mhurhangee/ep-ind-claims huggingface dataset:
Motorcycle, comprising: a frame; an engine provided under the frame; a seat provided above the frame; a storage box provided in a position higher than the engine and under the seat; and a fuel tank provided behind the storage box, wherein the storage box comprises a storage case with an opening at its upper end, a first storage room provided at an upper part of the storage case, a second storage room provided under the first storage room in the storage case and separated from the first storage room, wherein the frame has a front frame extending obliquely downward from a front to a back of the motorcycle and a rear frame extending obliquely upward from the front frame to the back, the front frame and the rear frame are arranged in a V-shape when seen in a side view, characterized by a Global Positioning System unit including at least an antenna and provided in the second storage room, wherein the Global Positioning System unit is provided near the bottom of the V-shape, and the the antenna is provided in a position equal to or higher than the rear frame, when seen in a side view. a frame; an engine provided under the frame; a seat provided above the frame; a storage box provided in a position higher than the engine and under the seat; and a fuel tank provided behind the storage box, wherein the storage box comprises a storage case with an opening at its upper end, a first storage room provided at an upper part of the storage case, a second storage room provided under the first storage room in the storage case and separated from the first storage room, wherein the frame has a front frame extending obliquely downward from a front to a back of the motorcycle and a rear frame extending obliquely upward from the front frame to the back, the front frame and the rear frame are arranged in a V-shape when seen in a side view, characterized by a Global Positioning System unit including at least an antenna and provided in the second storage room, wherein the Global Positioning System unit is provided near the bottom of the V-shape, and the the antenna is provided in a position equal to or higher than the rear frame, when seen in a side view.
A multi-function bracket for use in a motor vehicle door comprising: - an elongated guide member defining a slot configured to guide a window pane; - a handle-chassis bracket extending from the elongated guide member; - a slider (108a, 108b) including a first portion and a second portion, wherein the first portion is configured to receive a handle chassis (104a, 104b); and - a compressible member (110a, 110b; 116) coupled to the second portion of the slider and having a compressed state and an uncompressed state, wherein the slider translates towards the handle-chassis bracket when the compressible member changes from the uncompressed state to the compressed state; wherein the compressible member (110a, 110b; 116) is disposed between the handle-chassis bracket and the second portion of the slider; and wherein the compressible member defines an aperture that is configured to receive a protrusion that extends from the handle-chassis bracket. - an elongated guide member defining a slot configured to guide a window pane; - a handle-chassis bracket extending from the elongated guide member; - a slider (108a, 108b) including a first portion and a second portion, wherein the first portion is configured to receive a handle chassis (104a, 104b); and - a compressible member (110a, 110b; 116) coupled to the second portion of the slider and having a compressed state and an uncompressed state, wherein the slider translates towards the handle-chassis bracket when the compressible member changes from the uncompressed state to the compressed state; wherein the compressible member (110a, 110b; 116) is disposed between the handle-chassis bracket and the second portion of the slider; and wherein the compressible member defines an aperture that is configured to receive a protrusion that extends from the handle-chassis bracket. wherein the slider translates towards the handle-chassis bracket when the compressible member changes from the uncompressed state to the compressed state; wherein the compressible member (110a, 110b; 116) is disposed between the handle-chassis bracket and the second portion of the slider; and wherein the compressible member defines an aperture that is configured to receive a protrusion that extends from the handle-chassis bracket.
Electrical connector that is intended to electrically connect two electrical conductors (112, 123) together, the electrical connector including: - a body; - a first contact that is attached to the body and intended to make contact with the first electrical conductor; - a second contact that is attached to the body and intended to make contact with the second electrical conductor, said second contact including two clamps (136, 138); - a system (142, 144) for attaching the electrical connector to the second electrical conductor, the attachment system (142, 144) being distinct from the second contact; said attachment system (142, 144) including at least one hook (142, 144) that is attached to the body and intended to engage with a cavity made in the second electrical conductor in order to hold the electrical connector in place on the second electrical connector, said hook (142, 144) being located between the two clamps (136, 138). - a body; - a first contact that is attached to the body and intended to make contact with the first electrical conductor; - a second contact that is attached to the body and intended to make contact with the second electrical conductor, said second contact including two clamps (136, 138); - a system (142, 144) for attaching the electrical connector to the second electrical conductor, the attachment system (142, 144) being distinct from the second contact;
A coordination hole apparatus comprising: a positioning table comprising a moveable portion, the positioning table allowing movement of the moveable portion along one or more axes; a clamping device affixed to said positioning table for securing said positioning table to a part; characterised in that the apparatus is laser-guided, the apparatus further comprising: a bushing cavity defined by the moveable portion; and a removable laser target positioned in said bushing cavity to determine the position of the bushing cavity relative to a desired coordination hole and removable from the bushing cavity once in position such that a suitable sized tool may be received in the bushing cavity to drill the part. a positioning table comprising a moveable portion, the positioning table allowing movement of the moveable portion along one or more axes; a clamping device affixed to said positioning table for securing said positioning table to a part; characterised in that the apparatus is laser-guided, the apparatus further comprising: a bushing cavity defined by the moveable portion; and a removable laser target positioned in said bushing cavity to determine the position of the bushing cavity relative to a desired coordination hole and removable from the bushing cavity once in position such that a suitable sized tool may be received in the bushing cavity to drill the part. a bushing cavity defined by the moveable portion; and a removable laser target positioned in said bushing cavity to determine the position of the bushing cavity relative to a desired coordination hole and removable from the bushing cavity once in position such that a suitable sized tool may be received in the bushing cavity to drill the part.
Composition comprising A) at least one peptidase, B) at least one biosurfactant selected from the group comprising rhamnolipids and sophorolipids, C) at least one anionic surfactant and D) water, characterized in that the peptidase is selected from the group of the metalloproteases of EC 3.4.24. A) at least one peptidase, B) at least one biosurfactant selected from the group comprising rhamnolipids and sophorolipids, C) at least one anionic surfactant and D) water,
Method for monitoring an object in the environment of an aircraft on the ground, having the steps of: spatially allocating (S0a) at least one communication device to the aircraft, determining relative spatial allocation information relating to the at least one communication device spatially allocated to the aircraft with respect to the aircraft, transmitting a communication signal between a communication device arranged on the object and the at least one communication device spatially allocated to the aircraft on the ground, and determining spatial location information relating to the object on the basis of the transmitted communication signal and the determined relative spatial allocation information. spatially allocating (S0a) at least one communication device to the aircraft, determining relative spatial allocation information relating to the at least one communication device spatially allocated to the aircraft with respect to the aircraft, transmitting a communication signal between a communication device arranged on the object and the at least one communication device spatially allocated to the aircraft on the ground, and determining spatial location information relating to the object on the basis of the transmitted communication signal and the determined relative spatial allocation information.
A composition comprising one or more polymers of formulae,, or:, wherein: each X is independently selected from the group consisting of and each Y is independently selected from the group consisting of and each Z is independently selected from the group consisting of-H, and benzyl, where each R' is independently H, halo, C1-C20 alkyl, or cyano, each R is independently selected from the group consisting of: and each L is independently selected from the group consisting of: -CH 2 -, -(CH 3) 2 C-, -O- -S-, -SO 2 -, and -CO-, each Q is independently selected from the group consisting of: -S-, -SO 2 - or-(CF 3) 2 C-, -O-, and -(CH 3) 2 C-, each j is independently a positive integer, each m is independently a positive integer, each n is independently a positive integer, each p is independently a positive integer, and each q is independently a positive integer. each X is independently selected from the group consisting of and each Y is independently selected from the group consisting of and each Z is independently selected from the group consisting of-H, and benzyl, where each R' is independently H, halo, C1-C20 alkyl, or cyano, each R is independently selected from the group consisting of: and each L is independently selected from the group consisting of: -CH 2 -, -(CH 3) 2 C-, -O- -S-, -SO 2 -, and -CO-, each Q is independently selected from the group consisting of: -S-, -SO 2 - or-(CF 3) 2 C-, -O-, and -(CH 3) 2 C-, each j is independently a positive integer, each m is independently a positive integer, each n is independently a positive integer, each p is independently a positive integer, and each q is independently a positive integer.
Hemi-prosthesis implant, with a joint replacement part (108, 306) with an articulation surface (206, 408) for sliding pairing with a joint surface of a natural joint counterpart, wherein the articulation surface (206, 408) is formed with a coating (208, 410) applied to a substrate (204, 406), and wherein the substrate (204, 406) has a relief (220, 428) for adhesion of the coating (208, 410), characterised in that formed in a recess of the relief there is a venting bore leading into the substrate (702, 706) and/or a venting groove leading away from the recess.
Device for measuring and monitoring tools of a machine tool, wherein the machine tool has a spindle shaft, arranged in a spindle housing, for the tool, wherein an electrically conductive workpiece is able to be machined by way of the tool, wherein the spindle shaft is electrically insulated from the spindle housing, having - a measurement and monitoring system, wherein the measurement and monitoring system measures at least one electrical measured variable dependent on the state of contact between the tool and the workpiece, wherein - a rotary transmitter makes contact with and is electrically connected to the rotating spindle shaft in order to measure the measured variable able to be recorded between the tool and the workpiece, wherein the rotary transmitter is connected in an electrically insulated manner to the spindle housing, characterized in that the measurement and monitoring system has at least one first bleeder resistor that is able to be activated in a state in which the measurement and monitoring system is not measuring such that electrostatic charges are able to be diverted away from the spindle shaft. - a measurement and monitoring system, wherein the measurement and monitoring system measures at least one electrical measured variable dependent on the state of contact between the tool and the workpiece, wherein - a rotary transmitter makes contact with and is electrically connected to the rotating spindle shaft in order to measure the measured variable able to be recorded between the tool and the workpiece,
Motor vehicle comprising a sensor assembly for 360° detection of the surroundings of the motor vehicle, wherein the sensor assembly has multiple sensors of the same type, wherein each of the multiple sensors respectively has a specified detection region, and the sensors are distributed over the exterior of the motor vehicle such that the detection regions provide a complete detection region which covers a region of the surroundings in a complete angle around the motor vehicle at a specified distance from the motor vehicle, wherein the sensors are designed to detect the surroundings in their respective detection region as respective sensor data in respective successive synchronised time increments, wherein the sensor assembly has a pre-processing device which is configured in such a way that only the sensor data of the sensors of the same type for a respective same time increment are merged by the pre-processing device and a three-dimensional image, represented in a common database, of the region of the surroundings is generated from the merged sensor data, wherein at least two of the detection regions of the sensors overlap, whereby an overlap region is provided, characterised in that respective measurement uncertainties are provided for the sensor data as a function of an angular error with respect to a sensor main axis of the respective sensor, wherein the pre-processing device is designed to carry out a comparison of the sensor data detected by respective sensors in the overlap region, and wherein the pre-processing device is designed, on the basis of the comparison, - to carry out a sensor data correction, and to average, for the sensor data correction, the sensor data relating to a same local area of the surroundings and detected by two respective sensors, of the same type, with a weighting depending on their respective measurement uncertainties; and/or - to carry out a measurement uncertainty correction which assigns a measurement uncertainty, reduced compared to the measurement uncertainties provided, to sensor data detected redundantly in the overlap region; or - to carry out a correction relating to an existence probability, which concerns the existence of objects in the surroundings, taking into account the correctable measurement uncertainties. - to carry out a sensor data correction, and to average, for the sensor data correction, the sensor data relating to a same local area of the surroundings and detected by two respective sensors, of the same type, with a weighting depending on their respective measurement uncertainties; and/or - to carry out a measurement uncertainty correction which assigns a measurement uncertainty, reduced compared to the measurement uncertainties provided, to sensor data detected redundantly in the overlap region; or - to carry out a correction relating to an existence probability, which concerns the existence of objects in the surroundings, taking into account the correctable measurement uncertainties.
A semiconductor module, comprising: at least two electrically insulating substrates (101a, 101b), each having a first main surface (102a, 102b) and a second main surface (103a, 103b) opposite to the first main surface (102a, 102b), for each of the substrates (101a, 101b), at least one semiconductor device mounted on the first main surface (102a, 102b) of the corresponding substrate (101a, 101b), an external terminal connected to the first main surface (102a, 102b) of at least one of the substrates (101a, 101b), wherein either: the external terminal is formed as a lead frame connected to the at least two substrates (101a, 101b); or the external terminal is formed as two separate lead frames (320a, 320b), each connected to one of the at least two substrates (301a, 301b), wherein the substrates (101a, 101b) are arranged spaced apart and opposite to each other so that their first main surfaces (102a, 102b) are facing each other, wherein the at least two substrates (401a, 401b; 501a, 501b) are electrically interconnected by means of an internal lead frame or by means of internal pins, and wherein the semiconductor module further comprises a printed circuit board including controllers and/or drivers for the semiconductor devices, wherein the printed circuit board is arranged in the space between the at least two substrates (601a, 601b). at least two electrically insulating substrates (101a, 101b), each having a first main surface (102a, 102b) and a second main surface (103a, 103b) opposite to the first main surface (102a, 102b), for each of the substrates (101a, 101b), at least one semiconductor device mounted on the first main surface (102a, 102b) of the corresponding substrate (101a, 101b), an external terminal connected to the first main surface (102a, 102b) of at least one of the substrates (101a, 101b), wherein either: the external terminal is formed as a lead frame connected to the at least two substrates (101a, 101b); or the external terminal is formed as two separate lead frames (320a, 320b), each connected to one of the at least two substrates (301a, 301b), wherein the substrates (101a, 101b) are arranged spaced apart and opposite to each other so that their first main surfaces (102a, 102b) are facing each other, wherein the at least two substrates (401a, 401b; 501a, 501b) are electrically interconnected by means of an internal lead frame or by means of internal pins, and wherein the semiconductor module further comprises a printed circuit board including controllers and/or drivers for the semiconductor devices, wherein the printed circuit board is arranged in the space between the at least two substrates (601a, 601b).
A polycarbonate composition comprising: a. from 35 wt% to 60 wt% of a first polycarbonate component, wherein the first polycarbonate component comprises a polycarbonate terpolymer comprising monomer units of isosorbide, bisphenol A, and resorcinol; b. from greater than 0 wt% to 20 wt% of a second polycarbonate component, wherein the second polycarbonate component comprises a polycarbonate polymer comprising monomer units of bisphenol A; c. from greater than 0 wt% to 10 wt% of a third polycarbonate component, wherein the third polycarbonate component comprises a polycarbonate homopolymer of bisphenol A; d. from 10 wt% to 17 wt% of an acrylonitrile-butadiene-styrene copolymer ("ABS"); and e. 15 w% to 25 wt% of polymethylmethacrylate ("PMMA") or polylactic acid ("PLA"). a. from 35 wt% to 60 wt% of a first polycarbonate component, wherein the first polycarbonate component comprises a polycarbonate terpolymer comprising monomer units of isosorbide, bisphenol A, and resorcinol; b. from greater than 0 wt% to 20 wt% of a second polycarbonate component, wherein the second polycarbonate component comprises a polycarbonate polymer comprising monomer units of bisphenol A; c. from greater than 0 wt% to 10 wt% of a third polycarbonate component, wherein the third polycarbonate component comprises a polycarbonate homopolymer of bisphenol A; d. from 10 wt% to 17 wt% of an acrylonitrile-butadiene-styrene copolymer ("ABS"); and e. 15 w% to 25 wt% of polymethylmethacrylate ("PMMA") or polylactic acid ("PLA").
A humidification and air cleaning apparatus comprising: a water tank for storing water; a top cover assembly disposed over the water tank, wherein the top cover assembly comprises a water supply flow passage disposed therein to supply water into the water tank; a watering housing disposed inside the water tank, characterized in that: the watering housing is arranged below the water supply flow passage to let water supplied through the water supply flow passage drop onto an upper part of the watering housing; and wherein the humidification and air cleaning apparatus further comprises: a reservoir disposed in the top cover assembly at the water supply flow passage to store supplied water, wherein the reservoir has a water outlet to discharge water stored in the reservoir, the watering housing being disposed under the water outlet. a water tank for storing water; a top cover assembly disposed over the water tank, wherein the top cover assembly comprises a water supply flow passage disposed therein to supply water into the water tank; a watering housing disposed inside the water tank, characterized in that: the watering housing is arranged below the water supply flow passage to let water supplied through the water supply flow passage drop onto an upper part of the watering housing; and wherein the humidification and air cleaning apparatus further comprises: a reservoir disposed in the top cover assembly at the water supply flow passage to store supplied water, wherein the reservoir has a water outlet to discharge water stored in the reservoir, the watering housing being disposed under the water outlet. the watering housing is arranged below the water supply flow passage to let water supplied through the water supply flow passage drop onto an upper part of the watering housing; and wherein the humidification and air cleaning apparatus further comprises: a reservoir disposed in the top cover assembly at the water supply flow passage to store supplied water, wherein the reservoir has a water outlet to discharge water stored in the reservoir, the watering housing being disposed under the water outlet.
A method in a wireless local area network, LAN, system, comprising: generating, by a transmitting apparatus, a short training field, STF, signal; and transmitting, by the transmitting apparatus, the STF signal to a receiving apparatus via 40 MHz band, wherein the STF signal is generated based on an STF sequence defined as shown below: {M, -1, -M, 0, M, -1, M} ∗ (1+j)/sqrt, wherein sqrt() denotes a square root, "j" denotes an imaginary number, and "*" denotes multiplication, and wherein the M sequence is defined as shown below: M = − 1, − 1, − 1, 1, 1, 1, − 1, 1, 1, 1, − 1, 1, 1, − 1, 1. generating, by a transmitting apparatus, a short training field, STF, signal; and transmitting, by the transmitting apparatus, the STF signal to a receiving apparatus via 40 MHz band, wherein the STF signal is generated based on an STF sequence defined as shown below: {M, -1, -M, 0, M, -1, M} ∗ (1+j)/sqrt, wherein sqrt() denotes a square root, "j" denotes an imaginary number, and "*" denotes multiplication, and wherein the M sequence is defined as shown below: M = − 1, − 1, − 1, 1, 1, 1, − 1, 1, 1, 1, − 1, 1, 1, − 1, 1. {M, -1, -M, 0, M, -1, M} ∗ (1+j)/sqrt, wherein sqrt() denotes a square root, "j" denotes an imaginary number, and "*" denotes multiplication, and wherein the M sequence is defined as shown below: M = − 1, − 1, − 1, 1, 1, 1, − 1, 1, 1, 1, − 1, 1, 1, − 1, 1.