mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a semiconductor device, comprising: providing a substrate, the substrate including a first trench in an NMOS region and a second trench in a PMOS region; depositing a high-K dielectric layer, a cap layer, and a P-type work function metal layer on the bottom and side walls of the first trench and the second trench, wherein the cap layer on the high-K dielectric comprises TiN (titanium nitride) and TaN (tantalum nitride), or TiSiN (titanium silicon nitride) and TaN (tantalum nitride); removing the P-type work function metal layer and the cap layer from the bottom and sidewalls of the first trench; depositing an N-type work function metal layer on the high-K dielectric layer in the first trench and on the P-type work function metal layer in the second trench, wherein the N-type work function metal layer comprises one or more of TiAl (Titanium aluminide), TiCAl (titanium carbon aluminide), TiNAl (titanium nitrogen aluminide) or TiSiAl (titanium silicon aluminide); and depositing a metal electrode layer on the N-type work function metal layer, characterized in that depositing N-type work function metal layer comprises: depositing a first N-type work function metal layer having Ti (titanium) and Al (aluminum) and in which the Ti (titanium) content greater than the Al (aluminum) content, wherein the thickness of the first N-type work function metal layer is 10-15 Å; and depositing, on the first N-type work function metal layer, a second N-type work function metal layer having Ti and Al and in which the Al content greater than the Ti content, wherein the thickness of the second N-type work function metal layer is 35-40 Å. providing a substrate, the substrate including a first trench in an NMOS region and a second trench in a PMOS region; depositing a high-K dielectric layer, a cap layer, and a P-type work function metal layer on the bottom and side walls of the first trench and the second trench, wherein the cap layer on the high-K dielectric comprises TiN (titanium nitride) and TaN (tantalum nitride), or TiSiN (titanium silicon nitride) and TaN (tantalum nitride); removing the P-type work function metal layer and the cap layer from the bottom and sidewalls of the first trench; depositing an N-type work function metal layer on the high-K dielectric layer in the first trench and on the P-type work function metal layer in the second trench, wherein the N-type work function metal layer comprises one or more of TiAl (Titanium aluminide), TiCAl (titanium carbon aluminide), TiNAl (titanium nitrogen aluminide) or TiSiAl (titanium silicon aluminide); and depositing a metal electrode layer on the N-type work function metal layer, depositing a first N-type work function metal layer having Ti (titanium) and Al (aluminum) and in which the Ti (titanium) content greater than the Al (aluminum) content, wherein the thickness of the first N-type work function metal layer is 10-15 Å; and depositing, on the first N-type work function metal layer, a second N-type work function metal layer having Ti and Al and in which the Al content greater than the Ti content, wherein the thickness of the second N-type work function metal layer is 35-40 Å.
A method for operating a combined cycle power plant (CCPP), the method comprising: operating the CCPP at an ambient condition and a load condition; generating a power plant model of the CCPP for operating at the ambient condition and the load condition; modeling a fuel consumption using a baseline control profile and the power plant model of the CCPP at the ambient condition and the load condition; creating a variant control profile for the CCPP; determining, using the power plant model, whether the variant control profile meets a quality threshold for the CCPP, the quality threshold including at least a fuel efficiency of the CCPP; modifying the variant control profile in response to the variant control profile not meeting the quality threshold; and adjusting the CCPP to use the variant control profile in response to the variant control profile meeting the quality threshold, wherein the variant control profile adjusts a turbine section inlet temperature schedule or an exhaust temperature schedule for the CCPP. operating the CCPP at an ambient condition and a load condition; generating a power plant model of the CCPP for operating at the ambient condition and the load condition; modeling a fuel consumption using a baseline control profile and the power plant model of the CCPP at the ambient condition and the load condition; creating a variant control profile for the CCPP; determining, using the power plant model, whether the variant control profile meets a quality threshold for the CCPP, the quality threshold including at least a fuel efficiency of the CCPP; modifying the variant control profile in response to the variant control profile not meeting the quality threshold; and adjusting the CCPP to use the variant control profile in response to the variant control profile meeting the quality threshold, wherein the variant control profile adjusts a turbine section inlet temperature schedule or an exhaust temperature schedule for the CCPP.
A depalletizing system for picking up a plurality of objects to move the picked up objects to a predetermined position, comprising: a camera unit for acquiring image data of tops of the plurality of objects; a controller for performing vision recognition for the acquired image data of tops of the plurality of objects to determine whether two neighboring objects among the plurality of objects are simultaneously pickable; and a picking robot for simultaneously picking up the two objects determined as simultaneously pickable objects to move the picked up objects to the predetermined position, wherein the controller produces a depth map from the image data of tops of the plurality of objects and selects any object that has the highest top level among the plurality of objects as a reference object according to the produced depth map, characterized in that the controller determines whether the neighboring object of the reference object has the same size and surface image as the reference object to determine whether the reference object and the neighboring object are simultaneously pickable according to the determined result. a camera unit for acquiring image data of tops of the plurality of objects; a controller for performing vision recognition for the acquired image data of tops of the plurality of objects to determine whether two neighboring objects among the plurality of objects are simultaneously pickable; and a picking robot for simultaneously picking up the two objects determined as simultaneously pickable objects to move the picked up objects to the predetermined position, wherein the controller produces a depth map from the image data of tops of the plurality of objects and selects any object that has the highest top level among the plurality of objects as a reference object according to the produced depth map, characterized in that the controller determines whether the neighboring object of the reference object has the same size and surface image as the reference object to determine whether the reference object and the neighboring object are simultaneously pickable according to the determined result.
A data processing method, applied for a terminal, comprising: 1.1. obtaining, a downlink reference for uplink transmission in a first cell of a first base station, 1.1.1. wherein the downlink reference is information about a downlink carrier of a second cell of a second base station, 1.1.2 a frequency of a downlink carrier of the first cell is higher than a frequency of the downlink carrier of the second cell, and 1.1.3 determining, information about an uplink carrier of the first cell of the first base station based on the downlink reference, and synchronizing, in the first cell based on the downlink reference, uplink data transceiving frequencies and/or uplink data transceiving timings between the terminal and the first base station; 1.2. obtaining, uplink grant information send by the first base station in the first cell, wherein the uplink grant information comprises information about an uplink time-frequency resource on the uplink carrier of the first cell; and 1.3. sending, uplink data to the first base station on the uplink time-frequency resource by using the downlink reference. 1.1. obtaining, a downlink reference for uplink transmission in a first cell of a first base station, 1.1.1. wherein the downlink reference is information about a downlink carrier of a second cell of a second base station, 1.1.2 a frequency of a downlink carrier of the first cell is higher than a frequency of the downlink carrier of the second cell, and 1.1.3 determining, information about an uplink carrier of the first cell of the first base station based on the downlink reference, and synchronizing, in the first cell based on the downlink reference, uplink data transceiving frequencies and/or uplink data transceiving timings between the terminal and the first base station; 1.1.1. wherein the downlink reference is information about a downlink carrier of a second cell of a second base station, 1.1.2 a frequency of a downlink carrier of the first cell is higher than a frequency of the downlink carrier of the second cell, and 1.1.3 determining, information about an uplink carrier of the first cell of the first base station based on the downlink reference, and synchronizing, in the first cell based on the downlink reference, uplink data transceiving frequencies and/or uplink data transceiving timings between the terminal and the first base station; 1.2. obtaining, uplink grant information send by the first base station in the first cell, wherein the uplink grant information comprises information about an uplink time-frequency resource on the uplink carrier of the first cell; and 1.3. sending, uplink data to the first base station on the uplink time-frequency resource by using the downlink reference.
Method for locating faults along an energy supply chain for DC current systems, in which at least one reference short circuit (A, B, C) is generated at a known reference fault location (18', 18", 18"') of the energy supply chain and at least one physical property of the energy supply chain is determined during the reference short circuit, in which at least one physical property of the energy supply chain is determined during an operational short circuit and in which a fault location of the operational short circuit is determined, taking into account at least the determined physical property during the reference short circuit and the operational short circuit and the reference fault location.
A touch screen, comprising a color filter substrate comprising a first base substrate and a first electrode disposed on the first base substrate; an array substrate comprising a second base substrate and a transparent conductive layer that is disposed on the second base substrate, wherein the transparent conductive layer comprises a second electrode and a common electrode, wherein the color filter substrate and the array substrate are disposed opposite to each other so that the first electrode and the second electrode are offset from each other, without being directly facing each other in a direction orthogonal to the color filter substrate and the array substrate; the touchscreen is configured to employ a time-shared display and touch operation, wherein the time of a frame to be displayed is divided into a display time period and a touch operation time period, and the touch screen is configured to during the touch time period, use the first electrode and the common electrode as touch sensing electrode for receiving a touch sensing signal (Rx) and the second electrode as a touch driving electrode for applying a touch driving signal (Tx), or use the first electrode and the common electrode as the touch driving electrode for receiving the touch driving signal (Tx) and the second electrode as the touch sensing electrode for applying the touch sensing signal (Rx); and during the display time period, apply the second electrode and the common electrode with a common electrode signal (Vcom). during the touch time period, use the first electrode and the common electrode as touch sensing electrode for receiving a touch sensing signal (Rx) and the second electrode as a touch driving electrode for applying a touch driving signal (Tx), or use the first electrode and the common electrode as the touch driving electrode for receiving the touch driving signal (Tx) and the second electrode as the touch sensing electrode for applying the touch sensing signal (Rx); and during the display time period, apply the second electrode and the common electrode with a common electrode signal (Vcom).
A method for controlling or regulating, respectively, a production process in a digital printing press comprising at least one further processing device without marks or codes, which are defined and imprinted prior to the printing process, wherein the production process comprises one or a plurality of jobs, wherein corresponding product data for one or a plurality of production steps of the production device for each of these jobs is stored in a storage device for creating an intermediate, partial or finished product, wherein product data comprise imaging data, imposition schemes and/or product structure data and wherein the method comprise the following steps: a. capturing a print image of an intermediate, partial or finished product of an order by means of a capturing device after at least one predetermined production step of the production device, b. comparing the captured print image to the product data stored for each job and with respect to the predetermined production step in order to assign the corresponding job and the corresponding intermediate, partial or finished product to the captured print image, c. based on the comparison, performing the inspection of the previous processing or production steps, respectively, and/or a calculation of the following control actions for the job assigned to the intermediate, partial or finished product, d. carrying out the control actions by the production device. a. capturing a print image of an intermediate, partial or finished product of an order by means of a capturing device after at least one predetermined production step of the production device, b. comparing the captured print image to the product data stored for each job and with respect to the predetermined production step in order to assign the corresponding job and the corresponding intermediate, partial or finished product to the captured print image, c. based on the comparison, performing the inspection of the previous processing or production steps, respectively, and/or a calculation of the following control actions for the job assigned to the intermediate, partial or finished product, d. carrying out the control actions by the production device.
An apparatus for slicing food products, in particular a high-performance slicer, having a cutting region at whose end a cutting blade moves, in particular in a rotating and/or revolving manner, in a cutting plane; and having a transport device which transports products to be sliced in a direction of transport to the cutting region over one track or multiple tracks, wherein the transport device in the or each transport track comprises a plurality of positioners for the products simultaneously driven in the direction of transport and arranged spaced apart from one another in the direction of transport and each section of the transport device between two consecutive positioners in each track forms a product compartment for exactly one product to be sliced, characterized in that the transport device is configured for a cyclic transport operation with continuously consecutive transport cycles, wherein the transport cycles respectively comprise a movement phase with product compartments moving in the direction of transport and a waiting phase with stationary product compartments, and in that a takeover device is provided which takes over products coming from the transport device, with the takeover device being formed by a product supply of the cutting region, or with the takeover device being provided in addition to a product supply of the cutting region and being configured to transfer the products coming from the transport device to the product supply, and with the cycling of the transport device being coordinated with the operation of the transfer device. having a cutting region at whose end a cutting blade moves, in particular in a rotating and/or revolving manner, in a cutting plane; and having a transport device which transports products to be sliced in a direction of transport to the cutting region over one track or multiple tracks, wherein the transport device in the or each transport track comprises a plurality of positioners for the products simultaneously driven in the direction of transport and arranged spaced apart from one another in the direction of transport and each section of the transport device between two consecutive positioners in each track forms a product compartment for exactly one product to be sliced, characterized in that the transport device is configured for a cyclic transport operation with continuously consecutive transport cycles, wherein the transport cycles respectively comprise a movement phase with product compartments moving in the direction of transport and a waiting phase with stationary product compartments, and in that a takeover device is provided which takes over products coming from the transport device, with the takeover device being formed by a product supply of the cutting region, or with the takeover device being provided in addition to a product supply of the cutting region and being configured to transfer the products coming from the transport device to the product supply, and with the cycling of the transport device being coordinated with the operation of the transfer device.
A method performed by a network node for handling communication of vehicle to everything, V2X, wireless devices in a wireless communication network, the method comprising: - obtaining data relating to a group of wireless devices, wherein the data comprises a group identity, ID, data describing a service and/or an indication indicating a geographical area; - transmitting to a V2X wireless device, an announcement message announcing the group to the V2X wireless device and wherein the announcement message comprises the obtained data; - receiving a response to the transmitted announcement message from the V2X wireless device for registering to the group of wireless devices; and - responding with a response indicating success or failure of registration of the V2X wireless device. - obtaining data relating to a group of wireless devices, wherein the data comprises a group identity, ID, data describing a service and/or an indication indicating a geographical area; - transmitting to a V2X wireless device, an announcement message announcing the group to the V2X wireless device and wherein the announcement message comprises the obtained data; - receiving a response to the transmitted announcement message from the V2X wireless device for registering to the group of wireless devices; and - responding with a response indicating success or failure of registration of the V2X wireless device.
Motor vehicle structure with a sunroof comprising: - a body comprising in its top part lateral sills (3, 4) comprising the upper edges of the lateral door openings, a sill front crossmember, and, at the rear part, a lower rear crossmember with which there is integral a shelf structure extending inside a rear passenger space of the vehicle, and covered with a lining; - a roof frame defining at least one opening (16, 17), and being configured to be able to act as a support for at least one movable roof closing one part of the opening (16, 17) and for at least one glazed rear part forming a rear windshield closing another part of the opening (16, 17), the roof frame comprising at least one front end crossmember and one rear end crossmember which are connected by longitudinal beams (13, 14), characterized in that: - the roof frame forms a continuous frame which is mounted on upper faces of the lateral sills (3, 4), of the sill front crossmember and the lower rear crossmember of the body, the rear end crossmember of the roof frame being mounted on the lower rear crossmember of the body; - a support for an actuation member of the movable roof is disposed between the rear shelf structure and its lining, close to the rear end crossmember of the roof frame. - a body comprising in its top part lateral sills (3, 4) comprising the upper edges of the lateral door openings, a sill front crossmember, and, at the rear part, a lower rear crossmember with which there is integral a shelf structure extending inside a rear passenger space of the vehicle, and covered with a lining; - a roof frame defining at least one opening (16, 17), and being configured to be able to act as a support for at least one movable roof closing one part of the opening (16, 17) and for at least one glazed rear part forming a rear windshield closing another part of the opening (16, 17), the roof frame comprising at least one front end crossmember and one rear end crossmember which are connected by longitudinal beams (13, 14), - the roof frame forms a continuous frame which is mounted on upper faces of the lateral sills (3, 4), of the sill front crossmember and the lower rear crossmember of the body, the rear end crossmember of the roof frame being mounted on the lower rear crossmember of the body; - a support for an actuation member of the movable roof is disposed between the rear shelf structure and its lining, close to the rear end crossmember of the roof frame.
An apparatus for generating ultrasound, the apparatus comprising: a signal generator arranged to generate a driving signal; and a focussed ultrasound transducer arranged to transmit a focussed ultrasound beam in response to the driving signal received from the signal generator; wherein the signal generator is arranged to combine a carrier wave and a modulating wave having a lower frequency than the carrier wave to generate an amplitude modulated driving signal in which the amplitude of the carrier wave is modulated by the modulating wave by multiplying the carrier wave with the modulating wave; wherein the ultrasound beam is suitable for inducing inertial cavitation in a human or animal body tissue within a focal region of the transducer; and wherein the carrier wave is between 0.5 MHz and 5 MHz and the modulating wave is between 1 KHz and 100 KHz. a signal generator arranged to generate a driving signal; and a focussed ultrasound transducer arranged to transmit a focussed ultrasound beam in response to the driving signal received from the signal generator; wherein the signal generator is arranged to combine a carrier wave and a modulating wave having a lower frequency than the carrier wave to generate an amplitude modulated driving signal in which the amplitude of the carrier wave is modulated by the modulating wave by multiplying the carrier wave with the modulating wave; wherein the ultrasound beam is suitable for inducing inertial cavitation in a human or animal body tissue within a focal region of the transducer; and wherein the carrier wave is between 0.5 MHz and 5 MHz and the modulating wave is between 1 KHz and 100 KHz.
An essentially feeder-free cell culture comprising (i) dissociated human pluripotent stem cells in a defined medium supplemented with 0.5% to 40% human serum, and (ii) a tissue culture vessel, wherein said cells and said medium are contained in said vessel, and wherein said vessel is uncoated and free of matrix. (i) dissociated human pluripotent stem cells in a defined medium supplemented with 0.5% to 40% human serum, and (ii) a tissue culture vessel, wherein said cells and said medium are contained in said vessel, and wherein said vessel is uncoated and free of matrix. wherein said cells and said medium are contained in said vessel, and wherein said vessel is uncoated and free of matrix.