mhurhangee/ep-ind-claims huggingface dataset:
A light-irradiating device, comprising: a light-emitting element; a housing in which the light-emitting element is disposed, the housing comprising a light-irradiating surface provided with an irradiating opening which allows light from the light-emitting element to pass therethrough, the irradiating opening extending in a width direction of the light-irradiating surface; a flow path configured to supply gas, the flow path comprising an end located near the irradiating opening of the light-irradiating surface of the housing; and a discharging port configured to discharge the gas, the discharging port disposed at the end of the flow path, the discharging port comprising a plurality of first openings which are each shaped as a circular hole, and are arranged in the width direction corresponding to the irradiating opening in such a pattern so as to cover a region to be irradiated with light, and a second opening, that is positioned, as a narrow elongate form, in conformity with an area in which the first openings are arranged so as to be located in correspondence with each end in the width direction of the irradiating opening and positioned at each end of the discharging port in the width direction. a light-emitting element; a housing in which the light-emitting element is disposed, the housing comprising a light-irradiating surface provided with an irradiating opening which allows light from the light-emitting element to pass therethrough, the irradiating opening extending in a width direction of the light-irradiating surface; a flow path configured to supply gas, the flow path comprising an end located near the irradiating opening of the light-irradiating surface of the housing; and a discharging port configured to discharge the gas, the discharging port disposed at the end of the flow path, the discharging port comprising a plurality of first openings which are each shaped as a circular hole, and are arranged in the width direction corresponding to the irradiating opening in such a pattern so as to cover a region to be irradiated with light, and a second opening, that is positioned, as a narrow elongate form, in conformity with an area in which the first openings are arranged so as to be located in correspondence with each end in the width direction of the irradiating opening and positioned at each end of the discharging port in the width direction.
Three-dimensional circuit board, comprising a carrier component (10; 30), carrying at least one circuit path (110, 120) at an outside of a carrier body (100; 300) of the carrier component (10; 30), wherein, for impedance control, the carrier body (100; 300) comprises different planes (102, 104), wherein at least one circuit path (110, 120) is arranged in the different planes (102, 104), characterised in that, the three-dimensional circuit board comprises an electrical grounding layer that is arranged below the circuit path (110, 120) and the ground path is connected with an electrical bridge that is guided to the electrical grounding layer, and wherein, for cross-talk control, a mechanical termination portion and/or an electrical termination portion of the carrier component (10; 30) for wires of a cable is staggered, wherein two directly adjacent electrical terminals of the carrier component have the same longitudinal position and an adjacent pair thereto is longitudinally offset to the first pair of terminals.
A cable component, comprising: a main body, at least a part of the main body comprising: an insulation material; and one or more non-flammable portions formed of a non-fluoropolymer material, the one or more non-flammable portions disposed within the insulation material, wherein the one or more non-flammable portions comprise fiberglass, bunched fiberglass fibers, fiberglass yarn, fiberglass rovings, chopped fiberglass, woven fiberglass, basalt fibers, yarn, woven tape, or ceramic oxide fibers; wherein the main body comprises one of a plurality of arms or a tape; and wherein the one or more non-flammable portions comprise about 25% or more, by volume, of the cable component, are flexible, and reduce the quantity of insulation material of the main body. a main body, at least a part of the main body comprising: an insulation material; and one or more non-flammable portions formed of a non-fluoropolymer material, the one or more non-flammable portions disposed within the insulation material, wherein the one or more non-flammable portions comprise fiberglass, bunched fiberglass fibers, fiberglass yarn, fiberglass rovings, chopped fiberglass, woven fiberglass, basalt fibers, yarn, woven tape, or ceramic oxide fibers; an insulation material; and one or more non-flammable portions formed of a non-fluoropolymer material, the one or more non-flammable portions disposed within the insulation material, wherein the one or more non-flammable portions comprise fiberglass, bunched fiberglass fibers, fiberglass yarn, fiberglass rovings, chopped fiberglass, woven fiberglass, basalt fibers, yarn, woven tape, or ceramic oxide fibers; wherein the main body comprises one of a plurality of arms or a tape; and wherein the one or more non-flammable portions comprise about 25% or more, by volume, of the cable component, are flexible, and reduce the quantity of insulation material of the main body.
A magnet particle separating device comprising: a plurality of induction magnets with magnetic fields for attracting magnetic particles; an induction magnet fixing part having induction magnet fixing holes into which the induction magnets are inserted for fixing the induction magnets; and a body with which the induction magnet fixing part is combined, the body having entry holes along a height direction such that the entry holes correspond to array position of the induction magnets, and the body having a compartment wall for comparting one of the entry holes and an adjacent entry hole; wherein the compartment wall comprises: an insertion hole formed along a longitudinal direction of the compartment wall, and a tube-fixing member inserted into the insertion hole, so as to protrude toward inside of the entry hole, wherein the tube-fixing member is configured to compress a tube and to fix it to the body when the tube is inserted into the entry hole. a plurality of induction magnets with magnetic fields for attracting magnetic particles; an induction magnet fixing part having induction magnet fixing holes into which the induction magnets are inserted for fixing the induction magnets; and a body with which the induction magnet fixing part is combined, the body having entry holes along a height direction such that the entry holes correspond to array position of the induction magnets, and the body having a compartment wall for comparting one of the entry holes and an adjacent entry hole; an insertion hole formed along a longitudinal direction of the compartment wall, and a tube-fixing member inserted into the insertion hole, so as to protrude toward inside of the entry hole, wherein the tube-fixing member is configured to compress a tube and to fix it to the body when the tube is inserted into the entry hole.
An elevator load bearing member, comprising: a plurality of load bearing cords; and a jacket at least partially surrounding the cords, the jacket including a layer received against the cords, and the jacket including a self-healing component; characterised in that the jacket further comprises an outer coating, the outer coating including the self-healing component. a plurality of load bearing cords; and a jacket at least partially surrounding the cords, the jacket including a layer received against the cords, and the jacket including a self-healing component; characterised in that the jacket further comprises an outer coating, the outer coating including the self-healing component.
Apparatus for generating power in accordance with the ORC principle, having at least two, especially three, working medium circuits (10, 20, 30), each of which comprises at least a condenser, an evaporator (11, 21, 31) and a partial pre-heater (12, 13, 22, 23, 33) and which are coupled by a common heating medium circuit in such a way that all of a flow of heating medium is supplied to the evaporators (11, 21, 31) and portions of that flow of heating medium are supplied to the pre-heaters (12, 13, 22, 23, 33), characterised in that a first working medium circuit has at least one further pre-heater which is coupled to the heating medium circuit in such a way that all of the flow of heating medium is supplied to the further pre-heater.
A cold-rolled steel sheet, consisting of: in mass%, C: 0.0005 to 0.0045%; Mn: 0.80 to 2.50%; Ti: 0.002 to 0.150%; B: 0.0005 to 0.01%; Si: 0.01 to 1.0%; Al: 0.010 to 0.10%; Nb: 0 to 0.040%; Mo: 0 to 0.500%; Cr: 0 to 3.000%; W: 0 to 3.000%; Cu: 0 to 3.000%; Ni: 0 to 3.000%; Ca: 0 to 0.1000%; Rem: 0 to 0.1000%; V: 0 to 0.100%; P: 0.15% or less; S: 0.010% or less; N: 0.006% or less, in which Expression below is satisfied, and a balance being composed of iron and impurities, wherein at the position of 1/4 thickness of a sheet thickness, a random intensity ratio of the <110> orientation is 3 or less, a random intensity ratio of the <9 16 5> orientation and a random intensity ratio of the <112> orientation are both 7 or more, and { / ≧ 5} and { >} are satisfied. 0.07 ≦ Mn mass % − Mn ∗ mass % / B ppm − B ∗ ppm ≦ 0.2 Expression above is set as follows. Mn ∗ mass % = 55 ⁢ S mass % / 32 B ∗ ppm = 10 N mass % − 14 Ti mass % − 14 Ti mass % / 48 / 14 × 10000 In the case of Mn* < 0 and B* < 0, B* is set to 0. in mass%, C: 0.0005 to 0.0045%; Mn: 0.80 to 2.50%; Ti: 0.002 to 0.150%; B: 0.0005 to 0.01%; Si: 0.01 to 1.0%; Al: 0.010 to 0.10%; Nb: 0 to 0.040%; Mo: 0 to 0.500%; Cr: 0 to 3.000%; W: 0 to 3.000%; Cu: 0 to 3.000%; Ni: 0 to 3.000%; Ca: 0 to 0.1000%; Rem: 0 to 0.1000%; V: 0 to 0.100%; P: 0.15% or less; S: 0.010% or less; N: 0.006% or less, in which Expression below is satisfied, and a balance being composed of iron and impurities, wherein at the position of 1/4 thickness of a sheet thickness, a random intensity ratio of the <110> orientation is 3 or less, a random intensity ratio of the <9 16 5> orientation and a random intensity ratio of the <112> orientation are both 7 or more, and { / ≧ 5} and { >} are satisfied. 0.07 ≦ Mn mass % − Mn ∗ mass % / B ppm − B ∗ ppm ≦ 0.2 Expression above is set as follows. Mn ∗ mass % = 55 ⁢ S mass % / 32 B ∗ ppm = 10 N mass % − 14 Ti mass % − 14 Ti mass % / 48 / 14 × 10000 In the case of Mn* < 0 and B* < 0, B* is set to 0. Expression above is set as follows. Mn ∗ mass % = 55 ⁢ S mass % / 32 B ∗ ppm = 10 N mass % − 14 Ti mass % − 14 Ti mass % / 48 / 14 × 10000
A single-piece piston for advancing material in a dispensing gun comprising: first and second ends (144, 146), the first end having a dome profile with an annular taper extending outwardly toward said second end; a circular seal lip integral and extending from said annular taper about the perimeter of the piston, the circular seal lip comprising a plurality of substantially equal segments located therebetween; and a noncircular attachment aperture for attaching said piston to a rack of a dispensing gun wherein said piston is molded from a polymeric material. first and second ends (144, 146), the first end having a dome profile with an annular taper extending outwardly toward said second end; a circular seal lip integral and extending from said annular taper about the perimeter of the piston, the circular seal lip comprising a plurality of substantially equal segments located therebetween; and a noncircular attachment aperture for attaching said piston to a rack of a dispensing gun wherein said piston is molded from a polymeric material.
A non-aqueous electrolyte secondary battery that comprises an electrode body comprising a positive electrode and a negative electrode, wherein the positive electrode has an upper operating voltage limit of 4.5 V or higher relative to lithium metal and comprises, as a positive electrode active material, a spinel lithium transition metal composite oxide, the lithium transition metal composite oxide comprising at least nickel and manganese as transition metals, the electrode body comprises a lithium titanate-containing layer, the lithium titanate-containing layer being isolated from the negative electrode, and the lithium titanate-containing layer has a thickness of 5 μm to 15 μm. the positive electrode has an upper operating voltage limit of 4.5 V or higher relative to lithium metal and comprises, as a positive electrode active material, a spinel lithium transition metal composite oxide, the lithium transition metal composite oxide comprising at least nickel and manganese as transition metals, the electrode body comprises a lithium titanate-containing layer, the lithium titanate-containing layer being isolated from the negative electrode, and the lithium titanate-containing layer has a thickness of 5 μm to 15 μm.
A door locking system which comprises a central control unit and at least one electronic locking unit having at least one electronic key, wherein the central control unit has an electronic evaluation and control device, a memory for storing authorization data and configuration parameters, a communication interface for a bidirectional communication with the electronic locking unit, a network interface and/or a mobile radio interface at least for receiving control and configuration data based on an internet protocol or a mobile radio protocol; and wherein the evaluation and control device of the central control unit is adapted to change the stored authorization data and/or configuration parameters in dependence on the control and configuration data received via the network interface and/or the mobile radio interface; wherein the electronic locking unit comprises an actuator for a locking element, an evaluation and control device and a communication interface for a bidirectional communication with the central control unit, characterized in that the central control unit further has at least one first switching output for outputting a control signal to a connected intrusion alarm system and at least one first switching input for receiving a status signal from the connected intrusion alarm system, wherein the first switching output is adapted to output an analog control signal and the first switching input is adapted to receive an analog switching signal; wherein the evaluation and control device of the electronic locking unit is adapted to receive a disarming request signal from the electronic key and to send a disarming request signal to the central control unit via the communication interfaces (23, 29) in dependence on the received disarming request signal; wherein, on reception of the disarming request signal, the evaluation and control device of the central control unit is further adapted to output a disarming command to the connected intrusion alarm system via the first switching output or via a further switching output of the central control unit for outputting an analog control signal; wherein the evaluation and control device of the central control unit is further adapted to receive a disarming confirmation signal from the connected intrusion alarm system via a switching input of the central control unit for receiving an analog control signal, in particular via a second switching input or a further switching input of the central control unit for receiving an analog control signal; wherein, on reception of the disarming confirmation signal, the evaluation and control device of the central control unit is adapted to send a positive response signal to the electronic locking unit via the communication interfaces (23, 29); and wherein, on reception of the positive response signal, the evaluation and control device of the electronic locking unit is adapted to control an optical and/or acoustic signaling device of the electronic locking unit to indicate a positive acknowledgment signal.
A light intensity control system for a vehicle comprising: a head mounting unit comprising a primary communication unit, a primary control unit, a display unit, an ambient light sensor to collect an input; wherein said head mounting unit is configured to be mounted on a headgear in order to receive ambient light intensity in a field view of a rider of the vehicle through said ambient light sensor and said head mounting unit is configured to be connected to one or more illuminating devices provided in said vehicle to control illumination of said one or more illuminating devices, said one or more illuminating devices including a headlamp, wherein controlling comprises toggling one or more beam positions of a light source of the headlamp. a head mounting unit comprising a primary communication unit, a primary control unit, a display unit, an ambient light sensor to collect an input; wherein said head mounting unit is configured to be mounted on a headgear in order to receive ambient light intensity in a field view of a rider of the vehicle through said ambient light sensor and said head mounting unit is configured to be connected to one or more illuminating devices provided in said vehicle to control illumination of said one or more illuminating devices, said one or more illuminating devices including a headlamp, wherein controlling comprises toggling one or more beam positions of a light source of the headlamp.
An electrical test and measurement system, comprising: a device under test, DUT,; an oscilloscope; and a probe for use with the oscilloscope, where the probe comprises: an input configured to receive an input signal from the DUT; a clamp control unit configured to apply at least one clamping/limiting level to the input signal to generate an output signal, wherein the at least one clamping/limiting level is dynamically controlled by the oscilloscope based on one or more changes to vertical sensitivity on the oscilloscope; and an output port configured to provide the clamped/limited output signal to the oscilloscope. a device under test, DUT,; an oscilloscope; and a probe for use with the oscilloscope, where the probe comprises: an input configured to receive an input signal from the DUT; a clamp control unit configured to apply at least one clamping/limiting level to the input signal to generate an output signal, wherein the at least one clamping/limiting level is dynamically controlled by the oscilloscope based on one or more changes to vertical sensitivity on the oscilloscope; and an output port configured to provide the clamped/limited output signal to the oscilloscope. an input configured to receive an input signal from the DUT; a clamp control unit configured to apply at least one clamping/limiting level to the input signal to generate an output signal, wherein the at least one clamping/limiting level is dynamically controlled by the oscilloscope based on one or more changes to vertical sensitivity on the oscilloscope; and an output port configured to provide the clamped/limited output signal to the oscilloscope.
A method for surveying an environment by a movable surveying instrument that is configured as a laser scanner, a theodolite, a GNSS surveying antenna, a mobile mapping system, and/or a surveying field controller and configured to be carried by a human in the environment along a substantially random trajectory, the method comprising - a progressional capturing of 2D images by at least one camera at the surveying instrument and applying a visual simultaneous location and mapping algorithm or a visual inertial simultaneous location and mapping algorithm that also takes into account measurement values of inertial sensors, with - a progressional deriving of a sparse evolving point cloud of at least part of the environment of the surveying instrument based on the series of captured 2D images, and - a progressional deriving of a trajectory of movement of the surveying instrument with respect to the sparse evolving point cloud; characterized in that the method further comprises: - a progressional matching of the sparse evolving point cloud with a known CAD-geometry of at least part of the environment, with a minimizing of a functional which is configured to model a distance between the sparse point cloud and the known CAD-geometry; and - a deriving and providing of a spatial localization and orientation of the surveying instrument in relation to the known CAD-geometry according to the matching. - a progressional capturing of 2D images by at least one camera at the surveying instrument and applying a visual simultaneous location and mapping algorithm or a visual inertial simultaneous location and mapping algorithm that also takes into account measurement values of inertial sensors, with - a progressional deriving of a sparse evolving point cloud of at least part of the environment of the surveying instrument based on the series of captured 2D images, and - a progressional deriving of a trajectory of movement of the surveying instrument with respect to the sparse evolving point cloud; - a progressional deriving of a sparse evolving point cloud of at least part of the environment of the surveying instrument based on the series of captured 2D images, and - a progressional deriving of a trajectory of movement of the surveying instrument with respect to the sparse evolving point cloud; - a progressional matching of the sparse evolving point cloud with a known CAD-geometry of at least part of the environment, with a minimizing of a functional which is configured to model a distance between the sparse point cloud and the known CAD-geometry; and - a deriving and providing of a spatial localization and orientation of the surveying instrument in relation to the known CAD-geometry according to the matching.
Method for mounting a frame for a window, a facade or a skylight roof, having at least one corner region with a first profile and a second profile arranged at an angle to the first profile, and an insulating glass pane which is arranged spaced apart from the first profile and the second profile, whereby in a glass rebate at least one insulating element is arranged in the at least one corner region, wherein the insulating element extends continuously in the corner region from the first profile to the second profile and thereby extends substantially continuously from a first block setting element on the first profile to a second block setting element on the second profile and the insulating element is bent in the miter region between the first profile and the second profile, the insulating element (12, 12', 12", 20, 20', 20", 30) being glued to at least one profile (4, 5), characterized by the following steps: the insulating element, which is at least partially coated with an adhesive layer, is initially covered by a protective film, which is then removed during assembly; the insulating element is glued to the frame; and the insulating element is used as a spacer for the alignment of the block setting elements. the insulating element, which is at least partially coated with an adhesive layer, is initially covered by a protective film, which is then removed during assembly; the insulating element is glued to the frame; and the insulating element is used as a spacer for the alignment of the block setting elements.