mhurhangee/patent-ind-claim-en huggingface dataset:
A non-powered optical lens element comprising: a first surface having an axis of symmetry; and a second surface of complementary curvature to the first surface and having an axis of symmetry; wherein at least one surface has a central portion and lateral ends spaced therefrom, said surface exhibiting significant deviation in surface curvature from a standard optical reference surface of quadratic form wherein the curvature increases from the central portion toward the lateral ends, and wherein there is a maximum value of curvature intermediate the central portion and the lateral ends; and wherein the deviated surface has tangential and sagittal radii varying across the deviated surface so that Q r = r S 3 r T / R 0 is non-constant, being unity at the vertex and changing by at least 0.25 away from the axis of symmetry, being approximately constant in a central region of the lens aperture around a direct line of sight as worn and declining away therefrom, being less than 0.75 in a peripheral visual field at field angles of 60°, where r T and rs are the tangential and sagittal radii of curvature; and R is the vertex radius of curvature. a first surface having an axis of symmetry; and a second surface of complementary curvature to the first surface and having an axis of symmetry; wherein at least one surface has a central portion and lateral ends spaced therefrom, said surface exhibiting significant deviation in surface curvature from a standard optical reference surface of quadratic form wherein the curvature increases from the central portion toward the lateral ends, and wherein there is a maximum value of curvature intermediate the central portion and the lateral ends; and wherein the deviated surface has tangential and sagittal radii varying across the deviated surface so that Q r = r S 3 r T / R 0 is non-constant, being unity at the vertex and changing by at least 0.25 away from the axis of symmetry, being approximately constant in a central region of the lens aperture around a direct line of sight as worn and declining away therefrom, being less than 0.75 in a peripheral visual field at field angles of 60°, where r T and rs are the tangential and sagittal radii of curvature; and R is the vertex radius of curvature.
A method of determining status of fullness associated with a canister of a topical negative pressure (TNP) system, comprising the steps of: monitoring pressure provided by a pump element of the TNP system; determining at least one characteristic associated with the monitored pressure; determining status of fullness associated with the canister of the TNP system responsive to the determined characteristics; wherein said method is characterized in that said pump element comprises a diaphragm member and said step of determining status of fullness associated with the canister comprises determining a frequency associated with pulses of pressure generated by the diaphragm member. monitoring pressure provided by a pump element of the TNP system; determining at least one characteristic associated with the monitored pressure; determining status of fullness associated with the canister of the TNP system responsive to the determined characteristics; wherein said method is characterized in that said pump element comprises a diaphragm member and said step of determining status of fullness associated with the canister comprises determining a frequency associated with pulses of pressure generated by the diaphragm member.
A rapid prototyping/manufacturing process, especially a stereolithography process, for the production of a plurality of components , especially dental restoration components, which starts from a construction platform as a basis for the construction of the components , wherein the construction platform comprises a carrier substrate for carrying the components to be produced, to which a three-dimensional structure is introduced or attached, which forms individual structures for each component to be produced or for each group of components to be produced, which structures form individual structures for each component to be produced, which individual structures are different from each another, and in that the components or groups of components are each produced or transferred starting from the individual structures by molding and transferring the three-dimensional structure of the construction platform onto the component base, and in that the respective components , together with the component base, are removed from the construction platform , and the side of the component base facing the construction platform is provided with a negative image and/or a positive image of the three-dimensional support structure of the construction platform for identifying the component or groups of components , and in that, following construction of the component , it is detached with its respective component base from the individual structure of the carrier substrate of the construction platform and is identified using the shape of the component base, characterized in that the negative image and/or positive image at the component base is recorded by an image recording device and evaluated by a control device, the control device performing the assignment to the associated patients especially when the component is realized as a dental restoration part.
A method for receiving control information of a terminal in a mobile communication system, the method comprising: receiving, by the terminal, the control information including antenna port related information which is associated with a demodulation reference signal, DM-RS; identifying whether a transport block 0 is enabled and a transport block 1 is disabled, or both the transport block 0 and the transport block 1 are enabled based on the control information; and identifying a number of at least one antenna port of the DM-RS and a number of at least one layer based on the antenna port related information according to a result of the identification, wherein the antenna port related information is capable of indicating up to 8 layers in a case that the transport block 1 and the transport block 2 are enabled and 4 layers in a case that the transport block 0 is enabled and transport block 1 is disabled. receiving, by the terminal, the control information including antenna port related information which is associated with a demodulation reference signal, DM-RS; identifying whether a transport block 0 is enabled and a transport block 1 is disabled, or both the transport block 0 and the transport block 1 are enabled based on the control information; and identifying a number of at least one antenna port of the DM-RS and a number of at least one layer based on the antenna port related information according to a result of the identification, wherein the antenna port related information is capable of indicating up to 8 layers in a case that the transport block 1 and the transport block 2 are enabled and 4 layers in a case that the transport block 0 is enabled and transport block 1 is disabled.
A battery state detection device that detects a battery state, comprising: a first permissible current calculating unit configured to calculate a first maximum permissible current of a battery based on a voltage of the battery detected by a voltage detecting unit; a second permissible current calculating unit configured to calculate a second maximum permissible current of the battery without using the voltage of the battery, wherein the calculation is based on at least stored internal resistance characteristics and temperature measurements received from a temperature detecting unit ; and a correction unit configured to compare the first maximum permissible current and the second maximum permissible current and to perform a predetermined correction process on the basis of the comparison result, to perform the correction process by correcting the calculation result of the second maximum permissible current by the second permissible current calculating unit or characteristic information of the battery which is used for the second permissible current calculating unit to calculate the second maximum permissible current, to store a plurality of correction coefficients based on a difference between the first permissible maximum current and the second permissible maximum current in advance and performs the correction process using the correction coefficient selected from the plurality of correction coefficients, and to determine the correction coefficient which is used for the correction process on the basis of a charging/discharging time of the battery or a polarization voltage of the battery. a first permissible current calculating unit configured to calculate a first maximum permissible current of a battery based on a voltage of the battery detected by a voltage detecting unit; a second permissible current calculating unit configured to calculate a second maximum permissible current of the battery without using the voltage of the battery, wherein the calculation is based on at least stored internal resistance characteristics and temperature measurements received from a temperature detecting unit ; and a correction unit configured to compare the first maximum permissible current and the second maximum permissible current and to perform a predetermined correction process on the basis of the comparison result,
A method for determining physical properties of a test sample using an X-ray or gamma-ray spectrometric detector with at least three channels, the method comprising steps of: performing measurements in each of the channels on a plurality of calibration samples, each calibration sample being formed from a stack of samples with different thicknesses and different materials, calculating variables for each of the calibration samples, each variable being formed from an associated combination of measurements of different channels, during a first calibration step, defining a weighting and bias matrix using a regression method, the weighting and bias matrix linking the variables relative to the calibration samples to expected values of the sought properties of the calibration samples, performing measurements in each of the channels on the test sample, calculating the variables for the test sample, each variable being formed from the associated combination of the measurements of different channels, and determining values of the physical properties of the test sample by applying the weighting and bias matrix to the variables obtained for the test sample, the values of the physical properties being able to vary continuously. performing measurements in each of the channels on a plurality of calibration samples, each calibration sample being formed from a stack of samples with different thicknesses and different materials, calculating variables for each of the calibration samples, each variable being formed from an associated combination of measurements of different channels, during a first calibration step, defining a weighting and bias matrix using a regression method, the weighting and bias matrix linking the variables relative to the calibration samples to expected values of the sought properties of the calibration samples, performing measurements in each of the channels on the test sample, calculating the variables for the test sample, each variable being formed from the associated combination of the measurements of different channels, and determining values of the physical properties of the test sample by applying the weighting and bias matrix to the variables obtained for the test sample, the values of the physical properties being able to vary continuously.
A method for manufacturing a honeycomb structure that includes partition walls partitioning a plurality of cells, the method comprising: a molding step for molding a molded body from a mixture containing silicon carbide particles, an organic component, and a dispersion medium; a degreasing step for removing the organic component included in the molded body to obtain a porous honeycomb body; and an impregnation step for impregnating an inner portion of the partition walls of the porous honeycomb body with metal silicon, wherein in a state in which the porous honeycomb body is placed on a support inside a container containing solid metal silicon, the impregnation step is performed by heating the inside of the container to a temperature higher than or equal to a melting point of the metal silicon so that the porous honeycomb body is impregnated with molten metal silicon through the support that is porous, and wherein the metal silicon is placed on a bottom surface of the container. a molding step for molding a molded body from a mixture containing silicon carbide particles, an organic component, and a dispersion medium; a degreasing step for removing the organic component included in the molded body to obtain a porous honeycomb body; and an impregnation step for impregnating an inner portion of the partition walls of the porous honeycomb body with metal silicon, wherein in a state in which the porous honeycomb body is placed on a support inside a container containing solid metal silicon, the impregnation step is performed by heating the inside of the container to a temperature higher than or equal to a melting point of the metal silicon so that the porous honeycomb body is impregnated with molten metal silicon through the support that is porous, and
An automatic braking system for a vehicle, comprising: one or more braking units; a brake actuator module operable for controlling the one or more braking units; an object detection function in electrical communication with the brake actuator module, the object detection function for detecting at least one object in proximity to the vehicle; an automatic braking function in electrical communication with the brake actuator module , the automatic braking function for generating a deceleration request to determine a collision risk with the at least one object based on the position of the vehicle and the vehicle trajectory; characterized by a failure detection and correction function for calculating a desired deceleration, the failure detection and correction function being part of the brake actuator module; wherein the failure detection and correction function compares the desired deceleration to the deceleration request, and the vehicle is decelerated depending upon which of the desired deceleration or the deceleration request results in the vehicle stopping within the shortest distance. one or more braking units; a brake actuator module operable for controlling the one or more braking units; an object detection function in electrical communication with the brake actuator module, the object detection function for detecting at least one object in proximity to the vehicle; an automatic braking function in electrical communication with the brake actuator module , the automatic braking function for generating a deceleration request to determine a collision risk with the at least one object based on the position of the vehicle and the vehicle trajectory; characterized by a failure detection and correction function for calculating a desired deceleration, the failure detection and correction function being part of the brake actuator module; wherein the failure detection and correction function compares the desired deceleration to the deceleration request, and the vehicle is decelerated depending upon which of the desired deceleration or the deceleration request results in the vehicle stopping within the shortest distance.
A transfer ribbon comprising: at least one print section each comprising a print intermediate; and characterized by one or more roller cleaning sections , each roller cleaning section comprising an adhesive layer; wherein the one or more roller cleaning sections include at least one of a roller cleaning section at a trailing end of the transfer ribbon, and a roller cleaning section at a leading end of the transfer ribbon. at least one print section each comprising a print intermediate; and characterized by one or more roller cleaning sections , each roller cleaning section comprising an adhesive layer; wherein the one or more roller cleaning sections include at least one of a roller cleaning section at a trailing end of the transfer ribbon, and a roller cleaning section at a leading end of the transfer ribbon.
A composition for controlling undesirable vegetation, comprising a mixture comprising a synergistic, herbicidally effective amount of: (a) the choline salt of 2,4-dichlorophenoxyacetic acid (2,4-D-choline) (b) a salt of N -(phosphonomethyl)glycine (glyphosate) and c) the ammonium salt of 2-amino-4-(hydroxymethylphosphinyl)butanoic acid (glufosinate ammonium) wherein the weight ratio of (a) + (b) to (c) is from about 1.5:1 to about 8:1. (a) the choline salt of 2,4-dichlorophenoxyacetic acid (2,4-D-choline) (b) a salt of N -(phosphonomethyl)glycine (glyphosate) and c) the ammonium salt of 2-amino-4-(hydroxymethylphosphinyl)butanoic acid (glufosinate ammonium) wherein the weight ratio of (a) + (b) to (c) is from about 1.5:1 to about 8:1.
A compound of Formula (I): or a metabolite thereof, or an ester of the compound of Formula (I) or the metabolite thereof, or a pharmaceutically acceptable salt of each thereof, wherein m is an integer from 2 to 5, and n is an integer from 3 to 8, X 1 and X 2 each independently represent a sulfur atom, oxygen atom, sulfinyl group or a sulfonyl group, provided that X 1 and X 2 are not simultaneously oxygen atoms, for use as a medicament for inhibiting hepatic ballooning, wherein the metabolite of the compound of Formula (I) is a compound wherein the -COCH 3 group of the compound of Formula (I) that is attached to the phenyl containing the -O-(CH 2 ) n CO 2 H moiety is metabolized to a 1-hydroxyethyl (-CH(OH)Me) group, wherein the ester of the compound of formula (I) is an ester of the phenolic hydroxy group and/or an ester of the carboxylic acid shown in the compound of Formula (I), and an ester of the 1-hydroxyethyl group of a metabolite of the compound Formula (I), wherein an ester of the phenolic and/or the aliphatic hydroxy groups includes as the corresponding acid a carboxylic acid R A -CO 2 H, wherein an ester of the carboxylic acid includes as the corresponding alcohol a compound of formula R A -OH, wherein R A is C 1 -C 4 alkyl. wherein the metabolite of the compound of Formula (I) is a compound wherein the -COCH 3 group of the compound of Formula (I) that is attached to the phenyl containing the -O-(CH 2 ) n CO 2 H moiety is metabolized to a 1-hydroxyethyl (-CH(OH)Me) group, wherein the ester of the compound of formula (I) is an ester of the phenolic hydroxy group and/or an ester of the carboxylic acid shown in the compound of Formula (I), and an ester of the 1-hydroxyethyl group of a metabolite of the compound Formula (I), wherein an ester of the phenolic and/or the aliphatic hydroxy groups includes as the corresponding acid a carboxylic acid R A -CO 2 H, wherein an ester of the carboxylic acid includes as the corresponding alcohol a compound of formula R A -OH, wherein R A is C 1 -C 4 alkyl.
A method for transmitting timing information, comprising: carrying timing information by using a demodulation reference signal, DMRS; and transmitting the DMRS carrying the timing information to the terminal, wherein the timing information comprises N least significant bits of the synchronization signal block index, where N is a positive integer; and half frame timing information, wherein the carrying the timing information by using the DMRS comprises: carrying the timing information by using a DMRS sequence of the DMRS. carrying timing information by using a demodulation reference signal, DMRS; and transmitting the DMRS carrying the timing information to the terminal, wherein the timing information comprises N least significant bits of the synchronization signal block index, where N is a positive integer; and half frame timing information, wherein the carrying the timing information by using the DMRS comprises: carrying the timing information by using a DMRS sequence of the DMRS.
A battery powered pumping skid system for use subsea , comprising: a. a subsea device compatible frame , comprising: i. a battery compartment ; and ii. a separate equipment compartment ; b. a battery disposed within the battery compartment ; c. a motor operatively connected to the battery and disposed within the equipment compartment ; d. a pump operatively connected to the motor and disposed within the equipment compartment ; and e. a motor controller operatively connected to the battery and the motor and disposed within the equipment compartment and operative to drive the motor using energy supplied by the battery. a. a subsea device compatible frame , comprising: i. a battery compartment ; and ii. a separate equipment compartment ; i. a battery compartment ; and ii. a separate equipment compartment ; b. a battery disposed within the battery compartment ; c. a motor operatively connected to the battery and disposed within the equipment compartment ; d. a pump operatively connected to the motor and disposed within the equipment compartment ; and e. a motor controller operatively connected to the battery and the motor and disposed within the equipment compartment and operative to drive the motor using energy supplied by the battery.
Bidirectional reusable filtering face mask ; said mask being employable to prevent bacteriological and viral contaminations transmissible by means of respiratory droplets emissions; said mask being composed of an anatomical base ; said base being provided with means to promote adherence to the face , and pass-through elements employable for closing said mask by means of ties; said mask being characterized by : - a first filtering chamber employed to prevent respiratory droplets from spreading; said first filtration chamber being obtained by fixing a removable disposable filter on the outer side of said anatomical base ; - a second filtering chamber comprising a removable dome with a recess in its apical portion; said recess being employed to accommodate a main removable disposable filter ; said filter being secured to said recess by a protective grid ; - means for assembling components of said second filtering chamber with said first filtering chamber . - a first filtering chamber employed to prevent respiratory droplets from spreading; said first filtration chamber being obtained by fixing a removable disposable filter on the outer side of said anatomical base ; - a second filtering chamber comprising a removable dome with a recess in its apical portion; said recess being employed to accommodate a main removable disposable filter ; said filter being secured to said recess by a protective grid ; - means for assembling components of said second filtering chamber with said first filtering chamber .
Testing and/or cleaning apparatus for hose lines or hose/pipe pieces, comprising a base structure , a connection unit that can be connected to the hose/pipe piece on the end side and a liquid system communicating with it, which comprises a storage tank and a pump, wherein the connection unit comprises a clamping device serving to mechanically fix one end of the hose line or the hose/pipe piece and a sealing head (14") suitable for tight interaction with the fixed end of the hose line or the hose/pipe piece, which comprises a central channel (22"), which is at least essentially aligned with the axis (X) of the first end of the hose line or the hose/pipe piece and is designed as a through-hole , and at least one media channel (24") branching off from this that establishes a fluidic connection between the interior space of the hose line or the hose/pipe piece and the liquid system, with the muzzle direction (Y) of the media channel (24") being orientated in a directed manner at an angle (α) to the axis (X) of the end of the hose line or the hose/pipe piece diagonally against the inner wall of the inner wall of the hose line or the hose/pipe piece, characterized in that the central channel (22") in the area of the junction of at least one media channel (24") comprises a cross-sectional narrowing .