mhurhangee/ep-ind-claims huggingface dataset:
A battery system, comprising: a battery cell assembly having first and second battery cells and a cooling fin disposed between the first and second battery cells; the cooling fin having an inlet port, an outlet port, and an internal flow path disposed between the inlet port and the outlet port, the cooling fin configured to receive a two-phase refrigerant in the inlet port, the cooling fin further configured to receive heat energy from the first and second battery cells and to transition the two-phase refrigerant into a gaseous refrigerant within the internal flow path utilizing the heat energy; a compressor fluidly coupled to the outlet port and configured to pump the gaseous refrigerant into a condenser; and the condenser fluidly coupled to the compressor and configured to receive the gaseous refrigerant from the compressor, the condenser further configured to transition the gaseous refrigerant into a liquid refrigerant by extracting heat energy from the gaseous refrigerant; and an expansion valve fluidly coupled between the condenser and the inlet port of the cooling fin, the expansion valve configured to receive the liquid refrigerant from the condenser and to decrease a pressure level of the liquid refrigerant to obtain the two-phase refrigerant, the two-phase refrigerant being routed from the expansion valve to the inlet port of the cooling fin, characterized in that the cooling fin has a single generally rectangular-shaped plate and a tube; the generally rectangular-shaped plate having a first side and a second side; the tube coupled to the first side of the generally rectangular-shaped plate and extending on at least first, second, and third peripheral edge portions of the generally rectangular-shaped plate, the tube defining the internal flow path therein, and the first, second, and third peripheral edge portions of the generally rectangular-shaped aluminum plate define an arcuate-shaped groove configured to receive the tube thereon. a battery cell assembly having first and second battery cells and a cooling fin disposed between the first and second battery cells; the cooling fin having an inlet port, an outlet port, and an internal flow path disposed between the inlet port and the outlet port, the cooling fin configured to receive a two-phase refrigerant in the inlet port, the cooling fin further configured to receive heat energy from the first and second battery cells and to transition the two-phase refrigerant into a gaseous refrigerant within the internal flow path utilizing the heat energy; a compressor fluidly coupled to the outlet port and configured to pump the gaseous refrigerant into a condenser; and the condenser fluidly coupled to the compressor and configured to receive the gaseous refrigerant from the compressor, the condenser further configured to transition the gaseous refrigerant into a liquid refrigerant by extracting heat energy from the gaseous refrigerant; and
A weaving control method for performing welding along a predetermined weld line while swinging a welding torch by a weaving operation in fillet welding of two materials to be welded, wherein: when the weaving operation is performed, viewed on a surface perpendicular to a welding direction, a position of the welding torch is set such that a weaving reference line which is a center line of the welding torch at an initial position of the weaving operation passes through a base point on a weld line, and at least five fixed end points a, b, c, d, e are set, positions of the fixed end points are set such that one or more of the fixed end points are provided on each of both sides across the weaving reference line and a reference end point a being on the weaving reference line and having the shortest distance between a contact tip of the welding torch and a base metal is provided; and the weaving operation is performed such that the welding torch moves between the fixed end points a, b, c, d, e along with a trajectory forming a polygon when viewed from the welding direction. when the weaving operation is performed, viewed on a surface perpendicular to a welding direction, a position of the welding torch is set such that a weaving reference line which is a center line of the welding torch at an initial position of the weaving operation passes through a base point on a weld line, and at least five fixed end points a, b, c, d, e are set, positions of the fixed end points are set such that one or more of the fixed end points are provided on each of both sides across the weaving reference line and a reference end point a being on the weaving reference line and having the shortest distance between a contact tip of the welding torch and a base metal is provided; and the weaving operation is performed such that the welding torch moves between the fixed end points a, b, c, d, e along with a trajectory forming a polygon when viewed from the welding direction.
A center feed roll dispensing apparatus comprising: a roll support for receiving a center feed roll, formed as an open tray that extends in a first direction from a first end to a second end; an end wall located in the first direction with respect to the first end of the tray, the end wall comprising a dispensing aperture; and a roll stop on the tray, located in the first direction with respect to the first end of the tray and spaced from the end wall toward the first end of the tray. a roll support for receiving a center feed roll, formed as an open tray that extends in a first direction from a first end to a second end; an end wall located in the first direction with respect to the first end of the tray, the end wall comprising a dispensing aperture; and a roll stop on the tray, located in the first direction with respect to the first end of the tray and spaced from the end wall toward the first end of the tray.
Nozzle for a vacuum cleaner, such as a battery powered vacuum cleaner, a mains operated vacuum cleaners, or a robotic vacuum cleaner, the nozzle comprising a rotatable member, such as a brush roll, for picking up particles from a surface to be cleaned, the rotatable member being arranged around a longitudinal axis, and a cleaning arrangement for removing articles entangled to the rotatable member, wherein the cleaning arrangement comprises at least one cleaning member, characterised in that the rotatable member is movable between a first position in which the cleaning member is arranged at a distance from the rotatable member and a second position in the vicinity of the cleaning member to remove any entangled articles from the rotatable member.
A key protection method, which is applied to a multi-core processor, comprising: step A, setting a symmetric master key in each core of the multi-core processor; step B, taking any core of the multi-core processor configured to contain the symmetric master key as an operation core, performing a decryption operation to obtain a plaintext private key using the symmetric master key, performing a public-key cryptographic operation using the plaintext private key; the plaintext private key and the intermediate variables used in the public-key cryptographic operation being stored in a cache occupied by the operation core; and step C, clearing up the plaintext private key and the intermediate variables used in the public-key cryptographic operation in the cache occupied by the operation core; wherein in a process of executing the step B and step C, when another core and the operation core of the multi-core processor try to access a same memory address and at least one write operation is executed, or when the cache occupied by the operation core is replaced due to insufficiency of space of the cache occupied by the operation core, all operations executed by the operation core are aborted and the step B and step C are re-executed. step A, setting a symmetric master key in each core of the multi-core processor; step B, taking any core of the multi-core processor configured to contain the symmetric master key as an operation core, performing a decryption operation to obtain a plaintext private key using the symmetric master key, performing a public-key cryptographic operation using the plaintext private key; the plaintext private key and the intermediate variables used in the public-key cryptographic operation being stored in a cache occupied by the operation core; and step C, clearing up the plaintext private key and the intermediate variables used in the public-key cryptographic operation in the cache occupied by the operation core;
A method of manufacturing a rotary atomiser bell cup comprising a bell portion for spraying media in use and a hub portion via which the bell portion is rotatingly drivable in use, the method comprising the steps of: making the hub portion using machining; and building up the bell portion on the hub using an additive manufacturing process. making the hub portion using machining; and building up the bell portion on the hub using an additive manufacturing process.
A composite coating comprising a primer and a topcoat, the primer being formed from an epoxy thermoset primer composition comprising: (i) an epoxy resin with the proviso that the epoxy resin does not have an EEW of 860 to 930; (ii) a polyhydroxyl functional phenolic curing agent having a HEW of 200 to 500; and (iii) a platy filler, wherein said epoxy thermoset primer contains zero zinc. (i) an epoxy resin with the proviso that the epoxy resin does not have an EEW of 860 to 930; (ii) a polyhydroxyl functional phenolic curing agent having a HEW of 200 to 500; and (iii) a platy filler,
A method of treating a carbon dioxide rich flue gas, said carbon dioxide rich flue gas further comprising contaminants, oxygen gas, water vapour, one or more nitrogen oxide(s) and, optionally, combustibles, wherein at least a portion of the contaminants present in the carbon dioxide rich flue gas is removed to obtain a cleaned carbon dioxide rich flue gas; the oxygen gas present in the carbon dioxide rich flue gas is consumed as oxidant in a catalytic oxidation reaction with the combustibles present in, and/or with combustibles added to, the carbon dioxide rich flue gas, to obtain an oxygen depleted carbon dioxide rich flue gas, whereby combustibles are added to said flue gas should the content of combustibles in the carbon dioxide rich flue gas not be sufficient for the consumption of the oxygen gas present in the carbon dioxide rich flue gas; and at least a portion of the cleaned and oxygen depleted carbon dioxide rich flue gas is, in a first pressurization stage, pressurized and cooled so that at least a portion of the water vapour present in the carbon dioxide rich flue gas is condensed.
An apparatus for cutting food products, the apparatus comprising: a cutting head comprising a plurality of cutting tools arranged around a central axis, each cutting tool including a cutting blade positioned at a first end and a trailing surface positioned at a second end opposite the first end, wherein the trailing surface of a first cutting tool of the plurality of cutting tools cooperates with the cutting blade of a second cutting tool of the plurality of cutting tools to define a cutting gap, wherein the first cutting tool is rotatable between a first position in which the cutting gap is a first cutting thickness and a second position in which the cutting gap is a second cutting thickness that is different from the first cutting thickness, wherein the cutting head includes a biasing element (60, 62, 212) that biases the first cutting tool toward the first position, and wherein the cutting head includes an adjustment mechanism (16,316,460) operable to rotate the first cutting tool between the first position and the second position. a cutting head comprising a plurality of cutting tools arranged around a central axis, each cutting tool including a cutting blade positioned at a first end and a trailing surface positioned at a second end opposite the first end, wherein the trailing surface of a first cutting tool of the plurality of cutting tools cooperates with the cutting blade of a second cutting tool of the plurality of cutting tools to define a cutting gap, wherein the first cutting tool is rotatable between a first position in which the cutting gap is a first cutting thickness and a second position in which the cutting gap is a second cutting thickness that is different from the first cutting thickness, wherein the cutting head includes a biasing element (60, 62, 212) that biases the first cutting tool toward the first position, and wherein the cutting head includes an adjustment mechanism (16,316,460) operable to rotate the first cutting tool between the first position and the second position.
A method for defining a safety zone in an industrial automation environment, comprising: monitoring an object and operating zone where equipment is controlled within the operating zone; determining a speed between the object and the equipment; determining a direction that the object approaches the operating zone; determining a speed or direction that a moving part associated with the equipment approaches the object, by employing multiple time of flight sensors; dynamically adjusting a safety region in view of the determined speed or direction of the object; and enabling or disabling the equipment within the operating zone based in part on the object entering the safety region characterized in employing the multiple time of flight sensors to monitor multiple dimensions for the operating zone, where the dimensions include movements toward the operating zone, movements away from the operating zone, movements from above or below the operating zone, and movements to the sides or circumference of the operating zone, wherein at least one of the sensors is mounted on moving portions of the equipment. monitoring an object and operating zone where equipment is controlled within the operating zone; determining a speed between the object and the equipment; determining a direction that the object approaches the operating zone; determining a speed or direction that a moving part associated with the equipment approaches the object, by employing multiple time of flight sensors; dynamically adjusting a safety region in view of the determined speed or direction of the object; and enabling or disabling the equipment within the operating zone based in part on the object entering the safety region characterized in employing the multiple time of flight sensors to monitor multiple dimensions for the operating zone, where the dimensions include movements toward the operating zone, movements away from the operating zone, movements from above or below the operating zone, and movements to the sides or circumference of the operating zone, wherein at least one of the sensors is mounted on moving portions of the equipment.
A system for determining properties of a blood sample, the system comprising: a common sample portion; a measurement system configured to facilitate determination of at least one hemostasis parameter and at least one oxygen transport parameter of a blood sample in the common sample portion, the measurement system comprising a receiver configured to determine a displacement of the blood sample generated by an application of force to the blood sample; and a processor, configured to receive data including the displacement of the blood sample from the measurement system and determine, using the data, the at least one hemostasis parameter and the at least one oxygen transport parameter, wherein the at least one oxygen transport parameter is selected from a group consisting of HCT, HGB, MCV, RBC, MCHC, MCH and combinations thereof, wherein determining the hemostasis parameter comprises adjusting the hemostasis parameter using the oxygen transport parameter, wherein the measurement system comprises: an ultrasonic signal generator configured to generate and direct an ultrasonic signal to interact with the blood sample, thereby applying said force to the blood sample; and wherein said receiver is configured to determine at least one characteristic of the ultrasonic signal that interacted with the blood sample, said characteristic comprising said data. a common sample portion; a measurement system configured to facilitate determination of at least one hemostasis parameter and at least one oxygen transport parameter of a blood sample in the common sample portion, the measurement system comprising a receiver configured to determine a displacement of the blood sample generated by an application of force to the blood sample; and a processor, configured to receive data including the displacement of the blood sample from the measurement system and determine, using the data, the at least one hemostasis parameter and the at least one oxygen transport parameter, wherein the at least one oxygen transport parameter is selected from a group consisting of HCT, HGB, MCV, RBC, MCHC, MCH and combinations thereof, wherein determining the hemostasis parameter comprises adjusting the hemostasis parameter using the oxygen transport parameter, wherein the measurement system comprises: an ultrasonic signal generator configured to generate and direct an ultrasonic signal to interact with the blood sample, thereby applying said force to the blood sample; and wherein said receiver is configured to determine at least one characteristic of the ultrasonic signal that interacted with the blood sample, said characteristic comprising said data. an ultrasonic signal generator configured to generate and direct an ultrasonic signal to interact with the blood sample, thereby applying said force to the blood sample; and wherein said receiver is configured to determine at least one characteristic of the ultrasonic signal that interacted with the blood sample, said characteristic comprising said data.
An identification device comprising: a specification unit configured to specify a boundary dividing rows of IP addresses, which are included in an IP address block and sorted by a predetermined order based on a magnitude of numerical values of octets of the IP addresses, into a plurality of parts based on predetermined information about the IP addresses, the predetermined information including an AS number, a PTR record comprising an effective second level domain, e2LD, and wherein, when a Jaro-Winkler distance between a first PTR record excluding an effective second level domain, e2LD, from a host name of a first IP address and a second PTR record excluding an e2LD from a host name of a second IP address, which is subsequent to the first IP address in the order of the row, is equal to or less than a threshold value, the specification unit specifies a position between the first IP address and the second IP address as the boundary; and an identification unit configured to identify the IP addresses included in a part as dynamic IP addresses when the part divided by the boundary satisfies a predetermined condition, constituted by the number of the IP address included in the part being equal to or higher than a threshold value. a specification unit configured to specify a boundary dividing rows of IP addresses, which are included in an IP address block and sorted by a predetermined order based on a magnitude of numerical values of octets of the IP addresses, into a plurality of parts based on predetermined information about the IP addresses, the predetermined information including an AS number, a PTR record comprising an effective second level domain, e2LD, and wherein, when a Jaro-Winkler distance between a first PTR record excluding an effective second level domain, e2LD, from a host name of a first IP address and a second PTR record excluding an e2LD from a host name of a second IP address, which is subsequent to the first IP address in the order of the row, is equal to or less than a threshold value, the specification unit specifies a position between the first IP address and the second IP address as the boundary; and an identification unit configured to identify the IP addresses included in a part as dynamic IP addresses when the part divided by the boundary satisfies a predetermined condition, constituted by the number of the IP address included in the part being equal to or higher than a threshold value.
A plasma torch comprising: a nozzle; a cathode body; a moveable electrode (76; 160) partially disposed in the nozzle, wherein the electrode (76; 160) comprises: a shoulder portion (118; 166) engaged with the cathode body, wherein the shoulder portion (118; 166) provides concentricity and centering with respect to an axis of a plasma torch; and a conical-like portion (94; 168) adjacent to the shoulder portion (118; 166); the torch further comprising a moveable plunger configured to receive the moveable electrode (76; 160), wherein the moveable plunger comprises a recess, characterized in that said recess is configured to receive the conical-like portion (94; 168) of the moveable electrode (76; 160), wherein the conical-like portion (94; 168) comprises a surface formed at a self-releasing angle such that the moveable electrode (76; 160) toollessly self-releases from the recess. a nozzle; a cathode body; a moveable electrode (76; 160) partially disposed in the nozzle, wherein the electrode (76; 160) comprises: a shoulder portion (118; 166) engaged with the cathode body, wherein the shoulder portion (118; 166) provides concentricity and centering with respect to an axis of a plasma torch; and a conical-like portion (94; 168) adjacent to the shoulder portion (118; 166); a shoulder portion (118; 166) engaged with the cathode body, wherein the shoulder portion (118; 166) provides concentricity and centering with respect to an axis of a plasma torch; and a conical-like portion (94; 168) adjacent to the shoulder portion (118; 166); the torch further comprising a moveable plunger configured to receive the moveable electrode (76; 160), wherein the moveable plunger comprises a recess, characterized in that said recess is configured to receive the conical-like portion (94; 168) of the moveable electrode (76; 160), wherein the conical-like portion (94; 168) comprises a surface formed at a self-releasing angle such that the moveable electrode (76; 160) toollessly self-releases from the recess.