mhurhangee/ep-ind-claims huggingface dataset:
A halogen-free thermosetting resin composition, based on 100 parts by weight of organic solids, comprising the following components: from 30 to 60 parts by weight of a halogen-free epoxy resin, from 10 to 35 parts by weight of a phenolic curing agent, and a phosphorus-containing flame retardant; wherein the halogen-free epoxy resin comprises the epoxy resin having the structure of formula (a) wherein T 1 and T 2 are each independently selected from the group consisting of hydrogen atom, the structure of formula or (II n); n1 and n3 represent the numbers of repeating units, and are each independently an integer greater than or equal to 1; n2 represents the number of a repeating unit, and is an integer greater than or equal to 0; wherein n4 represents the number of a repeating unit, and is an integer greater than or equal to 1; wherein T n and T n ' are each independently selected from the group consisting of hydrogen atom, the structure of formula or (II n+1), and terminated with hydrogen atom or the structure of formula; n is a positive integer greater than or equal to 3; n5 and n6 represent the numbers of repeating units, and are each independently an integer greater than or equal to 0; n7 represents the number of a repeating unit, and is an integer greater than or equal to 1; the epoxy resin having the structure of formula (a) has a molecular weight of 1000-20000; the epoxy resin having the structure of formula (a) is in an amount of 50 wt.% or more of the halogen-free epoxy resin. from 30 to 60 parts by weight of a halogen-free epoxy resin, from 10 to 35 parts by weight of a phenolic curing agent, and a phosphorus-containing flame retardant;
An accumulator comprising: a pressure container including a liquid pressure port connected to a pressure pipe; a tubular bellows arranged telescopically along an inner wall of the pressure container; a bellows cap configured to close one end of the bellows to divisionally define, in cooperation with the bellows, a liquid chamber communicating with the liquid pressure port and a gas chamber in which a pressure gas is enclosed; and a stay provided with a through hole, the stay partitioning the liquid chamber into a closed liquid chamber (Mc) on a side of the bellows and an open liquid chamber (Mo) on a side of the liquid pressure port, characterized in that: the bellows cap includes an elastic abutment part provided with an annular sealing part positioned around the through hole to face the through hole, and a buffering part positioned on a radially inner side of the sealing part; and communication passages (27, 37, 40, 45) always communicating with the through hole are formed in at least one of the buffering part of the elastic abutment part and the stay in contact with the buffering part. a pressure container including a liquid pressure port connected to a pressure pipe; a tubular bellows arranged telescopically along an inner wall of the pressure container; a bellows cap configured to close one end of the bellows to divisionally define, in cooperation with the bellows, a liquid chamber communicating with the liquid pressure port and a gas chamber in which a pressure gas is enclosed; and a stay provided with a through hole, the stay partitioning the liquid chamber into a closed liquid chamber (Mc) on a side of the bellows and an open liquid chamber (Mo) on a side of the liquid pressure port, characterized in that: the bellows cap includes an elastic abutment part provided with an annular sealing part positioned around the through hole to face the through hole, and a buffering part positioned on a radially inner side of the sealing part; and communication passages (27, 37, 40, 45) always communicating with the through hole are formed in at least one of the buffering part of the elastic abutment part and the stay in contact with the buffering part.
A microscope system comprising an electric stage, a microscope controller configured to perform an operation to control an operation of the electric stage used in the microscope system, and a touch panel unit having a display function and being configured to receive an input by an external physical contact, the microscope controller comprising a function setting unit configured to set a stage drive function of driving the electric stage in a specified operation display region of the touch panel unit; an input detection unit configured to detect the input performed in the operation display region of the touch panel unit; a determination unit configured to determine a moving mode of the electric stage and generate a control instruction signal for control of the movement of the electric stage depending on the detected input result; and a communication control unit configured to transmit the control instruction signal to a stage drive control unit (21, 22) for control of the operation of the electric stage in X-, Y-, and Z-axis directions, characterized in that the determination unit is configured to generate a control instruction signal for moving the electric stage by a preset distance in the X- and Y-axis directions, when the determination unit determines, based on the result of the detected input, that a position of the input in the operation display region on the touch panel unit has continuously changed by a specified distance or less at at least a specified speed, wherein the electric stage is moved by said preset distance in the X- and Y-axis directions regardless of the dragging length when an input of a specified moved distance or less is made at least a specified speed on the touch panel.
A method of dynamic frequency selection by a station in a basic service set, BSS, in a wireless local area network, the station configured to communicate over a primary subchannel and a secondary subchannel, the method comprising: receiving a frame including a quiet channel element from an access point, AP, wherein the quiet channel element indicates whether the secondary subchannel is to be quieted during a quiet interval in which the AP tests the secondary subchannel for a presence of radar transmissions and the station does not send any frame to the AP, and wherein the quiet channel element includes an AP status flag indicating whether a communication to the AP is allowed within the primary subchannel during the quiet interval; and quieting the secondary subchannel during the quiet interval and communicating with the AP via the primary subchannel during the quiet interval if the AP status flag indicates that the communication to the AP is allowed within the primary subchannel during the quiet interval. receiving a frame including a quiet channel element from an access point, AP, wherein the quiet channel element indicates whether the secondary subchannel is to be quieted during a quiet interval in which the AP tests the secondary subchannel for a presence of radar transmissions and the station does not send any frame to the AP, and wherein the quiet channel element includes an AP status flag indicating whether a communication to the AP is allowed within the primary subchannel during the quiet interval; and quieting the secondary subchannel during the quiet interval and communicating with the AP via the primary subchannel during the quiet interval if the AP status flag indicates that the communication to the AP is allowed within the primary subchannel during the quiet interval.
A database method comprising: providing an event data model of a target database, the target database being one of a plurality of databases; per a subject entity in the target database, using the event data model to declare and define triggering events and respective corresponding operations for each triggering event; providing a distributed event engine executed by a processor, said distributed event engine performing all of the following steps-detecting occurrence of an event involving the subject entity in the target database; based on the detected event, and skills wherein said skills comprise at least one of network credentials, support of a specific API or specific location of the workflow in a distributed database environment, determining from the event data model corresponding operations; and distributing execution of the determined corresponding operations characterised by storing, in a metamodel of the plurality of databases, security information that qualifies which data objects are accessible by certain roles of users providing a user query of the target database; the step of detecting including: intercepting a user query of the target database, and identifying the subject entity as part of the user query; and modifying the user query to filter out objects for which the user is unauthorised to access based on said security information stored in said metamodel and based on said skills. providing an event data model of a target database, the target database being one of a plurality of databases; per a subject entity in the target database, using the event data model to declare and define triggering events and respective corresponding operations for each triggering event; providing a distributed event engine executed by a processor, said distributed event engine performing all of the following steps-detecting occurrence of an event involving the subject entity in the target database; based on the detected event, and skills wherein said skills comprise at least one of network credentials, support of a specific API or specific location of the workflow in a distributed database environment, determining from the event data model corresponding operations; and distributing execution of the determined corresponding operations characterised by storing, in a metamodel of the plurality of databases, security information that qualifies which data objects are accessible by certain roles of users providing a user query of the target database; the step of detecting including: intercepting a user query of the target database, and identifying the subject entity as part of the user query; and intercepting a user query of the target database, and identifying the subject entity as part of the user query; and modifying the user query to filter out objects for which the user is unauthorised to access based on said security information stored in said metamodel
A process for producing a concentrated and sterilized milk product comprising the steps of: (a) performing a concentration process by reverse osmosis on a starting material consisting of a milk or a liquid milk product and forming a more concentrated milk product, wherein, the concentration process is performed at a temperature of no greater than 7.2 °C (45° F) using a membrane having a molecular weight cut-off of 100 Da, wherein the starting material is subjected to a pressure of 450 psi to 1500 psi, and further wherein the concentration process removes water from the starting material; and (b) performing a sterilization process on said more concentrated milk product by heating, wherein the sterilization process comprises a first heating step that heats the more concentrated milk product from a temperature of about 7.2 °C (45° F) to a first elevated temperature between 79.4°C (175° F) to 80.6°C (177° F) within 45 seconds. (a) performing a concentration process by reverse osmosis on a starting material consisting of a milk or a liquid milk product and forming a more concentrated milk product, wherein, the concentration process is performed at a temperature of no greater than 7.2 °C (45° F) using a membrane having a molecular weight cut-off of 100 Da, wherein the starting material is subjected to a pressure of 450 psi to 1500 psi, and further wherein the concentration process removes water from the starting material; and (b) performing a sterilization process on said more concentrated milk product by heating, wherein the sterilization process comprises a first heating step that heats the more concentrated milk product from a temperature of about 7.2 °C (45° F) to a first elevated temperature between 79.4°C (175° F) to 80.6°C (177° F) within 45 seconds.
A retrieval device deployable through a delivery sheath, the device comprising: an elongated shaft; a retrieval structure coupled to a distal zone of the elongated shaft, the retrieval structure including a capture structure and a cover having (a) a first portion coupled to the distal zone of the elongated shaft at a location proximal of the capture structure and (b) a free second portion, wherein, in a delivery state, the second portion of the cover extends proximally from the first portion; and a securing element coupled to the elongated shaft proximal to the first portion of the cover, wherein, when the cover is in the delivery state and at least a portion of the cover and at least a portion of the securing element are positioned within the delivery sheath, moving the retrieval device proximally increases an outward force exerted by the securing element against at least a portion of the cover and an inner surface of the delivery sheath, thereby inhibiting movement of the second portion of the cover relative to the elongated shaft. an elongated shaft; a retrieval structure coupled to a distal zone of the elongated shaft, the retrieval structure including a capture structure and a cover having (a) a first portion coupled to the distal zone of the elongated shaft at a location proximal of the capture structure and (b) a free second portion, wherein, in a delivery state, the second portion of the cover extends proximally from the first portion; and a securing element coupled to the elongated shaft proximal to the first portion of the cover, wherein, when the cover is in the delivery state and at least a portion of the cover and at least a portion of the securing element are positioned within the delivery sheath, moving the retrieval device proximally increases an outward force exerted by the securing element against at least a portion of the cover and an inner surface of the delivery sheath, thereby inhibiting movement of the second portion of the cover relative to the elongated shaft.
A computer-implemented method for estimating a location of a vehicle, the method comprising: estimating an initial location of the vehicle based upon satellite, cellular or other radio signals determining a road segment upon which the vehicle is traveling based upon map information including a representation of the road segment and the initial location of the vehicle; determining a lane of the road segment in which the vehicle is traveling based upon at least one of radio detection and ranging (RADAR) or light detection and ranging (LIDAR) data; based upon one or more images obtained by one or more image capture devices onboard the vehicle, determining respective distances between the vehicle and each of two or more road signs depicted by the one or more images; identifying a distance between the two or more road signs; and refining the location of the vehicle within the lane of the road segment based upon the respective distances between the vehicle and each of the two or more road signs depicted by the one or more images and also based upon the distance between the two or more road signs. estimating an initial location of the vehicle based upon satellite, cellular or other radio signals determining a road segment upon which the vehicle is traveling based upon map information including a representation of the road segment and the initial location of the vehicle; determining a lane of the road segment in which the vehicle is traveling based upon at least one of radio detection and ranging (RADAR) or light detection and ranging (LIDAR) data; based upon one or more images obtained by one or more image capture devices onboard the vehicle, determining respective distances between the vehicle and each of two or more road signs depicted by the one or more images; identifying a distance between the two or more road signs; and refining the location of the vehicle within the lane of the road segment based upon the respective distances between the vehicle and each of the two or more road signs depicted by the one or more images and also based upon the distance between the two or more road signs.
Brushless rotary actuator, which is electrically controlled in an open loop, comprising a wound stator (14, 15) and a magnetic cylindrical rotor rigidly connected to a shaft having a first end rigidly connected to a control member, the second end of said shaft being rigidly connected to a travel limiter moving between two stops (34, 35, 36, 37), characterized in that said travel limiter has: bending resilient beams (50, 51, 52, 53), at least two studs (42, 43) for securing to said rotor, which studs engage longitudinally in complementary recesses provided at the surface of the yoke of said rotor at least two travel limiter studs (30, 31) which extend axially on the side opposite said securing studs (42, 43) and are movable between two travel limiter stops (34 to 37), an element for centering said travel limiter relative to the shaft of the rotor, elastically deformable zones (50 to 53) formed by said bending resilient beams (50, 51, 52, 53), which zones connect a securing stud (42, 43) to the consecutive travel limiter stud (30, 31). bending resilient beams (50, 51, 52, 53), at least two studs (42, 43) for securing to said rotor, which studs engage longitudinally in complementary recesses provided at the surface of the yoke of said rotor at least two travel limiter studs (30, 31) which extend axially on the side opposite said securing studs (42, 43) and are movable between two travel limiter stops (34 to 37), an element for centering said travel limiter relative to the shaft of the rotor, elastically deformable zones (50 to 53) formed by said bending resilient beams (50, 51, 52, 53), which zones connect a securing stud (42, 43) to the consecutive travel limiter stud (30, 31).
An electronic device for long-term adhesion to a mammal, the electronic device comprising: a housing having an electronic component contained therein; at least two wings (104, 106) integral with the housing; an electrode (124, 126) positioned on a bottom surface of each of the wings (104, 106), the electrodes (124, 126) electrically connected to the electronic component; a first adhesive layer coated on a portion of the bottom surface of the wings (104, 106), wherein the first adhesive layer is not coated on the electrodes (124, 126) or on a bottom surface of the housing; and at least one layer (901, 902, 903, 1001, 1002, 1003) extending over all or a portion of the housing and the wings (104, 106), each layer (901, 902, 903, 1001, 1002, 1003) including a second adhesive layer on a bottom surface thereof, each layer (901, 902, 903, 1001, 1002, 1003) including an adhesion guard protecting the second adhesive layer. a housing having an electronic component contained therein; at least two wings (104, 106) integral with the housing; an electrode (124, 126) positioned on a bottom surface of each of the wings (104, 106), the electrodes (124, 126) electrically connected to the electronic component; a first adhesive layer coated on a portion of the bottom surface of the wings (104, 106), wherein the first adhesive layer is not coated on the electrodes (124, 126) or on a bottom surface of the housing; and at least one layer (901, 902, 903, 1001, 1002, 1003) extending over all or a portion of the housing and the wings (104, 106), each layer (901, 902, 903, 1001, 1002, 1003) including a second adhesive layer on a bottom surface thereof, each layer (901, 902, 903, 1001, 1002, 1003) including an adhesion guard protecting the second adhesive layer.
Method for cleaning a paint applying device including at least the following steps in the specified order: - closing at least one feed line to a doctor blade beam of the paint applying device by switching at least one feed valve of the paint applying device arranged upstream of the doctor blade beam; - closing at least one return line from the doctor blade beam by switching at least one return valve of the paint applying device arranged downstream of the doctor blade beam; - blowing out paint and/or liquid and/or dirt residues by supplying the paint applying device with pressurized air, which is delivered to the paint applying device upstream of the doctor blade beam via at least one connection opening of the paint applying device; - opening the at least one feed line of the doctor blade beam by again switching the at least one feed valve; - opening the at least one return line of the doctor blade beam by again switching the at least one return valve; - flushing out paint and/or liquid and/or dirt residues by supplying the paint applying device with cleaning liquid delivered via the at least one connection opening. - closing at least one feed line to a doctor blade beam of the paint applying device by switching at least one feed valve of the paint applying device arranged upstream of the doctor blade beam; - closing at least one return line from the doctor blade beam by switching at least one return valve of the paint applying device arranged downstream of the doctor blade beam; - blowing out paint and/or liquid and/or dirt residues by supplying the paint applying device with pressurized air, which is delivered to the paint applying device upstream of the doctor blade beam via at least one connection opening of the paint applying device; - opening the at least one feed line of the doctor blade beam by again switching the at least one feed valve; - opening the at least one return line of the doctor blade beam by again switching the at least one return valve; - flushing out paint and/or liquid and/or dirt residues by supplying the paint applying device with cleaning liquid delivered via the at least one connection opening.
An exhaust gas purification system for an internal combustion engine in which liquid fuel and compressed natural gas can be mixed and combusted; said system comprising an exhaust gas purification device that is arranged in an exhaust passage of the internal combustion engine and has an oxidation function; said system being characterized by further comprising: an HC supply device configured to supply HC to said exhaust gas purification device, causing a temperature thereof to rise so as to regenerate said exhaust gas purification device; and an HC supply amount control device that, when the liquid fuel and the compressed natural gas are caused to mix and combust in the internal combustion engine at the time of regenerating said exhaust gas purification device, decreases an amount of HC to be supplied to said exhaust gas purification device from said HC supply device in comparison to the amount of HC supplied to said exhaust gas purification device from said HC supply device at the time of regeneration of said exhaust purification device when only the liquid fuel is caused to combust in the internal combustion engine with an operating state thereof being kept the same. an HC supply device configured to supply HC to said exhaust gas purification device, causing a temperature thereof to rise so as to regenerate said exhaust gas purification device; and an HC supply amount control device that, when the liquid fuel and the compressed natural gas are caused to mix and combust in the internal combustion engine at the time of regenerating said exhaust gas purification device, decreases an amount of HC to be supplied to said exhaust gas purification device from said HC supply device in comparison to the amount of HC supplied to said exhaust gas purification device from said HC supply device at the time of regeneration of said exhaust purification device when only the liquid fuel is caused to combust in the internal combustion engine with an operating state thereof being kept the same.