mhurhangee/patent-ind-claim-en huggingface dataset:
A method by a first wireless communication device (500; 600) for wireless communication, the method comprising: receiving symbols modulated using a first modulation scheme from a second wireless communication device; demodulating the symbols to obtain demodulated bits; determining a signal quality associated with the first modulation scheme based on a number of the demodulated bits; determining a value indicative of an expected bit error rate associated with a second modulation scheme based on the determined signal quality associated with the first modulation scheme; determining whether to switch to the second modulation scheme based on the determined value; and transmitting a message to the second wireless communication device to initiate a protocol exchange with the second wireless communication device to switch the modulation scheme to the second modulation scheme based on the determination, characterized in that the determination of the value indicative of the expected bit error rate includes: determining, for each of the number of demodulated bits, a first metric; determining an average of the first metric over the number of demodulated bits; determining a standard deviation of the first metric over the number of demodulated bits; and determining a second metric, wherein determining the second metric includes dividing the standard deviation by the average, the second metric being indicative of the expected bit error rate. receiving symbols modulated using a first modulation scheme from a second wireless communication device; demodulating the symbols to obtain demodulated bits; determining a signal quality associated with the first modulation scheme based on a number of the demodulated bits; determining a value indicative of an expected bit error rate associated with a second modulation scheme based on the determined signal quality associated with the first modulation scheme; determining whether to switch to the second modulation scheme based on the determined value; and transmitting a message to the second wireless communication device to initiate a protocol exchange with the second wireless communication device to switch the modulation scheme to the second modulation scheme based on the determination, characterized in that the determination of the value indicative of the expected bit error rate includes: determining, for each of the number of demodulated bits, a first metric; determining an average of the first metric over the number of demodulated bits; determining a standard deviation of the first metric over the number of demodulated bits; and determining a second metric, wherein determining the second metric includes dividing the standard deviation by the average, the second metric being indicative of the expected bit error rate.
A method for switching modes for operating a vehicle, the method comprising: determining, by circuitry of an information processing apparatus, whether a mode for operating the vehicle is to be switched from one of autonomous and manual driving modes to the other of the autonomous and manual driving modes; obtaining (S 12) a state of a driver of the vehicle when the mode for operating the vehicle is determined to be switched; switching, by the circuitry, the mode for operating the vehicle from the one of the autonomous and manual driving modes to the other of the autonomous manual driving modes based on the obtained state of the driver; determining (S13) an ability of a driver to drive the vehicle based on the obtained state of the driver; providing (S14) a warning to the driver to change the state of the driver when the ability of the driver is determined to be less than the predetermined level; determining (S15) the ability of the driver to drive the vehicle after the warning is provided to the driver; and switching (S18) the mode for operating the vehicle from the autonomous driving mode to the manual driving mode when the ability of the driver after the warning is provided is determined to be greater than or equal to the predetermined level. determining, by circuitry of an information processing apparatus, whether a mode for operating the vehicle is to be switched from one of autonomous and manual driving modes to the other of the autonomous and manual driving modes; obtaining (S 12) a state of a driver of the vehicle when the mode for operating the vehicle is determined to be switched; switching, by the circuitry, the mode for operating the vehicle from the one of the autonomous and manual driving modes to the other of the autonomous manual driving modes based on the obtained state of the driver; determining (S13) an ability of a driver to drive the vehicle based on the obtained state of the driver; providing (S14) a warning to the driver to change the state of the driver when the ability of the driver is determined to be less than the predetermined level; determining (S15) the ability of the driver to drive the vehicle after the warning is provided to the driver; and switching (S18) the mode for operating the vehicle from the autonomous driving mode to the manual driving mode when the ability of the driver after the warning is provided is determined to be greater than or equal to the predetermined level.
A method, comprising: compiling program code targeted for an image processor having programmable stencil processors , each stencil processor comprising a two-dimensional shift register arranged to store image data for processing and a two dimensional array of execution lanes arranged to operate on the stored image data, the program code being arranged to implement an image processing pipeline structured as a directed acyclic graph of kernel programs (K1-K6) that are to execute on respective ones of said stencil processors, wherein the compiling comprises: determining that the amount of data that is to be processed by the image processing pipeline structured as a directed acyclic graph of kernel programs exceeds the internal storage space limits of the image processor; splitting the directed acyclic graph into a first and second smaller directed acyclic graph of kernel programs, wherein splitting the directed acyclic graph comprises generating a split between a first and second kernel program in the directed acyclic graph; and adding an instruction and/or command to store intermediate image data to memory external to the image processor at an output of the first smaller directed acyclic graph of kernel programs and adding an instruction and/or command to load said intermediate image data from memory external to the image processor at an input of the second smaller directed acyclic graph of kernel programs. determining that the amount of data that is to be processed by the image processing pipeline structured as a directed acyclic graph of kernel programs exceeds the internal storage space limits of the image processor; splitting the directed acyclic graph into a first and second smaller directed acyclic graph of kernel programs, wherein splitting the directed acyclic graph comprises generating a split between a first and second kernel program in the directed acyclic graph; and adding an instruction and/or command to store intermediate image data to memory external to the image processor at an output of the first smaller directed acyclic graph of kernel programs and adding an instruction and/or command to load said intermediate image data from memory external to the image processor at an input of the second smaller directed acyclic graph of kernel programs.
A computer implemented method for providing at least one authentic identification entry in a list of contacts of a communication application on a communication device, comprising the steps of: - requesting a list of authentic message providers from a remote server communicating with the communication device; - receiving the list of authentic message providers from the remote server after said requesting; - storing the list of authentic message providers such that it is coupled to the list of contacts; - coupling at least one image to at least one of the authentic message providers on the list of authentic message providers; and - providing at least one identification entry in the list of contacts, wherein the at least one identification entry is corresponding to the at least one of the authentic message providers on the list of authentic message providers, such that the at least one identification entry comprises at least one image, whereby the at least one identification entry is marked as at least one authentic identification entry. - requesting a list of authentic message providers from a remote server communicating with the communication device; - receiving the list of authentic message providers from the remote server after said requesting; - storing the list of authentic message providers such that it is coupled to the list of contacts; - coupling at least one image to at least one of the authentic message providers on the list of authentic message providers; and - providing at least one identification entry in the list of contacts, wherein the at least one identification entry is corresponding to the at least one of the authentic message providers on the list of authentic message providers, such that the at least one identification entry comprises at least one image, whereby the at least one identification entry is marked as at least one authentic identification entry.
A fingerprint circuit, for a terminal and comprising: a fingerprint circuit cover plate , a fingerprint sensor , a light source and an optical sensing device , wherein a specular reflection layer configured to reflect light is arranged below the fingerprint circuit cover plate , and the light source , the optical sensing device and the fingerprint sensor are positioned below the specular reflection layer , the fingerprint sensor is configured to realize a fingerprint recognition, the specular reflection layer is positioned in a gap between the fingerprint sensor and the fingerprint circuit cover plate ; and the light source and the optical sensing device are positioned on two sides of the fingerprint sensor respectively, wherein light emitted by the light source passes through the gap between the fingerprint sensor and the fingerprint circuit cover plate to irradiate the specular reflection layer , and is reflected to the optical sensing device through the specular reflection layer ; and the optical sensing device is configured to convert the light emitted by the light source and reflected by the specular reflection layer into an electrical signal, and the electrical signal is configured for force touch control. a specular reflection layer configured to reflect light is arranged below the fingerprint circuit cover plate , and the light source , the optical sensing device and the fingerprint sensor are positioned below the specular reflection layer , the fingerprint sensor is configured to realize a fingerprint recognition, the specular reflection layer is positioned in a gap between the fingerprint sensor and the fingerprint circuit cover plate ; and the light source and the optical sensing device are positioned on two sides of the fingerprint sensor respectively, wherein light emitted by the light source passes through the gap between the fingerprint sensor and the fingerprint circuit cover plate to irradiate the specular reflection layer , and is reflected to the optical sensing device through the specular reflection layer ; and the optical sensing device is configured to convert the light emitted by the light source and reflected by the specular reflection layer into an electrical signal, and the electrical signal is configured for force touch control.
A non-catalytic thermal decomposition process comprising: providing generally solid feedstock to a thermal decomposition unit ; moving the feedstock through at least one gasification zone in the thermal decomposition unit with a transfer ram ; and providing oxygen and optionally an additional gas to the gasification zone ; and wherein feedstock is moved through the gasification zone and oxygen is provided to the gasification zone at rate effective for maintaining a material bed temperature not exceeding 1260°C (2300°F) at any point in the material bed, and for maintaining a material bed temperature of 260°C to 1093°C (500°F to 2000°F) characterised in that oxygen is provided to a face of the transfer ram and exits at the face of the transfer ram . providing generally solid feedstock to a thermal decomposition unit ; moving the feedstock through at least one gasification zone in the thermal decomposition unit with a transfer ram ; and providing oxygen and optionally an additional gas to the gasification zone ; and wherein feedstock is moved through the gasification zone and oxygen is provided to the gasification zone at rate effective for maintaining a material bed temperature not exceeding 1260°C (2300°F) at any point in the material bed, and for maintaining a material bed temperature of 260°C to 1093°C (500°F to 2000°F) characterised in that oxygen is provided to a face of the transfer ram and exits at the face of the transfer ram .
A binder composition for a secondary battery electrode comprising: a first particulate polymer having a degree of swelling in electrolysis solution of at least 400 mass% and no greater than 900 mass% and a glass transition temperature of at least -60°C and no higher than -15°C, wherein the first particulate polymer includes at least 50 mass% and no greater than 99.5 mass% of a (meth)acrylic acid ester monomer unit; a second particulate polymer having a degree of swelling in electrolysis solution of greater than 100 mass% and no greater than 200 mass% and a glass transition temperature of at least -10°C and no higher than 30°C; and water. a first particulate polymer having a degree of swelling in electrolysis solution of at least 400 mass% and no greater than 900 mass% and a glass transition temperature of at least -60°C and no higher than -15°C, wherein the first particulate polymer includes at least 50 mass% and no greater than 99.5 mass% of a (meth)acrylic acid ester monomer unit; a second particulate polymer having a degree of swelling in electrolysis solution of greater than 100 mass% and no greater than 200 mass% and a glass transition temperature of at least -10°C and no higher than 30°C; and water.
A method for configuring communication between a client device and a host device using a first Radio Access Technology, RAT , the host device communicating with a base station of a network using a second RAT , different from the first RAT , to provide services of the network to or from the client device , the communication between the host device and the base station distinguishing data traffic in accordance with a set of network traffic rules, the method comprising: communicating , from the host device to the client device , information relating to the set of network traffic rules, the information relating to the set of network traffic rules comprising a User Equipment Route Selection Policy, URSP, data based on a URSP or a network slicing configuration; configuring, at the client device and the host device , the communication between the client device and the host device using the first RAT , according to a set of client traffic rules that are based on the communicated information about the network traffic rules; communicating the data traffic between the host device and the client device using the first RAT ; and communicating the data traffic between the host device and the base station using the second RAT . communicating , from the host device to the client device , information relating to the set of network traffic rules, the information relating to the set of network traffic rules comprising a User Equipment Route Selection Policy, URSP, data based on a URSP or a network slicing configuration; configuring, at the client device and the host device , the communication between the client device and the host device using the first RAT , according to a set of client traffic rules that are based on the communicated information about the network traffic rules; communicating the data traffic between the host device and the client device using the first RAT ; and communicating the data traffic between the host device and the base station using the second RAT .
Method for creating a soldered connection , in which at least a first layer and a second layer are deposited onto a support element , wherein the first layer has at least metal particles and additives, in particular flux, wherein the second layer has at least solder, wherein the support element and the at least two layers (21, 21a; 22, 22a) then undergo heat treatment in which the second layer is melted and penetrates into the structure of the first layer , wherein the first layer and the second layer are deposited onto the support element without covering one another, characterized in that the metal particles used for the first layer are particles of copper, bronze, nickel, zinc or brass with a particle size between 1 μm and 100 μm, and wherein one of the additives is solder powder, in particular solder powder with a grain size of 1 μm to 100 μm.
A modular element (4; 4'; 4"; 4"') of a cutting support (2; 2') with suction in a machine for automatic cutting of sheet material by means of blades, comprising a plurality of bristles (6; 6'; 6"; 6a-6b) arranged in the same single line (L1; L2), at least some bristles each having a base (8; 8'; 8") rigidly connected to a bearing plate intended to be mounted on a support, a head (12; 12'; 12"; 12a-12b) opposite the base on which a sheet material to be cut is intended to rest, and a stem (9; 9'; 9") connecting the head to the base, the largest cross-section of which is strictly included in the largest cross-section of the head, the bearing plate comprising, on each of its side surfaces , a plurality of transverse channels (18; 18') for the passage of suction air providing communication between an upper surface of the bearing plate from which the bristles extend and an inner surface opposite the upper surface.
A face detection activating method, applied in an electronic device comprising a pixel array, characterized in that , the face detection activating method is configured to determine whether to activate a face detection operation and comprises: computing a plurality of first depth values corresponding to a plurality of first pixels within the pixel array, wherein the plurality of first pixels is a part of pixels in the pixel array; and determining whether to activate the face detection operation according to the plurality of first depth values; wherein the step of determining whether to activate the face detection operation according to the plurality of first depth values comprises: determining whether or not the plurality of first depth values is within a specific depth range; and determining to activate the face detection operation when the plurality of first depth values is within the specific depth range, wherein the step of determining whether or not the plurality of first depth values is within the specific depth range comprises: determining whether a number of a plurality of second pixels among the plurality of first pixels is greater than a specific number, wherein the plurality of second pixels is a part of the plurality of first pixels and the first depth values corresponding to the plurality of second pixels are within the specific depth range ; wherein pixels of the pixel array except the plurality of first pixels are OFF or disabled during determining whether to activate the face detection operation. computing a plurality of first depth values corresponding to a plurality of first pixels within the pixel array, wherein the plurality of first pixels is a part of pixels in the pixel array; and determining whether to activate the face detection operation according to the plurality of first depth values; wherein the step of determining whether to activate the face detection operation according to the plurality of first depth values comprises: determining whether or not the plurality of first depth values is within a specific depth range; and determining to activate the face detection operation when the plurality of first depth values is within the specific depth range, determining whether or not the plurality of first depth values is within a specific depth range; and determining to activate the face detection operation when the plurality of first depth values is within the specific depth range, wherein the step of determining whether or not the plurality of first depth values is within the specific depth range comprises: determining whether a number of a plurality of second pixels among the plurality of first pixels is greater than a specific number, wherein the plurality of second pixels is a part of the plurality of first pixels and the first depth values corresponding to the plurality of second pixels are within the specific depth range ; wherein pixels of the pixel array except the plurality of first pixels are OFF or disabled during determining whether to activate the face detection operation.
A system for decoding data stored on an identification card comprising: a device comprising a scanner configured to scan a passive data source on the identification card and transmit a scanner signal associated with the passive data source ; and, a processor coupled to the scanner , the processor configured to: I) receive the scanner signal; characterized in that the processor is configured to: II) determine from the scanner signal a type of encryption associated with the passive data source ; III) extract from the scanner signal one or more known data elements from the passive data source ; IV) transmit: A) data associated with the one or more known data elements; and, B) the type of encryption; to a server of the system, the server configured to: decrypt the data based on the type of encryption; extract information from the data, the information comprising one or more of: a first name, a last name, an address, a city, a state, a zip code, an issue date, an expiration date, or a birthdate; and, transmit the extracted information to the device ; V) receive the extracted information from the server ; and VI) display the one or more known data elements and the extracted information in a form. a device comprising a scanner configured to scan a passive data source on the identification card and transmit a scanner signal associated with the passive data source ; and, a processor coupled to the scanner , the processor configured to: I) receive the scanner signal; I) receive the scanner signal; II) determine from the scanner signal a type of encryption associated with the passive data source ; III) extract from the scanner signal one or more known data elements from the passive data source ; IV) transmit: A) data associated with the one or more known data elements; and, B) the type of encryption; to a server of the system, the server configured to: decrypt the data based on the type of encryption; extract information from the data, the information comprising one or more of: a first name, a last name, an address, a city, a state, a zip code, an issue date, an expiration date, or a birthdate; and, transmit the extracted information to the device ; A) data associated with the one or more known data elements; and, B) the type of encryption; decrypt the data based on the type of encryption; extract information from the data, the information comprising one or more of: a first name, a last name, an address, a city, a state, a zip code, an issue date, an expiration date, or a birthdate; and, transmit the extracted information to the device ; V) receive the extracted information from the server ; and VI) display the one or more known data elements and the extracted information in a form.