mhurhangee/ep-ind-claims huggingface dataset:
A combustor of a gas turbine engine, the combustor comprising: a shell (68, 70) with a multiple of impingement flow passages fluidly coupled to an impingement cavity; a liner panel (72, 74) mounted to the shell (68, 70), the liner panel (72, 74) including a rail, the rail including a notch which faces toward the impingement cavity, the rail interfacing with the shell (68, 70), to define the impingement cavity therebetween; a seal within the notch, the seal contacting the shell (68, 70); and a multiple of effusion flow passages though the liner panel (72, 74), wherein the combustor is configured so that air directed through the shell (68, 70) and the liner panel (72, 74) form a pressure drop across the shell (68, 70) that is less than about 80% and greater than about 50% of a pressure drop across the combustor, and so that a pressure drop across the liner panel (72, 74) is greater than about 20% and less than about 50% of the pressure drop across the combustor, wherein the rail includes an interface surface at least partially in contact with the shell (68, 70), the rail surrounds the impingement cavity, and the rail extends from a cold side of the liner panel (72, 74), wherein the multiple of impingement flow passages are though the support shell (68, 70), wherein the seal surrounds the impingement cavity. a shell (68, 70) with a multiple of impingement flow passages fluidly coupled to an impingement cavity; a liner panel (72, 74) mounted to the shell (68, 70), the liner panel (72, 74) including a rail, the rail including a notch which faces toward the impingement cavity, the rail interfacing with the shell (68, 70), to define the impingement cavity therebetween; a seal within the notch, the seal contacting the shell (68, 70); and a multiple of effusion flow passages though the liner panel (72, 74), wherein the combustor is configured so that air directed through the shell (68, 70) and the liner panel (72, 74) form a pressure drop across the shell (68, 70) that is less than about 80% and greater than about 50% of a pressure drop across the combustor, and so that a pressure drop across the liner panel (72, 74) is greater than about 20% and less than about 50% of the pressure drop across the combustor, wherein the rail includes an interface surface at least partially in contact with the shell (68, 70), the rail surrounds the impingement cavity, and the rail extends from a cold side of the liner panel (72, 74), wherein the multiple of impingement flow passages are though the support shell (68, 70), wherein the seal surrounds the impingement cavity.
A photovoltaic module for converting light into electrical energy, comprising a plurality of photovoltaic cells, wherein at least a portion of the photovoltaic cells are electrically connected in series, two module parts, which respectively comprise a plurality of photovoltaic cells, wherein the photovoltaic cells of each module part are electrically connected in series with one another, and wherein the two module parts are electrically connected in parallel, so that the photovoltaic module as a whole has a single positive electrical pole and a single negative electrical pole, wherein the module parts themselves are respectively flat, wherein the module parts are arranged relative to each other in such a manner that they exhibit a sharp bend, so that the two module parts are arranged on opposite sides of the bend and their module planes together form an angle of between 140° and 170°, wherein the bend is arranged in a direction that faces away from a substrate, wherein the two module parts are connected to each other in a permanent manner, characterized in that the photovoltaic cells of a respective module part are formed by full cells or by half cells. comprising a plurality of photovoltaic cells, wherein at least a portion of the photovoltaic cells are electrically connected in series, two module parts, which respectively comprise a plurality of photovoltaic cells, wherein the photovoltaic cells of each module part are electrically connected in series with one another, and wherein the two module parts are electrically connected in parallel, so that the photovoltaic module as a whole has a single positive electrical pole and a single negative electrical pole, wherein the module parts themselves are respectively flat, wherein the module parts are arranged relative to each other in such a manner that they exhibit a sharp bend, so that the two module parts are arranged on opposite sides of the bend and their module planes together form an angle of between 140° and 170°, wherein the bend is arranged in a direction that faces away from a substrate, wherein the two module parts are connected to each other in a permanent manner, characterized in that the photovoltaic cells of a respective module part are formed by full cells or by half cells.
A digital display device comprising, from top to bottom, a first red filter, a transflective liquid crystal display cell, a second red filter and an emissive display cell, the transflective liquid crystal display cell displaying information by means of at least one first seven-segment digit and the emissive display cell comprising a plurality of juxtaposed light points which are arranged so as to display at least one second seven-segment digit.
A gear shift assist device for a gearbox, wherein a lever is provided to convert the rotary movement of a shaft into a linear movement of a slide or vice versa, said lever being connected to the shaft and having an arm and a head, which engages in a cut-out in the slide, wherein the head has two mutually opposite contact faces (13, 14), which interact with counter faces (15, 16) of the cut-out in the slide, characterised in that the head is slotted to form two head sections (20, 21) between the two contact faces (13, 14), in such a manner that the two contact faces (13, 14) can be moved towards each other by a defined amount.
A method performed by a distributed unit, DU, of a base station in a wireless communication system supporting lower layer function division, the method comprising: identifying subframe configuration information; generating a control message including multimedia broadcast multicast service single frequency network, MBSFN,-related information for a subframe, based on the identification; and transmitting the generated control message to a radio unit, RU, of the base station connected to the DU through a fronthaul interface, wherein the MBSFN-related information includes first information for indicating whether a normal cyclic prefix, CP, and an extended CP are mixed in the subframe or not and second information for indicating a number of one or more symbols using the normal CP in the subframe, and wherein the MBSFN-related information is used for zero padding, to match a length of the subframe defined in a standard, in the RU. identifying subframe configuration information; generating a control message including multimedia broadcast multicast service single frequency network, MBSFN,-related information for a subframe, based on the identification; and transmitting the generated control message to a radio unit, RU, of the base station connected to the DU through a fronthaul interface, wherein the MBSFN-related information includes first information for indicating whether a normal cyclic prefix, CP, and an extended CP are mixed in the subframe or not and second information for indicating a number of one or more symbols using the normal CP in the subframe, and wherein the MBSFN-related information is used for zero padding, to match a length of the subframe defined in a standard, in the RU.
Framework for an electric heating module capable of cooperating with at least one heat sink and at least one resistive element of the electric heating module, said framework comprising a frame delimited by two longitudinal edges and two lateral edges, the frame being provided with at least one void for housing the resistive element, the framework being conformed such that the sinks can be disposed on either side thereof, the framework comprising at least one means for positioning the heat sink on the framework, characterized in that said at least one positioning means is located at one of the lateral edges of the framework capable of preventing both a longitudinal movement of the heat sink and a lateral movement of the heat sink in relation to the framework.
A hydraulic drive for fatigue tests comprising a multiple cylinder including two pistons (6, 8) substantially arranged in parallel and fixedly connected to each other, the first piston being controlled by a first hydraulic partial control and the second piston being controlled by a second hydraulic partial control, the first partial control sustaining a static load and the second partial control controlling a dynamic load, wherein a respective piston (6, 8) delimits two cylinder chambers (14, 16; 18, 20), the first cylinder chamber delimited by the first piston adapted to be connected to a high-pressure source of the hydraulic drive for sustaining the static load by the first partial control and the cylinder chambers (18, 20) delimited by the second piston being adapted to be alternately connected to the said or a further high-pressure source of the hydraulic drive and a pressure medium sink of the hydraulic drive for controlling the dynamic load by the second partial control, wherein the second partial control includes a control valve by which the cylinder chambers (18, 20) delimited by the second piston are alternately connected to the high-pressure source or the pressure medium sink, and the first partial control including a directional control valve for connecting the first cylinder chamber delimited by the first piston to the high-pressure source, characterized in that the directional control valve is in the form of a 2/2 continuously variable directional control valve (proportional valve) and includes an operating port and a pressure port, a valve slide separating the ports (A, P) from each other at a closed position and interconnecting them at opening positions.
A portable laser device comprising: a hand-held elongated casing formed with a substantially hollow interior space and extending between front and rear ends thereof; a laser emitter formed by at least an exciting lamp and a laser rod spaced from each other; characterised in that the device comprises a low pressure zone formed within said interior space to facilitate formation of a stream of gaseous coolant thereinside, so configured that said stream of gaseous coolant longitudinally passes through said interior space along said laser emitter disposed within said stream of gaseous coolant for heat removal therefrom. a hand-held elongated casing formed with a substantially hollow interior space and extending between front and rear ends thereof; a laser emitter formed by at least an exciting lamp and a laser rod spaced from each other; characterised in that the device comprises a low pressure zone formed within said interior space to facilitate formation of a stream of gaseous coolant thereinside, so configured that said stream of gaseous coolant longitudinally passes through said interior space along said laser emitter disposed within said stream of gaseous coolant for heat removal therefrom.
A method to decode an orthogonal frequency-division multiplex (OFDM) signal data block that includes symbol-data in a data interval, repeated-data in a cyclic-prefix guard interval, and noise, said signal characterized as a CP-OFDM signal, said method comprising: determining a first data set based on data samples taken during a first time window of a data block; determining a second data set based on data samples taken during a second time window of the data block, wherein the second time window is selected so that the second data set includes repeated-data not present in the first data set; and characterized by combining the first data set and the second data set wherein the step of combining the first data set and the second data set includes time-aligning the repeated-data of the second data set not present in the first data set with the corresponding symbol data of the first data set, and determining a maximal ratio combining (MRC) of the first data set and the second data set. determining a first data set based on data samples taken during a first time window of a data block; determining a second data set based on data samples taken during a second time window of the data block, wherein the second time window is selected so that the second data set includes repeated-data not present in the first data set; and characterized by combining the first data set and the second data set wherein the step of combining the first data set and the second data set includes time-aligning the repeated-data of the second data set not present in the first data set with the corresponding symbol data of the first data set, and determining a maximal ratio combining (MRC) of the first data set and the second data set.
A cooling device including a cooling surface adapted to be in contact with a component to be cooled, wherein the device comprises a first (2;40;50) extruded piece including a plurality of grooves (21;53) and a second (1;42;54) extruded piece including a plurality of protruding elements (8;56) extending into the grooves of the first piece, the first and second pieces are joined together and the protruding elements and the corresponding grooves are designed such that a plurality of flow channels for transportation of a cooling fluid (30;70) are formed between the grooves and corresponding protruding elements, the flow channels are elongated and characterized in that they are arranged with their longitudinal axes inclined with respect to the cooling surface by having the angle between the longitudinal axes of the flow channels and an axis orthogonal to the cooling surface between 5° and 45°.
A method for adaptive location perturbation, comprising: adaptively selecting, by a processing resource of a mobile device executing instructions stored on a non-transitory medium, between a plurality of localization technologies that have differing magnitudes of location measurement error to perturb a location measurement of the mobile device; wherein the selecting comprises context-aware selecting to increase perturbation of the location measurement of the mobile device in a selected location by probabilistically selecting between the plurality of localization technologies for at least one location measurement based upon an adaptively assigned percent chance that each of the localization technologies will be selected; adaptively switching between the plurality of localization technologies to perturb at least one of a plurality of locations measured by the plurality of localization technologies during transit of a trajectory by the mobile device, and sending the perturbed location measurement of the mobile device to a location-based service provider. adaptively selecting, by a processing resource of a mobile device executing instructions stored on a non-transitory medium, between a plurality of localization technologies that have differing magnitudes of location measurement error to perturb a location measurement of the mobile device; wherein the selecting comprises context-aware selecting to increase perturbation of the location measurement of the mobile device in a selected location by probabilistically selecting between the plurality of localization technologies for at least one location measurement based upon an adaptively assigned percent chance that each of the localization technologies will be selected; adaptively switching between the plurality of localization technologies to perturb at least one of a plurality of locations measured by the plurality of localization technologies during transit of a trajectory by the mobile device, and sending the perturbed location measurement of the mobile device to a location-based service provider.
A high beam condenser for a high-and-low-beam integrated vehicle lamp module, which comprises at least one light incident portion, a light passage portion, and a light emergent portion, wherein a 50L dark area light shape forming structure is formed on the light passage portion; the 50L dark area light shape forming structure protrudes from a surface of the light passage portion and has a slope surface; and a distance from the slope surface to the surface of the light passage portion gradually increases from a position close to the light incident portion to a position close to the light emergent portion characterized in that an edge of the light emergent portion forms a cut-off line forming structure, and an edge line of the light emergent surface of the 50L dark area light shape forming structure is in connection with an edge line of the cut-off line forming structure, and the slope surface and a surface of the light passage portion where the slope surface is located form an included angle α, wherein 0°<α≤10°.
Device for comminuting metal chips, - having at least one rotatably mounted knife shaft, to which at least two cutting modules are detachably fixed, the cutting modules each being placed individually on the at least one knife shaft and being fixed detachably such that, as seen in the direction of rotation of the knife shaft, there are at least two cutting modules in each case, - having a motor drive for rotating the at least one knife shaft, - having at least one stationary knife bar interacting with the cutting modules of the at least one knife shaft, - having at least one endless conveyor for metal chips, where the metal chips transported by the endless conveyor can be stripped off the endless conveyor by the cutting modules fixed to the knife shaft, - characterized in that - the endless conveyor can be driven by the motor drive of the knife shaft. - having at least one rotatably mounted knife shaft, to which at least two cutting modules are detachably fixed, the cutting modules each being placed individually on the at least one knife shaft and being fixed detachably such that, as seen in the direction of rotation of the knife shaft, there are at least two cutting modules in each case, - having a motor drive for rotating the at least one knife shaft, - having at least one stationary knife bar interacting with the cutting modules of the at least one knife shaft, - having at least one endless conveyor for metal chips, where the metal chips transported by the endless conveyor can be stripped off the endless conveyor by the cutting modules fixed to the knife shaft, - characterized in that - the endless conveyor can be driven by the motor drive of the knife shaft.
A method implemented by a path computation element, PCE, and comprising: receiving, from a path computation client, PCC, a first Path Computation Element Communication Protocol, PCEP, message that is an OPEN message, the first PCEP message comprising a first Segment Routing over IPv6, SRv6, capability type-length-value, TLV, indicating that the PCC supports SRv6; sending, to the PCC, a second PCEP message that is an OPEN message, the second PCEP message comprising a second SRv6 capability TLV indicating that the PCE supports SRv6; and after receiving the first PCEP message and sending the second PCEP message, sending, to the PCC, a third PCEP message comprising an explicit route object, ERO, for establishing a SRv6 tunnel, wherein the ERO comprises an SRv6-ERO subobject, and wherein the SRv6-ERO subobject comprises an SRv6 segment identifier, SID. receiving, from a path computation client, PCC, a first Path Computation Element Communication Protocol, PCEP, message that is an OPEN message, the first PCEP message comprising a first Segment Routing over IPv6, SRv6, capability type-length-value, TLV, indicating that the PCC supports SRv6; sending, to the PCC, a second PCEP message that is an OPEN message, the second PCEP message comprising a second SRv6 capability TLV indicating that the PCE supports SRv6; and after receiving the first PCEP message and sending the second PCEP message, sending, to the PCC, a third PCEP message comprising an explicit route object, ERO, for establishing a SRv6 tunnel, wherein the ERO comprises an SRv6-ERO subobject, and wherein the SRv6-ERO subobject comprises an SRv6 segment identifier, SID.
A speaker device comprising a frame, two opposite directed diaphragms (3, 3'), and two speaker drivers, each having at least one magnetic driver (10, 10') for driving the two opposite directed diaphragms (3, 3') in operation, further comprising two speaker dampers (5, 5') associated with the two opposite directed diaphragms (3, 3'), each of the two speaker dampers (5, 5') comprising a coil bracket (4, 4') arranged to be driven by the associated at least one magnetic driver (10, 10'), a diaphragm connection member (6, 6') arranged to fixedly attach the diaphragm (3, 3') to the speaker damper (5, 5'), and a damper frame connection member (8, 8') arranged to fixate the speaker damper (5, 5') to the frame, each of the two speaker dampers (5, 5') further comprising a damper leg member (7, 7') arranged between the diaphragm connection member (6, 6') and the damper frame connection member (8, 8'). two speaker dampers (5, 5') associated with the two opposite directed diaphragms (3, 3'), each of the two speaker dampers (5, 5') comprising a coil bracket (4, 4') arranged to be driven by the associated at least one magnetic driver (10, 10'), a diaphragm connection member (6, 6') arranged to fixedly attach the diaphragm (3, 3') to the speaker damper (5, 5'), and a damper frame connection member (8, 8') arranged to fixate the speaker damper (5, 5') to the frame, each of the two speaker dampers (5, 5') further comprising a damper leg member (7, 7') arranged between the diaphragm connection member (6, 6') and the damper frame connection member (8, 8').
A system (100, 300) for emitting excitation light directed to a reaction region, the system comprising: a substrate comprising a printed circuit board; a light-emitting diode in physical contact with the substrate and configured to emit excitation light to the reaction region; a temperature sensor on the substrate, in thermal contact with the LED, and capable of measuring a temperature and generating a temperature signal; a temperature regulating system; a fan controlled by temperature regulating system; and a user input device in communication with the temperature regulating system and capable of inputting an operating temperature range including a nominal temperature and an acceptable deviation value range; wherein the temperature regulating system is capable of (i) receiving the temperature signal, (ii) adjusting the temperature signal to compensate for any thermal masses intervening between the LED and the temperature sensor and to calculate an operating temperature signal of the LED, and (iii) regulating an operating temperature of the LED based on the operating temperature signal by controlling the fan to maintain the operating temperature within the operating temperature range. a substrate comprising a printed circuit board; a light-emitting diode in physical contact with the substrate and configured to emit excitation light to the reaction region; a temperature sensor on the substrate, in thermal contact with the LED, and capable of measuring a temperature and generating a temperature signal; a temperature regulating system; a fan controlled by temperature regulating system; and a user input device in communication with the temperature regulating system and capable of inputting an operating temperature range including a nominal temperature and an acceptable deviation value range; wherein the temperature regulating system is capable of (i) receiving the temperature signal, (ii) adjusting the temperature signal to compensate for any thermal masses intervening between the LED and the temperature sensor and to calculate an operating temperature signal of the LED, and (iii) regulating an operating temperature of the LED based on the operating temperature signal by controlling the fan to maintain the operating temperature within the operating temperature range.