mhurhangee/ep-ind-claims huggingface dataset:
A method in a Next Generation Core Control Function, NG-CCF, node for communication with a Next Generation Policy Control Function, NG-PCF, node, the method comprising: - communicating network related parameters with the NG-PCF node via a direct interface between the NG-CCF node and the NG-PCF node, wherein the direct interface is configured to serve as a Gx interface, and wherein said communicating comprises: transmitting, to the NG-PCF node, a request for a mobility policy associated with one or more of a Location-Based Service, LBS, and a Next Generation User Plane, NG-UP, selection, wherein the request includes one or more of a User Equipment, UE, identity and a Packet Data Network, PDN, identifier; and receiving the mobility policy from the NG-PCF node, wherein the mobility policy is deployed at the NG-CCF. - communicating network related parameters with the NG-PCF node via a direct interface between the NG-CCF node and the NG-PCF node, wherein the direct interface is configured to serve as a Gx interface, and wherein said communicating comprises: transmitting, to the NG-PCF node, a request for a mobility policy associated with one or more of a Location-Based Service, LBS, and a Next Generation User Plane, NG-UP, selection, wherein the request includes one or more of a User Equipment, UE, identity and a Packet Data Network, PDN, identifier; and receiving the mobility policy from the NG-PCF node, wherein the mobility policy is deployed at the NG-CCF. transmitting, to the NG-PCF node, a request for a mobility policy associated with one or more of a Location-Based Service, LBS, and a Next Generation User Plane, NG-UP, selection, wherein the request includes one or more of a User Equipment, UE, identity and a Packet Data Network, PDN, identifier; and receiving the mobility policy from the NG-PCF node, wherein the mobility policy is deployed at the NG-CCF.
Corner crimping machine for interconnecting a first and a second metal profile by means of corner reinforcement, in particular for window and door construction, comprising a support for the first metal profile and a support for the second metal profile, at least one limit stop for the first and/or the second metal profile, at least one movable counter support, at least two movable crimping blades (30, 32), at least one first drive for the counter support and at least one second drive for the at least two crimping blades (30, 32), and a plurality of switches (40, 42) for activating the first and the second drives, characterized in that a first switch and a second switch are resetting in a self-acting manner and are configured and disposed laterally to the support (16, 18) for the first and the second metal profile, respectively, such that the first switch is operable by a finger or several fingers of an operator's hand resting on the first metal profile and the second switch is operable by a finger or several fingers of an operator's hand resting on the second metal profile, and wherein the first drive for the counter support is configured to be activated only in case when both the first switch and the second switch are operated.
A measurement system comprising: - a concentrator comprising; - a first transceiver (111,112) operating in a first radio frequency band with a first data transmission protocol and; - a second transceiver (111,112) operating in a second radio frequency band with a second data transmission protocol; wherein the measurement system further comprises one or more nodes, (103, 105, 107) each node comprising: - one multiband transceiver (113,115,117) being arranged to be able to switch between the first radio frequency band with the first data transmission protocol and the second radio frequency band with the second data transmission protocol; - one or more sensors (123, 125, 126, 127) that convert one or more physical magnitudes to electrical sensor signals or means to connect to one or more sensors that convert one or more physical magnitudes to electrical sensor signals; - a node controller arranged to via the second data transmission protocol transfer the electrical sensor signals to the concentrator; and the concentrator further comprises a concentrator controller that is arranged to continuously listen with the first transceiver for status messages from the one or more nodes and when receiving a status message from a node, then sending a message back to that node with instructions to switch communication to the second frequency band together with parameters for that node for the second data transmission protocol, and in that the node controller is arranged to default upon reset the multiband transceiver to the first radio frequency band with the first data transmission protocol and then at predetermined time intervals to send a status message and then wait a predetermined wait time interval for a response, and in the system a chirp spread spectrum, CSS, radio modulation technology is used for the hardware and datalink layers in the first, second and multiband transceivers. - a concentrator comprising; - a first transceiver (111,112) operating in a first radio frequency band with a first data transmission protocol and; - a second transceiver (111,112) operating in a second radio frequency band with a second data transmission protocol; - a first transceiver (111,112) operating in a first radio frequency band with a first data transmission protocol and; - a second transceiver (111,112) operating in a second radio frequency band with a second data transmission protocol; - one multiband transceiver (113,115,117) being arranged to be able to switch between the first radio frequency band with the first data transmission protocol and the second radio frequency band with the second data transmission protocol; - one or more sensors (123, 125, 126, 127) that convert one or more physical magnitudes to electrical sensor signals or means to connect to one or more sensors that convert one or more physical magnitudes to electrical sensor signals; - a node controller arranged to via the second data transmission protocol transfer the electrical sensor signals to the concentrator; and the concentrator
A fragmentation and dispensing apparatus of a gel plate, wherein the fragmentation and dispensing apparatus comprises: a microtiter plate including a lattice-shaped partition wall with concave portions thereof surrounded by the lattice-shaped partition wall and arranged in the form of a matrix, end portions of the lattice-shaped partition wall being formed to be sharp; and a pressing tool including fitting means with respect to the microtiter plate and including a lattice-shaped wall portion or a lattice-shaped convex portion formed thereon, the lattice-shaped wall portion or the lattice-shaped convex portion having a flat surface or a curved surface configured to be opposed to and abut against each end portion of the lattice-shaped partition wall of the microtiter plate when the pressing tool is fitted onto the microtiter plate; and by fitting the pressing tool onto the microtiter plate and pressing a gel plate against the microtiter plate with the gel plate placed on the lattice-shaped partition wall of the microtiter plate, the gel plate is sandwiched and cut between the sharp end portions of the partition wall on the side of the microtiter plate and the surfaces (flat surfaces or curved surfaces) of the wall portion or the convex portion on the side of the pressing tool that have abutted against the sharp end portions and is thereby divided into fragments and the fragments are then dispensed into the respective concave portions of the microtiter plate. a microtiter plate including a lattice-shaped partition wall with concave portions thereof surrounded by the lattice-shaped partition wall and arranged in the form of a matrix, end portions of the lattice-shaped partition wall being formed to be sharp; and a pressing tool including fitting means with respect to the microtiter plate and including a lattice-shaped wall portion or a lattice-shaped convex portion formed thereon, the lattice-shaped wall portion or the lattice-shaped convex portion having a flat surface or a curved surface configured to be opposed to and abut against each end portion of the lattice-shaped partition wall of the microtiter plate when the pressing tool is fitted onto the microtiter plate; and by fitting the pressing tool onto the microtiter plate and pressing a gel plate against the microtiter plate with the gel plate placed on the lattice-shaped partition wall of the microtiter plate, the gel plate is sandwiched and cut between the sharp end portions of the partition wall on the side of the microtiter plate and the surfaces (flat surfaces or curved surfaces) of the wall portion or the convex portion on the side of the pressing tool that have abutted against the sharp end portions and is thereby divided into fragments and the fragments are then dispensed into the respective concave portions of the microtiter plate.
An organic photoelectric device, comprising: a first electrode and a second electrode facing each other, and an active layer between the first electrode and the second electrode, the active layer including a photoelectric material comprising at least one of the compounds represented by the following Chemical Formulae 2 to 7, wherein the organic photoelectric material selectively absorbs light of a green wavelength region: wherein, in Chemical Formulae 2 to 7, each of X 1 to X 5 are one of the same or different and are independently one of CR 1 R 2, SiR 3 R 4, NR 5, oxygen, and selenium (Se), wherein each of R 1 to R 5 are the same or different and are independently one of hydrogen, a substituted or unsubstituted C 1 to C 20 alkyl group, a substituted or unsubstituted C 6 to C 20 aryl group, a substituted or unsubstituted C 3 to C 20 heteroaryl group, and a combination thereof. a first electrode and a second electrode facing each other, and an active layer between the first electrode and the second electrode, the active layer including a photoelectric material comprising at least one of the compounds represented by the following Chemical Formulae 2 to 7, wherein the organic photoelectric material selectively absorbs light of a green wavelength region: wherein, in Chemical Formulae 2 to 7, each of X 1 to X 5 are one of the same or different and are independently one of CR 1 R 2, SiR 3 R 4, NR 5, oxygen, and selenium (Se), wherein each of R 1 to R 5 are the same or different and are independently one of hydrogen, a substituted or unsubstituted C 1 to C 20 alkyl group, a substituted or unsubstituted C 6 to C 20 aryl group, a substituted or unsubstituted C 3 to C 20 heteroaryl group, and a combination thereof. wherein, in Chemical Formulae 2 to 7, each of X 1 to X 5 are one of the same or different and are independently one of CR 1 R 2, SiR 3 R 4, NR 5, oxygen, and selenium (Se), wherein each of R 1 to R 5 are the same or different and are independently one of hydrogen, a substituted or unsubstituted C 1 to C 20 alkyl group, a substituted or unsubstituted C 6 to C 20 aryl group, a substituted or unsubstituted C 3 to C 20 heteroaryl group, and a combination thereof.
An apparatus for regulating winding tension as function of bobbin diameter in a slit film tape or yarn winder system carrying at least one winder, said apparatus comprising a dancing arm, the instantaneous position of said dancing arm and resistance R to movement of said dancing arm being variable during the yarn winding operation, wherein said apparatus comprises a tension setting means for changing said resistance 'R' of the dancing arm as a function of the bobbin diameter 'D' during the winding process, and wherein said tension setting means is a pressure multiplexer capable of changing said resistance R in discrete steps, characterized in that in the case of the discrete-stepped pressure change, said pressure multiplexer is provided with at least two separate pressure lines (11A and 11B) and a pressure line selection switch, wherein only one pressure line (11A or 11B) is activated at any time using said switch and the pressure is transmitted to said dancing arm for generating resistance R.
A ready-to-use device for removing interfering factors from samples to be subjected to microbiological examination, said interfering factors being any substance able to inhibit or slow bacterial reproduction on which microbiological examination of the samples is based comprising an elongate containment body extending between an open first end and a second end; a stopper impermeable to liquids, inserted slidably and in a liquidtight fashion in the containment body and movable between a first position in which it is close to the first end and a second position in which it is distanced from the first end, a chamber with variable volume being created in the containment body between the stopper and the first end; a movement plunger connected or connectable to the stopper through the second end of the containment body; at least one product in the form of granules for removing interfering factors inserted in said chamber, a supply nozzle connected to the first end of the containment body; a sealing separator mounted in said nozzle for closing it in a liquidtight fashion, the sealing separator being made of elastomeric material; a suction and injection unit comprising a connecting element connectable to said nozzle, a first needle fixed to the connecting element and extending outwards from the connecting element when the connecting element is connected to the nozzle, and a second needle fixed to the connecting element and extending inside the nozzle when the connecting element is connected to the nozzle, the second needle comprising an inner transit opening which is smaller than the nominal size of the granules for preventing the granules from coming out of the chamber through it; wherein when the connecting element is connected to the nozzle the second needle pierces the sealing separator, passes through it and puts in fluid communication the chamber and the first needle, and wherein after a subsequent extraction of the second needle from the sealing separator the material of which the sealing separator is made elastically closes the hole previously made by the second needle.
A method of detecting an abnormal operating condition of a battery system, which may lead to a thermal runaway, wherein the battery system comprises: a battery pack including a plurality of battery cells (12, 13); a cooling system including a pump for circulating a liquid coolant in a cooling circuit, a first heat exchange member integrated into the cooling circuit and thermally contacting the battery cells (12, 13), and at least one pressure sensor adapted to detect a change in pressure inside the cooling circuit; and a battery management system, BMS, being connected to the pressure sensor and the pump and being configured to perform a detection mode for detecting an abnormal operating condition of the battery system, the detection mode including the steps of: step a) detecting an initial pressure with the pressure sensor and switching off the pump for a specified time period, step b) after switching off the pump, capturing the pressure with the pressure sensor, and step c) determining a pressure difference between the initial pressure and the captured pressure and, when the pressure difference exceeds a predetermined threshold, detecting an abnormal condition that could cause the occurrence of a thermal runaway of the battery pack. a battery pack including a plurality of battery cells (12, 13); a cooling system including a pump for circulating a liquid coolant in a cooling circuit, a first heat exchange member integrated into the cooling circuit and thermally contacting the battery cells (12, 13), and at least one pressure sensor adapted to detect a change in pressure inside the cooling circuit; and a battery management system, BMS, being connected to the pressure sensor and the pump and being configured to perform a detection mode for detecting an abnormal operating condition of the battery system, the detection mode including the steps of: step a) detecting an initial pressure with the pressure sensor and switching off the pump for a specified time period, step b) after switching off the pump, capturing the pressure with the pressure sensor, and step c) determining a pressure difference between the initial pressure and the captured pressure and, when the pressure difference exceeds a predetermined threshold, detecting an abnormal condition that could cause the occurrence of a thermal runaway of the battery pack. step a) detecting an initial pressure with the pressure sensor and switching off the pump for a specified time period, step b) after switching off the pump, capturing the pressure with the pressure sensor, and step c) determining a pressure difference between the initial pressure and the captured pressure and, when the pressure difference exceeds a predetermined threshold, detecting an abnormal condition that could cause the occurrence of a thermal runaway of the battery pack.
A foot pedal (200, 200a, 200b), comprising: a foot pedal base communicatively associated with a console and suitable for varying at least one of a plurality of operating modes provided by the console; and characterized by further comprising at least two electronically actuated sensors (208, 210, 216) for detecting a position of a foot of a user, the sensors (208, 210,216) being physically associated with the foot pedal base, communicatively connected to the console, and suitable for receiving physical indications of variations of the position of the foot in at least one of the plurality of operating modes. a foot pedal base communicatively associated with a console and suitable for varying at least one of a plurality of operating modes provided by the console; and characterized by further comprising at least two electronically actuated sensors (208, 210, 216) for detecting a position of a foot of a user, the sensors (208, 210,216) being physically associated with the foot pedal base, communicatively connected to the console, and suitable for receiving physical indications of variations of the position of the foot in at least one of the plurality of operating modes.
A recoilless apparatus comprising: a first gun barrel open at both ends; a second gun barrel open at both ends, each of the first gun barrel and the second gun barrel being arranged breech to breech; and a fixture, which is configured to maintain coaxial linearity of the first gun barrel and the second gun barrel during at least firing; a first loader mated to the first gun barrel providing means of automatically breech loading and/or unloading a cartridge in the first gun barrel; a second loader mated to the second gun barrel providing means of automatically breech loading and/or unloading a second cartridge or blank cartridge in the second gun barrel and an ignition device providing means of igniting charges contained inside the first cartridge and the second cartridge substantially simultaneously or with a predetermined time lag; wherein the first gun barrel and the second gun barrel are configured such that during launching the cartridge further seals the breech end of the first gun barrel and the second cartridge or blank cartridge further seals the breech end of the second gun barrel; wherein said second barrel is not necessarily of the same dimension over its length and is further slidably or fixedly disposed in: an alignment of being substantially coaxially linear to said first gun barrel; and a position of having a spatial gap between the breech ends. a first gun barrel open at both ends; a second gun barrel open at both ends, each of the first gun barrel and the second gun barrel being arranged breech to breech; and a fixture, which is configured to maintain coaxial linearity of the first gun barrel and the second gun barrel during at least firing; a first loader mated to the first gun barrel providing means of automatically breech loading and/or unloading a cartridge in the first gun barrel; a second loader mated to the second gun barrel providing means of automatically breech loading and/or unloading a second cartridge or blank cartridge in the second gun barrel and an ignition device providing means of igniting charges contained inside the first cartridge and the second cartridge substantially simultaneously or with a predetermined time lag; wherein the first gun barrel and the second gun barrel are configured such that during launching the cartridge further seals the breech end of the first gun barrel and the second cartridge or blank cartridge further seals the breech end of the second gun barrel; wherein said second barrel is not necessarily of the same dimension over its length and is further slidably or fixedly disposed in: an alignment of being substantially coaxially linear to said first gun barrel; and a position of having a spatial gap between the breech ends. an alignment of being substantially coaxially linear to said first gun barrel; and a position of having a spatial gap between the breech ends.
A method for forming a fuel cell including: providing a fuel cell component including a substrate; providing a mold having a mold member transmissive to actinic radiation and defining a cavity; positioning the mold so that the cavity is in fluid communication with the substrate; applying a curable liquid sealant composition into the cavity, wherein the curable sealant composition comprises actinic radiation curable material selected from the group consisting of acrylate, urethane, polyether, polyolefin, polyester, copolymers thereof and combinations thereof; and curing the composition with actinic radiation. providing a fuel cell component including a substrate; providing a mold having a mold member transmissive to actinic radiation and defining a cavity; positioning the mold so that the cavity is in fluid communication with the substrate; applying a curable liquid sealant composition into the cavity, wherein the curable sealant composition comprises actinic radiation curable material selected from the group consisting of acrylate, urethane, polyether, polyolefin, polyester, copolymers thereof and combinations thereof; and curing the composition with actinic radiation.
A device for separating planar and three-dimensional solids and / or light and heavy solids, consisting of a rotatable drum with apertures (A, A', A'') in the casing of the drum, wherein the internal drum volume is divided into at least two sub-areas (D, E), wherein the one portion under pressure (pi) and the other part region over-pressure or atmospheric pressure (pa) and the two partial regions (D, E) by at least one partition (10, 10 ') are formed, characterized in that - the end faces (8, 8') of the drum are closed by end plates and at least one end face shows at least one exhaust air and / or air inlet opening (5, 6); and - the end plates by means of at least one elongated rod (11, 11 ') are connected to each other; and - at least one partition (10, 10') is secured on at least one elongated rod (11, 11'); and - the shell of the drum is rotatably mounted, wherein the bearing on the circumference of the end face (8, 8') is arranged in a ring in the region of the periphery of the drum circumference. - the end faces (8, 8') of the drum are closed by end plates and at least one end face shows at least one exhaust air and / or air inlet opening (5, 6); and - the end plates by means of at least one elongated rod (11, 11 ') are connected to each other; and - at least one partition (10, 10') is secured on at least one elongated rod (11, 11'); and - the shell of the drum is rotatably mounted, wherein the bearing on the circumference of the end face (8, 8') is arranged in a ring in the region of the periphery of the drum circumference.