mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting diode device, comprising: a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer; a first electrode on the light emitting structure; a pad on the light emitting structure a second electrode including a conductive substrate under the light emitting structure; an insulating layer around the light emitting structure; and a photon escape layer on the light emitting structure wherein the photon escape layer has a refractive index that is between a refractive index of the light emitting structure and a refractive index of air such that an escape probability for photons emitted by the light emitting structure is increased, wherein the first electrode includes four electrodes which are arranged in a cross shape, wherein the four electrodes of the first electrode arranged in a cross shape are spaced apart from each other in a region where the pad is disposed, wherein the pad is disposed on a region of an upper surface of the light emitting structure, wherein the photon escape layer is a transmitting layer, and wherein the photon escape layer is on the insulating layer, characterised in that the photon escape layer is on the first electrode, in that the four electrodes of the first electrode are partially exposed from the photon escape layer in the pad region, and in that the pad is disposed on said exposed part of the four electrodes of the first electrode. a light emitting structure including a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer; a first electrode on the light emitting structure; a pad on the light emitting structure a second electrode including a conductive substrate under the light emitting structure; an insulating layer around the light emitting structure; and a photon escape layer on the light emitting structure wherein the photon escape layer has a refractive index that is between a refractive index of the light emitting structure and a refractive index of air such that an escape probability for photons emitted by the light emitting structure is increased, wherein the first electrode includes four electrodes which are arranged in a cross shape, wherein the four electrodes of the first electrode arranged in a cross shape are spaced apart from each other in a region where the pad is disposed, wherein the pad is disposed on a region of an upper surface of the light emitting structure, wherein the photon escape layer is a transmitting layer, and wherein the photon escape layer is on the insulating layer, characterised in that the photon escape layer is on the first electrode, in that the four electrodes of the first electrode are partially exposed from the photon escape layer in the pad region, and in that the pad is disposed on said exposed part of the four electrodes of the first electrode.
A method of manufacturing a core material (500, 400,150) for a vacuum insulation panel, comprising: (a) preparing a solution of an inorganic binder; (b) dipping glass wool into the inorganic binder solution; (c) loading the glass wool on an upper portion of a chamber; (d) creating a vacuum in the chamber to discharge the inorganic binder solution from the glass wool into the chamber; and (e) drying and molding the glass wool into the form of a core material (500, 400, 150) for manufacturing a vacuum insulation panel. (a) preparing a solution of an inorganic binder; (b) dipping glass wool into the inorganic binder solution; (c) loading the glass wool on an upper portion of a chamber; (d) creating a vacuum in the chamber to discharge the inorganic binder solution from the glass wool into the chamber; and (e) drying and molding the glass wool into the form of a core material (500, 400, 150) for manufacturing a vacuum insulation panel.
A diode circuit comprising a self conducting transistor and a diode, wherein a drain contact of the transistor forming or being connected to an outer cathode contact (C*) of the diode circuit, wherein a gate contact of the transistor is connected to an anode contact of the diode, and wherein the gate contact of the transistor and the anode contact of the diode are connected to an outer anode contact (A*) of the diode circuit, wherein a source contact of the transistor is connected to a cathode of the diode, characterized in that the transistor and the diode comprise a common GaN semiconductor layer arranged on a common substrate; wherein the diode comprises a first AlGaN semiconductor layer disposed on the common GaN semiconductor layer, wherein the first AlGaN semiconductor layer and the common GaN semiconductor layer are formed and arranged, such that a two-dimensional electron lake is formed between them, and wherein the anode contact of the diode and the cathode contact of the diode are arranged on that upper side which faces away from the common GaN semiconductor layer of the first AlGaN semiconductor layer; wherein the transistor is an AlGaN/GaN field effect transistor and comprises a second AlGaN semiconductor layer, that is separated from the first semiconductor layer and is arranged on the common GaN semiconductor layer, wherein the second AlGaN semiconductor layer and the common GaN semiconductor layer are formed and arranged, such that a further two-dimensional electron lake is formed between them, and wherein the source contact, the gate contact and the drain contact are arranged on that upper side which faces away from the common semiconductor layer of the second AlGaN semiconductor layer; and wherein the anode contact of the diode is a Schottky contact, the cathode contact of the diode is an ohmic contact, the source contact of the transistor is an ohmic contact, and the drain contact of the transistor is an ohmic contact.
Device for determining a quality of a media data stream comprising a sequence of data stream sections which transmit different media sections of a media content at quality-to-bitrate levels that vary across the media content, the device being configured to: derive, by a derivation specification that is the same for all of the data stream sections, from each data stream section an identifier for the respective section; look up, for each data stream section, a parameter set which describes a coding quality of the data stream section from a look-up table by means of the identifier derived for the respective data stream section; aggregate the parameter sets that are looked up for data stream sections that transmit media sections that lie within a test section of the media content; and determine the quality on the basis of the aggregated parameter sets, wherein the device is implemented by a microprocessor, a programmable computer or an electronic circuit. derive, by a derivation specification that is the same for all of the data stream sections, from each data stream section an identifier for the respective section; look up, for each data stream section, a parameter set which describes a coding quality of the data stream section from a look-up table by means of the identifier derived for the respective data stream section; aggregate the parameter sets that are looked up for data stream sections that transmit media sections that lie within a test section of the media content; and determine the quality on the basis of the aggregated parameter sets, wherein the device is implemented by a microprocessor, a programmable computer or an electronic circuit.
A mesoporous polymeric material comprising a plurality of cyclodextrin moieties crosslinked by one or more aryl moieties, optionally wherein the cyclodextrin moieties comprise β-cyclodextrin, and optionally wherein at least two of the plurality of cyclodextrin moieties are crosslinked by two or more aryl moieties; wherein the one or more aryl moieties are selected from the following moieties:
An audio processing method, executed by an electronic device, comprising: performing speech feature conversion on a text to be processed to obtain at least one acoustic feature frame; extracting a conditional feature from each acoustic feature frame using a frame rate network; performing frequency division and time-domain down-sampling on the each acoustic feature frame to obtain n subframes, n being a positive integer greater than 1, and each subframe of the n subframes comprising a preset number of sampling points; synchronously predicting, using a sampling prediction network, in an i-th prediction iteration, m sample values corresponding to current m adjacent sampling points on each of the n subframes to obtain m×n sub-prediction values, wherein after all iterations have been performed, n sub-prediction values are obtained for each sampling point of the preset number of sampling points, i being a positive integer greater than or equal to 1, and m being a positive integer greater than or equal to 2 and less than or equal to the preset number; and obtaining an audio prediction signal corresponding to the each acoustic feature frame according to the n sub-prediction values corresponding to each sampling point, and then, performing audio synthesis on the audio prediction signal corresponding to each acoustic feature frame of the at least one acoustic feature frame to obtain a target audio corresponding to the text to be processed. performing speech feature conversion on a text to be processed to obtain at least one acoustic feature frame; extracting a conditional feature from each acoustic feature frame using a frame rate network; performing frequency division and time-domain down-sampling on the each acoustic feature frame to obtain n subframes, n being a positive integer greater than 1, and each subframe of the n subframes comprising a preset number of sampling points; synchronously predicting, using a sampling prediction network, in an i-th prediction iteration, m sample values corresponding to current m adjacent sampling points on each of the n subframes to obtain m×n sub-prediction values, wherein after all iterations have been performed, n sub-prediction values are obtained for each sampling point of the preset number of sampling points, i being a positive integer greater than or equal to 1, and m being a positive integer greater than or equal to 2 and less than or equal to the preset number; and obtaining an audio prediction signal corresponding to the each acoustic feature frame according to the n sub-prediction values corresponding to each sampling point, and then, performing audio synthesis on the audio prediction signal corresponding to each acoustic feature frame of the at least one acoustic feature frame to obtain a target audio corresponding to the text to be processed.
A bearing member for a valve gear comprising a cam shaft, the cam shaft having: a cam for opening/closing at least one of an intake valve and an exhaust valve; and a plurality of journal parts, characterized in the bearing member including: a cam cap supporting the journal part from above, surrounding it; a bearing base part supporting the journal part from below; and a stepped part provided on an inner peripheral surface of the cam cap facing the journal part, overhanging on an inner peripheral side of the inner peripheral surface, wherein an upstream-side end portion of the stepped part is positioned more on a downstream side than an upstream-side abutting surface of the cam cap, whereas a downstream-side end portion of the stepped part is positioned more on an upstream side than a downstream-side abutting surface of the cam cap, wherein the stepped part is formed by a resin coating. a cam for opening/closing at least one of an intake valve and an exhaust valve; and a plurality of journal parts, characterized in the bearing member including: a cam cap supporting the journal part from above, surrounding it; a bearing base part supporting the journal part from below; and a stepped part provided on an inner peripheral surface of the cam cap facing the journal part, overhanging on an inner peripheral side of the inner peripheral surface, wherein an upstream-side end portion of the stepped part is positioned more on a downstream side than an upstream-side abutting surface of the cam cap, whereas a downstream-side end portion of the stepped part is positioned more on an upstream side than a downstream-side abutting surface of the cam cap, wherein the stepped part is formed by a resin coating. a cam cap supporting the journal part from above, surrounding it; a bearing base part supporting the journal part from below; and a stepped part provided on an inner peripheral surface of the cam cap facing the journal part, overhanging on an inner peripheral side of the inner peripheral surface, wherein an upstream-side end portion of the stepped part is positioned more on a downstream side than an upstream-side abutting surface of the cam cap, whereas a downstream-side end portion of the stepped part is positioned more on an upstream side than a downstream-side abutting surface of the cam cap, wherein the stepped part is formed by a resin coating.
A clutch control device comprising: an engine; a transmission; a clutch device configured to connect and disconnect motive power transmission between the engine and the transmission; a clutch actuator configured to drive the clutch device and change a clutch capacity; a manual clutch operating element configured to enable the clutch device to be manually operated; and a control unit configured to calculate a target value of a control parameter of the clutch capacity in accordance with an amount of operation on the manual clutch operating element, wherein when the clutch device is operated on a connection side according to an operation on the manual clutch operating element and when a speed of the operation on the manual clutch operating element is higher than or equal to a predetermined specified speed, the control unit is configured to set the target value to a quick connection target value obtained by making a change to the connection side of the clutch device with respect to an operation correspondence target value according to the amount of operation on the manual clutch operating element, characterised in that a quick clutch connection mode in which the target value is set to the quick connection target value continues for a predetermined specified time period and/or when a rotational speed of the engine is higher than or equal to a predetermined specified rotational speed, the target value is set to the quick connection target value the specified time period changes with the speed of the operation on the manual clutch operating element. an engine; a transmission; a clutch device configured to connect and disconnect motive power transmission between the engine and the transmission; a clutch actuator configured to drive the clutch device and change a clutch capacity; a manual clutch operating element configured to enable the clutch device to be manually operated; and a control unit configured to calculate a target value of a control parameter of the clutch capacity in accordance with an amount of operation on the manual clutch operating element, wherein when the clutch device is operated on a connection side according to an operation on the manual clutch operating element and when a speed of the operation on the manual clutch operating element is higher than or equal to a predetermined specified speed, the control unit is configured to set the target value to a quick connection target value obtained by making a change to the connection side of the clutch device with respect to an operation correspondence target value according to the amount of operation on the manual clutch operating element, characterised in that a quick clutch connection mode in which the target value is set to the quick connection target value continues for a predetermined specified time period and/or when a rotational speed of the engine is higher than or equal to a predetermined specified rotational speed, the target value is set to the quick connection target value the specified time period changes with the speed of the operation on the manual clutch operating element.
A coating composition, comprising: A film-forming resin; and a pigment suitable to absorb and/or scatter electromagnetic radiation in a wavelength range of 800 nm to 2000 nm, wherein the pigment comprises zinc oxide, alumina, antimony tin oxide, tungsten oxide, gold nanoparticles, silver nanoparticles, copper nanoparticles, lanthanum hexaboride, dicopper hydroxide phosphate, a phthalocyanine, or a combination thereof; wherein a coating formed from the coating composition comprises a ratio of reduction in electromagnetic radiation retroreflectance at a wavelength of 905 nm and/or 1550 nm to reduction in electromagnetic radiation retroreflectance averaged over a wavelength range of 400 nm to 700 nm of at least 2:1; wherein the coating absorbs at least 0.1 absorbance units of electromagnetic radiation at a wavelength of 905 nm; and/or wherein the coating absorbs at least 0.2 absorbance units of electromagnetic radiation at a wavelength of 1550 nm. A film-forming resin; and a pigment suitable to absorb and/or scatter electromagnetic radiation in a wavelength range of 800 nm to 2000 nm, wherein the pigment comprises zinc oxide, alumina, antimony tin oxide, tungsten oxide, gold nanoparticles, silver nanoparticles, copper nanoparticles, lanthanum hexaboride, dicopper hydroxide phosphate, a phthalocyanine, or a combination thereof; wherein a coating formed from the coating composition comprises a ratio of reduction in electromagnetic radiation retroreflectance at a wavelength of 905 nm and/or 1550 nm to reduction in electromagnetic radiation retroreflectance averaged over a wavelength range of 400 nm to 700 nm of at least 2:1; wherein the coating absorbs at least 0.1 absorbance units of electromagnetic radiation at a wavelength of 905 nm; and/or wherein the coating absorbs at least 0.2 absorbance units of electromagnetic radiation at a wavelength of 1550 nm.
A dismantlable and portable device for supporting and anchoring a tensioned balancing medium, comprising a webbing support, a webbing holding device and a balancing medium, characterized in that the balancing medium is designed as a webbing which rests on a webbing support, wherein the webbing is being connected to a webbing holding device arranged in its longitudinal direction and that the webbing holding device consists of an elongated floor body, at its front end the webbing is connected by a connecting element, and the distance between the connecting element and the webbing support is at an angle of 20-30° between the webbing and the bottom, and that the floor body has at least three bores for receiving soil nails, wherein the floor body has at least one vertical bore (16A, 16F, 16J) with a right bore angle (18a', 18f', 18j') to the floor body longitudinal axis in the projection plane perpendicular to the floor body transverse axis and at least one oblique bore (16B, 16E, 16H) with a projected bore angle (18b', 18e', 18h') of 40-70° to the longitudinal axis of the floor body on the underside thereof in the direction to the webbing in the projection plane perpendicular to the floor body transverse axis, and at least one further vertical bore (16C, 16D, 16G) with a right bore angle (18c', 18d', 18g') to the longitudinal axis of the floor body in the projection plane perpendicular to the floor body transverse axis and / or a further oblique bore with a projected bore angle of 40-70° to the floor body longitudinal axis on the underside thereof in the direction to the webbing in the projection plane perpendicular to the transverse body axis, wherein two vertical bores (16C, 16D; 16F, 16G) and / or two oblique bores (16H, 161) each form at least one pair of crossed bores, which has a projected bore angle (19c', 19d'; 19f, 19g'; 19h', 19i') of 40-70° to the floor body transverse axis on the left and right side of the floor body in the projection plane perpendicular to the floor body longitudinal axis, and all possible individual bores (16A, 16B, 16E, 16J) which do not form a pair of bores in the projection plane perpendicular to the floor body longitudinal axis have a right bore angle (19a', 19b', 19e', 19j') to the floor body transverse axis, and that at the floor body the ratio of the distance (a) from the connecting element to the center of the distance (c) between the foremost and rearmost bores (16D, 16A; 16G, 16E; 16J, 16H) and the distance (b) from the center of the distance (c) between the foremost and rearmost bores (16D, 16A; 16G, 16E; 16J, 16H;) to the rearmost bores (16A, 16E, 16H) is greater than or equal to 1.5:1, and that at the floor body the distances (d) between the bores along the floor body longitudinal axis are the same.
A field device having a device description, the field device comprising: loop communication circuitry configured to communicate process information using a process standard communication protocol; and a controller coupled to the loop communication circuitry to communicate with one or more process devices using the loop communication circuitry, the controller being coupled to a non-volatile, writeable, non-transitory computer readable medium having a plurality of blocks, a first block containing device executable code, which when executed by the controller causes the field device to provide at least one process control function, wherein the computer readable medium comprises: a second block, at least as large as the first block, the second block containing the device description of the field device, characterized in that: the second block is reserved memory for writing an updated version of the device executable code to the field device, and in that the controller is adapted to overwrite the device description with the updated version of the device executable code. loop communication circuitry configured to communicate process information using a process standard communication protocol; and a controller coupled to the loop communication circuitry to communicate with one or more process devices using the loop communication circuitry, the controller being coupled to a non-volatile, writeable, non-transitory computer readable medium having a plurality of blocks, a first block containing device executable code, which when executed by the controller causes the field device to provide at least one process control function, a second block, at least as large as the first block, the second block containing the device description of the field device, characterized in that: the second block is reserved memory for writing an updated version of the device executable code to the field device, and in that the controller is adapted to overwrite the device description with the updated version of the device executable code. the second block is reserved memory for writing an updated version of the device executable code to the field device, and in that the controller is adapted to overwrite the device description with the updated version of the device executable code.