mhurhangee/ep-ind-claims huggingface dataset:
An axle assembly comprising: an axle housing that includes: a drop gear housing portion; a center portion that extends from the drop gear housing portion and an arm portion that extends from the center portion and is configured to receive an axle shaft; an electric motor module; and a countershaft transmission module, characterized in that the drop gear housing portion defines a first mounting flange; in that the center portion defines a second mounting flange; in that the electric motor module is mounted to the first mounting flange; in that the countershaft transmission module is mounted to the second mounting flange; and in that the drop gear housing portion includes a connecting wall that extends from the first mounting flange to an end wall of the center portion and the connecting wall has a first arcuate portion that is radially disposed with respect to a first axis and a second arcuate portion that is radially disposed with respect to a countershaft axis that is disposed substantially parallel to the first axis. an axle housing that includes: a drop gear housing portion; a center portion that extends from the drop gear housing portion and an arm portion that extends from the center portion and is configured to receive an axle shaft; a drop gear housing portion; a center portion that extends from the drop gear housing portion and an arm portion that extends from the center portion and is configured to receive an axle shaft; an electric motor module; and a countershaft transmission module, characterized in that the drop gear housing portion defines a first mounting flange; in that the center portion defines a second mounting flange; in that the electric motor module is mounted to the first mounting flange; in that the countershaft transmission module is mounted to the second mounting flange; and in that the drop gear housing portion includes a connecting wall that extends from the first mounting flange to an end wall of the center portion and the connecting wall has a first arcuate portion that is radially disposed with respect to a first axis and a second arcuate portion that is radially disposed with respect to a countershaft axis that is disposed substantially parallel to the first axis.
A monoclonal antibody, or a divalent functional fragment thereof containing at least its 6 CDRs and its hinge region, capable to inhibit the c-Met dimerization, said antibody comprising a heavy chain comprising the amino acid sequence SEQ ID No. 37 and a light chain comprising the amino acid sequence SEQ ID No. 40, for use for the prevention or the treatment of a cancer characterized by overexpression of c-Met resulting from genic amplification of c-Met, and wherein said cancer is selected from the group consisting of renal cell carcinoma and gastric cancer.
A rotor blade assembly for a wind turbine, the rotor blade assembly comprising: a rotor blade having exterior surfaces defining a pressure side, a suction side, a leading edge, and a trailing edge each extending in a generally span-wise direction between an inboard region and an outboard region, the inboard region comprising a rounded trailing edge; opposing airflow separation elements, wherein one of the airflow separation elements is configured on the pressure side and the other airflow separation element is configured on the suction side, and the opposing airflow separation elements being within the inboard region and adjacent to the rounded trailing edge, wherein the opposing airflow separation elements correspond to a contour of the pressure side and the suction side of the rotor blade, and wherein an edge of the opposing airflow separation elements is configured to provide a fixed airflow separation operation in the inboard region during standard operation, characterized in that the opposing airflow separation elements comprise at least one or more airflow separation anchors, wherein the one or more airflow separation anchors comprise a proximal end and a distal end, the proximal and distal ends (105, 107) being fixed to at least one of the pressure side or the suction side of the rotor blade, wherein the rounded trailing edge extends beyond the airflow separation anchor in a generally chord-wise direction. a rotor blade having exterior surfaces defining a pressure side, a suction side, a leading edge, and a trailing edge each extending in a generally span-wise direction between an inboard region and an outboard region, the inboard region comprising a rounded trailing edge; opposing airflow separation elements, wherein one of the airflow separation elements is configured on the pressure side and the other airflow separation element is configured on the suction side, and the opposing airflow separation elements being within the inboard region and adjacent to the rounded trailing edge, wherein the opposing airflow separation elements correspond to a contour of the pressure side and the suction side of the rotor blade, and wherein an edge of the opposing airflow separation elements is configured to provide a fixed airflow separation operation in the inboard region during standard operation, characterized in that the opposing airflow separation elements comprise at least one or more airflow separation anchors, wherein the one or more airflow separation anchors comprise a proximal end and a distal end, the proximal and distal ends (105, 107) being fixed to at least one of the pressure side or the suction side of the rotor blade, wherein the rounded trailing edge extends beyond the airflow separation anchor in a generally chord-wise direction.
A device for locking a windshield wiper to a drive arm, characterized in that it comprises electrical means (4,4',29) able to drive a reversible movement of at least one locking element (3,5,9,17,19) secured to the arm or to the wiper, said at least one locking element (3,5,9,17,19) moving relative to the arm or to the wiper to which it is secured between an unlocked position in which said at least one locking element (3,5,9,17,19) is secured only to the arm or to the wiper and a locked position in which said at least one element (3,5,9,17,19) is secured to the arm and to the wiper.
A method for executing a code sequence on a security module, the code sequence comprising codes to be replaced and codes to be interpreted, having the following steps: a) temporarily replacing a respective code to be replaced by a partial code sequence (CS') that comprises at least one code having an interpretable code value, the replacement taking place in dependence on the code value of the code to be replaced, and b) interpreting the codes to be interpreted in the code sequence and in the partial code sequence (CS') with the aid of interpretation information (ITab) for code values; characterized in that in the replacement step, the partial code sequence (CS') for the code value of the code to be replaced is additionally produced in dependence on a piece of selection information, that, for the same code value, different partial code sequences (CS') are producible in dependence on the piece of selection information, and that the piece of selection information is associated with the code sequence and is dependent on: - which code type the code sequence belongs to; and/or - which memory location in the security module the code sequence is stored at; and/or - which application and/ or which packet and/ or which method the code sequence belongs to; and/or - which code publisher the code sequence originates from; and/ or - which security level the code sequence is associated with. a) temporarily replacing a respective code to be replaced by a partial code sequence (CS') that comprises at least one code having an interpretable code value, the replacement taking place in dependence on the code value of the code to be replaced, and b) interpreting the codes to be interpreted in the code sequence and in the partial code sequence (CS') with the aid of interpretation information (ITab) for code values; - which code type the code sequence belongs to; and/or - which memory location in the security module the code sequence is stored at; and/or - which application and/ or which packet and/ or which method the code sequence belongs to; and/or - which code publisher the code sequence originates from; and/ or - which security level the code sequence is associated with.
A device for fastening a rail on a track support having a lateral shoulder, the device being of the type comprising a lateral abutment interposed between said shoulder and the edge of a rail flange, a spring fastening, generally in the form of a deformable plate bearing between the shoulder and said flange, and anchor means fastened to said support, passing through said fastening and bearing against said spring fastening, wherein said lateral abutment rests on said support and includes at its top portion a contact zone for said spring fastening, which zone is essentially located between said lateral shoulder and a vertical plane parallel to the rail and containing an axis of said anchor means, the device being characterized by a pad of electrically insulating material interposed under said spring fastening between said rail flange and said shoulder, and via which the spring fastening is suitable for bearing between the shoulder and said flange.
A predictive system for a ball-ramp mechanism comprising a first plate to which an input shaft is coupled, a second plate to which an output shaft is coupled and a ball element which is disposable within complementary recesses in the first and second plates (43, 44), the predictive system comprising: a sensor disposed to sense a distance between the first and second plates (43, 44) in a dimension defined along a longitudinal axis of the input and output shafts (41, 42); and a processing system coupled to the sensor and configured to process readings of the sensor, to calculate whether the distance between the first and second plates (43, 44) is indicative of degradation or failure incidents based on the readings being processed and to determine whether an action should be taken based on a calculation result. a sensor disposed to sense a distance between the first and second plates (43, 44) in a dimension defined along a longitudinal axis of the input and output shafts (41, 42); and a processing system coupled to the sensor and configured to process readings of the sensor, to calculate whether the distance between the first and second plates (43, 44) is indicative of degradation or failure incidents based on the readings being processed and to determine whether an action should be taken based on a calculation result.
A semiconductor radiation detector comprising a detector element arranged to receive radiation in at least two non-parallel directions and to produce an output corresponding to the received radiation, wherein the detector comprises a three-dimensional semiconductor base material, wherein said detector element is arranged such that it forms a continuous radiation sensitive pn-junction with the semiconductor base material, wherein the detector element is provided on all sides of the semiconductor base material, and wherein the detector further comprises a first contact being in contact with a semiconductor base material region and a second contact being in contact with the detector element.
A communication system, comprising: at least one baseband controller (106A, 106B,... 106N) configured to process signals in a baseband frequency band; and at least one radio unit that is physically remote from the at least one baseband controller (106A, 106B,... 106N), wherein each radio unit comprises: a plurality of virtual radio units (VRUs) (104A, 104B,... 104M) in a physical housing of the respective radio unit, wherein each of the plurality of VRUs (104A, 104B,... 104M) is implemented in a different processing core of a programmable processor; a fronthaul interface configured to communicate with the at least one baseband controller (106A, 106B,... 106N) using a packet-based protocol on behalf of each VRU (104A, 104B,... 104M); wherein each VRU (104A, 104B,... 104M) implemented in the programmable processor has a unique internet protocol address, wherein each VRU is individually addressable using the respective IP address; and at least one radio frequency front end unit configured to transmit from and receive on behalf of each of the VRUs (104A, 104B,... 104M). at least one baseband controller (106A, 106B,... 106N) configured to process signals in a baseband frequency band; and at least one radio unit that is physically remote from the at least one baseband controller (106A, 106B,... 106N), wherein each radio unit comprises: a plurality of virtual radio units (VRUs) (104A, 104B,... 104M) in a physical housing of the respective radio unit, wherein each of the plurality of VRUs (104A, 104B,... 104M) is implemented in a different processing core of a programmable processor; a fronthaul interface configured to communicate with the at least one baseband controller (106A, 106B,... 106N) using a packet-based protocol on behalf of each VRU (104A, 104B,... 104M); wherein each VRU (104A, 104B,... 104M) implemented in the programmable processor has a unique internet protocol address, wherein each VRU is individually addressable using the respective IP address; and at least one radio frequency front end unit configured to transmit from and receive on behalf of each of the VRUs (104A, 104B,... 104M). a plurality of virtual radio units (VRUs) (104A, 104B,... 104M) in a physical housing of the respective radio unit, wherein each of the plurality of VRUs (104A, 104B,... 104M) is implemented in a different processing core of a programmable processor; a fronthaul interface configured to communicate with the at least one baseband controller (106A, 106B,... 106N) using a packet-based protocol on behalf of each VRU (104A, 104B,... 104M); wherein each VRU (104A, 104B,... 104M) implemented in the programmable processor has a unique internet protocol address, wherein each VRU is individually addressable using the respective IP address; and at least one radio frequency front end unit configured to transmit from and receive on behalf of each of the VRUs (104A, 104B,... 104M).
A positioning system for position determination in a goods logistics facility, comprising a plurality of permanently installed anchor nodes (A1..A5) that represent reference points in a common coordinate system, wherein the positioning system is configured to determine a distance from a first anchor node to at least one second anchor node, wherein the permanently installed anchor nodes (A1..A7) have each been assigned a position within the coordinate system and the positioning system is configured to measure the distance between a first anchor node and a second anchor node and to compare the measured distance value (dm) with a computed distance value (dc), the computed distance value (dc) being calculated from the assigned position of the first anchor node and the assigned position of the second anchor node within the coordinate system, characterized in that a deviation between the measured distance value (dm) and the computed distance value (dc) is defined as a plausibility criterion, and if the deviation exceeds a predetermined threshold value, the assigned position of the first and/or second anchor node (A6, A3) is classified as implausible.
An ultrasound imaging system for breast imaging, the system comprising: a user interface comprising a display; a processor operatively connected to the user interface; and memory comprising processor-executable instructions, which when executed by the processor cause the user interface to: display a first ultrasound image generated from breast imaging data on the display; receive an indication of a first region of interest in the first ultrasound image; display a second ultrasound image generated from the breast imaging data on the display; receive an indication of a second region of interest in the second ultrasound image, wherein the processor is configured to determine (504, 512) locations of the first and second regions of interest (ROIs) based on probe position data associated with the first and second images, respectively; and automatically provide a visual indication of proximity if a relative distance between the first and second ROIs is less than or equal to a predetermined amount or the first and second ROIs are located in a same breast quadrant. a user interface comprising a display; a processor operatively connected to the user interface; and memory comprising processor-executable instructions, which when executed by the processor cause the user interface to: display a first ultrasound image generated from breast imaging data on the display; receive an indication of a first region of interest in the first ultrasound image; display a second ultrasound image generated from the breast imaging data on the display; receive an indication of a second region of interest in the second ultrasound image, wherein the processor is configured to determine (504, 512) locations of the first and second regions of interest (ROIs) based on probe position data associated with the first and second images, respectively; and automatically provide a visual indication of proximity if a relative distance between the first and second ROIs is less than or equal to a predetermined amount or the first and second ROIs are located in a same breast quadrant. display a first ultrasound image generated from breast imaging data on the display; receive an indication of a first region of interest in the first ultrasound image; display a second ultrasound image generated from the breast imaging data on the display; receive an indication of a second region of interest in the second ultrasound image, wherein the processor is configured to determine (504, 512) locations of the first and second regions of interest (ROIs) based on probe position data associated with the first and second images, respectively; and automatically provide a visual indication of proximity if a relative distance between the first and second ROIs is less than or equal to a predetermined amount or the first and second ROIs are located in a same breast quadrant.
Method for bending a pane, wherein a. at least one pane (1, 2) is placed in a pre-bending ring with a movable bending ring holder, the pane (1, 2) is heated at least to roughly its softening temperature, and the pane (1, 2) is pre-bent in the pre-bending ring to 5 % to 50 % of the final bend of the edge, b. the pre-bent pane (1, 2) is lifted out of the pre-bending ring by a suction device and is further bent beyond the bending obtained in the pre-bending ring, wherein during the bending on a bent contact surface of a counter framework of the suction device, there is a minimum distance of 3 mm to 50 mm between the pane and an air baffle of a cover of the suction device that surrounds the counter framework, c. the pane is placed by means of the suction device in a final bending ring on the movable bending ring holder, and the pane (1, 2) is bent to the final bend, and d. the pane (1, 2) is cooled in the final bending ring and the pane is bent by the suction device to 102 % to 130 % of the final bend of the edge. a. at least one pane (1, 2) is placed in a pre-bending ring with a movable bending ring holder, the pane (1, 2) is heated at least to roughly its softening temperature, and the pane (1, 2) is pre-bent in the pre-bending ring to 5 % to 50 % of the final bend of the edge, b. the pre-bent pane (1, 2) is lifted out of the pre-bending ring by a suction device and is further bent beyond the bending obtained in the pre-bending ring, wherein during the bending on a bent contact surface of a counter framework of the suction device, there is a minimum distance of 3 mm to 50 mm between the pane and an air baffle of a cover of the suction device that surrounds the counter framework, c. the pane is placed by means of the suction device in a final bending ring on the movable bending ring holder, and the pane (1, 2) is bent to the final bend, and d. the pane (1, 2) is cooled in the final bending ring and the pane is bent by the suction device to 102 % to 130 % of the final bend of the edge.
Electrodynamic sound transducer for headphones, having a chassis with an inner open end and an outer end, a membrane with a hole in a center of the membrane and a bobbin, wherein the membrane is fixed at the inner open end and at the outer end, a coil, which is coupled to the membrane at the bobbin, a magnet system and a resonator, which is arranged within the inner open end of the chassis and in the hole in the center of the membrane, wherein the resonator has a first end with an opening at an ear side end of the electrodynamic sound transducer and a second end at an end of the electrodynamic sound transducer away from the ear, and a volume between the first and second end (210,230), wherein the second end is closed, wherein the resonator is dimensioned such that a resonance frequency matches a standing wave generated between the sound emitting electrodynamic sound transducer and a head plane of a user, wherein the standing wave has a frequency between 5 kHz and 8 kHz. a chassis with an inner open end and an outer end, a membrane with a hole in a center of the membrane and a bobbin, wherein the membrane is fixed at the inner open end and at the outer end, a coil, which is coupled to the membrane at the bobbin, a magnet system and a resonator, which is arranged within the inner open end of the chassis and in the hole in the center of the membrane, wherein the resonator has a first end with an opening at an ear side end of the electrodynamic sound transducer and a second end at an end of the electrodynamic sound transducer away from the ear, and a volume between the first and second end (210,230), wherein the second end is closed, wherein the resonator is dimensioned such that a resonance frequency matches a standing wave generated between the sound emitting electrodynamic sound transducer and a head plane of a user, wherein the standing wave has a frequency between 5 kHz and 8 kHz.
A honeycomb filter including porous partition walls which define a plurality of cells as through channels of a fluid, first cells opened in one end of the filter and plugged in the other end thereof and second cells plugged in the one end and opened in the other end being alternately arranged, the fluid flowing into the one end of the filter where the first cells open being passed through the partition walls and being discharged as the passed fluid into the second cells, the passed fluid being discharged from the other end of the filter where the second cells open, wherein each cross-sectional area of the first cells is larger than that of the second cells in a cross section cut along a plane perpendicular to the longitudinal direction of the cells, the first cells and the second cells are alternately arranged in a first direction and a second direction perpendicular to the first direction in the cross section cut along the plane perpendicular to the longitudinal direction of the cells, and the thickness of a 1-1 wall between the adjacent first cells is larger than that of a 1-2 wall between each first cell and the second cell adjacent to the first cell; and wherein the thicknesses of the walls between the cells satisfy the following formula: 1 < Rib 1 − 1 / Rib 1 − 2 < 1.175 in which Rib 1-1 is the thickness of the 1-1 wall between the adjacent first cells and Rib 1-2 is the thickness of the 1-2 wall between the first cell and the second cell adjacent to the first cell.