mhurhangee/ep-ind-claims huggingface dataset:
A medical device for detecting at least one analyte in a body fluid, the medical device comprising: • at least one analyte sensor having an insertable portion adapted for at least partially being inserted into a body tissue of a user, • at least one insertion cannula, wherein the analyte sensor at least partially is placed inside the insertion cannula; • at least one housing, wherein the housing comprises at least one sensor compartment, wherein the sensor compartment forms a sealed compartment receiving at least the insertable portion of the analyte sensor, wherein the sealed compartment comprises at least one detachable upper cap and at least one detachable lower cap, wherein the detachable lower cap is configured for detachment before insertion, thereby opening the insertable portion for insertion, wherein the insertion cannula is attached to the detachable upper cap, wherein the detachable upper cap is configured for detachment after insertion, thereby removing the insertion cannula; and • at least one electronics unit, wherein the analyte sensor is operably connected to the electronics unit, wherein the electronics unit comprises at least one interconnect device with at least one electronic component attached thereto, wherein the interconnect device fully or partially surrounds the housing, characterised in that the interconnect device comprises a flexible printed circuit board, wherein the interconnect device comprises an upper side and a lower side, wherein the lower side comprises at least one adhesive element for attachment of the interconnect device to a skin of the user. • at least one analyte sensor having an insertable portion adapted for at least partially being inserted into a body tissue of a user, • at least one insertion cannula, wherein the analyte sensor at least partially is placed inside the insertion cannula; • at least one housing, wherein the housing comprises at least one sensor compartment, wherein the sensor compartment forms a sealed compartment receiving at least the insertable portion of the analyte sensor, wherein the sealed compartment comprises at least one detachable upper cap and at least one detachable lower cap, wherein the detachable lower cap is configured for detachment before insertion, thereby opening the insertable portion for insertion, wherein the insertion cannula is attached to the detachable upper cap, wherein the detachable upper cap is configured for detachment after insertion, thereby removing the insertion cannula; and • at least one electronics unit, wherein the analyte sensor is operably connected to the electronics unit, wherein the electronics unit comprises at least one interconnect device with at least one electronic component attached thereto, wherein the interconnect device fully or partially surrounds the housing, characterised in that the interconnect device comprises a flexible printed circuit board, wherein the interconnect device comprises an upper side and a lower side, wherein the lower side comprises at least one adhesive element for attachment of the interconnect device to a skin of the user.
A method for making a deployable antenna comprising: assembling a waveguide antenna feed section comprising a first plurality of wires and a first plurality of biased hinges coupling the first plurality of wires together to be self-biased to move between a collapsed stored configuration and an extended deployed configuration; and assembling a horn antenna section coupled to the waveguide antenna feed section and comprising a second plurality of wires and a second plurality of biased hinges coupling the second plurality of wires together to be self-biased to move between the collapsed stored configuration and the extended deployed configuration.
A method for wireless communication, comprising: receiving, at a first user equipment, UE, a first control channel transmission that allocates a first set of wireless resources for a first set of point to multipoint, PTM, transmissions intended for two or more UEs and a second control channel transmission that allocates a second set of wireless resources for a second set of unicast transmissions intended for the first UE; identifying a first transmission time interval, TTI, duration for reception of the first set of PTM transmissions, and a second TTI duration for reception of the second set of unicast transmissions intended for the first UE, wherein the second TTI duration is longer than the first TTI duration; determining that the first set of PTM transmissions is to be received at the first UE based at least in part on reception of the first control channel transmission; and receiving, responsive to the determining, the first set of PTM transmissions using the first set of wireless resources, wherein the first set of wireless resources is configured with the first TTI duration. receiving, at a first user equipment, UE, a first control channel transmission that allocates a first set of wireless resources for a first set of point to multipoint, PTM, transmissions intended for two or more UEs and a second control channel transmission that allocates a second set of wireless resources for a second set of unicast transmissions intended for the first UE; identifying a first transmission time interval, TTI, duration for reception of the first set of PTM transmissions, and a second TTI duration for reception of the second set of unicast transmissions intended for the first UE, wherein the second TTI duration is longer than the first TTI duration; determining that the first set of PTM transmissions is to be received at the first UE based at least in part on reception of the first control channel transmission; and receiving, responsive to the determining, the first set of PTM transmissions using the first set of wireless resources, wherein the first set of wireless resources is configured with the first TTI duration.
Mechanical timepiece oscillator with flexible guiding, intended to oscillate about a virtual oscillation axis, said oscillator comprising: - a movable part centred on the oscillation axis, - a fixation part intended to be fixed to a first support element, - at least a first and a second elastic strip (5, 6) connecting the movable part and the fixation part and arranged to exert a restoring moment on the movable part with respect to the fixation part, - at least one balance added and fixedly attached to the movable part, said balance comprising a felloe, a hub having a central hole, centred on the oscillation axis, and at least one arm connecting said hub to the felloe, characterised in that said oscillator comprises: - a post, centred on the oscillation axis, said post being on the one hand fixedly attached at least in axial translation to a second support element and on the other hand positioned in the central hole of the hub of the balance, the dimensions of the post and of the central hole being selected so as to leave clearance between the hub and the post defining axial and radial operating stops. - a movable part centred on the oscillation axis, - a fixation part intended to be fixed to a first support element, - at least a first and a second elastic strip (5, 6) connecting the movable part and the fixation part and arranged to exert a restoring moment on the movable part with respect to the fixation part, - at least one balance added and fixedly attached to the movable part, said balance comprising a felloe, a hub having a central hole, centred on the oscillation axis, and at least one arm connecting said hub to the felloe, - a post, centred on the oscillation axis, said post being on the one hand fixedly attached at least in axial translation to a second support element and on the other hand positioned in the central hole of the hub of the balance, the dimensions of the post and of the central hole being selected so as to leave clearance between the hub and the post defining axial and radial operating stops.
Use of a bonding substance, selected from the group consisting of peptides, which comprise the sequence His, Trp, Arg, Arg (HWRR), the sequence His, Trp, Arg, Arg, Pro (HWRRP), the sequence Ala, Val, Thr, Leu, Glu, Asn, Phe, Leu, His, Trp, Arg, Arg corresponding to amino acids 278-289 of the ADAM15 sequence, the sequence Glu, Asn, Phe, Leu, His, Trp, Arg, Arg, Ala, His, Leu, Leu (ENFLHWRRAHLL) corresponding to amino acids 282-293 of the ADAM 15 sequence or the sequence His, Trp, Arg, Arg, Ala, His, Leu, Leu, Pro, Arg, Leu, Pro (HWRRAHLLPRLP) corresponding to amino acids 286-297 of the ADAM15 sequence, the metalloprotease domain of ADAM15 and ADAM15 (metargidin), in vitro for bonding misfolded proteins or peptides that play a role for the pathogenesis of diseases.
A method for transmitting signals via a mesh network, which is used for a remote control system to control a controlled device, wherein the remote control system comprising a mesh network control device and an infrared control device, the method comprising the steps of: executing a setting process, comprising: downloading a first control instruction to a mesh network control device; dividing the first control instruction into a plurality of transmission codes; storing a second control instruction, wherein the second control instruction is part of the first control instruction; transmitting a plurality of transmission codes to the infrared control device via a mesh network environment; and restoring the plurality of transmission codes to the first control instruction and storing the first control instruction; and executing a remote control process, comprising: transmitting the second control instruction to the infrared control device; let the infrared control device to convert into the first control instruction according to the second control instruction; and using the first control instruction to control the device by using an infrared signal to control a controlled device. downloading a first control instruction to a mesh network control device; dividing the first control instruction into a plurality of transmission codes; storing a second control instruction, wherein the second control instruction is part of the first control instruction; transmitting a plurality of transmission codes to the infrared control device via a mesh network environment; and restoring the plurality of transmission codes to the first control instruction and storing the first control instruction; and executing a remote control process, comprising: transmitting the second control instruction to the infrared control device; let the infrared control device to convert into the first control instruction according to the second control instruction; and using the first control instruction to control the device by using an infrared signal to control a controlled device. transmitting the second control instruction to the infrared control device; let the infrared control device to convert into the first control instruction according to the second control instruction; and using the first control instruction to control the device by using an infrared signal to control a controlled device.
A system for controlling self-refresh of a memory, comprising: a dynamic random access memory (DRAM) device to execute a self-refresh mode comprising a plurality of commands, wherein the self-refresh mode is capable of being enabled for fast exit during execution of a refresh, the commands including: one or more commands to refresh rows of the DRAM device; and wherein the system is characterized in that it includes a memory controller operatively coupled to the DRAM device to send a signal to the DRAM device indicating the self-refresh mode is to be aborted, wherein a fast exit mode is enabled; the DRAM device, capable of receiving the signal from the memory controller, to enable the fast exit mode, wherein the DRAM device is to abort the self-refresh mode in response to receipt of the signal from the memory controller if the fast-exit mode is enabled or to continue with the self-refresh mode in response to the signal if the fast-exit mode is not enabled, wherein the timing of issuing a valid command from the memory controller is tXS, if the fast exit mode is not enabled and is less than tXS, if the fast exit mode is enabled. a dynamic random access memory (DRAM) device to execute a self-refresh mode comprising a plurality of commands, wherein the self-refresh mode is capable of being enabled for fast exit during execution of a refresh, the commands including: one or more commands to refresh rows of the DRAM device; and wherein the system is characterized in that it includes a memory controller operatively coupled to the DRAM device to send a signal to the DRAM device indicating the self-refresh mode is to be aborted, wherein a fast exit mode is enabled; the DRAM device, capable of receiving the signal from the memory controller, to enable the fast exit mode, wherein the DRAM device is to abort the self-refresh mode in response to receipt of the signal from the memory controller if the fast-exit mode is enabled or to continue with the self-refresh mode in response to the signal if the fast-exit mode is not enabled, wherein the timing of issuing a valid command from the memory controller is tXS, if the fast exit mode is not enabled and is less than tXS, if the fast exit mode is enabled. one or more commands to refresh rows of the DRAM device; and wherein the system is characterized in that it includes a memory controller operatively coupled to the DRAM device to send a signal to the DRAM device indicating the self-refresh mode is to be aborted, wherein a fast exit mode is enabled; the DRAM device, capable of receiving the signal from the memory controller, to enable the fast exit mode, wherein the DRAM device is to abort the self-refresh mode in response to receipt of the signal from the memory controller if the fast-exit mode is enabled or to continue with the self-refresh mode in response to the signal if the fast-exit mode is not enabled, wherein the timing of issuing a valid command from the memory controller is tXS, if the fast exit mode is not enabled and is less than tXS, if the fast exit mode is enabled.
An automated method for cutting a first hole feature using a plasma arc torch system, the automated method implemented on a computer numerical controller and characterised by the steps of: determining a lead-in command speed based on a diameter of said first hole feature; cutting a lead-in for a first hole feature using a lead-in command speed based on a diameter of that first hole feature; cutting at least a portion of perimeter for the first hole feature using a perimeter command speed greater than the corresponding lead-in command speed for the first hole feature. determining a lead-in command speed based on a diameter of said first hole feature; cutting a lead-in for a first hole feature using a lead-in command speed based on a diameter of that first hole feature; cutting at least a portion of perimeter for the first hole feature using a perimeter command speed greater than the corresponding lead-in command speed for the first hole feature.
Insect rearing box comprising: a lateral wall (2a,2b,3a,3b) and top and bottom covers (4a,4b) detachably coupled with the lateral wall to configure a rearing chamber, wherein the box is a rectangular prism, having two pairs of opposing large lateral walls (2a,2b) and two small opposing lateral walls (3a,3b), and wherein the top and bottom covers (4a,4b) are generally flat and parallel to each other, characterized in that the box comprises two or more panels parallel to each other and placed inside the rearing chamber, wherein the panels can be extracted from the box and they have bars transversally arranged with respect to the top and bottom covers (4a,4b), and wherein ventilation windows (7a,7b) covered by a mesh (8a,8b) are provided on the two lateral large walls (2a,2b), wherein the bars have top and bottom ends (5',5") adjacent respectively to the top and bottom covers (4a,4b), and wherein the top ends or the bottom ends (5") of the bars, are free ends, and wherein the panels extend lengthwise in the box, such that they are parallel to the two lateral large walls (2a,2b) and parallel to the ventilation windows (7a,7b), such that a plurality of channels are defined across the panels that directly communicate with the ventilation windows (7a,7b). a lateral wall (2a,2b,3a,3b) and top and bottom covers (4a,4b) detachably coupled with the lateral wall to configure a rearing chamber, wherein the box is a rectangular prism, having two pairs of opposing large lateral walls (2a,2b) and two small opposing lateral walls (3a,3b), and wherein the top and bottom covers (4a,4b) are generally flat and parallel to each other, characterized in that the box comprises two or more panels parallel to each other and placed inside the rearing chamber, wherein the panels can be extracted from the box and they have bars transversally arranged with respect to the top and bottom covers (4a,4b), and wherein ventilation windows (7a,7b) covered by a mesh (8a,8b) are provided on the two lateral large walls (2a,2b), wherein the bars have top and bottom ends (5',5") adjacent respectively to the top and bottom covers (4a,4b), and wherein the top ends or the bottom ends (5") of the bars, are free ends, and wherein the panels extend lengthwise in the box, such that they are parallel to the two lateral large walls (2a,2b) and parallel to the ventilation windows (7a,7b), such that a plurality of channels are defined across the panels that directly communicate with the ventilation windows (7a,7b).
Electric plug connector for connecting to a complementary mating plug connector in a plugging direction, having a plug housing which has a receptacle in which a short circuiting bridge, which is held fixedly in a plugging position and has two short circuiting contacts which are accessible from outside the plug connector, counter to the plugging direction, is accommodated, characterized in that the short circuiting bridge is accommodated with play, movable about the plugging position, in the receptacle.
A networked electronic ordnance system, comprising: a network bus configured to transmit data thereon; a pyrotechnic device connected to the network bus; a logic device configured to store a unique address for the pyrotechnic device, wherein the logic device is an integrated circuit included in the pyrotechnic device, and the integrated circuit is in a housing having a mode pin, and wherein the logic device includes a specific memory that stores the unique address; and an ordnance bus controller configured to control the network bus and to transmit an address signal to the logic device in situ in an end system during or subsequent to installation of the networked ordnance system in the end system, wherein when the mode pin is set at a specific logic state, the logic device is enabled to accept the address signal and determine the unique address from the address signal. a network bus configured to transmit data thereon; a pyrotechnic device connected to the network bus; a logic device configured to store a unique address for the pyrotechnic device, wherein the logic device is an integrated circuit included in the pyrotechnic device, and the integrated circuit is in a housing having a mode pin, and wherein the logic device includes a specific memory that stores the unique address; and an ordnance bus controller configured to control the network bus and to transmit an address signal to the logic device in situ in an end system during or subsequent to installation of the networked ordnance system in the end system, wherein when the mode pin is set at a specific logic state, the logic device is enabled to accept the address signal and determine the unique address from the address signal.
A method for balancing thrust in a turbine provided with a rotatable rotor (31, 32), wherein the method comprises the steps of: - providing a first pressure source outside of said turbine, - providing a pressure chamber inside of said turbine, wherein a wall of the rotating drum connected to the rotor disk of said pressure chamber acts on said rotor (31, 32) as a balance piston to balance thrust exerted by said rotor (31, 32) when it rotates, - connecting said first pressure source to said pressure chamber via a first conduit (61, 62), - associating a first valve to said first conduit (61, 62), said first valve being arranged to open and close said first conduit (61, 62); wherein said first valve is arranged to open automatically when the pressure upstream of said first valve exceeds a first predetermined threshold value. - providing a first pressure source outside of said turbine, - providing a pressure chamber inside of said turbine, wherein a wall of the rotating drum connected to the rotor disk of said pressure chamber acts on said rotor (31, 32) as a balance piston to balance thrust exerted by said rotor (31, 32) when it rotates, - connecting said first pressure source to said pressure chamber via a first conduit (61, 62), - associating a first valve to said first conduit (61, 62), said first valve being arranged to open and close said first conduit (61, 62);
A timepiece comprising: a high-load rotation position detection unit that detects a high-load rotation position that is a rotation position of a wheel when a rotational load of a rotor that transmits its rotation to the wheel to rotate a pointer clockwise is greater than that during normal hand movement; and a drive signal output unit that outputs a sub-drive signal having energy greater than that of a main drive signal that is output during the normal hand movement and less than that of an auxiliary drive signal that is output when the rotor does not rotate by the main drive signal in a case where the rotation position of the wheel is the high-load rotation position, characterised in that the timepiece further comprises: a rotation detection control unit that stops a rotation detection process for detecting a rotation state of the rotor based on an induced voltage output to a coil that generates magnetic flux for rotating the rotor in a case where the rotation position of the wheel is the high-load rotation position. a high-load rotation position detection unit that detects a high-load rotation position that is a rotation position of a wheel when a rotational load of a rotor that transmits its rotation to the wheel to rotate a pointer clockwise is greater than that during normal hand movement; and a drive signal output unit that outputs a sub-drive signal having energy greater than that of a main drive signal that is output during the normal hand movement and less than that of an auxiliary drive signal that is output when the rotor does not rotate by the main drive signal in a case where the rotation position of the wheel is the high-load rotation position, characterised in that the timepiece further comprises: a rotation detection control unit that stops a rotation detection process for detecting a rotation state of the rotor based on an induced voltage output to a coil that generates magnetic flux for rotating the rotor in a case where the rotation position of the wheel is the high-load rotation position.