mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle information transmission device comprising: a display device characterized in that the display device is configured to display a first virtual image of light which has a predetermined color tone at a position on a vehicle body, at which visual recognition of a certain object is prompted, when the visual recognition is prompted, and configured to display a second virtual image of light which has a different color tone from the first virtual image of light at a position on the vehicle body which is different from the position, at which the first virtual image of light is displayed, irrespective of whether the visual recognition is prompted or not; further comprising a control unit configured to adjust the position at which the second virtual image of light is displayed on a basis of the position at which the first virtual image of light is displayed when the visual recognition is prompted, wherein when the visual recognition is prompted, the control unit is further configured to decrease a light level of only a portion, which corresponds to the position at which the visual recognition is prompted, of the second virtual image of light displayed on the vehicle body. a display device characterized in that the display device is configured to display a first virtual image of light which has a predetermined color tone at a position on a vehicle body, at which visual recognition of a certain object is prompted, when the visual recognition is prompted, and configured to display a second virtual image of light which has a different color tone from the first virtual image of light at a position on the vehicle body which is different from the position, at which the first virtual image of light is displayed, irrespective of whether the visual recognition is prompted or not; further comprising configured to display a first virtual image of light which has a predetermined color tone at a position on a vehicle body, at which visual recognition of a certain object is prompted, when the visual recognition is prompted, and configured to display a second virtual image of light which has a different color tone from the first virtual image of light at a position on the vehicle body which is different from the position, at which the first virtual image of light is displayed, irrespective of whether the visual recognition is prompted or not; further comprising a control unit configured to adjust the position at which the second virtual image of light is displayed on a basis of the position at which the first virtual image of light is displayed when the visual recognition is prompted, wherein when the visual recognition is prompted, the control unit is further configured to decrease a light level of only a portion, which corresponds to the position at which the visual recognition is prompted, of the second virtual image of light displayed on the vehicle body.
A cubic boron nitride particle having a coating layer formed thereon, the coating layer comprising: a first coating layer including nitrides, borides, or boronitrides of Ti or Al and formed on a surface of the cubic boron nitride particle; and a second coating layer including nitrides, borides, or boronitrides including one or more elements selected from the group consisting of Ti, Si, Al, Cr, Y, Nb, V, W, Mo, and Zr formed on the first coating layer. a first coating layer including nitrides, borides, or boronitrides of Ti or Al and formed on a surface of the cubic boron nitride particle; and a second coating layer including nitrides, borides, or boronitrides including one or more elements selected from the group consisting of Ti, Si, Al, Cr, Y, Nb, V, W, Mo, and Zr formed on the first coating layer.
A printed dipole antenna , comprising: a dielectric substrate ; a plurality of antenna elements on the dielectric substrate , wherein each of the antenna elements is configured to generate resonant modes in a different section of a radio-frequency spectrum to provide wideband antenna capabilities, and wherein the different sections of the radio-frequency spectrum comprise a first frequency spectrum of between about 600 megahertz, MHz, and about 960 MHz, a second frequency spectrum of between about 1,700 MHz and about 2,800 MHz, and a third frequency spectrum of between about 3,500 MHz and about 6,000 MHz; a reference ground on the dielectric substrate ; a signal excitation port coupled to the antenna elements , wherein the signal excitation port is arranged to receive a first feed cable ; a first ground port coupled to the reference ground , wherein the first ground port is arranged to receive the first feed cable ; and a second ground port coupled to the reference ground , wherein the second ground port is arranged to receive a second feed cable to be utilized as a current return or for grounding. a dielectric substrate ; a plurality of antenna elements on the dielectric substrate , wherein each of the antenna elements is configured to generate resonant modes in a different section of a radio-frequency spectrum to provide wideband antenna capabilities, and wherein the different sections of the radio-frequency spectrum comprise a first frequency spectrum of between about 600 megahertz, MHz, and about 960 MHz, a second frequency spectrum of between about 1,700 MHz and about 2,800 MHz, and a third frequency spectrum of between about 3,500 MHz and about 6,000 MHz; a reference ground on the dielectric substrate ; a signal excitation port coupled to the antenna elements , wherein the signal excitation port is arranged to receive a first feed cable ; a first ground port coupled to the reference ground , wherein the first ground port is arranged to receive the first feed cable ; and a second ground port coupled to the reference ground , wherein the second ground port is arranged to receive a second feed cable to be utilized as a current return or for grounding.
An operating method of a terminal for a multinet aggregation service, comprising: transmitting a first message requesting multinet aggregation service activation to an authentication server ; receiving a second message that is a response to the first message from the authentication server ; and accessing a gateway positioned at a contact of the multinet when response information included in the second message is acceptance for the request, when the response information is the acceptance for the request, the second message includes at least one address of the gateway , and wherein the accessing of the gateway accesses to the gateway based on a first address selected from at least one address wherein when using multinet aggregation service, the terminal and the gateway transmit and receive data through a primary subflow and a secondary subflow generated through a primary path, a sub path, respectively; wherein the gateway is a network apparatus that aggregates subflows transmitted to a multi-path or splits and transmits a flow transmitted to a single path into the subflows of the multi-path. transmitting a first message requesting multinet aggregation service activation to an authentication server ; receiving a second message that is a response to the first message from the authentication server ; and accessing a gateway positioned at a contact of the multinet when response information included in the second message is acceptance for the request, when the response information is the acceptance for the request, the second message includes at least one address of the gateway , and wherein the accessing of the gateway accesses to the gateway based on a first address selected from at least one address wherein when using multinet aggregation service, the terminal and the gateway transmit and receive data through a primary subflow and a secondary subflow generated through a primary path, a sub path, respectively; wherein the gateway is a network apparatus that aggregates subflows transmitted to a multi-path or splits and transmits a flow transmitted to a single path into the subflows of the multi-path.
A method for depositing a material on a substrate , comprising: introducing a powder and a carrier gas into a first chamber , wherein the first chamber is a heated tube; heating the powder such that at least a portion of the powder vaporizes into a vapor; wherein the first chamber comprises one or more first chamber walls which are permeable to the vapor and the carrier gas but impermeable to the powder; directing a mixture of the vapor and carrier gas through the one or more first chamber walls of the first chamber and into a second chamber , wherein the second chamber is tubular and is positioned outside the first chamber so that the second tubular chamber sheaths at least a portion of the first chamber, and the second chamber is positioned to provide an irregular flow of the vapor so as to mix the vapor and the carrier gas into a substantially uniform vapor/carrier gas composition; directing the substantially uniform vapor/carrier gas composition into a nozzle ; directing the substantially uniform vapor/carrier gas composition out of an orifice of the nozzle toward a surface of a substrate having a temperature lower than the vapor, wherein the substrate is underlying the nozzle; and heating the substantially uniform vapor/carrier gas composition, after the substantially uniform vapor/carrier gas composition is directed out of the nozzle, to maintain a vapor state. introducing a powder and a carrier gas into a first chamber , wherein the first chamber is a heated tube; heating the powder such that at least a portion of the powder vaporizes into a vapor; wherein the first chamber comprises one or more first chamber walls which are permeable to the vapor and the carrier gas but impermeable to the powder; directing a mixture of the vapor and carrier gas through the one or more first chamber walls of the first chamber and into a second chamber , wherein the second chamber is tubular and is positioned outside the first chamber so that the second tubular chamber sheaths at least a portion of the first chamber, and the second chamber is positioned to provide an irregular flow of the vapor so as to mix the vapor and the carrier gas into a substantially uniform vapor/carrier gas composition; directing the substantially uniform vapor/carrier gas composition into a nozzle ; directing the substantially uniform vapor/carrier gas composition out of an orifice of the nozzle toward a surface of a substrate having a temperature lower than the vapor, wherein the substrate is underlying the nozzle; and heating the substantially uniform vapor/carrier gas composition, after the substantially uniform vapor/carrier gas composition is directed out of the nozzle, to maintain a vapor state.
A power supply device , comprising: a casing having an accommodating space and at least one opening ; a printed circuit board (PCB) having a plurality of electronic elements thereon and being disposed in the accommodating space ; characterized in that the power supply device further comprises at least one pair of slots disposed at inner walls of the casing and configured to engage the PCB for positioning the PCB , wherein a gel-fillable channel is defined between the electronic elements and the inner walls of the casing , and wherein a gel portion is provided between the electronic elements and the casing through the gel-fillable channel , wherein the gel portion includes a thermoplastic gel. a casing having an accommodating space and at least one opening ; a printed circuit board (PCB) having a plurality of electronic elements thereon and being disposed in the accommodating space ; at least one pair of slots disposed at inner walls of the casing and configured to engage the PCB for positioning the PCB , wherein a gel-fillable channel is defined between the electronic elements and the inner walls of the casing , and wherein a gel portion is provided between the electronic elements and the casing through the gel-fillable channel , wherein the gel portion includes a thermoplastic gel.
Adhesive tape applicator with a holder for a roll of adhesive tape and at least one handle and an applicator head arranged so that it is in a fixed position relative to the handle , characterized in that a deflector edge unit is arranged so that it can move relative to the applicator head .
Endoscopy system for examining gas turbines , comprising an endoscope and a data processing device , the endoscope comprising an image recording device , the endoscope being configured to transmit image recordings from the image recording device from inside the gas turbine to the data processing device , wherein the endoscopy system is configured to position and orient the endoscope in a gas turbine in a defined manner, which endoscope is inserted into the gas turbine and comprises the image recording device , wherein the endoscopy system comprises an electronically controlled positioning apparatus for positioning and/or orienting the endoscope in the gas turbine in a defined manner, characterised in that - a rotary apparatus for rotating at least one shaft of the gas turbine is controllable by the data processing device , wherein - the endoscopy system is configured to automatically determine the position and/or orientation of the endoscope in the gas turbine by image processing the image recordings , wherein - the positioning apparatus is configured to then use the determined position data to position and orient the endoscope , wherein - the endoscopy system is configured to automatically determine the rotational position or the angle of rotation of a shaft of the gas turbine , wherein this is carried out by the image recording device and suitable image processing in the data processing device , wherein the absolute rotational position of the shaft is determined on the basis of a marker, wherein the blade lock is detected as a marker by image processing, wherein - the endoscopy system is configured to automatically assign parts of the gas turbine to image recordings of the image recording device , wherein this takes place by automatic image recognition by the data processing device of at least one marker, wherein the blade lock is used as a marker. - a rotary apparatus for rotating at least one shaft of the gas turbine is controllable by the data processing device , wherein - the endoscopy system is configured to automatically determine the position and/or orientation of the endoscope in the gas turbine by image processing the image recordings , wherein - the positioning apparatus is configured to then use the determined position data to position and orient the endoscope , wherein - the endoscopy system is configured to automatically determine the rotational position or the angle of rotation of a shaft of the gas turbine , wherein this is carried out by the image recording device and suitable image processing in the data processing device , wherein the absolute rotational position of the shaft is determined on the basis of a marker, wherein the blade lock is detected as a marker by image processing, wherein - the endoscopy system is configured to automatically assign parts of the gas turbine to image recordings of the image recording device , wherein this takes place by automatic image recognition by the data processing device of at least one marker, wherein the blade lock is used as a marker.
A device for emptying flexible bags containing fluids, comprising it traction means characterized in that it also comprises draining means, the draining means being physically connected to the traction means by positioning means such that they are rotatably movable around the traction means, and the traction means and the draining means being arranged and mutually enabled to stretch a flexible bag from the traction means and simultaneously to pass and circulate the bag through the draining means; and the distance between the traction means and the draining means is variable.
Elongate hose (10; 20a; 20b; 30a; 30b), comprising at least one outwardly facing surface (11; 21a; 21b; 31a; 31b) made of non-conductive material, to which an electrically operable heating device is applied at least over a first axial portion along the hose axis, which heating device can heat the surface (11; 21a; 21b; 31a; 31b) substantially uniformly in the circumferential direction, the heating device having an electrically conductive coating (12; 22a; 22b; 32a; 32b'; 32b"; 32b'"; 32b"") which is applied onto the surface (11; 21a; 21b; 31a; 31b) made of non-conductive material, is chemically rigidly connected to said surface and at least partly covers the surface (11; 21a; 21b; 31a; 31b) over the first axial portion, characterized in that the elongate hose (10; 20a; 20b; 30a; 30b) is designed to be mechanically flexible and wire-free, in that the non-conductive material consists of plastics material or rubber, in that the outwardly facing surface (11; 31a; 31b) made of non-conductive material has at least two flat, metal conducting tracks (14; 34a; 34b) in strip form which extend in parallel with the hose axis at a distance from one another in the circumferential direction without interruption over the entire length of the first axial portion, and in that the electrically conductive coating (12; 32a; 32b'; 32b"; 32b'"; 32b"") has a lower conductivity than the metal conducting tracks (14; 34a; 34b).
A power tool, comprising: a) a casing ; b) a brushless motor mounted inside the casing; the brushless motor adapted to drive one or more movable part in the power tool; c) a user actuated switch mounted on the casing; d) a circuit board mounted inside the casing; characterized in that the circuit board is a single circuit board integrated with a motor controller for the brushless motor, a microcontroller for controlling operation of the power tool, a Hall sensor, a power control device, and a logic controller, and the circuit board is the only circuit board configured in the power tool, and the circuit board is configured to operate all functions of the power tool. a) a casing ; b) a brushless motor mounted inside the casing; the brushless motor adapted to drive one or more movable part in the power tool; c) a user actuated switch mounted on the casing; d) a circuit board mounted inside the casing;
A method for transmitting data frames each on a path comprising at least one router (R) which includes input ports (P1, P2, P3), at least one output port (PS) and an arbitration unit (UA) configured to select a data frame from a plurality of data frames each coming from an input port and competing for transmission through a same output port, the method comprising the following steps of: a) for each router in the path of a target data frame (f A ), specifying, for each of the input ports of the router, competing data frames (f B , fc) with the target data frame for transmission through a target output port of the router and associating, with each of the input ports, a sequence of description of said competing data frames; b) transmitting the target data frame and the competing data frames and measuring an end-to-end transmission time of the target data frame on the path, transmitting the target data frame comprising for each router in the path: i) in the presence of the target data frame (f A ) on a router input port (P1), transmitting an identifier of the target data frame to all other input ports to determine if data frames from these other input sports are competing with the target data frame and selecting, by the arbitration unit, one or more competing data frames (f B ); and ii) transmitting (#1, #2) through the target output port (PS) the one or more competing data frames (f B ) selected prior to transmitting (#3) the target data frame. a) for each router in the path of a target data frame (f A ), specifying, for each of the input ports of the router, competing data frames (f B , fc) with the target data frame for transmission through a target output port of the router and associating, with each of the input ports, a sequence of description of said competing data frames; b) transmitting the target data frame and the competing data frames and measuring an end-to-end transmission time of the target data frame on the path, transmitting the target data frame comprising for each router in the path: i) in the presence of the target data frame (f A ) on a router input port (P1), transmitting an identifier of the target data frame to all other input ports to determine if data frames from these other input sports are competing with the target data frame and selecting, by the arbitration unit, one or more competing data frames (f B ); and ii) transmitting (#1, #2) through the target output port (PS) the one or more competing data frames (f B ) selected prior to transmitting (#3) the target data frame. i) in the presence of the target data frame (f A ) on a router input port (P1), transmitting an identifier of the target data frame to all other input ports to determine if data frames from these other input sports are competing with the target data frame and selecting, by the arbitration unit, one or more competing data frames (f B ); and ii) transmitting (#1, #2) through the target output port (PS) the one or more competing data frames (f B ) selected prior to transmitting (#3) the target data frame.
A system for preventing oxygen inhibition of a light-initiated polymerization reaction at ambient conditions used by a three-dimensional, 3D, printing system, said system comprising: an ultraviolet, UV, light source ; a UV curing space for accepting a workpiece having a layer of UV curable material ; means for purging oxygen from the UV curing space to facilitate, within the UV curing space , UV curing of the UV curable material at times when the UV light source emits UV light onto the layer of UV curable material , wherein the means for purging oxygen include a gas diffusion system for introducing an inert gas into a workspace between the UV light source and the layer of UV material of the workpiece ; and a transparent cover separating the UV light source and the workspace, wherein the gas diffusion system and the transparent cover are arranged relative to one another so as to permit an inert gas flowing in from one or more gas inlets of the gas diffusion system to flow out through a diffuser towards the workspace, and wherein the diffuser has a plurality of micro-holes with bridges of a UV transparent material arranged over said micro-holes so as to be positioned between respective entrances to the micro-holes and the transparent cover . an ultraviolet, UV, light source ; a UV curing space for accepting a workpiece having a layer of UV curable material ; means for purging oxygen from the UV curing space to facilitate, within the UV curing space , UV curing of the UV curable material at times when the UV light source emits UV light onto the layer of UV curable material , wherein the means for purging oxygen include a gas diffusion system for introducing an inert gas into a workspace between the UV light source and the layer of UV material of the workpiece ; and a transparent cover separating the UV light source and the workspace, wherein the gas diffusion system and the transparent cover are arranged relative to one another so as to permit an inert gas flowing in from one or more gas inlets of the gas diffusion system to flow out through a diffuser towards the workspace, and wherein the diffuser has a plurality of micro-holes with bridges of a UV transparent material arranged over said micro-holes so as to be positioned between respective entrances to the micro-holes and the transparent cover .