mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a semiconductor component, with the following method steps: - providing a substrate with an active layer structure disposed thereon, comprising at least one layer (24, 26) made of a semiconducting material, the active layer structure being connected to a source contact and a drain contact, and the source contact and the drain contact being spaced apart from each other, - depositing a passivation layer on the active layer structure, - structuring the passivation layer by means of recesses, - depositing a gate contact in one of the recesses and directly on the active layer structure, wherein at least a part of the gate contact is disposed in the area between the source contact and the drain contact, - depositing a gate field plate on the gate contact, wherein the gate field plate is deposited on the passivation layer and is electrically connected to the gate contact, wherein additionally at least two separate field plates (50, 52, 54, 56, 58, 60) are formed, characterized in that at least one (50, 52, 54) of the separate field plates is formed on the passivation layer at the same time as the gate field plate, and at least one (56, 58) of the separate field plates is formed in a further recess and directly on the active layer structure (24, 26) at the same time as the gate contact such that the gate field plate and the at least two separate field plates do not overlap in a projection onto the active layer structure, which is perpendicular to the substrate. - providing a substrate with an active layer structure disposed thereon, comprising at least one layer (24, 26) made of a semiconducting material, the active layer structure being connected to a source contact and a drain contact, and the source contact and the drain contact being spaced apart from each other, - depositing a passivation layer on the active layer structure, - structuring the passivation layer by means of recesses, - depositing a gate contact in one of the recesses and directly on the active layer structure, wherein at least a part of the gate contact is disposed in the area between the source contact and the drain contact, - depositing a gate field plate on the gate contact, wherein the gate field plate is deposited on the passivation layer and is electrically connected to the gate contact, wherein additionally at least two separate field plates (50, 52, 54, 56, 58, 60) are formed, characterized in that at least one (50, 52, 54) of the separate field plates is formed on the passivation layer at the same time as the gate field plate, and at least one (56, 58) of the separate field plates is formed in a further recess and directly on the active layer structure (24, 26) at the same time as the gate contact such that the gate field plate and the at least two separate field plates do not overlap in a projection onto the active layer structure, which is perpendicular to the substrate.
A fluid evacuation device, comprising an inlet, an outlet and a siphon system provided between the inlet and the outlet, the siphon system defining a trap seal volume configured to retain at least a portion of the fluid flowing between the inlet and the outlet, and comprising a guide extending at least to the trap seal volume in order to constrain the fluid flowing between the inlet and the outlet to pass through the trap seal volume, the evacuation device further comprising a brake provided at least partly in the trap seal volume, the brake being at least partly movable relative to the guide, characterized in that the brake is configured to allow the passage of gas on either side of the brake, out of the trap seal volume, owing to an opening in a part of the brake outside the trap seal volume.
A method for processing interactive user control with a scene of a video clip, comprising: identifying a head of a user that is to interact with the scene of the video clip; tracking the identified head of the user during display of the video clip, the tracking enabling detection of a change in position of the head of the user for each frame of the video clip, the tracking including: identifying a search region within a portion of a frame of the video clip; and comparing values within the search region to template values; and adjusting a view-frustum in accordance with the change in position of the head of the user for each frame of the video clip, wherein identifying the head of the user includes: capturing an image of a face for the head; generating a template of the face using the captured image; characterised by: generating associated images (120b, 120c) where the facial orientation is tilted relative to the captured image; and generating other templates using the generated associated images. identifying a head of a user that is to interact with the scene of the video clip; tracking the identified head of the user during display of the video clip, the tracking enabling detection of a change in position of the head of the user for each frame of the video clip, the tracking including: identifying a search region within a portion of a frame of the video clip; and comparing values within the search region to template values; and adjusting a view-frustum in accordance with the change in position of the head of the user for each frame of the video clip, identifying a search region within a portion of a frame of the video clip; and comparing values within the search region to template values; and adjusting a view-frustum in accordance with the change in position of the head of the user for each frame of the video clip, wherein identifying the head of the user includes: capturing an image of a face for the head; generating a template of the face using the captured image; characterised by: generating associated images (120b, 120c) where the facial orientation is tilted relative to the captured image; and generating other templates using the generated associated images. capturing an image of a face for the head; generating a template of the face using the captured image; characterised by: generating associated images (120b, 120c) where the facial orientation is tilted relative to the captured image; and generating other templates using the generated associated images. generating associated images (120b, 120c) where the facial orientation is tilted relative to the captured image; and generating other templates using the generated associated images.
A sensor device for determining the thermal capacity of a natural gas, the sensor device comprising a substrate; a recess or opening arranged in the substrate; a first heating component and a first sensing component extending over said recess or opening; and control circuitry (4a, 4b); wherein the first heating component comprises a first heating structure and a temperature sensor; and the first sensing component comprises a temperature sensor; wherein the sensor device is configured to heat, at a first measuring step, the first heating structure to a first heating temperature; measure, at the first measuring step, by the temperature sensor of the first sensing component, temperature changes at the first sensing component in dependence on the heating of the first heating structure, thereby measuring the thermal conductivity of the natural gas at a first measuring temperature; heat, at a second measuring step, the first heating structure to a second heating temperature, the second heating temperature being different from the first heating temperature; measure, at the second measuring step, by the temperature sensor of the first sensing component, temperature changes at the first sensing component in dependence on the heating of the first heating structure, thereby measuring the thermal conductivity of the natural gas at a second measuring temperature; determine a first, in particular a constant, and a second, in particular a linear temperature coefficient of a temperature dependency function of the thermal conductivity; and determine the thermal capacity of the natural gas based on a fitting function, wherein the fitting function is dependent on the first and the second temperature coefficient.
A transition metal based pro-catalyst represented by Formula I: wherein, R 1, R 2, R 4, R 6 R 8, R 10 and R 12 are same or different, and independently selected from the group consisting of hydrogen, aryl, hetero-aryl and halide; R 5 and R 9 are tertiary alkyl groups; R 7 and R 11 are same or different, and independently selected from the group consisting of hydrogen and tertiary alkyl group; R 3 is independently selected from the group consisting of hydrogen, halogen, alkoxy, aryloxy, carboxylic and sulphonic; M is a transition metal selected from the group consisting of Hafnium (Hf), Manganese (Mn), Iron (Fe), Rhenium (Re), Tungsten, Niobium (Nb), Tantalum (Ta), Vanadium and Titanium (Ti); X is a halide selected from the group consisting of Cl, Br and I; and n is an integer 2. wherein, R 1, R 2, R 4, R 6 R 8, R 10 and R 12 are same or different, and independently selected from the group consisting of hydrogen, aryl, hetero-aryl and halide; R 5 and R 9 are tertiary alkyl groups; R 7 and R 11 are same or different, and independently selected from the group consisting of hydrogen and tertiary alkyl group; R 3 is independently selected from the group consisting of hydrogen, halogen, alkoxy, aryloxy, carboxylic and sulphonic; M is a transition metal selected from the group consisting of Hafnium (Hf), Manganese (Mn), Iron (Fe), Rhenium (Re), Tungsten, Niobium (Nb), Tantalum (Ta), Vanadium and Titanium (Ti); X is a halide selected from the group consisting of Cl, Br and I; and n is an integer 2.
An information processing apparatus comprising: a receiving unit adapted to receive personal identification information corresponding to a user for which personal information identifying the user is stored in a local system and system identification information to identify the local system, wherein the local system is configured to store personal information for a plurality of users and to associate the personal information identifying the user with the user corresponding to the personal identification information based on system internal user identification information in order to identify the user; a recording unit adapted to associate and record the personal identification information, the system identification information, the system internal user identification information used in the local system to identify the user, and shared data about the user, wherein the shared data is data on health of the user that is shared by the local system and the information processing apparatus; a data search unit adapted to search for the shared data associated with the received personal identification information; a user search unit adapted to search for the system internal user identification information associated with the received personal identification information and the received system identification information; and a transmitting unit adapted to transmit the shared data and the system internal user identification information that are obtained in a search. a receiving unit adapted to receive personal identification information corresponding to a user for which personal information identifying the user is stored in a local system and system identification information to identify the local system, wherein the local system is configured to store personal information for a plurality of users and to associate the personal information identifying the user with the user corresponding to the personal identification information based on system internal user identification information in order to identify the user; a recording unit adapted to associate and record the personal identification information, the system identification information, the system internal user identification information used in the local system to identify the user, and shared data about the user, wherein the shared data is data on health of the user that is shared by the local system and the information processing apparatus; a data search unit adapted to search for the shared data associated with the received personal identification information; a user search unit adapted to search for the system internal user identification information associated with the received personal identification information and the received system identification information; and a transmitting unit adapted to transmit the shared data and the system internal user identification information that are obtained in a search.
A system, comprising: a converter operatively connected to an alternating current power source and a direct current bus, the converter comprising a first plurality of switching devices in selective communication with each phase of the AC power source and the DC bus; an inverter operatively connected to a motor and the DC bus, the inverter comprising a second plurality of switching devices in selective communication with each phase of the motor and the DC bus; and a hybrid DC link system operatively connected between a high side and a low side of the DC bus, the hybrid DC link system comprising a ripple current control branch in parallel with an energy buffering branch; wherein the ripple current control branch comprises at least one film capacitor connected between the high side and the low side of the DC bus; wherein the energy buffering branch comprises a plurality of electrolytic capacitors (62, 64), a first resistor in parallel with a first electrolytic capacitor of the plurality of electrolytic capacitors (62, 64) and a second resistor in series with the first resistor and parallel with a second electrolytic capacitor of the plurality of electrolytic capacitors (62, 64); and characterized in that the energy buffering branch further comprises an impedance element, which is an inductor and/or a resistor, in series with the plurality of electrolytic capacitors (62, 64) between the high side and the low side of the DC bus. a converter operatively connected to an alternating current power source and a direct current bus, the converter comprising a first plurality of switching devices in selective communication with each phase of the AC power source and the DC bus; an inverter operatively connected to a motor and the DC bus, the inverter comprising a second plurality of switching devices in selective communication with each phase of the motor and the DC bus; and a hybrid DC link system operatively connected between a high side and a low side of the DC bus, the hybrid DC link system comprising a ripple current control branch in parallel with an energy buffering branch; wherein the ripple current control branch comprises at least one film capacitor connected between the high side and the low side of the DC bus; wherein the energy buffering branch comprises a plurality of electrolytic capacitors (62, 64), a first resistor in parallel with a first electrolytic capacitor of the plurality of electrolytic capacitors (62, 64) and a second resistor in series with the first resistor and parallel with a second electrolytic capacitor of the plurality of electrolytic capacitors (62, 64); and characterized in that the energy buffering branch further comprises an impedance element, which is an inductor and/or a resistor, in series with the plurality of electrolytic capacitors (62, 64) between the high side and the low side of the DC bus.
A semiconductor device structure, comprising: an electrically conductive semiconductor substrate; a semi-insulating or insulating GaN epitaxial layer on the semiconductor substrate; a GaN based semiconductor device on the semi-insulating or insulating GaN epitaxial layer; a via hole (675, 975) and corresponding via metal (680, 980) in the via hole that extends through layers of the GaN based semiconductor device and the semi-insulating or insulating GaN epitaxial layer; a conductive buffer layer disposed between the electrically conductive semiconductor substrate and the semi-insulating or insulating GaN epitaxial layer, wherein the via hole (675, 975) and the corresponding via metal (680, 980) extend to or into the conductive buffer layer or through the conductive buffer layer to the conductive semiconductor substrate; and wherein the semi-insulating or insulating GaN based epitaxial layer has a thickness of at least 4 μm and a resistivity of at least 10 5 Ω-cm. an electrically conductive semiconductor substrate; a semi-insulating or insulating GaN epitaxial layer on the semiconductor substrate; a GaN based semiconductor device on the semi-insulating or insulating GaN epitaxial layer; a via hole (675, 975) and corresponding via metal (680, 980) in the via hole that extends through layers of the GaN based semiconductor device and the semi-insulating or insulating GaN epitaxial layer; a conductive buffer layer disposed between the electrically conductive semiconductor substrate and the semi-insulating or insulating GaN epitaxial layer, wherein the via hole (675, 975) and the corresponding via metal (680, 980) extend to or into the conductive buffer layer or through the conductive buffer layer to the conductive semiconductor substrate; and wherein the semi-insulating or insulating GaN based epitaxial layer has a thickness of at least 4 μm and a resistivity of at least 10 5 Ω-cm.
A transfer film for in-mold injection molding, comprising: a substrate, a UV curable layer formed on an upper side of the substrate, a hard coating layer formed on an upper side of the UV curable layer, a printed layer formed on an upper side of the hard coating layer, and an adhesive layer formed on the upper side of the printed layer, wherein the substrate includes at least one selected from among polyethylene terephthalate, polycarbonate, polypropylene, polyethylene terephthalate glycol (PETG) and acrylics, and the hard coating includes at least one of urethane, epoxy compounds, and siloxane polymers; characterised in that the UV curable layer comprises a three-dimensional pattern and a release agent composition.
A system for providing communications between a first landmass and a second landmass separated by a body of water comprising: a cable extending between the first landmass and the second landmass, the cable comprising at least one data signal carrying line for carrying optical data signals between the first landmass and the second landmass, the cable (1 12) further comprising a power conductor (116, 116a, 116b, 116c) having a first end on the first landmass and a second end on the second landmass; a plurality of repeaters (114-1...114-M) coupled along the length of the cable between the first landmass and the second landmass for amplifying the optical data signals, each of the plurality of repeaters (114- 1...114-M) being electrically coupled to the power conductor (116, 116a, 116b, 116c); first power feed equipment (118, 118a, 118b) located on the first landmass and electrically coupled to the first end of the power conductor (116, 116a, 116b, 116c); and at least one power feed converter (122, 122a, 122b, 122c) electrically coupled to the power conductor (116, 116a, 116b, 116c), the power feed converter (122, 122a, 122b, 122c) configured for receiving an input current from the first power feed equipment (118, 118a, 118b) and providing a constant output current or voltage to the power conductor (116, 116a, 116b, 116c), wherein the constant output current or voltage is configured to establish an output voltage at the second end of the power conductor (116, 116a, 116b, 116c) of approximately zero volts. a cable extending between the first landmass and the second landmass, the cable comprising at least one data signal carrying line for carrying optical data signals between the first landmass and the second landmass, the cable (1 12) further comprising a power conductor (116, 116a, 116b, 116c) having a first end on the first landmass and a second end on the second landmass; a plurality of repeaters (114-1...114-M) coupled along the length of the cable between the first landmass and the second landmass for amplifying the optical data signals, each of the plurality of repeaters (114- 1...114-M) being electrically coupled to the power conductor (116, 116a, 116b, 116c); first power feed equipment (118, 118a, 118b) located on the first landmass and electrically coupled to the first end of the power conductor (116, 116a, 116b, 116c); and at least one power feed converter (122, 122a, 122b, 122c) electrically coupled to the power conductor (116, 116a, 116b, 116c), the power feed converter (122, 122a, 122b, 122c) configured for receiving an input current from the first power feed equipment (118, 118a, 118b) and providing a constant output current or voltage to the power conductor (116, 116a, 116b, 116c), wherein the constant output current or voltage is configured to establish an output voltage at the second end of the power conductor (116, 116a, 116b, 116c) of approximately zero volts.
A method of downstream flow control in an ONU of an (x)GPON system, the method comprising the step of: - sending a DS_FlowControl_Request message to an OLT, wherein the DS_FlowControl_Request message includes information of transmission inhibiting period determined by the ONU and is used for requesting the OLT to inhibit downstream transmission for a transmission inhibiting period corresponding to the information of transmission inhibiting period, wherein the DS_FlowControl_Request message is a PLOAM message. - sending a DS_FlowControl_Request message to an OLT, wherein the DS_FlowControl_Request message includes information of transmission inhibiting period determined by the ONU and is used for requesting the OLT to inhibit downstream transmission for a transmission inhibiting period corresponding to the information of transmission inhibiting period, wherein the DS_FlowControl_Request message is a PLOAM message.
Sowing unit for a seeder, with - a sowing coulter for discharging seed, - one or more depth-control elements (24a, 24b) for setting the seed-depositing depth of the sowing coulter; and - a roller for catching and embedding the seed discharged by the sowing coulter; wherein the one or more depth-control elements (24a, 24b) and the roller are movable relative to one another in such a manner that the lower contact region of the one or more depth-control elements (24a, 24b) can be positioned above and below the lower contact region of the roller, characterized in that the one or more depth-control elements (24a, 24b) are fastened to a suspension, wherein the suspension is configured to permit a lowering of the lower contact region of the one or more depth-control elements (24a, 24b) below the lower contact region of the roller and/or a raising of the lower contact region of the one or more depth-control elements (24a, 24b) above the lower contact region of the roller. - a sowing coulter for discharging seed, - one or more depth-control elements (24a, 24b) for setting the seed-depositing depth of the sowing coulter; and - a roller for catching and embedding the seed discharged by the sowing coulter; wherein the one or more depth-control elements (24a, 24b) and the roller are movable relative to one another in such a manner that the lower contact region of the one or more depth-control elements (24a, 24b) can be positioned above and below the lower contact region of the roller, characterized in that the one or more depth-control elements (24a, 24b) are fastened to a suspension, wherein the suspension is configured to permit a lowering of the lower contact region of the one or more depth-control elements (24a, 24b) below the lower contact region of the roller and/or a raising of the lower contact region of the one or more depth-control elements (24a, 24b) above the lower contact region of the roller.