mhurhangee/ep-ind-claims huggingface dataset:
An electrical connection comprising a crimp terminal and an aluminum electric cable, comprising: a crimping part which is connected to a core wire of an aluminum electric cable by crimping; and a serration constituted by a groove formed in an inner surface (13a, 14a) of paired crimping pieces (14, 14) of the crimping part, characterized in that a serration constituted by a groove is additionally formed in the outer surfaces of the respective crimping pieces (14, 14) of the crimping part; and the paired crimping pieces (14, 14) of the crimping part crimping the core wire by being squeezed in a way that top ends of the paired crimping pieces (14, 14) enter a center portion of the core wire and are spaced from each other, aluminium strands situated in the center portion of the core wire are rubbed against the groove in the outer surfaces of the respective crimping pieces (14, 14). a crimping part which is connected to a core wire of an aluminum electric cable by crimping; and a serration constituted by a groove formed in an inner surface (13a, 14a) of paired crimping pieces (14, 14) of the crimping part, characterized in that a serration constituted by a groove is additionally formed in the outer surfaces of the respective crimping pieces (14, 14) of the crimping part; and the paired crimping pieces (14, 14) of the crimping part crimping the core wire by being squeezed in a way that top ends of the paired crimping pieces (14, 14) enter a center portion of the core wire and are spaced from each other, aluminium strands situated in the center portion of the core wire are rubbed against the groove in the outer surfaces of the respective crimping pieces (14, 14).
A box of a battery, comprising: an electrical chamber, configured to accommodate a plurality of battery cells, at least one battery cell of the plurality of battery cells comprising a pressure relief mechanism, and the pressure relief mechanism being configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; a thermal management component, configured to accommodate a fluid to adjust the temperature of the battery cell; and a collection chamber, configured to collect emissions discharged from the battery cell and passing through the thermal management component when the pressure relief mechanism is actuated, wherein the electrical chamber and the collection chamber are disposed on either side of the thermal management component, the thermal management component is configured to separate the electrical chamber and the collection chamber, a wall of the collection chamber is provided with a first pressure relief zone, and the first pressure relief zone is configured to relieve the emissions in the collection chamber. an electrical chamber, configured to accommodate a plurality of battery cells, at least one battery cell of the plurality of battery cells comprising a pressure relief mechanism, and the pressure relief mechanism being configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; a thermal management component, configured to accommodate a fluid to adjust the temperature of the battery cell; and a collection chamber, configured to collect emissions discharged from the battery cell and passing through the thermal management component when the pressure relief mechanism is actuated, wherein the electrical chamber and the collection chamber are disposed on either side of the thermal management component, the thermal management component is configured to separate the electrical chamber and the collection chamber, a wall of the collection chamber is provided with a first pressure relief zone, and the first pressure relief zone is configured to relieve the emissions in the collection chamber.
Drive system with an electric motor, a converter associated therewith and a hydraulic actuator actuable by way of an hydraulic pump, which is controlled by the electric motor, and a hydraulic fluid conducted in a hydraulic line (5a, 5b), wherein exactly one hydraulic actuator is associated with the converter and wherein the converter forms a monitoring unit by means of which monitoring of the state of components of the drive system can be performed, characterised in that when the electric motor is running without load and the hydraulic actuator is executing work processes, friction forces are detected by means of the converter in that a characteristic variable of the electric motor is measured, or that the rotational speed of the electric motor is modulated by means of the converter and state variables of hydraulic components of the drive system are detectable through detection of the influence of the rotational speed modulation on the torque of the electric motor, wherein the compressibility, viscosity and/or friction of the hydraulic fluid in the hydraulic lines (5a, 5b) is or are determined as state variables.
An organic photosensitive optoelectronic device comprising: two electrodes in superposed relation; a mixed photoactive layer located between the two electrodes, wherein the mixed photoactive layer comprises at least one donor material having a highest occupied molecular orbital (HOMO) energy and at least one acceptor material having a lowest unoccupied molecular orbital (LUMO) energy, wherein the at least one donor material and the at least one acceptor material form a mixed donor-acceptor heterojunction; a photoactive layer adjacent to and interfacing with the mixed photoactive layer, wherein the photoactive layer comprises a material having a LUMO energy within 0.3 eV of the LUMO energy of the at least one acceptor material; and a buffer layer adjacent to and interfacing with the mixed photoactive layer; characterised in that the buffer layer comprises a metal oxide; the photoactive layer has a thickness less than 10 nm; and the mixed photoactive layer comprises the at least one donor material and the at least one acceptor material at a donor:acceptor volume ratio ranging from 1:4 to 1:25. two electrodes in superposed relation; a mixed photoactive layer located between the two electrodes, wherein the mixed photoactive layer comprises at least one donor material having a highest occupied molecular orbital (HOMO) energy and at least one acceptor material having a lowest unoccupied molecular orbital (LUMO) energy, wherein the at least one donor material and the at least one acceptor material form a mixed donor-acceptor heterojunction; a photoactive layer adjacent to and interfacing with the mixed photoactive layer, wherein the photoactive layer comprises a material having a LUMO energy within 0.3 eV of the LUMO energy of the at least one acceptor material; and a buffer layer adjacent to and interfacing with the mixed photoactive layer; characterised in that the buffer layer comprises a metal oxide; the photoactive layer has a thickness less than 10 nm; and the mixed photoactive layer comprises the at least one donor material and the at least one acceptor material at a donor:acceptor volume ratio ranging from 1:4 to 1:25.
A method for manufacturing a multilayer tag comprising an RFID tag integrated between several substrate layers, with said method comprising the following steps: - attaching a first conductive layer onto a main surface of a first substrate; - attaching a second conductive layer onto a first main outer surface of a second substrate; - attaching the RFID chip onto the first conductive layer of said first substrate; characterized by the following steps: - placing at least one resin layer on a second main surface of the second substrate; - positioning the first substrate so that the chip is inserted between the first conductive layer of said first substrate, and the second main surface opposite the first main outer surface of said second substrate, so as to form a multilayer assembly; - pressing, heating and creating an air space in said assembly so as to enable said resin layer to fill the voids resulting from the surface porosity of the inner surfaces of the first and second substrates (1, 2); - reducing the temperature so as to secure said multilayer assembly thus formed. - attaching a first conductive layer onto a main surface of a first substrate; - attaching a second conductive layer onto a first main outer surface of a second substrate; - attaching the RFID chip onto the first conductive layer of said first substrate; - placing at least one resin layer on a second main surface of the second substrate; - positioning the first substrate so that the chip is inserted between the first conductive layer of said first substrate, and the second main surface opposite the first main outer surface of said second substrate, so as to form a multilayer assembly; - pressing, heating and creating an air space in said assembly so as to enable said resin layer to fill the voids resulting from the surface porosity of the inner surfaces of the first and second substrates (1, 2); - reducing the temperature so as to secure said multilayer assembly thus formed.
A circuit comprising: a signal processing part configured to perform a signal processing; an amplification part configured to amplify a signal output from the signal processing part; a first power supply path connected from a battery to the signal processing part; a second power supply path connected from the battery to the amplification part; characterized by further comprising: a capacitor connected to the second power supply path and that assists power supplied to the amplification part; and a power limiting part connected to the second power supply path and that limits input power supplied from the battery to the amplification part. a signal processing part configured to perform a signal processing; an amplification part configured to amplify a signal output from the signal processing part; a first power supply path connected from a battery to the signal processing part; a second power supply path connected from the battery to the amplification part; characterized by further comprising: a capacitor connected to the second power supply path and that assists power supplied to the amplification part; and a power limiting part connected to the second power supply path and that limits input power supplied from the battery to the amplification part. a capacitor connected to the second power supply path and that assists power supplied to the amplification part; and a power limiting part connected to the second power supply path and that limits input power supplied from the battery to the amplification part.
Method for operating an electronic display apparatus that is wearable on the head, in which a relative movement of the electronic display apparatus in relation to a vehicle interior of a vehicle is ascertained by a detection apparatus arranged on the electronic display apparatus and a virtual perspective of a wearer of the electronic display apparatus, the wearer being located in the vehicle interior, is adapted to displayed virtual content in accordance with the relative movement ascertained, wherein a contour of the vehicle interior is also detected by the detection apparatus, wherein a pair of virtual-reality glasses is used as the electronic display apparatus, characterised in that a virtual contour corresponding to the contour of the vehicle interior is displayed, and a game is displayed by means of the electronic display apparatus and the virtual contour corresponding to the contour of the vehicle interior is adapted to a present scene of the game, wherein the virtual contour is continually displayed. characterised in that a virtual contour corresponding to the contour of the vehicle interior is displayed, and a game is displayed by means of the electronic display apparatus and the virtual contour corresponding to the contour of the vehicle interior is adapted to a present scene of the game, wherein the virtual contour is continually displayed.
A metamaterial for deflecting an electromagnetic wave, comprising a functional layer, wherein the functional layer comprises a plurality of sheet layers parallel to each other, each of the sheet layers comprises a sheet-like substrate and a plurality of man-made microstructures arranged in an array on the sheet-like substrate, the sheet-like substrate comprises a plurality of unit blocks, each of the man-made microstructures and a corresponding one of the unit blocks occupied thereby form a unit cell, and refractive indices of the unit cells arranged in a first direction (x axis) in each of the sheet layers vary gradually, wherein each unit cell has an optical axis in the surface of the sheet layer corresponding to its refractive index ellipsoid; it is characterized in that the optical axes of the unit cells arranged in the first direction (x axis) in each of the sheet layers are rotated sequentially with respect to each other around an axis perpendicular to the surface of the sheet layer.
A tool for a dental treatment comprising - a handpiece having a housing and - a transducer having at least one piezo element for causing a vibration movement along a vibration direction, wherein the transducer is connected to the housing by a snap connection for an axial fixation, wherein the snap connection is realized by a hook-like, harpoon-like or an anchor-like snap element being located at the inner side of the housing and/or the outer side of the transducer, wherein for bearing and/or for sealing the transducer is surrounded by a filling element at a distal end of the housing. - a handpiece having a housing and - a transducer having at least one piezo element for causing a vibration movement along a vibration direction,
A formulation containing a bisphosphonate for use in a method of treating or managing HIV/AIDS comprising administering to an individual in need thereof an effective amount of the bisphosphonate in said formulation having a particle size diameter in a range of about 0.03-1.0 microns.
A process for manufacturing a permeable paver having a permeability in excess of 1 inch (25.4 mm) of water per hour and having an average compressive strength of about 8000 psi (55158 kPa), the process comprising the steps of: preparing a mixture comprising (i) a base of 3 parts by weight of blast-furnace slag and 1 part by weight of sand, (ii) between about 20% and about 50% by weight of 1/4" (6.35 mm) gravel, the percentage of the gravel being calculated relatively to the weight of the base; (iii) between 15 % and 21 % by weight Portland cement, the percentage of the cement being calculated relatively to the weight of the base and gravel; and water; forming the mixture into predetermined sizes and shapes as desired utilizing a hydraulic-type compacting block forming machine; and curing the mixture. (i) a base of 3 parts by weight of blast-furnace slag and 1 part by weight of sand, (ii) between about 20% and about 50% by weight of 1/4" (6.35 mm) gravel, the percentage of the gravel being calculated relatively to the weight of the base; (iii) between 15 % and 21 % by weight Portland cement, the percentage of the cement being calculated relatively to the weight of the base and gravel; and water; forming the mixture into predetermined sizes and shapes as desired utilizing a hydraulic-type compacting block forming machine; and curing the mixture.
Gearbox for a motor vehicle, wherein the gearbox comprises at least one fluid supply system, wherein the fluid supply system comprises at least one pump, wherein the fluid supply system comprises at least one fluid sump, wherein the fluid supply system comprises at least one fluid reservoir, wherein the fluid reservoir comprises at least a first fluid outflow leading into the fluid sump, wherein the first fluid outflow can be controlled as a function of a state variable, characterized in that the fluid supply system comprises at least a second fluid outflow, wherein the second fluid outflow cannot be regulated.
A method for producing an air-permeable composite sheet, comprising steps of filling pores of a porous PTFE sheet with a hardenable material solution; hardening or semi-hardening the porous PTFE sheet filled with the hardenable material solution, wherein the hardening or semi-hardening comprises a polymerisation or crosslinking reaction; and expanding the hardened or semi-hardened porous PTFE sheet.
A computer implemented method for simplification of a point cloud that represents one or more three-dimensional objects or surfaces, the point cloud comprising a set of points, the method comprising: implementing recursive spatial partitioning of the set of points into a hierarchy of clusters; identifying representative points within each cluster in the hierarchy; and, for each representative point, defining a point-pair that consists of the representative point and a representative point of an immediate parent cluster; calculating a contraction error metric for each point-pair; and, until a predefined stop criterion is met iterating the steps of iteratively contracting the point-pair with the lowest contraction error metric so as to reduce the number of points in the point cloud, updating remaining point-pairs as a result of the contraction, and revising the contraction error metric of the updated point-pairs accordingly; wherein the contraction of the point-pair comprises replacing both of the points in the point-pair with a new point which could either be located at the position of whichever one of the points in the point-pair to be contracted that results in the lowest contraction error metric for the corresponding contraction, or at a position that minimises the contraction error metric for the corresponding contraction; and wherein the step of updating remaining point-pairs as a result of the contraction comprises identifying other point-pairs that include either of the points that were included in the contracted point-pair, and updating the identified point-pairs to include the new point generated as a result of the contraction. implementing recursive spatial partitioning of the set of points into a hierarchy of clusters; identifying representative points within each cluster in the hierarchy; and, for each representative point, defining a point-pair that consists of the representative point and a representative point of an immediate parent cluster; calculating a contraction error metric for each point-pair; and, until a predefined stop criterion is met iterating the steps of iteratively contracting the point-pair with the lowest contraction error metric so as to reduce the number of points in the point cloud, updating remaining point-pairs as a result of the contraction, and revising the contraction error metric of the updated point-pairs accordingly; wherein the contraction of the point-pair comprises replacing both of the points in the point-pair with a new point which could either be located at the position of whichever one of the points in the point-pair to be contracted that results in the lowest contraction error metric for the corresponding contraction, or at a position that minimises the contraction error metric for the corresponding contraction; and wherein the step of updating remaining point-pairs as a result of the contraction comprises identifying other point-pairs that include either of the points that were included in the contracted point-pair, and updating the identified point-pairs to include the new point generated as a result of the contraction.
A robot controller comprising a control unit for controlling at least one robot and a portable operating device, called hereafter a TPU, for teaching and manually operating the robot, which TPU comprises a safety equipment (11, 12), a safety TPU-part having a first communication unit for transmitting communication data and a main TPU-part having a second communication unit for transmitting and receiving communication data, the control unit comprises a safety control part having a third communication unit for receiving communication data and a main control part having a forth communication unit for transmitting and receiving communication data, the first and third communication units (49,46) are arranged such that they form a first communication channel for transferring communication data including information regarding the status of safety equipment from the TPU to the control unit, the second and fourth communication units (38,56) are arranged such that they form a second communication channel for transferring general communication data between the TPU and the control unit, characterized in that: each of the main TPU-part, the safety TPU-part, the main control part, and the safety control part comprises a central processing unit adapted to generate and/or handle said communication data, each of the communication units (38, 44, 46, 56) are connected to a network, and each of the communication units forms a node in the network. each of the main TPU-part, the safety TPU-part, the main control part, and the safety control part comprises a central processing unit adapted to generate and/or handle said communication data, each of the communication units (38, 44, 46, 56) are connected to a network, and each of the communication units forms a node in the network.
A door structure of a vehicle, comprising: an outer panel, an inner member (5, 11A) arranged on an inner side of the outer panel in a vehicle width direction; a rigid member arranged between the inner member (5, 11A) and the outer panel; and a vibration suppression member arranged between the outer panel and the rigid member, wherein the outer panel includes a hem section (10f, 10r, 10u) disposed on a periphery thereof and connected to the inner member (5, 11A) by swaging, characterized in that the vibration suppression member includes a plurality of damping material (22A, 22B, 22C) in a hem adjacent region (20f, 20r, 20u) located adjacent to the hem section (10f, 10r, 10u), the damping materials (22A, 22B, 22C) being in contact with the outer panel and the rigid member, and an arrangement density of the damping materials (22A, 22B, 22C) in the hem adjacent region (20f, 20r, 20u) is larger than that of the damping materials in the other region. an outer panel, an inner member (5, 11A) arranged on an inner side of the outer panel in a vehicle width direction; a rigid member arranged between the inner member (5, 11A) and the outer panel; and a vibration suppression member arranged between the outer panel and the rigid member, wherein the outer panel includes a hem section (10f, 10r, 10u) disposed on a periphery thereof and connected to the inner member (5, 11A) by swaging, characterized in that the vibration suppression member includes a plurality of damping material (22A, 22B, 22C) in a hem adjacent region (20f, 20r, 20u) located adjacent to the hem section (10f, 10r, 10u), the damping materials (22A, 22B, 22C) being in contact with the outer panel and the rigid member, and an arrangement density of the damping materials (22A, 22B, 22C) in the hem adjacent region (20f, 20r, 20u) is larger than that of the damping materials in the other region.
A self-propelled harvester comprising an arranged header and an open-loop and closed-loop control unit, wherein the header has a cutter bar for cutting off plants, wherein each cutter bar has at least one blade bar with blades and the at least one blade bar is driven by means of an electric drive so that the blade bar oscillates linearly, characterised in that the open-loop and closed-loop control unit is adapted to displace the at least one blade bar by means of the electric drive into at least one maintenance position in which the blades are replaceable.