mhurhangee/ep-ind-claims huggingface dataset:
A camera assembly, configured on a mobile electronic device having a display screen, comprising at least two lens assemblies, each lens assembly comprising an image sensor, wherein each image sensor comprises: a pixel array, comprising a light sensing region and an imaging region; and a control circuit, configured to: control the light sensing region to detect an illumination intensity so as to adjust a display brightness of the display screen when a light sensing instruction is received; and control the imaging region to obtain an image when an imaging instruction is received, wherein, the at least two lens assemblies comprise a first lens assembly and a second lens assembly, the first lens assembly is configured to detect an ambient brightness to assist the second lens assembly in imaging during an imaging of the camera assembly, wherein the imaging region of each image sensor is contiguous and the light sensing region of each image sensor is contiguous; the imaging region and the light sensing region of each image sensor share a common boundary, the camera assembly comprises two image sensors, and all of two imaging regions of the two image sensors are located between two light sensing regions of the two image sensors. a pixel array, comprising a light sensing region and an imaging region; and a control circuit, configured to: control the light sensing region to detect an illumination intensity so as to adjust a display brightness of the display screen when a light sensing instruction is received; and control the imaging region to obtain an image when an imaging instruction is received, wherein, the at least two lens assemblies comprise a first lens assembly and a second lens assembly, the first lens assembly is configured to detect an ambient brightness to assist the second lens assembly in imaging during an imaging of the camera assembly, control the light sensing region to detect an illumination intensity so as to adjust a display brightness of the display screen when a light sensing instruction is received; and control the imaging region to obtain an image when an imaging instruction is received, wherein, the at least two lens assemblies comprise a first lens assembly and a second lens assembly, the first lens assembly is configured to detect an ambient brightness to assist the second lens assembly in imaging during an imaging of the camera assembly, wherein the imaging region of each image sensor is contiguous and the light sensing region of each image sensor is contiguous; the imaging region and the light sensing region of each image sensor share a common boundary, the camera assembly comprises two image sensors, and all of two imaging regions of the two image sensors are located between two light sensing regions of the two image sensors.
A system for reclaiming contaminated water at a facility, comprising: a contaminant collection subsystem including a boiler configured to receive and concentrate contaminants in the contaminated water by boiling the contaminated water and producing steam; a gas-fired turbine configured to burn a supply of fuel gas and drive a first generator configured to provide power to the facility, the gas-fired turbine having an exhaust that provides a source of waste heat; a heat generation subsystem including a heat exchanger separate from the boiler and a thermal fluid flow network configured to circulate a thermal transfer fluid between the heat exchanger and the boiler, the heat exchanger being in communication with the source of waste heat from the gas-fired turbine to heat the thermal transfer fluid in the heat exchanger; and a steam turbine configured to drive a second generator; wherein the boiler is configured to receive the heated thermal transfer fluid via the thermal fluid flow network and to use heat from the heated thermal transfer fluid to boil the contaminated water so that at least a portion of contaminants in the contaminated water are retained in the boiler; wherein the boiler produces steam and the steam is directed from the boiler to the heat exchanger to superheat the steam, wherein the superheated steam is directed from the heat exchanger to the steam turbine for driving the second generator. a contaminant collection subsystem including a boiler configured to receive and concentrate contaminants in the contaminated water by boiling the contaminated water and producing steam; a gas-fired turbine configured to burn a supply of fuel gas and drive a first generator configured to provide power to the facility, the gas-fired turbine having an exhaust that provides a source of waste heat; a heat generation subsystem including a heat exchanger separate from the boiler and a thermal fluid flow network configured to circulate a thermal transfer fluid between the heat exchanger and the boiler, the heat exchanger being in communication with the source of waste heat from the gas-fired turbine to heat the thermal transfer fluid in the heat exchanger; and a steam turbine configured to drive a second generator; wherein the boiler is configured to receive the heated thermal transfer fluid via the thermal fluid flow network and to use heat from the heated thermal transfer fluid to boil the contaminated water so that at least a portion of contaminants in the contaminated water are retained in the boiler; wherein the boiler produces steam and the steam is directed from the boiler to the heat exchanger to superheat the steam, wherein the superheated steam is directed from the heat exchanger to the steam turbine for driving the second generator.
A survey system comprising: a surveying instrument having a tracking section (17, 18, 19) that tracks a target by emitting tracking light and receiving the tracking light reflected on the target; and a scanner that rotates horizontally and integrally with the surveying instrument and performs scanning vertically around a single axis (R-R), wherein an optical axis of the scanner and an optical axis of the tracking section are offset in a horizontal direction, characterized in that the optical axis of the scanner is not on a rotary shaft (H-H) of the surveying instrument about which it rotates horizontally, and is offset by a distance d in the horizontal direction with respect to the optical axis of the tracking section. a surveying instrument having a tracking section (17, 18, 19) that tracks a target by emitting tracking light and receiving the tracking light reflected on the target; and a scanner that rotates horizontally and integrally with the surveying instrument and performs scanning vertically around a single axis (R-R), wherein an optical axis of the scanner and an optical axis of the tracking section are offset in a horizontal direction, characterized in that the optical axis of the scanner is not on a rotary shaft (H-H) of the surveying instrument about which it rotates horizontally, and is offset by a distance d in the horizontal direction with respect to the optical axis of the tracking section.
A method performed by a trusted provider serving as an intermediary between a requesting entity and an authenticating entity, said method comprising: processing, by one or more processor devices, a plain-text message using a hash function to generate a hash value of the plain-text message, wherein the plain-text message includes contact information about; the requesting entity; sending, by a communication unit, the generated hash value to a second external device of the authenticating entity; receiving, by the communication unit, a secure token from the second external device of the authenticating entity in response to sending the generated hash value; responsive to receiving the secure token from the second external device of the authenticating entity, creating, by the one or more processing devices, a verification indication based on the secure token and the plain-text message; and sending, by the communication unit, the verification indication to a first external device of the requesting entity. processing, by one or more processor devices, a plain-text message using a hash function to generate a hash value of the plain-text message, wherein the plain-text message includes contact information about; the requesting entity; sending, by a communication unit, the generated hash value to a second external device of the authenticating entity; receiving, by the communication unit, a secure token from the second external device of the authenticating entity in response to sending the generated hash value; responsive to receiving the secure token from the second external device of the authenticating entity, creating, by the one or more processing devices, a verification indication based on the secure token and the plain-text message; and sending, by the communication unit, the verification indication to a first external device of the requesting entity.
A process for producing a peroxycarboxylic acid comprising: (a) providing a set of reaction components comprising: a substrate, wherein the substrate is 4-acetoxybenzoic acid; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 10, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 303 of SEQ ID NO: 10 is not glutamic acid; (b) combining the set of reaction components under suitable reaction conditions whereby peroxycarboxylic acid is produced; and (c) optionally diluting the peroxycarboxylic acid produced in step (b). (a) providing a set of reaction components comprising: a substrate, wherein the substrate is 4-acetoxybenzoic acid; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 10, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 303 of SEQ ID NO: 10 is not glutamic acid; a substrate, wherein the substrate is 4-acetoxybenzoic acid; a source of peroxygen; and an enzyme catalyst comprising a polypeptide having perhydrolytic activity and an amino acid sequence having at least 80% identity to the amino acid sequence set forth in SEQ ID NO: 10, provided that the amino acid residue bound to the C-terminal side of the catalytic histidine corresponding to position 303 of SEQ ID NO: 10 is not glutamic acid; (b) combining the set of reaction components under suitable reaction conditions whereby peroxycarboxylic acid is produced; and (c) optionally diluting the peroxycarboxylic acid produced in step (b).
A toner composition comprising: toner particles having a core and a shell disposed over the core, wherein the core comprises: an optional first antiplasticizer; a first styrene-acrylate resin; and the shell comprises: an optional second antiplasticizer; and a second styrene-acrylate resin; wherein the toner particles include at least one of the first antiplasticizer or the second antiplasticizer and further wherein at least one of the first antiplasticizer or the second antiplasticizer comprises a purine derivative. toner particles having a core and a shell disposed over the core, wherein the core comprises: an optional first antiplasticizer; a first styrene-acrylate resin; and an optional first antiplasticizer; a first styrene-acrylate resin; and the shell comprises: an optional second antiplasticizer; and a second styrene-acrylate resin; an optional second antiplasticizer; and a second styrene-acrylate resin;
A box suitable for being used as a junction box for electrical installations of the type with prefabricated electrical conduits including one or more conductor bars, comprising a plurality of walls (3, 3a, 3b, 3c, 3d, 3e, 3f) assembled together in such a way as to define an internal volume of the box, and further comprising a mounting means configured to be operatively interposed between said box and a component associated with said prefabricated electrical conduit, said mounting means comprising: - a positioning means for positioning said box relative to said prefabricated electrical conduit, said positioning means comprising at least one fixed arm and being disposed on said box in such a way as to project at least partially from one of said walls (3, 3a, 3b, 3c, 3d, 3e, 3f); - a moving means for moving said component associated with said prefabricated electrical conduit, said moving means being disposed on said box in such a way as to project at least partially from the same wall that said positioning means project from, characterized in that said moving means comprises at least one movable arm, said movable arm being configured to rotate relative to said fixed arm in opposition contrast to a hinge with an elastic element, such as a spring, and in that a free end of said at least one movable arm is shaped in such a way as to be able to grip a portion of said component associated with said prefabricated electrical conduit. a mounting means configured to be operatively interposed between said box and a component associated with said prefabricated electrical conduit, said mounting means comprising: - a positioning means for positioning said box relative to said prefabricated electrical conduit, said positioning means comprising at least one fixed arm and being disposed on said box in such a way as to project at least partially from one of said walls (3, 3a, 3b, 3c, 3d, 3e, 3f); - a moving means for moving said component associated with said prefabricated electrical conduit, said moving means being disposed on said box in such a way as to project at least partially from the same wall that said positioning means project from, characterized in that said moving means comprises at least one movable arm, said movable arm being configured to rotate relative to said fixed arm in opposition contrast to a hinge with an elastic element, such as a spring, and in that a free end of said at least one movable arm is shaped in such a way as to be able to grip a portion of said component associated with said prefabricated electrical conduit. - a positioning means for positioning said box relative to said prefabricated electrical conduit, said positioning means comprising at least one fixed arm and being disposed on said box in such a way as to project at least partially from one of said walls (3, 3a, 3b, 3c, 3d, 3e, 3f); - a moving means for moving said component associated with said prefabricated electrical conduit, said moving means being disposed on said box in such a way as to project at least partially from the same wall that said positioning means project from,
A pin for a heat exchanger, the pin comprising: a monolithic top section; a monolithic bottom section; and a middle section characterised in that the middle section comprises a plurality of spaced apart sub-pins (108,110,112) extending between the top section and the bottom section, wherein the plurality of sub-pins define one or more windows (114,116,118) for allowing fluid flow through the middle section. a monolithic top section; a monolithic bottom section; and a middle section characterised in that the middle section comprises a plurality of spaced apart sub-pins (108,110,112) extending between the top section and the bottom section, wherein the plurality of sub-pins define one or more windows (114,116,118) for allowing fluid flow through the middle section.
A computer implemented method for facilitating direct combination of gene expression data generated by heterogeneous platforms, the method comprising transforming gene expression data, the method comprising: constructing a primary model for transforming gene expression data from a first profiling platform to a second profiling platform utilizing sample expression data, wherein constructing the primary model comprises: identifying at least one common expression between a first set of nucleic acid expression data derived using a first profiling platform and a second set of nucleic acid expression data derived using a second profiling platform, each common expression associated with a sample present in both the first set and second set; performing regression analysis on the at least one common expression, resulting in one set of regression parameters for each sample; selecting at least one candidate feature from the first profiling platform that predicts the at least one set of regression parameters; and identifying a primary model associated with each of the at least one selected candidate features,the primary model being configured for sample-wise data transformation to transform gene expression data from the first profiling platform into transformed data having a distribution which resembles that of the second profiling platform. constructing a primary model for transforming gene expression data from a first profiling platform to a second profiling platform utilizing sample expression data, wherein constructing the primary model comprises: identifying at least one common expression between a first set of nucleic acid expression data derived using a first profiling platform and a second set of nucleic acid expression data derived using a second profiling platform, each common expression associated with a sample present in both the first set and second set; performing regression analysis on the at least one common expression, resulting in one set of regression parameters for each sample; selecting at least one candidate feature from the first profiling platform that predicts the at least one set of regression parameters; and identifying a primary model associated with each of the at least one selected candidate features,the primary model being configured for sample-wise data transformation to transform gene expression data from the first profiling platform into transformed data having a distribution which resembles that of the second profiling platform.
A hydraulic coupling, comprising a base body, a data unit and a data interface, wherein the base body comprises a coupling form section (2.1) which is designed to provide a releasable pressure-medium-transmitting coupling connection to a corresponding coupling partner, an assembly section (2.2) which is designed to provide a fixed, pressure-medium-transmitting device connection to a pressure-flow consumer, and a pressure flow channel (2.3) which is designed to connect the coupling form section (2.1) and the assembly section (2.2) in a pressure-transmitting manner, wherein the data unit is integrated into the base body and comprises a data memory (3.1), and wherein the data interface is connected to the data unit and is designed to establish a data transfer connection, characterized in that, at the assembly section (2.2), the hydraulic coupling comprises a safety connection interface which is designed to establish a safety connection to the pressure-flow consumer in an assembled state and, when the safety connection is interrupted, to change a state of the data unit by writing a permanent value into the data unit. comprising a base body, a data unit and a data interface, wherein the base body comprises a coupling form section (2.1) which is designed to provide a releasable pressure-medium-transmitting coupling connection to a corresponding coupling partner, an assembly section (2.2) which is designed to provide a fixed, pressure-medium-transmitting device connection to a pressure-flow consumer, and a pressure flow channel (2.3) which is designed to connect the coupling form section (2.1) and the assembly section (2.2) in a pressure-transmitting manner, wherein the data unit is integrated into the base body and comprises a data memory (3.1), and wherein the data interface is connected to the data unit and is designed to establish a data transfer connection, characterized in that, at the assembly section (2.2), the hydraulic coupling comprises a safety connection interface which is designed to establish a safety connection to the pressure-flow consumer in an assembled state and, when the safety connection is interrupted, to change a state of the data unit by writing a permanent value into the data unit.
Method for providing assistance with parking a motor vehicle, said method being carried out on board the vehicle and comprising the following steps: - determining characteristics of the environment of the motor vehicle by means of sensors of the environment of the motor vehicle, - characterizing at least one type of parking space via at least two different determining modes (Model, Mode2), the type of space comprising angled parking space and/or parallel parking space and/or perpendicular parking space, said method also comprising a step of: - assessing at least one confidence index associated with each of the determining modes (Cf1/type, Cf2/type, Cf1, Cf2, Cf1', Cf2'), - selecting (Sel) automatically a type of parking space (Pl1, P12) based on said at least one confidence index (Cf1/type, Cf2/type, Cf1, Cf2, Cf1', Cf2'), said method being characterized in that the at least two determining modes (Model, Mode2) are a predicting mode (Mode1) based on statistical analysis of nearby obstacles defined by macro-objects and a detecting mode (Mode2) based on analysis of free spaces in a region surrounding the motor vehicle. - determining characteristics of the environment of the motor vehicle by means of sensors of the environment of the motor vehicle, - characterizing at least one type of parking space via at least two different determining modes (Model, Mode2), the type of space comprising angled parking space and/or parallel parking space and/or perpendicular parking space, said method also comprising a step of: - assessing at least one confidence index associated with each of the determining modes (Cf1/type, Cf2/type, Cf1, Cf2, Cf1', Cf2'), - selecting (Sel) automatically a type of parking space (Pl1, P12) based on said at least one confidence index (Cf1/type, Cf2/type, Cf1, Cf2, Cf1', Cf2'), - assessing at least one confidence index associated with each of the determining modes (Cf1/type, Cf2/type, Cf1, Cf2, Cf1', Cf2'), - selecting (Sel) automatically a type of parking space (Pl1, P12) based on said at least one confidence index (Cf1/type, Cf2/type, Cf1, Cf2, Cf1', Cf2'),
A glyoxalated polyacrylamide polymer composition comprising said glyoxalated polyacrylamide polymer in an amount of from 10% to 30% by weight in an aqueous medium, wherein said glyoxalated polyacrylamide polymer is obtainable by the reaction between glyoxal and a cationic polyacrylamide base polymer in a weight ratio ranging from 0.01 to 0.6:1, wherein the base polymer has a weight average molecular weight ranging from 5,000 Daltons to 13,000 Daltons, and wherein the cationic base polymer comprises from 70% to 50%, by weight, acrylamide monomer and from 30% to 50%, by weight, cationic monomer copolymerizable with said acrylamide monomer.