mhurhangee/ep-ind-claims huggingface dataset:
Turbine blade comprising at least one cooling channel, a plurality of cooling holes and a hollow main body extending along a longitudinal axis and provided with a wall having an outer face and an inner face; the cooling channel extending inside the main body; each cooling hole being made in the wall and provided with an outlet section having an elongated shape along a main axis; the height of the outlet section, intended as the measure of the maximum dimension of the outlet section along a direction parallel to the main axis, being equal to at least twice the width of the outlet section, intended as the measure of the maximum dimension of the outlet section along a direction orthogonal to the main axis; the turbine blade being characterized in that: - each cooling hole comprises an inlet portion in communication with the respective cooling channel and an outlet portion comprising the outlet section; wherein the inlet portion comprises a conduit having a constant section and extending along an extension axis; - the extension axis is preferably inclined at a first angle (α) with respect to the inner face of the wall; the first angle (α) is comprised between 10° and 50°; - the outlet portion is inclined with respect to the inlet portion at a second angle comprised between 0° and 5°; wherein the second angle is defined between the axis of extension of the inlet portion and the axis of extension of the outlet portion; - the outlet portion comprises two base walls parallel to each other and two side walls diverging towards the outer face; wherein the side walls form a third angle (β); wherein the third angle (β) is comprised between 35° and 60°. - each cooling hole comprises an inlet portion in communication with the respective cooling channel and an outlet portion comprising the outlet section; wherein the inlet portion comprises a conduit having a constant section and extending along an extension axis; - the extension axis is preferably inclined at a first angle (α) with respect to the inner face of the wall; the first angle (α) is comprised between 10° and 50°; - the outlet portion is inclined with respect to the inlet portion at a second angle comprised between 0° and 5°; wherein the second angle is defined between the axis of extension of the inlet portion and the axis of extension of the outlet portion; - the outlet portion comprises two base walls parallel to each other and two side walls diverging towards the outer face; wherein the side walls form a third angle (β); wherein the third angle (β) is comprised between 35° and 60°.
A facility controller for collecting air conditioner information regarding operation of air conditioners comprising outdoor units (1a,1b) and indoor units (2a,2b), said facility controller comprising: a memory means configured to store the air conditioner information; a collection processing section configured to collect the air conditioner information regarding the operation of the air conditioners and for storing the information into the memory means; a transmission processing section configured to receive an instruction from the collection processing section and to transmit the air conditioner information stored in the memory means based on the instruction received; and characterized by said collection processing section being configured to instruct the transmission processing section to transmit the air conditioner information stored in the memory means when the number of collections of the air conditioner information reaches a predetermined value corresponding to the memory means becoming full with the air conditioner information. a memory means configured to store the air conditioner information; a collection processing section configured to collect the air conditioner information regarding the operation of the air conditioners and for storing the information into the memory means; a transmission processing section configured to receive an instruction from the collection processing section and to transmit the air conditioner information stored in the memory means based on the instruction received; and characterized by said collection processing section being configured to instruct the transmission processing section to transmit the air conditioner information stored in the memory means when the number of collections of the air conditioner information reaches a predetermined value corresponding to the memory means becoming full with the air conditioner information.
Method for the production of form parts from multi-component reactive plastic material, especially from polyurethane, wherein a plurality of moulds is moved by means of mould carriages at least temporarily along a closed, preferably oval, production line, characterized in that the mould carriages are provided with rolls and are moved on a stationary ground by the same and that a plurality of supply carriages is arranged along the closed production line at a conveying element, which supply carriages are moved by means of the conveying elements, wherein a mould carriage is approached to a not occupied supply carriage and is releasable coupled with the same to introduce the mould carriage into the production line, wherein here the mould carriage is moved on the stationary ground with its rolls, wherein for the movement along the production line the mould carriage is guided and moved by the supply carriage in a coupled state between the mould carriage and the supply carriage, wherein here the mould carriage is moved with its rolls on the stationary ground, and wherein the mould carriage is decoupled from the supply carriage and is moved away from the production line by a horizontal movement perpendicular to the moving direction of the supply carriage for taking the mould carriage out of the production line, wherein here the mould carriage is moved with its rolls on the stationary ground.
Method for generating swarm trajectories for a given lane of a road section, wherein - a plurality of vehicles (F1,... Fn) driving in the given lane transmit their respective driving trajectories (T1,... Tn) to a backend computer, - the vehicles (F1,... Fn) determine given boundary conditions while driving in the lane and transfer the determined boundary conditions together with the respective trajectory (T1,... Tn) to the backend computer, - the backend computer generates and stores, from the transmitted trajectories (T1,... Tn) and associated boundary conditions, one or more swarm trajectories for the given lane as a function of at least one boundary condition, and - at least the travel time is added as a boundary condition to the trajectories (T1,... Tn) to be transmitted, wherein the travel time is realized over a travel time interval. - a plurality of vehicles (F1,... Fn) driving in the given lane transmit their respective driving trajectories (T1,... Tn) to a backend computer, - the vehicles (F1,... Fn) determine given boundary conditions while driving in the lane and transfer the determined boundary conditions together with the respective trajectory (T1,... Tn) to the backend computer, - the backend computer generates and stores, from the transmitted trajectories (T1,... Tn) and associated boundary conditions, one or more swarm trajectories for the given lane as a function of at least one boundary condition, and - at least the travel time is added as a boundary condition to the trajectories (T1,... Tn) to be transmitted, wherein the travel time is realized over a travel time interval.
A method (550; 1150; 1250) for rendering an audio signal, the method comprising: receiving an input audio signal, the input audio signal comprising a first portion and a second portion; using a reverberation processing system (510A; 510B; 510C) to: apply (552; 1152; 1252) a reverb initial gain, RIG, value to the first portion of the input audio signal, apply (554; 1154, 1254) a reverb initial power, RIP, correction factor to the first portion of the input audio signal, wherein the RIP correction factor is applied after the RIG value is applied, and introduce (556; 1156; 1256) reverberation effects in the first portion of the input audio signal; using a direct processing system to: introduce a delay into the second portion of the input audio signal, and apply a gain to the second portion of the input audio signal; combining the first portion of the input audio signal from the reverberation processing system (510A; 510B; 510C) and the second portion of the input audio signal from the direct processing system; and outputting the combined first and second portions of the input audio signal as an output audio signal; wherein the RIP correction factor depends on one or more of: a reverberator topology, a number and durations of delay units, connection gains, and filter parameters. receiving an input audio signal, the input audio signal comprising a first portion and a second portion; using a reverberation processing system (510A; 510B; 510C) to: apply (552; 1152; 1252) a reverb initial gain, RIG, value to the first portion of the input audio signal, apply (554; 1154, 1254) a reverb initial power, RIP, correction factor to the first portion of the input audio signal, wherein the RIP correction factor is applied after the RIG value is applied, and introduce (556; 1156; 1256) reverberation effects in the first portion of the input audio signal; apply (552; 1152; 1252) a reverb initial gain, RIG, value to the first portion of the input audio signal, apply (554; 1154, 1254) a reverb initial power, RIP, correction factor to the first portion of the input audio signal, wherein the RIP correction factor is applied after the RIG value is applied, and introduce (556; 1156; 1256) reverberation effects in the first portion of the input audio signal; using a direct processing system to: introduce a delay into the second portion of the input audio signal, and apply a gain to the second portion of the input audio signal; introduce a delay into the second portion of the input audio signal, and apply a gain to the second portion of the input audio signal; combining the first portion of the input audio signal from the reverberation processing system (510A; 510B; 510C) and the second portion of the input audio signal from the direct processing system; and outputting the combined first and second portions of the input audio signal as an output audio signal; wherein the RIP correction factor depends on one or more of: a reverberator topology, a number and durations of delay units, connection gains, and filter parameters.
A method of recycling a solar cell module comprising an enclosing layer that encloses a solar cell therein, a light-receiving surface layer laminated on one surface of the enclosing layer, and a back sheet laminated on the other surface of the enclosing layer, the method comprising: a first removing step of mechanically removing the back sheet; characterized by a second removing step of mechanically removing from a side on which the back sheet is removed the entire solar cell and the enclosing layer to such a depth that a part of the enclosing layer having a predetermined thickness remains on the light-receiving surface layer, after the first removing step; and a third removing step of removing the part of the enclosing layer remaining on the light-receiving surface layer by immersion in a solution that causes swelling of the enclosing layer, after the second removing step. a first removing step of mechanically removing the back sheet; characterized by a second removing step of mechanically removing from a side on which the back sheet is removed the entire solar cell and the enclosing layer to such a depth that a part of the enclosing layer having a predetermined thickness remains on the light-receiving surface layer, after the first removing step; and a third removing step of removing the part of the enclosing layer remaining on the light-receiving surface layer by immersion in a solution that causes swelling of the enclosing layer, after the second removing step.
A computer-implemented method for a user equipment, UE (105; 205; 305), the method comprising: passively scanning a radio spectrum to detect a plurality of source signals (120; 220; 330); attempting to detect a source signal (120; 220; 330) from a plurality of synchronization sources (115, 215; 310); and if a source signal (120; 220) of the plurality of source signals is detected, synchronizing to the detected source signal (120; 220); receiving a synchronization request signal (130; 230; 330) from a geographically proximate UE (110; 210); if the synchronization source (115, 215) is an evolved Node B ("eNB") or a global navigation satellite system ("GNSS"); forwarding a synchronization reference signal (135; 235) based on the detected source signal (120; 220) to the geographically proximate UE (110; 210); else if no source signal of the plurality of source signals is detected, generating a synchronization signal (130; 230; 330); and transmitting the generated synchronization signal (130; 230; 330) to the geographically proximate UE (110, 210). passively scanning a radio spectrum to detect a plurality of source signals (120; 220; 330); attempting to detect a source signal (120; 220; 330) from a plurality of synchronization sources (115, 215; 310); and if a source signal (120; 220) of the plurality of source signals is detected, synchronizing to the detected source signal (120; 220); receiving a synchronization request signal (130; 230; 330) from a geographically proximate UE (110; 210); if the synchronization source (115, 215) is an evolved Node B ("eNB") or a global navigation satellite system ("GNSS"); forwarding a synchronization reference signal (135; 235) based on the detected source signal (120; 220) to the geographically proximate UE (110; 210); else if no source signal of the plurality of source signals is detected, generating a synchronization signal (130; 230; 330); and transmitting the generated synchronization signal (130; 230; 330) to the geographically proximate UE (110, 210).
Control device for driving a bipolar switchable power semiconductor component, wherein the control device is designed to apply an electrical voltage to a gate terminal of the power semiconductor component and, in order to turn off the power semiconductor component, to reduce the electrical voltage from a first voltage value (U B+) to a second voltage value (U B-), wherein the control device is designed, in order to turn off the power semiconductor component, firstly to reduce the electrical voltage from the first voltage value (U B+) to a desaturation value (U sat) and then to reduce the electrical voltage from the desaturation value (U sat) to the second voltage value (U B-), the desaturation value (U sat) being greater than a pinch-off voltage (U P) of the power semiconductor component, wherein the control device has a first switch for applying the electrical voltage with the first voltage value (U B+) to the gate terminal and a second switch for applying the electrical voltage with the second voltage value (U B-) to the gate terminal, characterized in that the control device is designed to activate the first switch and/or the second switch periodically and to set the electrical voltage to the desaturation value (U sat) by specifying a duty cycle for the activation of the first switch and/or of the second switch, the control device has a measuring unit for measuring a collector current (I C) at a collector terminal of the power semiconductor component and the control device is designed to determine the desaturation value (U sat) on the basis of the collector current (I C).
A vehicle headlamp (1L, 1R) comprising: a semiconductor-type light source; a lens configured to form a light distribution pattern (LP, HP) out of the incident light from the semiconductor-type light source to illuminate a roadway in front of a vehicle with said light distribution pattern (LP, HP); a light control member; and a driving member configured to position the light control member so as to be changeably movable between a first location and a second location, wherein: the light control member includes a light shading portion; and wherein the light shading portion is arranged such that when the light control member is positioned in the first location, the light shading portion shades a part of the light from the semiconductor-type light source while remaining light is incident to the lens, so that the lens forms a light distribution pattern for low beam; and that when the light control member is positioned in the second location, the light shading portion allows, without shading, the light from the semiconductor-type light source to be incident to the lens, so that the lens forms a light distribution pattern for high beam, characterized in that the light shading portion is plate-shaped. a semiconductor-type light source; a lens configured to form a light distribution pattern (LP, HP) out of the incident light from the semiconductor-type light source to illuminate a roadway in front of a vehicle with said light distribution pattern (LP, HP); a light control member; and a driving member configured to position the light control member so as to be changeably movable between a first location and a second location, wherein: the light control member includes a light shading portion; and wherein the light shading portion is arranged such that when the light control member is positioned in the first location, the light shading portion shades a part of the light from the semiconductor-type light source while remaining light is incident to the lens, so that the lens forms a light distribution pattern for low beam; and that when the light control member is positioned in the second location, the light shading portion allows, without shading, the light from the semiconductor-type light source to be incident to the lens, so that the lens forms a light distribution pattern for high beam, characterized in that the light shading portion is plate-shaped. the light control member includes a light shading portion; and wherein the light shading portion is arranged such that when the light control member is positioned in the first location, the light shading portion shades a part of the light from the semiconductor-type light source while remaining light is incident to the lens, so that the lens forms a light distribution pattern for low beam; and that when the light control member is positioned in the second location, the light shading portion allows, without shading, the light from the semiconductor-type light source to be incident to the lens, so that the lens forms a light distribution pattern for high beam, characterized in that the light shading portion is plate-shaped.
Process for producing polyether siloxanes, characterized in that said process comprises reacting a) one or more unsaturated polyethers with b) one or more SiH-functional siloxanes in the presence of c) Pt compounds and d) one or more tertiary amines of general formula 1 where R 1 = R 2 or independently at each occurence H or a C 2 to C 14 alkyl radical, R 2 = C 1 to C 14 alkyl radicals bearing at least one OH groups. a) one or more unsaturated polyethers with b) one or more SiH-functional siloxanes in the presence of c) Pt compounds and d) one or more tertiary amines of general formula 1 where R 1 = R 2 or independently at each occurence H or a C 2 to C 14 alkyl radical, R 2 = C 1 to C 14 alkyl radicals bearing at least one OH groups. R 1 = R 2 or independently at each occurence H or a C 2 to C 14 alkyl radical, R 2 = C 1 to C 14 alkyl radicals bearing at least one OH groups.
A system, comprising: a first data path to a register file comprising an arithmetic logic unit, a data cache, a multiplexer, and a programmable shifter device; a second data path to said register file comprising components, wherein the components include the arithmetic logic unit, the multiplexer, and the programmable shifter device; wherein in an address generation mode, data flows from the arithmetic logic unit through the data cache, the multiplexer, and the programmable shifter device to said register file via the first data path; and wherein in an arithmetic mode data flows from the arithmetic logic unit through the multiplexer and the programmable shifter device to the register file via the second data path, in response to a control signal provided from an instruction cache to the arithmetic logic unit, the multiplexer and the programmable shifter device; wherein the multiplexer has a first multiplexer input to receive an arithmetic output from the arithmetic logic unit, a second multiplexer input to receive data from the data cache, and a control multiplexer input to receive the control signal; wherein the arithmetic output received in the arithmetic mode includes data resulting from an arithmetic operation performed by the arithmetic logic unit and bits that indicate an amount the resulting arithmetic operation data is to be shifted by the programmable shifter device. a first data path to a register file comprising an arithmetic logic unit, a data cache, a multiplexer, and a programmable shifter device; a second data path to said register file comprising components, wherein the components include the arithmetic logic unit, the multiplexer, and the programmable shifter device; wherein in an address generation mode, data flows from the arithmetic logic unit through the data cache, the multiplexer, and the programmable shifter device to said register file via the first data path; and wherein in an arithmetic mode data flows from the arithmetic logic unit through the multiplexer and the programmable shifter device to the register file via the second data path, in response to a control signal provided from an instruction cache to the arithmetic logic unit, the multiplexer and the programmable shifter device; wherein the multiplexer has a first multiplexer input to receive an arithmetic output from the arithmetic logic unit, a second multiplexer input to receive data from the data cache, and a control multiplexer input to receive the control signal; wherein the arithmetic output received in the arithmetic mode includes data resulting from an arithmetic operation performed by the arithmetic logic unit and bits that indicate an amount the resulting arithmetic operation data is to be shifted by the programmable shifter device.