mhurhangee/patent-ind-claim-en huggingface dataset:
A transport section for feeding articles or article assemblies in a transport direction (TR) to a processing apparatus for the articles or article assemblies , the transport section comprising at least: - a transfer plate with a transport surface, on which transport surface the articles or article assemblies are slidably movable in the transport direction (TR); - at least one drive means for the articles or article assemblies ; - at least two outer guide elements arranged on the transfer plate and laterally delimiting the transport section; - and at least one inner guide element , which inner guide element at least partially engages through the transfer plate and has a planar upper side, which at least one inner guide element is designed such that it can move vertically, characterized in that the at least one inner guide element is arranged in a first working position (AP1) in such a way that the planar upper side of the at least one inner guide element and the transport surface of the transfer plate are arranged within a plane and/or form part of the transport surface; and that the at least one inner guide element is arranged in a second working position (AP2) at least partially above the transport surface of the transfer plate . - a transfer plate with a transport surface, on which transport surface the articles or article assemblies are slidably movable in the transport direction (TR); - at least one drive means for the articles or article assemblies ; - at least two outer guide elements arranged on the transfer plate and laterally delimiting the transport section; - and at least one inner guide element , which inner guide element at least partially engages through the transfer plate and has a planar upper side, which at least one inner guide element is designed such that it can move vertically, characterized in that the at least one inner guide element is arranged in a first working position (AP1) in such a way that the planar upper side of the at least one inner guide element and the transport surface of the transfer plate are arranged within a plane and/or form part of the transport surface; and that the at least one inner guide element is arranged in a second working position (AP2) at least partially above the transport surface of the transfer plate .
Locking device , in particular for locking a pivotable backrest of a vehicle seat to a vehicle structure , comprising a catching eccentric which can be pivoted between a locking position and a release position by means of an operating element , and comprising a latching pawl which can be pivoted between an open position and a closed position, wherein the latching pawl is blocked in the closed position thereof by the catching eccentric in the locking position thereof, wherein the latching pawl has at least two receptacles and, in the closed position of the latching pawl , a locking element can be received in either one of the receptacles , characterized in that the latching pawl is preloaded towards the closed position of the latching pawl by means of a spring element which is supported on a housing part of the locking device , wherein a control kinematics system having a first lever , a second lever and a third lever is provided, wherein a first end of the second lever is connected in an articulated manner to a second end of the first lever and a second end of the second lever is connected in an articulated manner to the catching eccentric .
A transport and storage container for liquids comprising a pallet-type understructure for an inner container made of plastic, the inner container having four side walls , a lower and an upper bottom , a sealable filling socket which is formed on the upper bottom and an outlet socket which is formed on the lower portion of a side wall , said outlet socket having a tapping fitting , the transport and storage container comprising a cage having horizontal and vertical bars made of metal for receiving the inner container and at least a traverse bar which extends over the upper bottom of the inner container and which is formed by a hollow profile , connecting portions formed on the ends of the traverse bar by deforming the hollow profile as a flat section having a fastening opening with a wall for forming a threaded engagement with a connecting screw for connecting the cage , ends of the vertical bars , which are formed by a hollow profile, being welded to a lower and an upper circumferential edge profile of the cage , the upper ends of the vertical bars having a connecting portion in order to be connected to the upper edge profile , said connecting portion having a flat section which is formed from the hollow profile by deforming, characterized in that at least two vertical bars , which are disposed on opposite side walls , are connected to the connecting sections of the traverse bar at the connecting portions in such a manner that a connecting portion of a vertical bar is connected to a connecting portion of the traverse bar by means of the connecting screw in each case, the connecting portions of the traverse bar being bent upwards with respect to a longitudinal portion , which extends over the upper bottom of the inner container , and extending towards the connecting portions of the vertical bars , and the connecting portions of the vertical bars having a passage opening for guiding the connecting screw , the vertical bars which are connected to each other via the traverse bar or the traverse bar having a cross section recess for decreasing a shear force acting on the connecting screw in transition portions , which are formed adjacent to the connecting portions .
An upper body apparel item having an integrated air duct system, the apparel item comprising: a first air inflow duct located on a front right portion of the apparel item , the first inflow duct formed by permanently and discontinuously affixing a front edge of a panel that forms, at least in part, a right sleeve of the apparel item and an upper edge of a right front panel of the apparel item ; and a second air inflow duct located on a front left portion of the apparel item , the second inflow duct formed by permanently and discontinuously affixing a front edge of a second panel that forms, at least in part, a left sleeve of the apparel item and an upper edge of a left front panel of the apparel item , wherein: at the areas where the edges of the panels are discontinuously affixed together, at least one of the panel edges is reinforced with a reinforcement strip that extends along the length of the at least one of the panel edges, wherein the reinforcement strip is configured such that the respective inflow duct (120, 620, 1622; 122, 622, 1624) is permanently maintained in an open state; and the first inflow duct is skewed in a positive direction from a vertical axis bisecting the first inflow duct , to be diagonally oriented, and the second inflow duct is skewed in a negative direction from a vertical axis bisecting the second inflow duct , to be diagonally oriented. at the areas where the edges of the panels are discontinuously affixed together, at least one of the panel edges is reinforced with a reinforcement strip that extends along the length of the at least one of the panel edges, wherein the reinforcement strip is configured such that the respective inflow duct (120, 620, 1622; 122, 622, 1624) is permanently maintained in an open state; and the first inflow duct is skewed in a positive direction from a vertical axis bisecting the first inflow duct , to be diagonally oriented, and the second inflow duct is skewed in a negative direction from a vertical axis bisecting the second inflow duct , to be diagonally oriented.
An autonomous vehicle , comprising: a first structural section of the autonomous vehicle including a first propulsion unit , a first steering unit and a first sensor unit ; a second structural section of the autonomous vehicle including a second propulsion unit, a second steering unit and a second sensor unit; one or more couplings configured to couple the first structural section and the second structural section to form the autonomous vehicle, wherein at least one of the one or more couplings comprises an electrical coupling to electrically connect the first structural section to the second structural section, the electrical coupling being configured to transmit at least one of signals, data, or electrical power between the first structural section and the second structural section, and two or more autonomous vehicle controllers including a first autonomous vehicle controller disposed within the first structural section, and a second autonomous vehicle controller disposed in the second structural section, the first autonomous vehicle controller being electrically coupled with the first propulsion unit, the first steering unit, and the first sensor unit, the second autonomous vehicle controller being electrically coupled with the second propulsion unit, the second steering unit, and the second sensor unit, wherein the first sensor unit comprises at least one of a lidar sensor, an image sensor, or a radar sensor, and the second sensor unit comprises at least one of a lidar sensor, an image sensor, or a radar sensor. a first structural section of the autonomous vehicle including a first propulsion unit , a first steering unit and a first sensor unit ; a second structural section of the autonomous vehicle including a second propulsion unit, a second steering unit and a second sensor unit; one or more couplings configured to couple the first structural section and the second structural section to form the autonomous vehicle, wherein at least one of the one or more couplings comprises an electrical coupling to electrically connect the first structural section to the second structural section, the electrical coupling being configured to transmit at least one of signals, data, or electrical power between the first structural section and the second structural section, and two or more autonomous vehicle controllers including a first autonomous vehicle controller disposed within the first structural section, and a second autonomous vehicle controller disposed in the second structural section, the first autonomous vehicle controller being electrically coupled with the first propulsion unit, the first steering unit, and the first sensor unit, the second autonomous vehicle controller being electrically coupled with the second propulsion unit, the second steering unit, and the second sensor unit, wherein the first sensor unit comprises at least one of a lidar sensor, an image sensor, or a radar sensor, and the second sensor unit comprises at least one of a lidar sensor, an image sensor, or a radar sensor.
Gas burner consisting of a burner pipe , in which gas is supplied and which is provided with a row of linearly arranged perforations that allow the gas through to a burner chamber , wherein the burner chamber is surrounded by a premounted air chamber , which is connected to the burner chamber by means of air slots , and whereby the air supply through the air slots is controlled by a device that blows in or draws in air through the premounted air chamber , characterised in that the gas burner comprises an ignition mechanism to ignite the gas electrically and in that the burner pipe is provided on the inside with a gas distribution pipe in order to evenly distribute the gas supply over the entire row of perforations , and in that the air slots are oblique with respect to the longitudinal axis of the burner pipe at an angle between 10° and 80°
An antenna comprising: a substrate; a ground plane on a first face of the substrate; and a patch antenna on an opposing second face of the substrate, the patch antenna having a radiating element and a lead extending along a central symmetry axis of the patch antenna and connected to the radiating element, wherein the radiating element comprises an inner rectangular region and two slots positioned outside of the inner rectangular region and on opposing sides of the central symmetry axis such that the patch antenna has two resonant frequencies within an operating frequency range of the patch antenna, wherein the inner rectangular region has the same length along the central symmetry axis as the radiating element, characterized in that the two slots are provided within respective loops each having a length along the central symmetry axis that is longer than the length of the inner rectangular region, and each of the two slots having a length longer than the length of the inner rectangular region. a substrate; a ground plane on a first face of the substrate; and a patch antenna on an opposing second face of the substrate, the patch antenna having a radiating element and a lead extending along a central symmetry axis of the patch antenna and connected to the radiating element, wherein the radiating element comprises an inner rectangular region and two slots positioned outside of the inner rectangular region and on opposing sides of the central symmetry axis such that the patch antenna has two resonant frequencies within an operating frequency range of the patch antenna, wherein the inner rectangular region has the same length along the central symmetry axis as the radiating element, characterized in that the two slots are provided within respective loops each having a length along the central symmetry axis that is longer than the length of the inner rectangular region, and each of the two slots having a length longer than the length of the inner rectangular region.
A maternal monitoring transducer that detects uterine activity, comprising: - a housing , - a substrate board formed as a PCB , disposed in the housing , said substrate board comprising a deflectable measurement section , which is integrally formed in the substrate board , and circuitry components , and - a displacement measurement arrangement arranged as an integrated component of the substrate board and comprising a displacement-sensitive structure that is arranged to detect deformations of the deflectable measurement section of the substrate board , wherein the maternal monitoring transducer is arranged to supply a maternal uterine-activity indicative signal based on the detected deformations, and the maternal monitoring transducer characterised in that the displacement-sensitive structure of the displacement measurement arrangement is embedded in the substrate board . - a housing , - a substrate board formed as a PCB , disposed in the housing , said substrate board comprising a deflectable measurement section , which is integrally formed in the substrate board , and circuitry components , and - a displacement measurement arrangement arranged as an integrated component of the substrate board and comprising a displacement-sensitive structure that is arranged to detect deformations of the deflectable measurement section of the substrate board , wherein the maternal monitoring transducer is arranged to supply a maternal uterine-activity indicative signal based on the detected deformations, and the maternal monitoring transducer characterised in that the displacement-sensitive structure of the displacement measurement arrangement is embedded in the substrate board .
Robot unit for a technical apparatus, having - a base via which the robot unit can be arranged on the technical apparatus, and having - a first member , which is pivot-mounted on the base , and - a second member , which is pivot-mounted on the base , wherein - the first member and the second member are each movable in one direction relative to a degree of freedom by means of a separate actuator , characterized in that - the first member and the second member are only movable together counter to the direction relative to the degree of freedom by means of a single counter actuator device , wherein - the robot unit comprises a plurality of fingers , which are arranged on the base , wherein each of the fingers comprises a plurality of members , of which the first member and the second member form identical finger parts of different fingers , wherein - all members respectively forming identical finger parts of different fingers are movable only in common by the counter actuator device and individually by respective actuators , and wherein - the counter actuator device comprises an arrangement of two coupled counter actuators , wherein a different movement of the fingers is made possible by a forward and/or contrary mobility of the counter actuators comprised in the counter actuator device . - a base via which the robot unit can be arranged on the technical apparatus, and having - a first member , which is pivot-mounted on the base , and - a second member , which is pivot-mounted on the base , wherein - the first member and the second member are each movable in one direction relative to a degree of freedom by means of a separate actuator , - the first member and the second member are only movable together counter to the direction relative to the degree of freedom by means of a single counter actuator device , wherein - the robot unit comprises a plurality of fingers , which are arranged on the base , wherein each of the fingers comprises a plurality of members , of which the first member and the second member form identical finger parts of different fingers , wherein - all members respectively forming identical finger parts of different fingers are movable only in common by the counter actuator device and individually by respective actuators , and wherein - the counter actuator device comprises an arrangement of two coupled counter actuators , wherein a different movement of the fingers is made possible by a forward and/or contrary mobility of the counter actuators comprised in the counter actuator device .
Expansion anchor, comprising an anchor bolt and an expansion sleeve which surrounds the anchor bolt , an expansion body for the expansion sleeve being provided on the anchor bolt , which expansion body is arranged at least partially in front of the expansion sleeve , and the expansion sleeve having, on the outside in a front region of the expansion sleeve , a first annular groove comprising a front flank and a rear flank , characterized in that , in at least one radial plane, the following applies to the width w 61 of the rear flank of the first annular groove : w 61 > 0.6 * d 60 / tan α max , where d 60 is the depth of the first annular groove in the at least one radial plane and α max is the maximum angle of inclination of the expansion body in the at least one radial plane. characterized in that , in at least one radial plane, the following applies to the width w 61 of the rear flank of the first annular groove : w 61 > 0.6 * d 60 / tan α max , where d 60 is the depth of the first annular groove in the at least one radial plane and α max is the maximum angle of inclination of the expansion body in the at least one radial plane.
A subscriber unit for wireless communications, comprising: a receiver configured to monitor control information in each of a plurality of first time intervals, wherein each of the plurality of first time intervals is equal to a slot and a second time interval is divided into the first time intervals and is defined by a plurality of slots; wherein the control information includes forward traffic channel allocation information and reverse traffic channel allocation information, and wherein the control information in each first time interval is received in less than or equal to a slot, the receiver configured to decode forward traffic data in at least one of the plurality of first time intervals in accordance with receiving forward traffic channel allocation information for the subscriber unit associated with at least one of the plurality of first time intervals; and a transmitter configured to transmit reverse traffic data in one of the plurality of first time intervals in accordance with the reverse traffic channel allocation information for the subscriber unit. a receiver configured to monitor control information in each of a plurality of first time intervals, wherein each of the plurality of first time intervals is equal to a slot and a second time interval is divided into the first time intervals and is defined by a plurality of slots; wherein the control information includes forward traffic channel allocation information and reverse traffic channel allocation information, and wherein the control information in each first time interval is received in less than or equal to a slot, the receiver configured to decode forward traffic data in at least one of the plurality of first time intervals in accordance with receiving forward traffic channel allocation information for the subscriber unit associated with at least one of the plurality of first time intervals; and a transmitter configured to transmit reverse traffic data in one of the plurality of first time intervals in accordance with the reverse traffic channel allocation information for the subscriber unit.
Dispenser with a housing for replaceable refills of flowable products, which can be inserted upside down into a receiver of the housing , wherein the dispenser has a dispensing unit for a flowable product, characterized in that the receiver for the refill in the housing is mounted displaceable relative to the dispensing unit arranged in the housing .
Articulated-arm control for the articulated arm of a concrete pump, wherein the articulated arm has a rotary pedestal which is rotatable about a vertical axis and at least two segments (4 - 7) which are pivotable about horizontal axes by means of articulations (B - E), wherein the rotary pedestal is movable about the vertical axis (A) by way of an actuator and the segments (4 - 7) are pivotable about the horizontal axes by way of actuators (14 - 17), wherein preferably sensors (18 - 21) for determining the angle of rotation of the rotary pedestal and for determining the angles of articulation of the articulations (B - E) are provided, wherein the articulated-arm control serves to control the actuators (14 - 17) and comprises a geometry control which from input values for a desired TCP movement generates a trajectory with desired values for the movement of the rotary pedestal and/or of the articulations (B - E), wherein the geometry control determines the trajectory by solving an optimisation problem, wherein the optimisation problem as target function minimises a deviation between the desired TCP movement and a TCP movement yielded by the trajectory in a physical model of the articulated arm, characterised in that in the optimisation problem a deformation of the articulated arm owing to its dead weight is taken into account, the physical model of the articulated arm taking into account a deformation of the articulated arm owing to its dead weight. wherein the articulated-arm control serves to control the actuators (14 - 17) and comprises a geometry control which from input values for a desired TCP movement generates a trajectory with desired values for the movement of the rotary pedestal and/or of the articulations (B - E), wherein the geometry control determines the trajectory by solving an optimisation problem, wherein the optimisation problem as target function minimises a deviation between the desired TCP movement and a TCP movement yielded by the trajectory in a physical model of the articulated arm, characterised in that in the optimisation problem a deformation of the articulated arm owing to its dead weight is taken into account, the physical model of the articulated arm taking into account a deformation of the articulated arm owing to its dead weight.