mhurhangee/ep-ind-claims huggingface dataset:
An electrical cable having a longitudinal extension, comprising an electrically insulating outer jacket; a number of phase conductors arranged within the outer jacket, said phase conductors extending along the longitudinal extension of the cable, and said phase conductors individually being provided with an outer electrically insulating sheath, wherein said phase conductors are arranged within said outer jacket such that a central space is formed between the phase conductors; and an earth conductor, arranged in said central space, comprising electrically conducting twinned strands, characterised in that the earth conductor is arranged without a peripheral insulating plastic material, such that the electrically conducting twinned strands of the earth conductor contact the sheath of at least some of the phase conductors.
A display device comprising: a short-range communication unit adapted to receive a search request signal from a mobile terminal in a call; a control unit adapted to obtain a connection state with the mobile terminal in response to receiving the search request signal, and receive a voice signal from the mobile terminal if being in connected state with the mobile terminal; and a display unit adapted to display a result searched based on the voice signal. a short-range communication unit adapted to receive a search request signal from a mobile terminal in a call; a control unit adapted to obtain a connection state with the mobile terminal in response to receiving the search request signal, and receive a voice signal from the mobile terminal if being in connected state with the mobile terminal; and a display unit adapted to display a result searched based on the voice signal.
A detector element for a microbolometer detector comprising: a platform structure (86, 180, 246) spaced apart from a substrate (76, 152, 158, 164, 170, 176, 242), said platform structure having a central region (88, 182, 248) and a peripheral region (90, 184, 250) surrounding said central region, said peripheral region being circumscribed by a first edge (92, 186, 252), a second edge (94, 188, 254), a third edge (96, 190, 256), and a fourth edge (98, 192, 258), said first and third edges opposing one another, said second and fourth edges opposing one another and said peripheral region has an inner perimeter delineating a central opening, defined by first inner edge, second inner edge, third inner edge and fourth inner edge; a first contact (100, 206, 260) located at said peripheral region of said platform structure proximate said first edge; a second contact (102, 208, 262) located at said peripheral region proximate said third edge; a beam structure (104, 210, 264) extending across said central region between said first and second contacts, where opposing ends of said beam structure are coupled to said first and third inner edges (120, 124); and a first sensor (106, 212, 266) proximate said second edge of said peripheral region; and a second sensor (108, 214, 268) proximate said fourth edge of said peripheral region. a platform structure (86, 180, 246) spaced apart from a substrate (76, 152, 158, 164, 170, 176, 242), said platform structure having a central region (88, 182, 248) and a peripheral region (90, 184, 250) surrounding said central region, said peripheral region being circumscribed by a first edge (92, 186, 252), a second edge (94, 188, 254), a third edge (96, 190, 256), and a fourth edge (98, 192, 258), said first and third edges opposing one another, said second and fourth edges opposing one another and said peripheral region has an inner perimeter delineating a central opening, defined by first inner edge, second inner edge, third inner edge and fourth inner edge; a first contact (100, 206, 260) located at said peripheral region of said platform structure proximate said first edge; a second contact (102, 208, 262) located at said peripheral region proximate said third edge; a beam structure (104, 210, 264) extending across said central region between said first and second contacts, where opposing ends of said beam structure are coupled to said first and third inner edges (120, 124); and a first sensor (106, 212, 266) proximate said second edge of said peripheral region; and a second sensor (108, 214, 268) proximate said fourth edge of said peripheral region.
A rescue apparatus for an elevator, the rescue apparatus comprising: a brake control unit having input terminals (2A, 2B) for connecting to a power supply (3A, 3B), output terminals for connecting to a magnetizing coil of an electromagnetic brake, at least one controllable brake opening switch (8A, 8B; 9A, 9B) associated with at least one of the input terminals (2A, 2B) and adapted, in an open state, to prevent supply of current from the power supply (3A, 3B) to the magnetizing coil and, in a closed state, to allow supply of current from the power supply (3A, 3B) to the magnetizing coil; a control cable comprising one or more control signal wires (11A, 11B, 11C); a remote control panel coupled via the control cable to the brake control unit; characterized in that the remote control panel comprises a manually operated drive switch (13A, 13B) directly coupled to the control pole (8C, 9C) of the brake opening switch (8A, 8B; 9A, 9B) with the control signal wire (11A, 11B). a brake control unit having input terminals (2A, 2B) for connecting to a power supply (3A, 3B), output terminals for connecting to a magnetizing coil of an electromagnetic brake, at least one controllable brake opening switch (8A, 8B; 9A, 9B) associated with at least one of the input terminals (2A, 2B) and adapted, in an open state, to prevent supply of current from the power supply (3A, 3B) to the magnetizing coil and, in a closed state, to allow supply of current from the power supply (3A, 3B) to the magnetizing coil; a control cable comprising one or more control signal wires (11A, 11B, 11C); a remote control panel coupled via the control cable to the brake control unit; characterized in that the remote control panel comprises a manually operated drive switch (13A, 13B) directly coupled to the control pole (8C, 9C) of the brake opening switch (8A, 8B; 9A, 9B) with the control signal wire (11A, 11B).
An injection molding machine that integrates a plurality of parts (P1, P2, P3) while molding the plurality of parts in order, thereby molding a molding product, the injection molding machine comprising: an operation unit that is configured to receive an input operation; a display unit that is configured to display a setting screen for molding conditions; and a control unit that is configured to control the molding process and to make the display unit display the setting screen according to the input operation of the operation unit, wherein the setting screen includes setting columns (81 to 88) to which set values used for molding respective parts (P1, P3) are input, characterized in that the control unit is configured to make a set value input to a setting column for molding one part be a set value input to and displayed on a setting column (81B, 81C) for molding a remaining predetermined part which is a following predeterminedpart. an operation unit that is configured to receive an input operation; a display unit that is configured to display a setting screen for molding conditions; and a control unit that is configured to control the molding process and to make the display unit display the setting screen according to the input operation of the operation unit, wherein the setting screen includes setting columns (81 to 88) to which set values used for molding respective parts (P1, P3) are input, characterized in that the control unit is configured to make a set value input to a setting column for molding one part be a set value input to and displayed on a setting column (81B, 81C) for molding a remaining predetermined part which is a following predeterminedpart.
A resin-impregnated boron nitride sintered body, comprising: 30 to 90 volume% of a boron nitride sintered body having boron nitride particles bonded three-dimensionally; and 10 to 70 volume% of a resin; wherein the boron nitride sintered body has a porosity of 10 to 70%; the boron nitride particles of the boron nitride sintered body have a flake-like shape having an average long diameter of 10μm or more; the boron nitride sintered body has a graphitization index by powder X-ray diffractometry is 4.0 or less; and an orientation degree of the boron nitride particles of the boron nitride sintered body by I.O.P. (Index of Orientation Performance) provided by the following equation is 0.01 to 0.05 or 20 to 100, the orientation degree I.O.P. being calculated from an intensity ratio of diffraction line with respect to diffraction line measured from a direction parallel to a height direction of the boron nitride sintered body and an intensity ratio of diffraction line with respect to diffraction line measured from a direction perpendicular to the height direction of the sintered body, using the following equation: I. O. P = I 100 / I 002 par. / I 100 / I 002 perp. 30 to 90 volume% of a boron nitride sintered body having boron nitride particles bonded three-dimensionally; and 10 to 70 volume% of a resin; wherein the boron nitride sintered body has a porosity of 10 to 70%; the boron nitride particles of the boron nitride sintered body have a flake-like shape having an average long diameter of 10μm or more; the boron nitride sintered body has a graphitization index by powder X-ray diffractometry is 4.0 or less; and an orientation degree of the boron nitride particles of the boron nitride sintered body by I.O.P. (Index of Orientation Performance) provided by the following equation is 0.01 to 0.05 or 20 to 100, the orientation degree I.O.P. being calculated from an intensity ratio of diffraction line with respect to diffraction line measured from a direction parallel to a height direction of the boron nitride sintered body and an intensity ratio of diffraction line with respect to diffraction line measured from a direction perpendicular to the height direction of the sintered body, using the following equation: I. O. P = I 100 / I 002 par. / I 100 / I 002 perp.
An electronic device comprising: a display including a transparent area through which content is output and through which external light passes; a communication circuit configured to transmit or receive data to or from an external electronic device; a housing configured to accommodate a strap of an external device; a Hall sensor configured to sense a magnetic field generated by a plurality of magnets included in the strap, and a processor electrically connected to the display, wherein the processor is configured to: obtain information about an overlap location of the external device and the electronic device using the Hall sensor; execute a function mapped to the information about the overlap location; and output a screen associated with the function on the transparent area; wherein the processor is further configured to: when the information about the overlap location is changed, obtain information about a function being executed in the external electronic device from the external electronic device, through the communication circuit; and output a screen associated with the function, which is being executed in the external electronic device, on the transparent area. a display including a transparent area through which content is output and through which external light passes; a communication circuit configured to transmit or receive data to or from an external electronic device; a housing configured to accommodate a strap of an external device; a Hall sensor configured to sense a magnetic field generated by a plurality of magnets included in the strap, and a processor electrically connected to the display, wherein the processor is configured to: obtain information about an overlap location of the external device and the electronic device using the Hall sensor; execute a function mapped to the information about the overlap location; and output a screen associated with the function on the transparent area; obtain information about an overlap location of the external device and the electronic device using the Hall sensor; execute a function mapped to the information about the overlap location; and output a screen associated with the function on the transparent area; wherein the processor is further configured to: when the information about the overlap location is changed, obtain information about a function being executed in the external electronic device from the external electronic device, through the communication circuit; and output a screen associated with the function, which is being executed in the external electronic device, on the transparent area. when the information about the overlap location is changed, obtain information about a function being executed in the external electronic device from the external electronic device, through the communication circuit; and output a screen associated with the function, which is being executed in the external electronic device, on the transparent area.
A temperature control device comprising a control unit configured to control a heating unit of a food cooking device according to the following control scheme: i) a preheating period for heating up the food to a first food temperature of at most 60°C; ii) a temperature holding period for holding the food temperature within a temperature range of 30°C to 60°C for a holding time period in the range of 2 to 20 minutes, wherein during the preheating period the food is preheated from a start temperature to a beginning temperature of the temperature holding period; and, after the temperature holding period, iii) a heating period for heating up the food to a second food temperature of at most 100°C. i) a preheating period for heating up the food to a first food temperature of at most 60°C; ii) a temperature holding period for holding the food temperature within a temperature range of 30°C to 60°C for a holding time period in the range of 2 to 20 minutes, wherein during the preheating period the food is preheated from a start temperature to a beginning temperature of the temperature holding period; and, after the temperature holding period, iii) a heating period for heating up the food to a second food temperature of at most 100°C.
A software program for creating features for use with a plurality of media objects in a sequence, said program comprising: a feature component specifying a feature having parameters which affect at least one variable aspect of the feature; an indicator component for identifying a position in the sequence to place the specified feature relative to the media objects in the sequence in response to a user instruction; a sequence generator for modifying the specified feature by varying the parameters affecting the at least one variable aspect of the specified feature as a function of the identified position of the specified feature within the sequence; and a rendering component for rendering the specified feature according to the at least one variable aspect of the specified feature that has been modified by the sequence generator by varying the parameters affecting the at least one variable aspect of the specified feature at the identified position when the media objects are sequentially displayed. a feature component specifying a feature having parameters which affect at least one variable aspect of the feature; an indicator component for identifying a position in the sequence to place the specified feature relative to the media objects in the sequence in response to a user instruction; a sequence generator for modifying the specified feature by varying the parameters affecting the at least one variable aspect of the specified feature as a function of the identified position of the specified feature within the sequence; and a rendering component for rendering the specified feature according to the at least one variable aspect of the specified feature that has been modified by the sequence generator by varying the parameters affecting the at least one variable aspect of the specified feature at the identified position when the media objects are sequentially displayed.
A dental blank comprising: a seating portion suitable to be inserted into an artificial tooth processing apparatus; and a material portion configured to be inserted into the seating portion, wherein the material portion is configured to be seated in a seating groove, the seating groove is formed in the seating portion and has a circular shape in a cross section, and the material portion comprises a plurality of outer contacting portions in contact with an inner side of the seating portion, and has a polygonal shape in a cross-section, the outer contacting portions are in linear contact with an inner side surface of the seating portion along an insertion direction of the material portion to be inserted into the seating portion, the material portion further comprises a guard portion in contact with a side portion of the material portion and configured to protect the material portion, the guard portion is positioned at an upper portion or a lower portion of the material portion and forms an opening portion connected to a tool entrance portion which is a separation space formed between the seating portion and the material portion. a seating portion suitable to be inserted into an artificial tooth processing apparatus; and a material portion configured to be inserted into the seating portion, wherein the material portion is configured to be seated in a seating groove, the seating groove is formed in the seating portion and has a circular shape in a cross section, and the material portion comprises a plurality of outer contacting portions in contact with an inner side of the seating portion, and has a polygonal shape in a cross-section, the outer contacting portions are in linear contact with an inner side surface of the seating portion along an insertion direction of the material portion to be inserted into the seating portion, the material portion further comprises a guard portion in contact with a side portion of the material portion and configured to protect the material portion, the guard portion is positioned at an upper portion or a lower portion of the material portion and forms an opening portion connected to a tool entrance portion which is a separation space formed between the seating portion and the material portion.
A method of charging movable devices, each of said movable devices comprising a body, a charging unit (101,102,103) mounted on the body, and a charging connector mounted on the body and coupled to the charging unit (101, 102, 103) said method comprising a step of connecting a plurality of movable devices in tandem through the charging connectors to charge the devices in batches, characterized in that, said method further comprising detecting by one of said movable devices a power bus current running through the charging unit (101, 102, 103) of the one of said movable devices, and controlling a charging current for the one of said movable devices according to the detection so that the movable devices stacked behind the one of said movable devices are charged preferentially.
Monitoring system for monitoring a time period of a locking state of a rotor of a wind turbine, whereby the monitoring system comprises at least one motion sensor and at least one computing unit, wherein the computing unit is configured to receive at least one motion measurement from the at least one motion sensor and wherein the computing unit is configured to determine whether the rotor may remain in the locking state or the rotor should be unlocked based on the at least one motion measurement, the monitoring system further comprises a signaling system configured for outputting a signal based on the determination of the computing unit, characterized in that the signaling system is configured such that the signal is visual and/or acoustical, and wherein the signaling system is configured for outputting the signal with the rotor remaining in the locking state.
A method, comprising: conveying a laser cutting apparatus via coiled tubing within a casing lining at least a portion of a wellbore that extends into a subterranean formation; transmitting a laser beam to a deflector of the laser cutting apparatus from a laser source located at a wellsite surface from which the wellbore extends; and operating a motor of the laser cutting apparatus to repeatedly rotate the deflector through a plurality of cycles, wherein each of the plurality of cycles comprises a first substantially continuous rotation of the deflector through a predetermined angle in a first rotational direction and a second substantially continuous rotation of the deflector through the predetermined angle in a second rotational direction, thus directing the laser beam deflected by the deflector to form a radial slot extending radially through the casing and, with each successive one of the plurality of cycles, extend the radial slot to a predetermined depth within the subterranean formation, such that opposing first and second sides (136, 137) of the radial slot are angularly disposed at the predetermined angle, and being characterised in that: operating the motor further comprises decreasing angular velocity of the first and second substantially continuous rotations of the deflector during one or more of the plurality of cycles by an amount permitting the laser beam to deliver a substantially constant amount of energy per unit length of the subterranean formation being cut at a penetration depth of the laser beam in that one of the plurality of cycles. conveying a laser cutting apparatus via coiled tubing within a casing lining at least a portion of a wellbore that extends into a subterranean formation; transmitting a laser beam to a deflector of the laser cutting apparatus from a laser source located at a wellsite surface from which the wellbore extends; and operating a motor of the laser cutting apparatus to repeatedly rotate the deflector through a plurality of cycles, wherein each of the plurality of cycles comprises a first substantially continuous rotation of the deflector through a predetermined angle in a first rotational direction and a second substantially continuous rotation of the deflector through the predetermined angle in a second rotational direction, thus directing the laser beam deflected by the deflector to form a radial slot extending radially through the casing and, with each successive one of the plurality of cycles, extend the radial slot to a predetermined depth within the subterranean formation, such that opposing first and second sides (136, 137) of the radial slot are angularly disposed at the predetermined angle, and being characterised in that: operating the motor further comprises decreasing angular velocity of the first and second substantially continuous rotations of the deflector during one or more of the plurality of cycles by an amount permitting the laser beam to deliver a substantially constant amount of energy per unit length of the subterranean formation being cut at a penetration depth of the laser beam in that one of the plurality of cycles.