mhurhangee/ep-ind-claims huggingface dataset:
A printer to print on a print medium including a label temporarily adhering to a liner, comprising: a housing; an opening and closing cover that can be opened and closed relative to the housing; a feed roller disposed at the opening and closing cover, the feed roller configured to feed the print medium; a print head disposed so as to be adjacent to the feed roller when the opening and closing cover is closed, the print head configured to print on the print medium; and a separation mechanism disposed at an ejection port side of the print medium to separate the label from the liner during separation ejection of the print medium, the separation mechanism including a nip roller adjacent to the feed roller during the separation ejection, characterized in that the separation mechanism further includes an elastic structure (4da, 4db, 4dc, 4dd) configured to come into contact with the opening and closing cover during the separation ejection so as to bias the nip roller toward the feed roller. a housing; an opening and closing cover that can be opened and closed relative to the housing; a feed roller disposed at the opening and closing cover, the feed roller configured to feed the print medium; a print head disposed so as to be adjacent to the feed roller when the opening and closing cover is closed, the print head configured to print on the print medium; and a separation mechanism disposed at an ejection port side of the print medium to separate the label from the liner during separation ejection of the print medium, the separation mechanism including a nip roller adjacent to the feed roller during the separation ejection, characterized in that the separation mechanism further includes an elastic structure (4da, 4db, 4dc, 4dd) configured to come into contact with the opening and closing cover during the separation ejection so as to bias the nip roller toward the feed roller.
A semiconductor device, comprising: a crystalline silicon layer having a main surface; an interlayer film provided on the main surface and containing silicon, titanium, and oxygen; and a titanium oxide film provided on the interlayer film, wherein: the interlayer film further contains 1.5 atomic% or more of hydrogen; the interlayer film is formed at an interface between the titanium oxide film and the crystalline silicone layer; a combination of the interlayer film and the titanium oxide film has hole selectivity for selectively allowing holes in the crystalline silicon layer to pass through, and passivation performance for suppressing recombination of electrons and holes on the main surface; and the interlayer film and the titanium oxide film serve as a hole selective film. a crystalline silicon layer having a main surface; an interlayer film provided on the main surface and containing silicon, titanium, and oxygen; and a titanium oxide film provided on the interlayer film, wherein: the interlayer film further contains 1.5 atomic% or more of hydrogen; the interlayer film is formed at an interface between the titanium oxide film and the crystalline silicone layer; a combination of the interlayer film and the titanium oxide film has hole selectivity for selectively allowing holes in the crystalline silicon layer to pass through, and passivation performance for suppressing recombination of electrons and holes on the main surface; and the interlayer film and the titanium oxide film serve as a hole selective film. the interlayer film further contains 1.5 atomic% or more of hydrogen; the interlayer film is formed at an interface between the titanium oxide film and the crystalline silicone layer; a combination of the interlayer film and the titanium oxide film has hole selectivity for selectively allowing holes in the crystalline silicon layer to pass through, and passivation performance for suppressing recombination of electrons and holes on the main surface; and the interlayer film and the titanium oxide film serve as a hole selective film.
A large frame heavy duty industrial gas turbine engine for electrical power production, the industrial gas turbine engine comprising: a high pressure spool with a high pressure compressor driven by a high pressure turbine, the high pressure compressor having a row of variable inlet guide vanes; a combustor operable between the high pressure compressor and the high-pressure turbine; an electric generator directly coupled to the high pressure spool in synchronous operation with a local area power grid; and a low pressure spool with a low pressure compressor driven by a low pressure turbine, the high pressure spool and the low pressure spool being rotatably independent, the low pressure compressor being connected to the high pressure compressor to supply compressed air from the low pressure compressor to the high pressure compressor, the low pressure spool being a turbocharger spool, the low pressure turbine having a row of variable inlet guide vanes and the low pressure compressor having a row of variable inlet guide vanes. a high pressure spool with a high pressure compressor driven by a high pressure turbine, the high pressure compressor having a row of variable inlet guide vanes; a combustor operable between the high pressure compressor and the high-pressure turbine; an electric generator directly coupled to the high pressure spool in synchronous operation with a local area power grid; and a low pressure spool with a low pressure compressor driven by a low pressure turbine, the high pressure spool and the low pressure spool being rotatably independent, the low pressure compressor being connected to the high pressure compressor to supply compressed air from the low pressure compressor to the high pressure compressor, the low pressure spool being a turbocharger spool, the low pressure turbine having a row of variable inlet guide vanes and the low pressure compressor having a row of variable inlet guide vanes.
An anisotropic conductive polymer sphere comprising a polymeric core having at least a portion of an outer surface of the sphere coated with at least one up-converting material that responds to near infrared photons.
A vehicle control method of performing automatic braking for automatically braking a vehicle, depending on a possibility of a collision between the vehicle and an obstacle, wherein said automatic braking is cancelled when one of a first cancellation condition and a second cancellation condition is fulfilled during said automatic braking, comprising: cancelling said automatic braking according to a first cancellation condition, wherein the first cancellation condition is fulfilled when an accelerator operation amount is equal to or larger than a predetermined threshold value, during the automatic braking; the vehicle control method being characterized by cancelling said automatic braking according to a second cancellation condition other than the first cancellation condition, wherein the second cancellation condition is fulfilled when a specified collision avoidance operation of a driver is detected under a situation where the accelerator operation amount of the vehicle is smaller than the predetermined threshold value, during the automatic braking. cancelling said automatic braking according to a first cancellation condition, wherein the first cancellation condition is fulfilled when an accelerator operation amount is equal to or larger than a predetermined threshold value, during the automatic braking; the vehicle control method being characterized by cancelling said automatic braking according to a second cancellation condition other than the first cancellation condition, wherein the second cancellation condition is fulfilled when a specified collision avoidance operation of a driver is detected under a situation where the accelerator operation amount of the vehicle is smaller than the predetermined threshold value, during the automatic braking.
Finished part made of a polymer composition, comprising a. polycarbonate, b. a proportion of from 0.00270% by weight to 0.00800% by weight, calculated as solids content of boride in the entire polymer composition, of at least one inorganic IR absorber from the group of the boride compounds with average particle size of the boride compounds smaller than 200 nm and greater than 5 nm and c. a proportion of 0.00090% by weight to 0.00300% by weight, based on the entire composition, of nanoscale carbon black and d. optionally other additives, where the thickness of the finished part is from 3.5 to 7.0 mm. a. polycarbonate, b. a proportion of from 0.00270% by weight to 0.00800% by weight, calculated as solids content of boride in the entire polymer composition, of at least one inorganic IR absorber from the group of the boride compounds with average particle size of the boride compounds smaller than 200 nm and greater than 5 nm and c. a proportion of 0.00090% by weight to 0.00300% by weight, based on the entire composition, of nanoscale carbon black and d. optionally other additives, where the thickness of the finished part is from 3.5 to 7.0 mm.
A nitric oxide delivery system comprising: an inlet to connect to a source of pharmaceutical gas comprising nitric oxide; an outlet to connect to a device that introduces the pharmaceutical gas to a patient; a first flow control valve in fluid communication with the inlet and outlet, wherein the first flow control valve delivers the pharmaceutical gas at a first flow rate; a second flow control valve in fluid communication with the inlet and outlet and in parallel to the first flow control valve, wherein the second flow control valve delivers the pharmaceutical gas at a second flow rate that is higher than the first flow rate; and a gas control system that delivers a dose of the pharmaceutical gas into a patient's inspiratory gas flow through one or more of the first flow control valve and the second flow control valve; characterised in that the first flow control valve provides a flow of pharmaceutical gas of about 1 L/min and wherein the second flow control valve provides a flow of pharmaceutical gas of about 6 L/min.. an inlet to connect to a source of pharmaceutical gas comprising nitric oxide; an outlet to connect to a device that introduces the pharmaceutical gas to a patient; a first flow control valve in fluid communication with the inlet and outlet, wherein the first flow control valve delivers the pharmaceutical gas at a first flow rate; a second flow control valve in fluid communication with the inlet and outlet and in parallel to the first flow control valve, wherein the second flow control valve delivers the pharmaceutical gas at a second flow rate that is higher than the first flow rate; and a gas control system that delivers a dose of the pharmaceutical gas into a patient's inspiratory gas flow through one or more of the first flow control valve and the second flow control valve; characterised in that the first flow control valve provides a flow of pharmaceutical gas of about 1 L/min and wherein the second flow control valve provides a flow of pharmaceutical gas of about 6 L/min..
A bistable electromagnetic positioning device with an armature unit (10, 12, 10, 14, 16, 18, 20, 22) that can be moved along a longitudinal axis of movement between at least two actuated positions relative to a stationary coil unit and in response to an energisation of the same, which has engagement means at one or both ends for purposes of operating in conjunction with a downstream unit that is to be positioned, wherein the armature unit has permanent magnetic means (12, 14) on both sides of the coil unit in the direction of the longitudinal axis of movement, which are designed for purposes of operation in conjunction with a stationary core region assigned to the coil unit such that, in response to the energisation of the coil unit with a DC voltage signal of a first polarity, the armature unit is moved into a first of the actuated positions, which is preferably at one end and stable when no power is applied, and in response to the energisation of the coil unit with a DC voltage signal of a second polarity, the armature unit is moved into a second of the actuated positions, axially opposed to the first actuated position, preferably at the other end and stable when no power is applied, wherein the armature unit is of an elongated design and has a shaft section provided centrally, which extends through the coil unit and/or the core region, wherein the positioning device is accommodated in a housing of a magnetically conducting material, characterised in that, in addition the shaft section has separate, permanent magnetic flux-conducting sections adjoining the respective permanent magnetic means on both sides, wherein the core region likewise has permanent magnetic flux-conducting disks at both ends, such that the armature unit can be moved to a third of the actuated positions, at which mutually opposed forces of attraction of the permanent magnetic means do not cause any of the permanent magnetic means to adhere to the core region, in that in the third actuated position a closed permanent magnetic flux over the surrounding housing is enabled by the respective flux-conducting section and the associated flux-conducting disc for each permanent magnetic means, wherein the third actuated position lies along the direction of the longitudinal axis of movement between the first actuated position at one end and the second actuated position at the other end.
Isolating apparatus for interrupting direct current between a direct current source and an electrical device, having a mechanical switch, which has a first fixed contact, a second fixed contact and a contact bridge that is able to move between a first position and a second position, wherein, in the first position, the first fixed contact and the second fixed contact are electrically contact-connected by means of the contact bridge and, in the second position, the contact bridge is spaced apart from the first fixed contact and the second fixed contact, and wherein the contact bridge and the first fixed contact are electrically contact-connected to a semiconductor switch, which does not conduct current when the contact bridge is in the first position, and wherein a control input of the semiconductor switch is interconnected with the mechanical switch in such a way that, when the contact bridge moves into the second position, an arc voltage generated as a result of an arc across the switch causes the semiconductor switch to become current-conducting, wherein, in the second position, the second fixed contact and the contact bridge are galvanically isolated.
A lighting device comprising a lighting unit, wherein the lighting unit comprises (i) at least one solid state light source configured to generate light source light and (ii) an elongated luminescent concentrator comprising at least one light input surface (143, 144, 201) and a light exit surface extending at an angle different from zero with respect to one another, wherein the at least one solid state light source is configured to provide the light source light to the at least one light input surface, the luminescent concentrator comprising a luminescent material configured to convert at least part of the light source light into luminescent material light, wherein the luminescent material comprises a cerium doped garnet material, wherein the lighting device is configured to generate lighting device light comprising at least part of said luminescent material light, wherein the luminescent material is configured to provide said luminescent material light upon excitation by said light source light in an excitation band of said luminescent material, wherein the light source is configured to provide said light source light with a full width half maximum (FWHM) of equal to or less than 20 nm, and wherein said light source is configured to excite the luminescent material in an isosbestic point of said excitation band, wherein the light source is configured to provide said light source light having a peak maximum, wherein said peak maximum is selected within 10 nm of said isosbestic point.
A bottom garment, comprising a main body portion and tightening portions, said tightening portions being provided at the front side of the thigh, wherein the tightening portions consist of a first tightening portion and a second tightening portion, the first tightening portion extending from the groin to pass the front side of the thigh and further extending obliquely downward to reach the outside of the leg, and the second tightening portion extending from the outside of the leg located at substantially the same height as the groin, to reach the front side of the thigh and further extending obliquely downward to reach the inner side of the leg, the first tightening portion and the second tightening portion formed to intersect with each other at a section corresponding to the middle point between the interspinal point and patellar midpoint of a human body, the section being located at the front side of the thigh, wherein the middle point is located within a region in which the ratio between the length extending from the interspinal point to the middle point and the length extending from the middle point to the patellar midpoint is 4:6 through 6:4; and further wherein no tightening portions (3a, 3b) are provided on the rear side of the thigh.
A power tool system, comprising: a power tool configured to receive an input power via a cable from a power source; a communications system disposed within the power tool, wherein the communications system comprises communications circuitry configured to receive operating information related to the power tool; characterized by a retrofit tag removably and retroactively coupled to an external surface of a housing of the power tool, wherein the retrofit tag is configured to wirelessly couple with the communications system to receive at least a portion of the operating information with a first wireless communication mode, and wherein the retrofit tag is configured to transmit at least a portion of the operating information with a second wireless communication mode, and wherein the first wireless communication mode is different than the second wireless communication mode. a power tool configured to receive an input power via a cable from a power source; a communications system disposed within the power tool, wherein the communications system comprises communications circuitry configured to receive operating information related to the power tool; characterized by a retrofit tag removably and retroactively coupled to an external surface of a housing of the power tool, wherein the retrofit tag is configured to wirelessly couple with the communications system to receive at least a portion of the operating information with a first wireless communication mode, and wherein the retrofit tag is configured to transmit at least a portion of the operating information with a second wireless communication mode, and wherein the first wireless communication mode is different than the second wireless communication mode.
A method of handling control PDUs in a wireless communications system which operates in Acknowledged Mode, AM, said wireless communications system comprising a communications device having a Radio Link Control entity, in the following referred to as RLC entity, said RLC entity comprising a transmitting side and a receiving side, the method characterised by: re-establishing only the transmitting side; discarding a first control PDU corresponding to the transmitting side; and retaining and not discarding a second control PDU corresponding to the receiving side; wherein the first control PDU corresponding to the transmitting side is a RESET PDU or a MRW STATUS PDU; and wherein the second control PDU corresponding to the receiving side is an ACK/NACK STATUS PDU or a change window size STATUS PDU or an MRW ACK STATUS PDU or a RESET ACK PDU. re-establishing only the transmitting side; discarding a first control PDU corresponding to the transmitting side; and retaining and not discarding a second control PDU corresponding to the receiving side; wherein the first control PDU corresponding to the transmitting side is a RESET PDU or a MRW STATUS PDU; and wherein the second control PDU corresponding to the receiving side is an ACK/NACK STATUS PDU or a change window size STATUS PDU or an MRW ACK STATUS PDU or a RESET ACK PDU.
A method of forming a component having an internal passage defined therein, said method comprising: positioning a jacketed core with respect to a mold, wherein the jacketed core includes: a hollow structure formed from at least a first material and a first catalyst; and an inner core disposed within the hollow structure; introducing a component material in a molten state into a cavity of the mold; and cooling the component material in the cavity to form the component, wherein the inner core defines the internal passage within the component. positioning a jacketed core with respect to a mold, wherein the jacketed core includes: a hollow structure formed from at least a first material and a first catalyst; and an inner core disposed within the hollow structure; a hollow structure formed from at least a first material and a first catalyst; and an inner core disposed within the hollow structure; introducing a component material in a molten state into a cavity of the mold; and cooling the component material in the cavity to form the component, wherein the inner core defines the internal passage within the component.
Guidance system for a drone, comprising: - a plurality of devices being interconnected in a wireless network and comprising a radio communication module for communicating with the drone; - a controller connected to the wireless network and intended to program a flight path of the drone by transmitting configuration commands to the respective devices (12, 13, 14, 20) of the wireless network, for configuring the radio communication modules (22, 23, 24, 30),, characterized by the fact that: - a plurality of poles are fixed to the ground and powered by a private or public electric power grid; - each of said devices is fixed to one of said pole and being powered by the electric power grid; - said flight path is a path between two or more poles (2, 3, 4, 10), and - said configuration commands comprise a code for identifying the drone and, for each of said devices (12, 13, 14), a code identifying a following device (13, 14, 20) along said flight path towards which guiding the drone and flight coordinates with deviation intervals, and wherein the radio communication module of one device on a pole in the flight path is configured to guide the drone towards the radio communication module of the following device on a pole in the flight path. - a plurality of devices being interconnected in a wireless network and comprising a radio communication module for communicating with the drone; - a controller connected to the wireless network and intended to program a flight path of the drone by transmitting configuration commands to the respective devices (12, 13, 14, 20) of the wireless network, for configuring the radio communication modules (22, 23, 24, 30),, - a plurality of poles are fixed to the ground and powered by a private or public electric power grid; - each of said devices is fixed to one of said pole and being powered by the electric power grid; - said flight path is a path between two or more poles (2, 3, 4, 10), and - said configuration commands comprise a code for identifying the drone and, for each of said devices (12, 13, 14), a code identifying a following device (13, 14, 20) along said flight path towards which guiding the drone and flight coordinates with deviation intervals, and wherein the radio communication module of one device on a pole in the flight path is configured to guide the drone towards the radio communication module of the following device on a pole in the flight path.