mhurhangee/ep-ind-claims huggingface dataset:
A razor comprising: • one or more blades; and • a coating disposed on at least one of the one or more blades, wherein the coating comprises: - one or more nano-materials selected from the group consisting of carbon-based nano-materials, two-dimensional materials, van der Waals heterostructures, hybrid compounds, and combinations thereof, and - an organic material, characterized in that the one or more nano-materials is present in a concentration of up to 30% by weight, based on the total weight of the coating and in that the carbon-based nano-materials are selected from the group consisting of graphene nano-platelets, graphite nano-platelets, oxidized graphene nano-platelets, oxidized graphite nano-platelets, large area graphene sheets, carbon nanotubes (CNTs), and combinations thereof; wherein two-dimensional materials is defined as including both single layer and multi-layered planar sheets interacting by van der Waals forces, wherein the sheets have an average thickness of up to about 10nm and a lateral size of up to about 5μm; wherein van der Waals heterostructures is defined as the layer-by-layer stacking of different two-dimensional materials and wherein hybrid compounds is defined as materials made by mixing suitable combinations of graphene nano-platelets, graphite nano-platelets, and CNTs with other two-dimensional materials. • one or more blades; and • a coating disposed on at least one of the one or more blades, wherein the coating comprises: - one or more nano-materials selected from the group consisting of carbon-based nano-materials, two-dimensional materials, van der Waals heterostructures, hybrid compounds, and combinations thereof, and - an organic material, characterized in that the one or more nano-materials is present in a concentration of up to 30% by weight, based on the total weight of the coating and in that the carbon-based nano-materials are selected from the group consisting of graphene nano-platelets, graphite nano-platelets, oxidized graphene nano-platelets, oxidized graphite nano-platelets, large area graphene sheets, carbon nanotubes (CNTs), and combinations thereof; wherein two-dimensional materials is defined as including both single layer and multi-layered planar sheets interacting by van der Waals forces, wherein the sheets have an average thickness of up to about 10nm and a lateral size of up to about 5μm; wherein van der Waals heterostructures is defined as the layer-by-layer stacking of different two-dimensional materials and wherein hybrid compounds is defined as materials made by mixing suitable combinations of graphene nano-platelets, graphite nano-platelets, and CNTs with other two-dimensional materials. - one or more nano-materials selected from the group consisting of carbon-based nano-materials, two-dimensional materials, van der Waals heterostructures, hybrid compounds, and combinations thereof, and - an organic material,
A method for making an antibody or isolating a cell that produces the same, the method comprising: a. immunizing a mouse with an antigen of interest, wherein the mouse comprises an endogenous immunoglobulin heavy chain constant region comprising an IgG constant region gene that lacks a sequence encoding a CH1 region due to a germline genetic modification that comprises a deletion of a nucleotide sequence encoding the CH1 domain, and an endogenous IgM constant region gene that encodes a functional CH1 domain, wherein the mouse expresses an IgM that comprises a functional CH1 domain and an IgG that lacks a CH1 domain in whole; b. allowing the mouse to mount an immune response against the antigen of interest; and c. isolating from the mouse a cell that produces an antibody that specifically binds the antigen of interest. a. immunizing a mouse with an antigen of interest, wherein the mouse comprises an endogenous immunoglobulin heavy chain constant region comprising an IgG constant region gene that lacks a sequence encoding a CH1 region due to a germline genetic modification that comprises a deletion of a nucleotide sequence encoding the CH1 domain, and an endogenous IgM constant region gene that encodes a functional CH1 domain, wherein the mouse expresses an IgM that comprises a functional CH1 domain and an IgG that lacks a CH1 domain in whole; b. allowing the mouse to mount an immune response against the antigen of interest; and c. isolating from the mouse a cell that produces an antibody that specifically binds the antigen of interest.
A high strength hot rolled steel sheet containing 0.15 % or less C, 0.5 % or less Si, 0.5 to 2.0 % Mn, 0.06 % or less P, 0.005 % or less S, 0.1 % or less Al, 0.006 % or less N and 0.02 to 0.35 % Ti, further containing 0.05 to 0.7 % Mo by weight percentage, optionally further containing 0.08 % or less Nb, 0.15 % or less V, 0.15 % or less Cu, 0.15 % or less Ni, and 0.5 % or less Cr by weight percentage the balance being Fe, and consisting essentially of a matrix of ferrite structure single phase and fine precipitates which are composite carbides containing Ti and Mo, with a grain size of smaller than 10 nm dispersed in said matrix wherein said fine precipitates are dispersed at a number per unit volume of 5 × 10 4 /μm 3 or higher. 0.15 % or less C, 0.5 % or less Si, 0.5 to 2.0 % Mn, 0.06 % or less P, 0.005 % or less S, 0.1 % or less Al, 0.006 % or less N and 0.02 to 0.35 % Ti, 0.08 % or less Nb, 0.15 % or less V, 0.15 % or less Cu, 0.15 % or less Ni, and 0.5 % or less Cr by weight percentage
A method for operating a power generation device with an inverter for feeding electrical power into a grid, characterized in that the inverter can be operated with at least two different switching frequencies, wherein the ratio of the operating duration of the inverter with a first switching frequency to the operating duration of the inverter with at least one further switching frequency is selected in dependence on at least one manipulated variable, and wherein the proportion of occurring harmonics is selected as a manipulated variable.
A washing drying machine comprising a body, a tub in which the washing cycle is performed, a drum in the tub rotating around its own axis to which the laundry is loaded, a motor which rotates the drum, a belt which transfers the movement of the motor to the drum, a drum shaft around which the drum rotates, and a grounding connection with the body providing the discharge of the static electricity on the drum, characterized by a belt which is produced from non-conductive material to prevent the transfer of the static electricity on the motor to the body and reduces the noise on the grounding line as the motor is in an isolated position, one or more plastic support which is mounted on the feet of the motor and a capacitive RF filter which minimizes the electromagnetic radiation at the supply electricity inlet.
A method, comprising: - receiving a bitstream comprising encoded image data, - forming from said bitstream a set of reference pixels having reference pixel values for intra-picture directional prediction, - predicting a pixel in a rectangular predicted image block by intra-picture directional prediction by using values of one or more selected reference pixels in forming a value of said predicted pixel, wherein the selected reference pixels are selected from a prediction direction with respect to the predicted pixel, said prediction direction being a wide-angle prediction direction that forms an obtuse angle with a top-left direction of said predicted pixel and has been selected from a set of prediction directions, the set of prediction directions being independent of a shape of said predicted image block, and a context selection for entropy decoding of said prediction direction depending on the shape of said predicted image block, - repeating the pixel prediction for a number of pixels to form said predicted image block, and - using said predicted image block in decoding an image block from said bitstream to obtain a decoded image block. - receiving a bitstream comprising encoded image data, - forming from said bitstream a set of reference pixels having reference pixel values for intra-picture directional prediction, - predicting a pixel in a rectangular predicted image block by intra-picture directional prediction by using values of one or more selected reference pixels in forming a value of said predicted pixel, wherein the selected reference pixels are selected from a prediction direction with respect to the predicted pixel, said prediction direction being a wide-angle prediction direction that forms an obtuse angle with a top-left direction of said predicted pixel and has been selected from a set of prediction directions, the set of prediction directions being independent of a shape of said predicted image block, and a context selection for entropy decoding of said prediction direction depending on the shape of said predicted image block, - repeating the pixel prediction for a number of pixels to form said predicted image block, and - using said predicted image block in decoding an image block from said bitstream to obtain a decoded image block.
A method for culturing developmental cells, the method comprising culturing a stem cell, gamete, zygote or embryo in a developmental cell culture medium comprising: (a) water; (b) inorganic salts; (c) at least one energy source; and (d) lipoic acid, the lipoic acid derivatives methylated lipoic acid or dihydrolipoate, or a combination thereof at a concentration of 5 μM to 40 μM. (a) water; (b) inorganic salts; (c) at least one energy source; and (d) lipoic acid, the lipoic acid derivatives methylated lipoic acid or dihydrolipoate, or a combination thereof at a concentration of 5 μM to 40 μM.
A box spring having a base, a number of slats for supporting the base, a frame for receiving the slats, and a number of legs to space the frame from the floor, wherein the frame has a head segment held at a middle crossbeam; wherein the head segment has a head crossbeam, a right head side rail foldable in itself, and a left head side rail foldable in itself; wherein the right head side rail has a middle element pivotably held at the middle crossbeam and a head element pivotably held at the head crossbeam; and wherein the left head side rail has a middle element pivotably held at the middle crossbeam and a head element pivotably held at the head crossbeam such that the head segment can be pushed together after folding in the right head side rail and the left head side rail such that the box spring can be shipped by commercial mail packages having a maximum size of 80 cm x 80 cm x 120 cm; or wherein the frame has a foot segment held at a middle crossbeam; wherein the foot segment has a foot crossbeam, a right foot side rail foldable in itself, and a left foot side rail foldable in itself; wherein the right foot side rail has a middle element pivotably held at the middle crossbeam and a foot element pivotably held at the foot crossbeam; and wherein the left foot side rail has a middle element pivotably held at the middle crossbeam and a foot element pivotably held at the foot crossbeam such that the foot segment can be pushed together after folding in the right foot side rail and the left foot side rail such that the box spring can be shipped by commercial mail packages having a maximum size of 80 cm x 80 cm x 120 cm; wherein the head element of the head side rail of the head side rail (34, 36) is foldably held at the middle element of the head side rail (34, 36) via a folding joint; and/or wherein the foot element of the foot side rail (38, 40) is foldably held at the middle element of the foot side rail (38, 40) via a folding joint, characterized in that the folding joint is formed from a fitting bent in U shape and a respective one joint axle for the middle element and for the head element of the head side rail (34, 36) or for the middle element and for the foot element of the foot side rail (38, 40), with at least one joint axle receiver opening for receiving a joint axle being formed for each joint axle in the fitting.
A method for recording stresses occurring on a motor vehicle, wherein dynamic spring travel changes (dF) which occur in the vehicle suspension system within measuring time periods in the driving mode are recorded, wherein in addition chronologically assigned vehicle velocity values (v) are recorded, and wherein the simultaneously occurring spring travel changes and vehicle velocity values (v) are used to determine stress values, characterized in that the difference between chronologically adjacent maximum spring travel values divided by the difference between the associated times of occurrence are determined as spring travel changes (dF), and in that the frequency of occurrence of maximum spring travel values which occur is determined and is assigned to the detected spring travel changes in the data memory.
A game server method comprising: a video source using game logic to generate video frames and to encode the video frames to a video stream, the video stream being based on a game environment of a video game, the game logic being augmented by an add-on; an I/O device communicating the video stream to a geographically remote client and receiving game commands from the client; add-on storage storing the add-on in a location accessible to the game logic, but on a computing device separate from the game logic, the video source, the I/O device and an add-on manager, and storing add-on data of the add-on in a location accessible to the add-on; and the add-on manager creating an add-on environment configured for use of the add-on by the game logic, associating the add-on with a user account, and associating the add-on data of the add-on with the user account, wherein creating the add-on environment includes creating a directory and installing the add-on in the directory and installing computing instructions configured to redirect communications between the game logic and the add-on so that the game logic can operate as if the add-on were installed locally to the game logic, the redirection being through a network or internet connection with the separate computing device. a video source using game logic to generate video frames and to encode the video frames to a video stream, the video stream being based on a game environment of a video game, the game logic being augmented by an add-on; an I/O device communicating the video stream to a geographically remote client and receiving game commands from the client; add-on storage storing the add-on in a location accessible to the game logic, but on a computing device separate from the game logic, the video source, the I/O device and an add-on manager, and storing add-on data of the add-on in a location accessible to the add-on; and the add-on manager creating an add-on environment configured for use of the add-on by the game logic, associating the add-on with a user account, and associating the add-on data of the add-on with the user account, wherein creating the add-on environment includes creating a directory and installing the add-on in the directory and installing computing instructions configured to redirect communications between the game logic and the add-on so that the game logic can operate as if the add-on were installed locally to the game logic, the redirection being through a network or internet connection with the separate computing device.
Electric multilayer component, comprising: - a stack of dielectric layers and electrode layers arranged alongside one another, and also - external contacts (4a, 4b) of opposite polarities, which are arranged at one and the same outer surface of the stack and are flip-chip contact-connectable, wherein - the electrode layers are connected by one end in each case to an external connection having the same polarity, - characterized in that the electrode layers having different polarities do not overlap in orthogonal projection, wherein two electrode layers having different polarities are arranged on a common dielectric layer and at a distance from one another. - a stack of dielectric layers and electrode layers arranged alongside one another, and also - external contacts (4a, 4b) of opposite polarities, which are arranged at one and the same outer surface of the stack and are flip-chip contact-connectable, wherein - the electrode layers are connected by one end in each case to an external connection having the same polarity, - characterized in that the electrode layers having different polarities do not overlap in orthogonal projection, wherein two electrode layers having different polarities are arranged on a common dielectric layer and at a distance from one another.
An armrest assembly for a chair having armrests (10a,b) arranged on laterally opposite sides of a seat; each armrest comprising respective support structures; the armrest assembly comprising a collective actuation and support member connected to each support structure and being movably supported by bearing means that are connectable to the chair; the bearing means being arranged such that the armrests are movable by translational motion between a forward position and a rear position on the chair, and wherein the collective actuation and support member is a cross bar arranged transversely and below the seat, and provides a rigid connection between the armrests (10a,b), whereby one armrest is movable between the forward position and the rear position by push/pull operation of the other armrest and vice versa.
A method, comprising: creating a payload structure having at least one structure for at least one of requesting and transmitting at least one of assistance and location information in a user-plane location protocol; characterised by adding at least one proprietary extension to the payload structure, wherein the at least one proprietary extension comprises an information element having a vendor-specific payload, and the vendor-specific payload is identified by a vendor identifier, wherein the user-plane location protocol supports a structure for each of requesting assistance information, transmitting assistance information, requesting location information and transmitting location information, and wherein in each structure the said proprietary extension is included. creating a payload structure having at least one structure for at least one of requesting and transmitting at least one of assistance and location information in a user-plane location protocol; characterised by adding at least one proprietary extension to the payload structure, wherein the at least one proprietary extension comprises an information element having a vendor-specific payload, and the vendor-specific payload is identified by a vendor identifier, wherein the user-plane location protocol supports a structure for each of requesting assistance information, transmitting assistance information, requesting location information and transmitting location information, and wherein in each structure the said proprietary extension is included.
A semiconductor light emitting device comprising: a substrate, a plurality of rods aligned on the substrate, a metal layer disposed on the substrate between the rods, a semiconductor layer directly making contact with the metal layer; and covering the rods, and a plurality of particles placed on the rods, wherein the plurality of rods forms a first compound semiconductor layer, the semiconductor layer forms a second compound semiconductor layer, wherein the second compound semiconductor layer is directly connected to the metal layer, and the semiconductor light emitting device further comprises an electrode connected to the metal layer, so that the metal layer serves as an electrode of the semiconductor light emitting device. a substrate, a plurality of rods aligned on the substrate, a metal layer disposed on the substrate between the rods, a semiconductor layer directly making contact with the metal layer; and covering the rods, and a plurality of particles placed on the rods, wherein the plurality of rods forms a first compound semiconductor layer, the semiconductor layer forms a second compound semiconductor layer, wherein the second compound semiconductor layer is directly connected to the metal layer, and the semiconductor light emitting device further comprises an electrode connected to the metal layer, so that the metal layer serves as an electrode of the semiconductor light emitting device.
A computer-implemented method of verifying integrity of a computer software for installation using a distributed hash table and a peer-to-peer distributed ledger, the method comprising: determining a metadata associated with a transaction record stored on the peer-to-peer distributed ledger; determining an indication of an entry stored on the distributed hash table from the metadata; determining a third hash value based on the computer software; determining a fourth hash value from the entry on the distributed hash table; comparing the third hash value and the fourth hash value; and verifying the integrity of the computer software based on the comparing of the third hash value and the fourth hash value. determining a metadata associated with a transaction record stored on the peer-to-peer distributed ledger; determining an indication of an entry stored on the distributed hash table from the metadata; determining a third hash value based on the computer software; determining a fourth hash value from the entry on the distributed hash table; comparing the third hash value and the fourth hash value; and verifying the integrity of the computer software based on the comparing of the third hash value and the fourth hash value.
An end effector for use with a surgical instrument, wherein the end effector comprises: a drive member socket for receiving a drive member, the drive member socket comprising a deflectable tab (8132a, 8132b) for engaging the drive member when it is received in the drive member socket; a latch movably positioned relative to the deflectable tab of the drive member socket between a locking position in which the deflatable tab (8132a, 8132b) is configured to engage the drive member and an unlatched position in which the drive member socket is configured to receive the drive member; a spring positioned adjacent to the latch to bias the latch into a locking position; and a trigger configured to move the latch relative to the deflectable tab of the drive member socket to move the latch from the locking position to the unlatched position. a drive member socket for receiving a drive member, the drive member socket comprising a deflectable tab (8132a, 8132b) for engaging the drive member when it is received in the drive member socket; a latch movably positioned relative to the deflectable tab of the drive member socket between a locking position in which the deflatable tab (8132a, 8132b) is configured to engage the drive member and an unlatched position in which the drive member socket is configured to receive the drive member; a spring positioned adjacent to the latch to bias the latch into a locking position; and a trigger configured to move the latch relative to the deflectable tab of the drive member socket to move the latch from the locking position to the unlatched position.