mhurhangee/ep-ind-claims huggingface dataset:
A vial adapter modular assembly comprising: a bag spike port connectable to an output port of a bag; a vial port connectable to a vial; and an exit port, a lumen having a vial port flow opening in fluid communication with said vial port; and a closure element (34; 50) that has a non-blocking position and a blocking position, wherein in the non-blocking position, said closure element (34; 50) does not block said vial port flow opening and permits fluid flow between said bag spike port and said vial port, and wherein in the blocking position, said closure element (34; 50) blocks said vial port flow opening and blocks fluid flow between said bag spike port and said vial port; characterised by at least two said vial adapter modular assemblies, referred to as first and second vial adapter modular assemblies, wherein said bag spike port of the second vial adapter modular assembly is inserted into said exit port of the first vial adapter modular assembly; and said bag spike port of the second vial adapter modular assembly is inserted into said exit port of the first vial adapter modular assembly, thereby pushing said closure element (34; 50) of the first vial adapter modular assembly along said lumen to the blocking position in the first vial adapter modular assembly. a bag spike port connectable to an output port of a bag; a vial port connectable to a vial; and an exit port, a lumen having a vial port flow opening in fluid communication with said vial port; and a closure element (34; 50) that has a non-blocking position and a blocking position, wherein in the non-blocking position, said closure element (34; 50) does not block said vial port flow opening and permits fluid flow between said bag spike port and said vial port, and wherein in the blocking position, said closure element (34; 50) blocks said vial port flow opening and blocks fluid flow between said bag spike port and said vial port; characterised by at least two said vial adapter modular assemblies, referred to as first and second vial adapter modular assemblies, wherein said bag spike port of the second vial adapter modular assembly is inserted into said exit port of the first vial adapter modular assembly; and said bag spike port of the second vial adapter modular assembly is inserted into said exit port of the first vial adapter modular assembly, thereby pushing said closure element (34; 50) of the first vial adapter modular assembly along said lumen to the blocking position in the first vial adapter modular assembly.
An operation triggering method for machine-to-machine communications, wherein service capability middleware stores a representation of a subject resource, wherein the representation of the subject resource comprises content of the subject resource and information about an operation resource associated with the subject resource, and the method comprises: when the content of the subject resource is changed, retrieving, by the service capability middleware, a change result of the content of the subject resource stored in the service capability middleware; retrieving, by the service capability middleware according to the information about the operation resource associated with the subject resource, a representation of the operation resource associated with the subject resource, wherein the representation of the operation resource comprises a condition for sending an operation request to an object resource and a uniform resource identifier of the object resource; constructing the operation request for the object resource when the service capability middleware determines that the change result meets the condition for sending the operation request to the object resource in the representation of the operation resource; and sending, by the service capability middleware, the operation request to the object resource according to the uniform resource identifier of the object resource. when the content of the subject resource is changed, retrieving, by the service capability middleware, a change result of the content of the subject resource stored in the service capability middleware; retrieving, by the service capability middleware according to the information about the operation resource associated with the subject resource, a representation of the operation resource associated with the subject resource, wherein the representation of the operation resource comprises a condition for sending an operation request to an object resource and a uniform resource identifier of the object resource; constructing the operation request for the object resource when the service capability middleware determines that the change result meets the condition for sending the operation request to the object resource in the representation of the operation resource; and sending, by the service capability middleware, the operation request to the object resource according to the uniform resource identifier of the object resource.
Food preparation appliance with a food preparation container and a rotatable tool for chopping and/or mixing a food in the food preparation container, the tool being detachably connectable to a shaft, which extends from outside the food preparation container through a passage toward the tool inside the food preparation container in order to be able to drive the tool, and a locking mechanism being provided for a locked connection of the tool to the shaft, wherein the locking mechanism is configured such that a releasing and/or a locking of the connection of the tool to the shaft can be performed from outside the food preparation container, characterized in that an actuating element for actuating the locking mechanism which is positioned outside the food preparation container is coupled to a locking element for the locked connection of the tool to the shaft, which locking element is positioned inside the food preparation container.
A method of controlling a wireless personal area network, PAN, device, such that the PAN device performs at least one from among a coordinator role, a router role, and an end device role in a plurality of networks by using a single physical layer, the method comprising: setting a first role corresponding to a first network among the plurality of networks and a second role corresponding to a second network among the plurality of networks; acquiring activation interval information of the first network and the second network based on the first role and the second role, wherein the activation interval information includes a period of activation intervals and a duration of an activation interval for the first network and the second network; performing the first role during the activation interval of the first network; and switching the first role to the second role and performing the second role during the activation interval of the second network. setting a first role corresponding to a first network among the plurality of networks and a second role corresponding to a second network among the plurality of networks; acquiring activation interval information of the first network and the second network based on the first role and the second role, wherein the activation interval information includes a period of activation intervals and a duration of an activation interval for the first network and the second network; performing the first role during the activation interval of the first network; and switching the first role to the second role and performing the second role during the activation interval of the second network.
A spinning machine comprising: a plurality of spinning units, each spinning unit including an air-jet spinning device adapted to twist a fiber bundle by supplying air, a pressure adjusting valve adapted to control a pressure of air compressed and transported by an air transporting device adapted to compress and transport air, an air pipe adapted to guide the compressed air transported by the air transporting device to each of the air-jet spinning devices, an additive supplying device, and a control device, characterized in that the additive supplying device is adapted to supply additive to the air pipe at upstream of a branch where the air flowing through the air pipe branches towards each of the air-jet spinning devices, the control device is adapted to adjust a supplying volume of the additive to be supplied by the additive supplying device according to the operating number of the air-jet spinning devices, and the control device is adapted to increase the supplying volume of the additive according to an increase in an operating number of the air-jet spinning devices and to decrease the supplying volume of the additive according to a decrease in the operating number of the air-jet spinning devices. a plurality of spinning units, each spinning unit including an air-jet spinning device adapted to twist a fiber bundle by supplying air, a pressure adjusting valve adapted to control a pressure of air compressed and transported by an air transporting device adapted to compress and transport air, an air pipe adapted to guide the compressed air transported by the air transporting device to each of the air-jet spinning devices, an additive supplying device, and a control device, characterized in that the additive supplying device is adapted to supply additive to the air pipe at upstream of a branch where the air flowing through the air pipe branches towards each of the air-jet spinning devices, the control device is adapted to adjust a supplying volume of the additive to be supplied by the additive supplying device according to the operating number of the air-jet spinning devices, and the control device is adapted to increase the supplying volume of the additive according to an increase in an operating number of the air-jet spinning devices and to decrease the supplying volume of the additive according to a decrease in the operating number of the air-jet spinning devices.
An apparatus that welds together a plurality of film-like members comprising: a pair of molds (10a, 10b) that extend in a first direction and sandwich and heat an overlapping part of the plurality of film-like members to at least partially weld the overlapping parts together; a pair of heater blocks (20a, 20b) that extend in the first direction and support the pair of molds (10a, 10b) respectively; a plurality of first support blocks that are disposed intermittently on the first direction and are connected via a plurality of rod-like members respectively to one heater block out of the pair of heater blocks (20a, 20b), wherein the plurality of rod-like members extend in a direction that is perpendicular to the first direction and midway include parts that restrict transmission of heat respectively; a plurality of second support blocks that are disposed intermittently on the first direction and are connected via the plurality of rod-like members to another heater block out of the pair of heater blocks (20a, 20b); and a driving mechanism that changes, via the plurality of first support blocks and the plurality of second support blocks, a distance between the pair of molds (10a, 10b) to press together the film-like members, wherein the plurality of first support blocks include at least one movable support block including a mechanism that moves in the first direction relative to the driving mechanism corresponding to thermal deformation in the first direction of a heater block to be supported, and the plurality of second support blocks include at least one movable support block. a pair of molds (10a, 10b) that extend in a first direction and sandwich and heat an overlapping part of the plurality of film-like members to at least partially weld the overlapping parts together; a pair of heater blocks (20a, 20b) that extend in the first direction and support the pair of molds (10a, 10b) respectively; a plurality of first support blocks that are disposed intermittently on the first direction and are connected via a plurality of rod-like members respectively to one heater block out of the pair of heater blocks (20a, 20b), wherein the plurality of rod-like members extend in a direction that is perpendicular to the first direction and midway include parts that restrict transmission of heat respectively; a plurality of second support blocks that are disposed intermittently on the first direction and are connected via the plurality of rod-like members to another heater block out of the pair of heater blocks (20a, 20b); and a driving mechanism that changes, via the plurality of first support blocks and the plurality of second support blocks, a distance between the pair of molds (10a, 10b) to press together the film-like members, wherein the plurality of first support blocks include at least one movable support block including a mechanism that moves in the first direction relative to the driving mechanism corresponding to thermal deformation in the first direction of a heater block to be supported, and the plurality of second support blocks include at least one movable support block.
An oven comprising: - a cooking chamber configured to receive a food product; and - a radio frequency heating system configured to provide RF energy into the cooking chamber using solid state electronic components to heat the food product; and - a context awareness engine comprising processing circuitry configured to: - receive RF signature data associated with provision of RF energy into the cooking chamber in real-time, the RF signature data including measurements of at least forward power (P fwd) and reflected power (P refl), and - correlate an RF signature with a phenomenon observed with respect to the food product, in real-time during a cooking operation involving the oven to define a signature profile for the phenomenon observed; characterised in that the processing circuitry is further configured to: - perform a comparison of the current RF signature data to a library of signature profiles, - classify context information based on the comparison, and - perform a function execution associated with the context information classified comprising initiating a change in air flow into the cooking chamber. - a cooking chamber configured to receive a food product; and - a radio frequency heating system configured to provide RF energy into the cooking chamber using solid state electronic components to heat the food product; and - a context awareness engine comprising processing circuitry configured to: - receive RF signature data associated with provision of RF energy into the cooking chamber in real-time, the RF signature data including measurements of at least forward power (P fwd) and reflected power (P refl), and - correlate an RF signature with a phenomenon observed with respect to the food product, in real-time during a cooking operation involving the oven to define a signature profile for the phenomenon observed; - receive RF signature data associated with provision of RF energy into the cooking chamber in real-time, the RF signature data including measurements of at least forward power (P fwd) and reflected power (P refl), and - correlate an RF signature with a phenomenon observed with respect to the food product, in real-time during a cooking operation involving the oven to define a signature profile for the phenomenon observed; - perform a comparison of the current RF signature data to a library of signature profiles, - classify context information based on the comparison, and - perform a function execution associated with the context information classified comprising initiating a change in air flow into the cooking chamber.
Method for determining a time difference between a first vehicle, moving along a lane, and a second vehicle, wherein the second vehicle follows the first vehicle in the lane, wherein a light sensitive sensor records a sequence, wherein the sequence comprises at least a portion of the first vehicle and a portion of the second vehicle and wherein the recording of the sequence is synchronised concerning the time, characterised in that a camera is used as the light sensitive sensor, to record only one one-dimensional image column at each particular time, wherein the camera is arranged laterally next to the lane, wherein the one-dimensional image columns form the sequence and each one-dimensional image column of the sequence is assigned to a time, wherein an evaluation of the sequence is carried out, to identify a rear of the first vehicle and a front of the second vehicle, and wherein a time difference between a position of the one-dimensional image column comprising the rear of the first vehicle and a position of the one-dimensional image column comprising the front of the second vehicle within the sequence is determined by means of the assigned times of the one-dimensional image columns of the sequence. wherein a light sensitive sensor records a sequence, wherein the sequence comprises at least a portion of the first vehicle and a portion of the second vehicle and wherein the recording of the sequence is synchronised concerning the time, characterised in that a camera is used as the light sensitive sensor, to record only one one-dimensional image column at each particular time, wherein the camera is arranged laterally next to the lane, wherein the one-dimensional image columns form the sequence and each one-dimensional image column of the sequence is assigned to a time, wherein an evaluation of the sequence is carried out, to identify a rear of the first vehicle and a front of the second vehicle, and wherein a time difference between a position of the one-dimensional image column comprising the rear of the first vehicle and a position of the one-dimensional image column comprising the front of the second vehicle within the sequence is determined by means of the assigned times of the one-dimensional image columns of the sequence.
An antenna structure comprising: a signal-feeding terminal; a first radiating conductor extending from the signal-feeding terminal along a first direction to a first position, and gradually widening from the signal-feeding terminal along the first direction; a ground terminal configured to be separated from the signal-feeding terminal by a first gap; a second radiating conductor extending from the ground terminal along a second direction perpendicular to the first direction, narrowing to a second position, and then gradually widening from the second position along the second direction to a third position; and a conductor extending portion extending from the ground terminal along the first direction to a fourth position. a signal-feeding terminal; a first radiating conductor extending from the signal-feeding terminal along a first direction to a first position, and gradually widening from the signal-feeding terminal along the first direction; a ground terminal configured to be separated from the signal-feeding terminal by a first gap; a second radiating conductor extending from the ground terminal along a second direction perpendicular to the first direction, narrowing to a second position, and then gradually widening from the second position along the second direction to a third position; and a conductor extending portion extending from the ground terminal along the first direction to a fourth position.
An overload relay (101, 201, 301) for protecting a motor or other device from an overload condition, the overload relay having: a plurality of shunt resistors (110, 110a, 110b, 110c), each shunt resistor being locatable in the current path of a respective supply line of a power supply for the motor or other device; and a control means connected to each of the shunt resistors and arranged to receive signals representative of current through each of the shunt resistors; wherein the control means is arranged to determine a thermal condition of the motor or the other device based on one or more of the one or more signals representative of current through the shunt resistors and according to a thermal model of the motor or other device, and to produce a trip signal to interrupt the continuity of the power supply if it determines that an overload condition exists based on the thermal condition. a plurality of shunt resistors (110, 110a, 110b, 110c), each shunt resistor being locatable in the current path of a respective supply line of a power supply for the motor or other device; and a control means connected to each of the shunt resistors and arranged to receive signals representative of current through each of the shunt resistors; wherein the control means is arranged to determine a thermal condition of the motor or the other device based on one or more of the one or more signals representative of current through the shunt resistors and according to a thermal model of the motor or other device, and to produce a trip signal to interrupt the continuity of the power supply if it determines that an overload condition exists based on the thermal condition.
Portable infrared ray header for environmental heating, comprising: a hollow body delimiting a central chamber, having a base provided with a main inlet, a top wall and a side wall at least partially gas-permeable and extended from said base to said top wall, wherein said header is without its own burner, said header being apt to be coupled with a burner for the combustion of a gas and the respective emission of combustion gases into said central chamber, said burner being outside of said central chamber, said header being characterized in that said side wall comprises radiating means for infrared radiation comprising a layer of amorphous silica fiber with silica content equal or higher than 99%; and in that it comprises bearing means for supporting said hollow body on a stovetop comprising said burner, at a predetermined limited distance therefrom, wherein said bearing means are associated with said base and are essentially arranged around said main inlet, and wherein said bearing means are provided with a plurality of through holes. a hollow body delimiting a central chamber, having a base provided with a main inlet, a top wall and a side wall at least partially gas-permeable and extended from said base to said top wall, wherein said header is without its own burner, said header being apt to be coupled with a burner for the combustion of a gas and the respective emission of combustion gases into said central chamber, said burner being outside of said central chamber, said header being characterized in that said side wall comprises radiating means for infrared radiation comprising a layer of amorphous silica fiber with silica content equal or higher than 99%; and in that it comprises bearing means for supporting said hollow body on a stovetop comprising said burner, at a predetermined limited distance therefrom, wherein said bearing means are associated with said base and are essentially arranged around said main inlet, and wherein said bearing means are provided with a plurality of through holes.
A method for aligning a spectrometer, wherein a radiation source, a crystal analyzer, and a detector of the spectrometer are all positioned on an instrument plane, the method comprising: rotating the crystal analyzer about an axis that is within the instrument plane and perpendicular to a rotation plane such that (i) a reciprocal lattice vector of the crystal analyzer is within the instrument plane or (ii) a component of the reciprocal lattice vector within the rotation plane is perpendicular to the instrument plane, wherein an origin of the reciprocal lattice vector is located on the axis; and tilting the crystal analyzer or translating the detector such that the reciprocal lattice vector bisects a line segment that is bounded by the detector and the radiation source. rotating the crystal analyzer about an axis that is within the instrument plane and perpendicular to a rotation plane such that (i) a reciprocal lattice vector of the crystal analyzer is within the instrument plane or (ii) a component of the reciprocal lattice vector within the rotation plane is perpendicular to the instrument plane, wherein an origin of the reciprocal lattice vector is located on the axis; and tilting the crystal analyzer or translating the detector such that the reciprocal lattice vector bisects a line segment that is bounded by the detector and the radiation source.