mhurhangee/ep-ind-claims huggingface dataset:
A sensor, comprising: a diaphragm having a bonding portion (250, 252) and a main boss (205, 1406) separated from the bonding portion (250, 252) by at least one channel, a base having a first contact area aligned with the main boss (205, 1406) and separated from the main boss (205, 1406), wherein the bonding portion (250, 252) of the diaphragm is bonded to the base; and at least one sensing element (512, 514, 516, 518, 520, 522, 524, 526) that senses movement of the diaphragm characterised in that the main boss has a chamfered corner face connecting two side faces (1494,1496), a first side face and a second side face of the main boss; a diaphragm having a bonding portion (250, 252) and a main boss (205, 1406) separated from the bonding portion (250, 252) by at least one channel, a base having a first contact area aligned with the main boss (205, 1406) and separated from the main boss (205, 1406), wherein the bonding portion (250, 252) of the diaphragm is bonded to the base; and at least one sensing element (512, 514, 516, 518, 520, 522, 524, 526) that senses movement of the diaphragm characterised in that the main boss has a chamfered corner face connecting two side faces (1494,1496), a first side face and a second side face of the main boss;
A self-cleaning rotary viewing hole for a centrifugal machine including: - a stationary frame; - a transparent stationary panel attached to said stationary frame by means of a leak-tight joint; - a rotary frame connected to said stationary frame by means of a rotary joint; - a transparent rotary panel attached to said rotary frame by means of a joint, said transparent rotary panel being arranged opposite and spaced apart from the transparent stationary panel by an intermediate chamber; and - a motor connected to said transparent rotary panel or to said rotary frame to cause the rotation thereof with respect to the stationary frame about an axis of rotation perpendicular to said transparent rotary panel; wherein the joint between the transparent rotary panel and the rotary frame is an interference attachment obtained by a dimensional interference fit produced between a transparent rotary panel perimetral face and a rotary frame coupling face facing said transparent rotary panel perimetral face, the transparent rotary panel being fitted into the rotary frame; characterized in that the transparent rotary panel has a size larger than a cavity defined by said rotary frame coupling face before the coupling thereof, and wherein once coupled the transparent rotary panel is compressed by the rotary frame and said rotary frame is elastically pulled all around assuring a secure and leak-tight attachment without adhesives; and wherein the coupling of the transparent rotary panel in the rotary frame is obtained by said transparent rotary panel being cooled, causing it to shrink, and being inserted into the cavity defined by the rotary frame coupling face, being the rotary frame heated causing it to expand, leaving a clearance between both which disappears when the transparent rotary panel and the rotary frame reach one and the same temperature. - a stationary frame; - a transparent stationary panel attached to said stationary frame by means of a leak-tight joint; - a rotary frame connected to said stationary frame by means of a rotary joint; - a transparent rotary panel attached to said rotary frame by means of a joint, said transparent rotary panel being arranged opposite and spaced apart from the transparent stationary panel by an intermediate chamber; and - a motor connected to said transparent rotary panel or to said rotary frame to cause the rotation thereof with respect to the stationary frame about an axis of rotation perpendicular to said transparent rotary panel;
An image heating apparatus comprising: an endless belt for heating a toner image on a sheet; a first detector for detecting a temperature of one longitudinal end portion of said endless belt; a second detector for detecting a temperature of the other longitudinal end portion of said endless belt; and a controller for controlling whether or not notification of generation of an error is provided on the basis of a change amount per unit time of a difference in detection temperature between said first detector and said second detector. an endless belt for heating a toner image on a sheet; a first detector for detecting a temperature of one longitudinal end portion of said endless belt; a second detector for detecting a temperature of the other longitudinal end portion of said endless belt; and a controller for controlling whether or not notification of generation of an error is provided on the basis of a change amount per unit time of a difference in detection temperature between said first detector and said second detector.
An automatic driving system for a vehicle, comprising: a mapping module which receives a route information set on a navigation device installed at a vehicle and converts a distance, a direction and a rotation angle into an actual data, or real data, and sets a driving lane; wherein the mapping module is configured to store information on the width and number of the lanes formed on each road on which the vehicle is driven and form a main driving lane allowing the vehicle to be directly driven on any of the lanes formed on the road, and an assistant driving lane allowing the vehicle to be driven on other lanes; characterised by a driving control module which allows the vehicle to be driven on the driving lane set by the mapping module; and a position detection module for detecting the position of the vehicle, wherein the position detection module includes a first transceiver device for transmitting and receiving a high frequency signal, and a second transceiver device is installed spaced apart at a predetermined interval at both sides of the road so as to receive the signal from the first transceiver device and transmit again, and the position detection module is configured to determine the lane on which the vehicle positions on the road with the aid of the information on the distance between the both sides of the road and on the width of the lane which are detected based on the signal transmitted through the first and second transceiver devices (165, 610). a mapping module which receives a route information set on a navigation device installed at a vehicle and converts a distance, a direction and a rotation angle into an actual data, or real data, and sets a driving lane; wherein the mapping module is configured to store information on the width and number of the lanes formed on each road on which the vehicle is driven and form a main driving lane allowing the vehicle to be directly driven on any of the lanes formed on the road, and an assistant driving lane allowing the vehicle to be driven on other lanes; characterised by a driving control module which allows the vehicle to be driven on the driving lane set by the mapping module; and a position detection module for detecting the position of the vehicle, wherein the position detection module includes a first transceiver device for transmitting and receiving a high frequency signal, and a second transceiver device is installed spaced apart at a predetermined interval at both sides of the road so as to receive the signal from the first transceiver device and transmit again, and the position detection module is configured to determine the lane on which the vehicle positions on the road with the aid of the information on the distance between the both sides of the road and on the width of the lane which are detected based on the signal transmitted through the first and second transceiver devices (165, 610).
A method for reconstructing the behavior of an individual, the method comprising: - a detection operation, comprising recording monitoring signals using a detection apparatus carried by the individual; the monitoring signals comprising at least environmental signals; - a mapping operation, comprising recording monitoring signals in an environment in which the behavior of the individual is to be reconstructed and the monitoring signals are to be associated with a map of the environment, the monitoring signals comprising at least environmental signals; - an operation of reconstructing the behavior, comprising taking on as positions of the individual, over time, points on the map in which the environmental signals recorded in the detection operation correspond to environmental signals recorded in the mapping operation; characterized in that the operation of reconstructing the behavior being performed after - and in a moment in time separate from - the detection operation and only following a specific request to reconstruct the behavior of the individual; the mapping operation is performed after - and in a moment in time separate from - the detection operation and only following the specific request to reconstruct the behavior of the individual. - a detection operation, comprising recording monitoring signals using a detection apparatus carried by the individual; the monitoring signals comprising at least environmental signals; - a mapping operation, comprising recording monitoring signals in an environment in which the behavior of the individual is to be reconstructed and the monitoring signals are to be associated with a map of the environment, the monitoring signals comprising at least environmental signals; - an operation of reconstructing the behavior, comprising taking on as positions of the individual, over time, points on the map in which the environmental signals recorded in the detection operation correspond to environmental signals recorded in the mapping operation;
A steam reforming fuel processing system, comprising: a feedstock delivery system configured to provide a feed stream comprising methanol and water, wherein the feed stream has a methanol to water molar ratio of 1:1; a steam reforming region containing at least one reforming catalyst bed and adapted to receive the feed stream comprising water and methanol; means for heating the reforming region to a temperature in the range of 350-425° C and vaporizing the feed stream; and a non-pyrophoric catalyst within the at least one reforming catalyst bed and adapted to catalyze the formation of a mixed gas stream comprising hydrogen gas and other gases by steam reforming of the feed stream at a temperature in the range of 350-425° C, wherein hydrogen gas is a majority component of the mixed gas stream, wherein the catalyst comprises 40-60 wt% zinc oxide, 40-60 wt% chromium oxide, and copper oxide, and further wherein the catalyst contains less than 5 wt% copper oxide. a feedstock delivery system configured to provide a feed stream comprising methanol and water, wherein the feed stream has a methanol to water molar ratio of 1:1; a steam reforming region containing at least one reforming catalyst bed and adapted to receive the feed stream comprising water and methanol; means for heating the reforming region to a temperature in the range of 350-425° C and vaporizing the feed stream; and a non-pyrophoric catalyst within the at least one reforming catalyst bed and adapted to catalyze the formation of a mixed gas stream comprising hydrogen gas and other gases by steam reforming of the feed stream at a temperature in the range of 350-425° C, wherein hydrogen gas is a majority component of the mixed gas stream, wherein the catalyst comprises 40-60 wt% zinc oxide, 40-60 wt% chromium oxide, and copper oxide, and further wherein the catalyst contains less than 5 wt% copper oxide.
An oil-in-water Pickering emulsion comprising: a corona-core microgel emulsifying agent functioning as a Pickering emulsion emulsifying agent; oil phase ingredients; and water phase ingredients; wherein the corona-core microgel emulsifying agent is composed of a copolymer characteristically obtained by polymerizing polyethylene oxide macromonomers of the following formula, hydrophobic monomers of the following formula, and cross-linking monomers of the following formula under the following conditions and; The mole ratio of the feed mole amount of said polyethylene oxide/feed mole amount of the hydrophobic monomers is 1:10 - 1:250; The feed amount of said cross-linking monomers is 0.1-1.5 wt% relative to the feed amount of said hydrophobic monomers; R 1 denotes an alkyl having 1-3 carbon atoms, and n is an integer 8-200. X denotes H or CH 3; R 2 denotes an alkyl having 1-3 carbon atoms, and R 3 denotes an alkyl having 1-12 carbon atoms; R 4 and R 5 each independently denote an alkyl having 1-3 carbon atoms, and m is a number 0-2. a corona-core microgel emulsifying agent functioning as a Pickering emulsion emulsifying agent; oil phase ingredients; and water phase ingredients; wherein the corona-core microgel emulsifying agent is composed of a copolymer characteristically obtained by polymerizing polyethylene oxide macromonomers of the following formula, hydrophobic monomers of the following formula, and cross-linking monomers of the following formula under the following conditions and; The mole ratio of the feed mole amount of said polyethylene oxide/feed mole amount of the hydrophobic monomers is 1:10 - 1:250; The feed amount of said cross-linking monomers is 0.1-1.5 wt% relative to the feed amount of said hydrophobic monomers; R 1 denotes an alkyl having 1-3 carbon atoms, and n is an integer 8-200. X denotes H or CH 3; R 2 denotes an alkyl having 1-3 carbon atoms, and R 3 denotes an alkyl having 1-12 carbon atoms; R 4 and R 5 each independently denote an alkyl having 1-3 carbon atoms, and m is a number 0-2. The mole ratio of the feed mole amount of said polyethylene oxide/feed mole amount of the hydrophobic monomers is 1:10 - 1:250; The feed amount of said cross-linking monomers is 0.1-1.5 wt% relative to the feed amount of said hydrophobic monomers; R 1 denotes an alkyl having 1-3 carbon atoms, and n is an integer 8-200. X denotes H or CH 3; R 2 denotes an alkyl having 1-3 carbon atoms, and R 3 denotes an alkyl having 1-12 carbon atoms; R 4 and R 5 each independently denote an alkyl having 1-3 carbon atoms, and m is a number 0-2. R 1 denotes an alkyl having 1-3 carbon atoms, and n is an integer 8-200. X denotes H or CH 3; R 2 denotes an alkyl having 1-3 carbon atoms, and R 3 denotes an alkyl having 1-12 carbon atoms; R 4 and R 5 each independently denote an alkyl having 1-3 carbon atoms, and m is a number 0-2.
A method for photosafening a plant, comprising applying to said plant an effective amount of a glycopyranosidic compound, wherein said glycopyranosidic compound is one or more α-D-mannosides.
An apparatus, comprising: a device (110; 200; 351, 352, 353; 451) including at least one memory adapted to store run-time data for the device, and at least one processor that is adapted to execute processor-executable code that, in response to execution, enables the device to perform actions, including: storing a pre-determined type of blockchain protocol code in a trusted execution environment, TEE, (362, 363; 461) of a processor; using TEE attestation to verify that the blockchain protocol code stored in the TEE is the pre-determined type of blockchain protocol code; receiving a blockchain transaction; processing the blockchain transaction; and updating, for a blockchain network, a state of the processed blockchain based on the processing of the blockchain transaction; characterized in that the actions further including: receiving code for a smart contract; determining whether the code complies with a confidentiality design pattern; and if the code fails to comply with the confidentiality design pattern rejecting the code else deploying the code. storing a pre-determined type of blockchain protocol code in a trusted execution environment, TEE, (362, 363; 461) of a processor; using TEE attestation to verify that the blockchain protocol code stored in the TEE is the pre-determined type of blockchain protocol code; receiving a blockchain transaction; processing the blockchain transaction; and updating, for a blockchain network, a state of the processed blockchain based on the processing of the blockchain transaction; characterized in that the actions further including: receiving code for a smart contract; determining whether the code complies with a confidentiality design pattern; and if the code fails to comply with the confidentiality design pattern rejecting the code else deploying the code. receiving code for a smart contract; determining whether the code complies with a confidentiality design pattern; and if the code fails to comply with the confidentiality design pattern rejecting the code else deploying the code. rejecting the code else deploying the code.
A method of controlling access to an electrical power network, comprising: receiving a power network access rule from a power network, the power network access rule defining an access condition which permits a device to access the power network; receiving a public key of an energy provider; receiving a device usage rule, the device usage rule being encrypted using the private key of the energy provider and being a condition when the device is permitted use of the power network; verifying the authenticity of the device by decrypting the device usage rule using the public key of the energy provider; comparing the device usage rule with the received power network access rule; and permitting the transfer of energy between the power network and the device upon a positive comparison between the device usage rule and the power network access rule. receiving a power network access rule from a power network, the power network access rule defining an access condition which permits a device to access the power network; receiving a public key of an energy provider; receiving a device usage rule, the device usage rule being encrypted using the private key of the energy provider and being a condition when the device is permitted use of the power network; verifying the authenticity of the device by decrypting the device usage rule using the public key of the energy provider; comparing the device usage rule with the received power network access rule; and permitting the transfer of energy between the power network and the device upon a positive comparison between the device usage rule and the power network access rule.
A method of coordinating transmission by a plurality of antennas associated with a plurality of radio heads, comprising: determining, at a controller, at least one relative time delay for a plurality of backhaul links between the controller and the plurality of radio heads; providing, over the plurality of backhaul links, information indicative of a first signal; and providing timing information over the plurality of backhaul links for coordinated transmission of the first signal by the plurality of radio heads using the plurality of antennas so that the signals coherently combine at a mobile unit, the timing information being determined based on said at least one relative time delay. determining, at a controller, at least one relative time delay for a plurality of backhaul links between the controller and the plurality of radio heads; providing, over the plurality of backhaul links, information indicative of a first signal; and providing timing information over the plurality of backhaul links for coordinated transmission of the first signal by the plurality of radio heads using the plurality of antennas so that the signals coherently combine at a mobile unit, the timing information being determined based on said at least one relative time delay.
Contact force testing apparatus comprising a measuring sensor, which measuring sensor can be contacted with an electrical contact element (1, 2) and measures a contact force of a contact with the electrical contact element (1, 2) and wherein the measuring sensor receives the contact force in a contact region with a piezoelectric pick-up, characterized in that the measuring sensor comprises a plurality of piezoelectric pick-ups (11, 11'); that the piezoelectric pick-ups (11, 11') are spaced apart from one another by pick-up gaps (12, 12'); that the measuring sensor has a protective sleeve is made of electrically conductive material; and that the protective sleeve covers the piezoelectric pick-ups (11, 11') and the pick-up gaps (12, 12') in the contact region.
An injection device for dispensing of a liquid medicament, the device comprising: - an elongated housing extending in an axial direction (z) to accommodate a cartridge, wherein the axial length of the interior of the housing exceeds the axial length of the cartridge to axially displace the cartridge inside the housing between an undeployed proximal position and a deployed distal position, - a drive member (50; 150; 250; 350) axially displaceable inside the housing and being in sealed engagement with a side wall of the housing, characterized in that - the drive member (50; 150; 250; 350) has an abutment face (60; 160; 260; 360) to axially abut with a proximal end of a barrel of the cartridge to displace the cartridge from the undeployed position towards the deployed position, - wherein the drive member (50; 150; 250; 350) has an outlet (51; 151; 251; 351) located distally from the sealed engagement and further has an inlet (53; 153; 253; 353) located proximally from the sealed engagement, wherein the inlet (53; 153; 253; 353) and the outlet (51, 151; 251; 351) are in flow connection with each other via a flow path extending through the drive member (50; 150; 250; 350) and wherein at least one flow restrictor (55; 155; 255; 355) is arranged across or in the flow path. - an elongated housing extending in an axial direction (z) to accommodate a cartridge, wherein the axial length of the interior of the housing exceeds the axial length of the cartridge to axially displace the cartridge inside the housing between an undeployed proximal position and a deployed distal position, - a drive member (50; 150; 250; 350) axially displaceable inside the housing and being in sealed engagement with a side wall of the housing, characterized in that - the drive member (50; 150; 250; 350) has an abutment face (60; 160; 260; 360) to axially abut with a proximal end of a barrel of the cartridge to displace the cartridge from the undeployed position towards the deployed position, - wherein the drive member (50; 150; 250; 350) has an outlet (51; 151; 251; 351) located distally from the sealed engagement and further has an inlet (53; 153; 253; 353) located proximally from the sealed engagement, wherein the inlet (53; 153; 253; 353) and the outlet (51, 151; 251; 351) are in flow connection with each other via a flow path extending through the drive member (50; 150; 250; 350) and wherein at least one flow restrictor (55; 155; 255; 355) is arranged across or in the flow path.
A method comprising: removing a damaged portion of a seal of a gas turbine engine component; forming a new portion of the seal in place of the damaged portion by: selectively heating respective regions of successive layers of powder (14; 36; 59; 70) comprising superalloy material (20; 38; 56; 60; 66) and flux material (22; 40) to form respective layers of deposited superalloy material (10; 30; 50; 66) covered by slag (18; 58; 72); and removing the slag from each layer before heating the next successive layer. removing a damaged portion of a seal of a gas turbine engine component; forming a new portion of the seal in place of the damaged portion by: selectively heating respective regions of successive layers of powder (14; 36; 59; 70) comprising superalloy material (20; 38; 56; 60; 66) and flux material (22; 40) to form respective layers of deposited superalloy material (10; 30; 50; 66) covered by slag (18; 58; 72); and selectively heating respective regions of successive layers of powder (14; 36; 59; 70) comprising superalloy material (20; 38; 56; 60; 66) and flux material (22; 40) to form respective layers of deposited superalloy material (10; 30; 50; 66) covered by slag (18; 58; 72); and removing the slag from each layer before heating the next successive layer.