimate the first temperature information based on the second temperature information while the first temperature information is not received by the first communication unit and the second temperature information is received by the second communication unit , and to control the HVAC system based on the estimated first temperature information.
An irrigation system for ultrasonic cleansing of an internal body part, comprising: a. an irrigator comprising: an ultrasonic transducer , an inlet and an outlet; b. at least one control unit comprising: at least one power supply configured for supplying power at least to the control unit; c. a liquid supply configured for storing liquid; d. a nanoparticles supply configured for storing one or more nanoparticle powders; e. a pump configured for: supplying at least one selected from said liquid from the liquid supply to a body cavity via the irrigator inlet and said nanoparticles from said nanoparticles supply; and/or for extracting at least one selected from said liquid, said nanoparticles and any combination thereof from the body cavity; and f. a control circuitry configured for coupling to one or more of: the power supply, the liquid supply, the nanoparticles supply and the pump; wherein the control circuitry and the at least one power supply are further configured for coupling to the ultrasonic transducer , the ultrasonic transducer being configured to contact the liquid; wherein said control circuitry is configured to initiate said ultrasonic transducer that generates imploding cavitation bubbles creating micro-jets in said liquid when said nanoparticles are suspended therein, resulting in bombarding surfaces of said internal body part with said nanoparticles to clean and disinfect the same. a. an irrigator comprising: an ultrasonic transducer , an inlet and an outlet; b. at least one control unit comprising: at least one power supply configured for supplying power at least to the control unit; c. a liquid supply configured for storing liquid; d. a nanoparticles supply configured for storing one or more nanoparticle powders; e. a pump configured for: supplying at least one selected from said liquid from the liquid supply to a body cavity via the irrigator inlet and said nanoparticles from said nanoparticles supply; and/or for extracting at least one selected from said liquid, said nanoparticles and any combination thereof from the body cavity; and f. a control circuitry configured for coupling to one or more of: the power supply, the liquid supply, the nanoparticles supply and the pump; wherein the control circuitry and the at least one power supply are further configured for coupling to the ultrasonic transducer , the ultrasonic transducer being configured to contact the liquid; wherein said control circuitry is configured to initiate said ultrasonic transducer that generates imploding cavitation bubbles creating micro-jets in said liquid when said nanoparticles are suspended therein, resulting in bombarding surfaces of said internal body part with said nanoparticles to clean and disinfect the same.
Aircraft turbine engine assembly , comprising a lubricating oil circuit as well as a fuel supply device of the turbine engine, the oil circuit and the fuel supply device having in common a fuel/oil heat exchanger , - characterised in that the assembly also includes a passive bypass valve enabling the oil of the lubricating oil circuit to bypass the exchanger , the bypass valve comprising a valve body as well as a piston arranged to move in a sliding space made in the valve body, the sliding space defining, respectively on either side of the piston , a first actuating chamber supplied with oil from the oil circuit , as well as a second actuating chamber supplied with fuel from the fuel supply device , the bypass valve being configured so that when the differential pressure between the oil pressure in the first actuating chamber and the fuel pressure in the second actuating chamber drops below a predetermined differential pressure value, the piston moves from a normal operating position allowing the oil of the oil circuit to pass through the valve in the direction of the heat exchanger , to a bypass position prohibiting this oil from circulating in the direction of the heat exchanger. - characterised in that the assembly also includes a passive bypass valve enabling the oil of the lubricating oil circuit to bypass the exchanger , the bypass valve comprising a valve body as well as a piston arranged to move in a sliding space made in the valve body, the sliding space defining, respectively on either side of the piston , a first actuating chamber supplied with oil from the oil circuit , as well as a second actuating chamber supplied with fuel from the fuel supply device , the bypass valve being configured so that when the differential pressure between the oil pressure in the first actuating chamber and the fuel pressure in the second actuating chamber drops below a predetermined differential pressure value, the piston moves from a normal operating position allowing the oil of the oil circuit to pass through the valve in the direction of the heat exchanger , to a bypass position prohibiting this oil from circulating in the direction of the heat exchanger.