mhurhangee/ep-ind-claims huggingface dataset:
Emergency device for lighting means, having a driver stage and terminals (3, 3') to drive emergency lighting means based on a DC power supply (4, 4'), comprising: a wireless communication unit, and a processor, wherein the wireless communication unit is designed to receive a first signal from a neighboring emergency device for lighting means, wherein the first signal comprises a request for the status of the emergency device for lighting means, wherein the processor is designed to extract a first information about the status of the emergency device for lighting means, and to extract a second information about the status of the neighboring emergency device for lighting means, wherein the processor is further designed to command the wireless transmission thereof to the neighboring emergency device for lighting means, and wherein the wireless communication unit is further designed to transmit a second signal to the neighboring emergency device for lighting means, characterized in that the first information comprises first data about a scheduling of an automatic testing of the emergency device for lighting means, and the second information comprises second data about a scheduling of an automatic testing of the neighboring emergency device for lighting means. a wireless communication unit, and a processor, wherein the wireless communication unit is designed to receive a first signal from a neighboring emergency device for lighting means, wherein the first signal comprises a request for the status of the emergency device for lighting means, wherein the processor is designed to extract a first information about the status of the emergency device for lighting means, and to extract a second information about the status of the neighboring emergency device for lighting means, to extract a first information about the status of the emergency device for lighting means, and to extract a second information about the status of the neighboring emergency device for lighting means, wherein the processor is further designed to command the wireless transmission thereof to the neighboring emergency device for lighting means, and wherein the wireless communication unit is further designed to transmit a second signal to the neighboring emergency device for lighting means, the first information comprises first data about a scheduling of an automatic testing of the emergency device for lighting means, and the second information comprises second data about a scheduling of an automatic testing of the neighboring emergency device for lighting means.
A safety needle assembly comprising: a hub having a proximal end and a distal end; a needle fixed to said hub, said needle having a distal end, the distal end formed for insertion into a patient, and a proximal end; a first shield having a tubular body at least partially encircling a portion of said needle, a second shield having a tubular body at least partially encircling a portion of said needle; biasing means disposed to urge said second shield distally towards said distal end of said needle; and, releasable retaining means (42, 44, 52, 54, 51, 63) for releasably retaining said second shield in a first state, wherein, upon a predetermined extent of proximal movement of said first shield relative to said hub, said first shield triggers releasing of the releasable retaining means (42, 44, 52, 54, 51, 63), whereby said retaining means (42, 44, 52, 54, 51, 63) releases said second shield thereby allowing said biasing means to urge said second shield to a second state, said second shield covering said distal end of said needle in said second state, characterized in that in an initial state, said first shield extends distally beyond the hub and the second shield, and in the initial state said first shield terminates at a skin engaging surface, wherein the skin engaging surface presses against a patient's skin, and wherein, with insertion of said needle into the patient's skin, said first shield is caused to move proximally relative to said needle. a hub having a proximal end and a distal end; a needle fixed to said hub, said needle having a distal end, the distal end formed for insertion into a patient, and a proximal end; a first shield having a tubular body at least partially encircling a portion of said needle, a second shield having a tubular body at least partially encircling a portion of said needle; biasing means disposed to urge said second shield distally towards said distal end of said needle; and, releasable retaining means (42, 44, 52, 54, 51, 63) for releasably retaining said second shield in a first state, wherein, upon a predetermined extent of proximal movement of said first shield relative to said hub, said first shield triggers releasing of the releasable retaining means (42, 44, 52, 54, 51, 63), whereby said retaining means (42, 44, 52, 54, 51, 63) releases said second shield thereby allowing said biasing means to urge said second shield to a second state, said second shield covering said distal end of said needle in said second state,
A composition comprising a solution of platelet derived growth factor (PDGF) incorporated in a biocompatible matrix, wherein: the biocompatible matrix comprises particles of a bone-substituting agent, the particles having an average diameter ranging from 100 μm to 5 mm; the biocompatible matrix has a porosity greater than 50%; and the PDGF is present in the solution at a concentration ranging from 0.01 mg/mL to 10.0 mg/mL, for use in fusing bones in a joint in an arthrodetic procedure. the biocompatible matrix comprises particles of a bone-substituting agent, the particles having an average diameter ranging from 100 μm to 5 mm; the biocompatible matrix has a porosity greater than 50%; and the PDGF is present in the solution at a concentration ranging from 0.01 mg/mL to 10.0 mg/mL, for use in fusing bones in a joint in an arthrodetic procedure.
User device for a wireless communication system, the user device comprising a transceiver configured to: receive a first Radio Network Temporary Identifier, RNTI, wherein the first RNTI is valid for a first set of network nodes (20a, 20b,..., 20n) of a radio communication network; receive at least one second RNTI, wherein the second RNTI is valid for a second set of network nodes (20a, 20b,..., 20n) of the radio communication network, and wherein the first set of network nodes (20a, 20b,..., 20n) and the second set of network nodes (20a, 20b,..., 20n) are different sets of network nodes (20a, 20b,..., 20n); transmit data to the radio communication network, or receive data from the radio communication network, using the first RNTI or the second RNTI; wherein using the first RNTI or the second RNTI are given by RNTI selection rules, wherein the RNTI selection rules for using the first RNTI or the second RNTI are dependent on one or more parameters in the group comprising: geographic location of the user device; serving network node identity; detected neighbour network nodes; mobility for the user device; and RNTI communication failure; and wherein the user device further comprises a processor configured to provide the RNTI selection rules, or wherein the transceiver is further configured to receive a RNTI control message from the radio communication network comprising the RNTI selection rules; and wherein the transceiver is further configured to: transmit data to the radio communication network, or receive data from the radio communication network, using the first RNTI or the second RNTI according to the RNTI selection rules. receive a first Radio Network Temporary Identifier, RNTI, wherein the first RNTI is valid for a first set of network nodes (20a, 20b,..., 20n) of a radio communication network; receive at least one second RNTI, wherein the second RNTI is valid for a second set of network nodes (20a, 20b,..., 20n) of the radio communication network, and wherein the first set of network nodes (20a, 20b,..., 20n) and the second set of network nodes (20a, 20b,..., 20n) are different sets of network nodes (20a, 20b,..., 20n); transmit data to the radio communication network, or receive data from the radio communication network, using the first RNTI or the second RNTI; wherein using the first RNTI or the second RNTI are given by RNTI selection rules, wherein the RNTI selection rules for using the first RNTI or the second RNTI are dependent on one or more parameters in the group comprising: geographic location of the user device; serving network node identity; detected neighbour network nodes; mobility for the user device; and RNTI communication failure; and wherein the user device further comprises a processor configured to provide the RNTI selection rules, or wherein the transceiver is further configured to receive a RNTI control message from the radio communication network comprising the RNTI selection rules; and wherein the transceiver is further configured to: transmit data to the radio communication network, or receive data from the radio communication network, using the first RNTI or the second RNTI according to the RNTI selection rules.
A method of forming score lines on a blank, comprising steps of: forming a sheet-shaped resin blank able to be formed into a box, the box including outer longitudinal edges which are bent into rounded edges (16, 18, 24) and extend in a longitudinal direction of the box, and outer transverse edges perpendicular to the outer longitudinal edges, wherein said blank forming step includes a process of forming transverse fold lines to be bent to form the outer transverse edges and a process of cutting out for said blank; and forming a plurality of score lines in score line forming areas of said blank which are to be bent to form the outer longitudinal edges of the box, to extend in a direction in which the rounded edges (16, 18, 24) should extend, characterized in that said score line forming step is performed after said blank forming step has completed, and in said score line forming step, said score lines are formed in a manner causing a plurality of grooves to be produced on a back side of each score line forming area, parallel to said score lines, through plastic deformation. forming a sheet-shaped resin blank able to be formed into a box, the box including outer longitudinal edges which are bent into rounded edges (16, 18, 24) and extend in a longitudinal direction of the box, and outer transverse edges perpendicular to the outer longitudinal edges, wherein said blank forming step includes a process of forming transverse fold lines to be bent to form the outer transverse edges and a process of cutting out for said blank; and forming a plurality of score lines in score line forming areas of said blank which are to be bent to form the outer longitudinal edges of the box, to extend in a direction in which the rounded edges (16, 18, 24) should extend, characterized in that said score line forming step is performed after said blank forming step has completed, and in said score line forming step, said score lines are formed in a manner causing a plurality of grooves to be produced on a back side of each score line forming area, parallel to said score lines, through plastic deformation.
A device for converting a linear movement in a stationary system into a rotary movement about a pivot axis in a system which rotates about an axis of rotation, wherein the pivot axis and the axis of rotation are not identical and do not extend parallel to each other, wherein preferably the pivot axis and the axis of rotation extend perpendicularly to each other, comprising a lift element, a lift device with which the lift element can be moved with a translatory movement relative to the stationary system, and a device for converting a linear movement into a rotary movement, wherein the lift element has a first lift element portion and a second lift element portion, wherein the two lift element portions (14, 15) are connected together by way of a rotary bearing in such a way that the first lift element portion can be rotated relative to the second lift element portion about the axis of the rotary bearing, wherein the two portions of the lift element are connected together in positively locking relationship in the direction of the translatory movement of the lift device, wherein the first lift element portion is connected to the lift device and the second lift element portion is connected to the device for converting a linear movement into a rotary movement, wherein the device for converting a linear movement into a rotary movement is connected to a shaft positioned on the pivot axis in such a way that a linear movement of the second lift element portion is converted into a rotary movement of the shaft about the pivot axis, characterised in that the device for converting a linear movement into a rotary movement has a cam plate connected to the second lift element portion and a lever which is in contact with the cam plate and which is connected to the shaft.
Use of a composition as a sealing compound, said composition comprising: an aqueous dispersion which contains a rubber component of a latex of an ethylene propylene nonconjugated diene copolymer rubber as a chief component; a vulcanizing agent in an amount of 5 to 50 parts by weight per 100 parts by weight of said rubber component; a vulcanization accelerator in an amount of 0.05 to 4 parts by weight per 100 parts by weight of said rubber component; and a filler; said sealing compound being used for double-seamed portions or caulked portions between a container and a lid, or between a cell casing and an end portion of the cell casing. an aqueous dispersion which contains a rubber component of a latex of an ethylene propylene nonconjugated diene copolymer rubber as a chief component; a vulcanizing agent in an amount of 5 to 50 parts by weight per 100 parts by weight of said rubber component; a vulcanization accelerator in an amount of 0.05 to 4 parts by weight per 100 parts by weight of said rubber component; and a filler; said sealing compound being used for double-seamed portions or caulked portions between a container and a lid, or between a cell casing and an end portion of the cell casing.
A method of updating a model for providing classification of data on mobile devices comprising, by a server: training (902, 1102) an initial model on a central dataset; distributing (904, 906, 1104, 1106, 1602) the initial model to a first remote device to apply to a first set of data; distributing (904, 908, 1104, 1108, 1602) the initial model to a second remote device to apply to a second set of data; characterized by: collecting (910, 1110, 1116, 1302), from the first and second remote devices, model weight updates (ΔWO_1, ΔWO_2) based at least in part on at least one of an output of the initial model or a performance measure of the application of the initial model; computing (912, 914, 1110, 1116, 1304, 1604) an updated model (W1, W2) based on the model weight updates, to provide an updated model; and distributing (916, 1112, 1118, 1306, 1606) the updated model to the remote devices. training (902, 1102) an initial model on a central dataset; distributing (904, 906, 1104, 1106, 1602) the initial model to a first remote device to apply to a first set of data; distributing (904, 908, 1104, 1108, 1602) the initial model to a second remote device to apply to a second set of data; characterized by: collecting (910, 1110, 1116, 1302), from the first and second remote devices, model weight updates (ΔWO_1, ΔWO_2) based at least in part on at least one of an output of the initial model or a performance measure of the application of the initial model; computing (912, 914, 1110, 1116, 1304, 1604) an updated model (W1, W2) based on the model weight updates, to provide an updated model; and distributing (916, 1112, 1118, 1306, 1606) the updated model to the remote devices. collecting (910, 1110, 1116, 1302), from the first and second remote devices, model weight updates (ΔWO_1, ΔWO_2) based at least in part on at least one of an output of the initial model or a performance measure of the application of the initial model; computing (912, 914, 1110, 1116, 1304, 1604) an updated model (W1, W2) based on the model weight updates, to provide an updated model; and distributing (916, 1112, 1118, 1306, 1606) the updated model to the remote devices.
A bicycle pedal having a pedal body, wherein the pedal body has a first platform and at least one second platform and a pedal axle receiving body arranged between the platforms (63, 64), wherein a pedal axle bolt of the bicycle pedal is rotatably arranged or arrangeable about a pedal axis in the pedal axle receiving body and the platforms (63, 64) are connected to one another in a force-transmitting manner solely by means of intermediate webs and the first platform is connected to the pedal axle receiving body in a force-transmitting manner solely via the intermediate webs and via the second platform, wherein deformation sensors, in particular strain gauges, for measurement of a load-induced deformation of the pedal body are arranged at the first platform and/or the intermediate webs and/orthe second platform and the bicycle pedal has a force introduction body in addition to the pedal body, characterized in that the force introduction body is connected to the first platform in a force-transmitting manner solely via four force introduction regions, wherein at least one of the force introduction regions is arranged on one side of the first platform and at least another of the force introduction regions is arranged on a side of the first platform opposite thereto in relation to the pedal axis.
A heating, ventilation and air-conditioning system, comprising: a system controller configured to control the operation of a demand unit (210, 230, 250) to maintain a comfort characteristic setpoint of a conditioned space; CHARACTERIZED BY: a setback calculation module of said system controller configured to calculate a setback value of said setpoint as a function of a recovery time from said setback value to said setpoint. a system controller configured to control the operation of a demand unit (210, 230, 250) to maintain a comfort characteristic setpoint of a conditioned space; CHARACTERIZED BY: a setback calculation module of said system controller configured to calculate a setback value of said setpoint as a function of a recovery time from said setback value to said setpoint. a setback calculation module of said system controller configured to calculate a setback value of said setpoint as a function of a recovery time from said setback value to said setpoint.
Method for cryopreservation of eggs, nauplii and/or juveniles of barnacles, the method comprising the steps performed in the following order: - draining of water from the organisms, - adding of a 5 to 8 M cryoprotectant solution comprising a cryoprotectant selected from the group consisting of ethylene glycol, propylene glycol, glycerol, and dimethyl sulfoxide or a mixture thereof, - freezing the mixture in a container according to the following subsequent steps: (i) freezing at a first slow freezing rate of no more than -1 °C min -1 until approaching the temperature where the organisms in the mixture start to crystallize; (ii) freezing at a second slow freezing rate of no more than -0.1 °C min -1 until the organisms and the cryoprotectant in the mixture are entirely crystallized; and (iii) a first rapid freezing rate to a cryogenic storage temperature. - draining of water from the organisms, - adding of a 5 to 8 M cryoprotectant solution comprising a cryoprotectant selected from the group consisting of ethylene glycol, propylene glycol, glycerol, and dimethyl sulfoxide or a mixture thereof, - freezing the mixture in a container according to the following subsequent steps: (i) freezing at a first slow freezing rate of no more than -1 °C min -1 until approaching the temperature where the organisms in the mixture start to crystallize; (ii) freezing at a second slow freezing rate of no more than -0.1 °C min -1 until the organisms and the cryoprotectant in the mixture are entirely crystallized; and (iii) a first rapid freezing rate to a cryogenic storage temperature. (i) freezing at a first slow freezing rate of no more than -1 °C min -1 until approaching the temperature where the organisms in the mixture start to crystallize; (ii) freezing at a second slow freezing rate of no more than -0.1 °C min -1 until the organisms and the cryoprotectant in the mixture are entirely crystallized; and (iii) a first rapid freezing rate to a cryogenic storage temperature.
A dielectrophoretic tweezer comprising: a first end and a second end, in which the first end has a lateral dimension of less than 10 microns; a structure, extending in a longitudinal direction between the first and second ends, comprising an electrically insulating barrier defining a first chamber and a second chamber within the structure, in which the first and second chambers are insulated from each other by the electrically insulating barrier; a first electrode in the first chamber at the first end; and a second electrode in the second chamber at the first end, characterized in that a width of the electrically insulating barrier separating the first electrode from the second electrode is 50 nm or less. a first end and a second end, in which the first end has a lateral dimension of less than 10 microns; a structure, extending in a longitudinal direction between the first and second ends, comprising an electrically insulating barrier defining a first chamber and a second chamber within the structure, in which the first and second chambers are insulated from each other by the electrically insulating barrier; a first electrode in the first chamber at the first end; and a second electrode in the second chamber at the first end, characterized in that a width of the electrically insulating barrier separating the first electrode from the second electrode is 50 nm or less.
A laser processing method comprising the steps of: irradiating a planar object to be processed with laser light while locating a converging point within the object and moving the laser light along a line to cut so as to shift the converging point along the line to cut, thereby forming a modified region along the line to cut within the object, wherein the modified region becomes a starting point for cutting within the object; and applying a stress to the object through an elastic sheet, so as to separate a plurality of chips from each other, the chips being obtained by cutting the object along the line to cut from the modified region acting as the starting point for cutting; characterized in that a forming material of the object is irradiated with a soft x-ray, so that the atmosphere surrounding the object is ionized by photoionization, when applying the stress to the object through the sheet, and particles produced by cut sections of the chips are electrically neutralized, so that the particles fall under their own weight and are secured onto the sheet. irradiating a planar object to be processed with laser light while locating a converging point within the object and moving the laser light along a line to cut so as to shift the converging point along the line to cut, thereby forming a modified region along the line to cut within the object, wherein the modified region becomes a starting point for cutting within the object; and applying a stress to the object through an elastic sheet, so as to separate a plurality of chips from each other, the chips being obtained by cutting the object along the line to cut from the modified region acting as the starting point for cutting; characterized in that a forming material of the object is irradiated with a soft x-ray, so that the atmosphere surrounding the object is ionized by photoionization, when applying the stress to the object through the sheet, and particles produced by cut sections of the chips are electrically neutralized, so that the particles fall under their own weight and are secured onto the sheet.