mhurhangee/ep-ind-claims huggingface dataset:
Dispenser device of a jet of water in the form of a vortex, comprising a device body in which a plurality of swirl path of the water is made, each swirl path comprising a swirl chamber with a circular cross-section comprising a side wall extending axially between an inlet end of the water and an outlet end of the water which flows into a respective dispenser nozzle, in which said side wall narrows progressively from the inlet end to the outlet end, and a chamber supply channel fluidically connectable to a water supply pipe and flowing into an inlet portion of the side wall of the swirl chamber, said chamber supply channel being placed tangentially to the swirl chamber, and wherein the plurality of identical swirl paths of the water are made in the device body suitable to generate respective jets in the form of vortices, said swirl paths being spaced from each other, wherein each swirl chamber extends around a chamber axis and is fed by a single chamber supply channel, and wherein the chamber supply channels are made in such a way that the directions of rotation of the water flow inside adjacent swirl chambers are opposite to each other, each of said supply channels being straight for its entire extension, flowing into the swirl chamber and defining a channel axis perpendicular to the chamber axis, said chamber supply channels branching out radially from a central distribution chamber communicating with the water supply pipe and made in the thickness of a swirl plate, the device body comprising a closing cap superposed on the swirl plate and defining a water inlet passage open onto the central distribution chamber and connectable, by means of a threaded connection, to the water supply pipe, wherein the swirl chambers are evenly distributed along at least one circular crown of the device body.
A carrier aggregation application method of attaining time synchronization to a secondary cell for a wireless communication device usable in a cellular communication network, the method comprising, when (215, 315, 1202) a time reference of the secondary cell is unknown to the wireless communication device: setting (250, 350, 1203) a preliminary time reference of the secondary cell to equal a time reference of a primary cell of the carrier aggregation application; transmitting (240, 259, 270, 340, 359, 370, 1211) a channel state information report comprising a channel quality indicator to the cellular communication network; characterized in that the method comprises performing (255, 355, 1204) a synchronization signal based detection of the time reference of the secondary cell based on the preliminary time reference and one or more synchronization signals transmitted in the secondary cell; performing (255, 355, 1205) preliminary time reference based channel state measurements of the secondary cell based on the preliminary time reference and one or more reference signals transmitted in the secondary cell; and setting (240, 259, 270, 340, 359, 370, 1207), based on the synchronization signal based detection, a value of the channel quality indicator to either a nominal value or a value based on the preliminary time reference based channel state measurements setting (250, 350, 1203) a preliminary time reference of the secondary cell to equal a time reference of a primary cell of the carrier aggregation application; transmitting (240, 259, 270, 340, 359, 370, 1211) a channel state information report comprising a channel quality indicator to the cellular communication network; characterized in that the method comprises performing (255, 355, 1204) a synchronization signal based detection of the time reference of the secondary cell based on the preliminary time reference and one or more synchronization signals transmitted in the secondary cell; performing (255, 355, 1205) preliminary time reference based channel state measurements of the secondary cell based on the preliminary time reference and one or more reference signals transmitted in the secondary cell; and setting (240, 259, 270, 340, 359, 370, 1207), based on the synchronization signal based detection, a value of the channel quality indicator to either a nominal value or a value based on the preliminary time reference based channel state measurements
A blood glucose data acquiring device, comprising a portable host and a probe assembly; wherein the probe assembly includes two glucolase micro electrode needles, and a first circuit board which is configured to process signals from the glucolase micro electrode needles; a first electrode terminal is provided on the first circuit board; the probe assembly includes a piston subassembly (23, 24) and an elastic element; the piston subassembly (23, 24) is formed by assembling a piston upper shell with a piston lower shell, and the first circuit board is fixedly mounted on the piston subassembly (23, 24) between the piston upper shell and the piston lower shell; one side of the elastic element is electrically connected to the first electrode terminal on the first circuit board, and the other side of the elastic element is located on a periphery of the piston subassembly (23, 24); wherein the host includes an outer shell, which includes an outer shell's upper shell and an outer shell's lower shell, and a second circuit board which is located in the outer shell, and a second electrode terminal is provided on the second circuit board; the outer shell further includes a probe mounting position and a fixing structure for fixing the outer shell to a human body; the probe assembly is configured to be mounted into the probe mounting position in such a way that the glucolase micro electrode needles are projected out of a lower surface of the outer shell; when the probe assembly is mounted into the probe mounting position, the first electrode terminal on the first circuit board is electrically connected to the second electrode terminal on the second circuit board, the outer shell further defines a first through-hole running through the outer shell's upper shell and lower shell; the piston subassembly (23, 24) is engaged into the first through-hole, and a diameter of the first through-hole matches with a diameter of the piston subassembly (23, 24); a contact elastic sheet is arranged in a position on the first through-hole corresponding to the elastic element of the probe assembly, and the elastic sheet is electrically connected to the second electrode terminal of the second circuit board.
A sliding member that configures a mechanical seal comprising sliding faces configured to slide in relation to one another, at least one of the sliding faces being provided with a plurality of dimples (11; 12; 13; 14; 15; 16; 17; 21; 41; 51; 52; 53), wherein the plurality of the dimples (11; 12; 13; 14; 15; 16; 17; 21; 41; 51; 52; 53) each include a bottom portion (11d; 21e; 21f; 21h; 21j; 41d) recessed from the sliding face and have multi-sided shapes whose edges (A1-B1, A1-C1, B1-C1; A2-B2, A2-C2, B2-C2; A3-B3, A3-C3, B3-C3; A4-B4, A4-C4, B4-C4; A5-B5, A5-C5, B5-C5; A6-B6, A6-C6, B6-C6; A7-B7, A7-C7, B7-C7; A8-B8, A8-C8, B8-C8; A9-B9, A9-C9, B9-C9; A10-B10, B10-C10, C10-D10, D10-A10; A11-B11, B11-C11, C11-D11, D11-E11, Ell-All; A12-B12, B12-C12, C12-D12, D12-E12, E12-F12, F12-A12) are uninterruptedly surrounded by the sliding face, wherein a pair of the edges (A1-B1, A1-C1; A2-B2, A2-C2; A3-B3, A3-C3; A4-B4, A4-C4; A5-B5, A5-C5; A6-B6, A6-C6; A7-B7, A7-C7; A8-B8, A8-C8; A9-B9, A9-C9; A10-B10, D10-C10; A11-B11, A11-E11; B11-C11, E11-D11; A12-B12, F12-E12; B12-C12, E12-D12) of each of the multi-sided dimples (11; 12; 13; 14; 15; 16; 17; 21; 41; 51; 52; 53), extending radially on opposite sides of a radial axis of the sliding member, are sloped to become farther apart as they extend toward a radially outer side, characterized in that another of the edges, which connects end points on the radially outer side of the pair of the edges, is formed such that its length is not greater than each length of the pair of the edges.
A process for controlling a park area access system using an arrangement comprising: a button; a first control circuit connected to the button and suited to trigger the operation of the park area access system upon actuation of the button; a receiver unit connected to the first control circuit and suited to receive a radiofrequency signal, wherein the first control circuit is also suited to trigger the operation of the park area access system upon the receiver unit receiving a sub GHz radiofrequency signal, and an electronic module comprising: a receiver circuit, a controllable switch connected in parallel to the button and a second control circuit suited to toggle the controllable switch when the receiver circuit receives a wireless instruction; the process comprising the following steps: sending the wireless instruction by a communication circuit; toggling the controllable switch by the second control circuit upon receiving the wireless instruction at the receiver circuit, wherein an onboard system of a vehicle comprises the communication circuit and an automatic parking unit suited to control a maneuver of the vehicle in the park area, the communication circuit is suited to send the wireless instruction synchronously to said maneuver, the automatic parking unit is suited to compute an appropriate time for operation the access system and wherein the communication circuit is suited to transmit the wireless instruction at said appropriate time. a button; a first control circuit connected to the button and suited to trigger the operation of the park area access system upon actuation of the button; a receiver unit connected to the first control circuit and suited to receive a radiofrequency signal, wherein the first control circuit is also suited to trigger the operation of the park area access system upon the receiver unit receiving a sub GHz radiofrequency signal, and an electronic module comprising: a receiver circuit, a controllable switch connected in parallel to the button and a second control circuit suited to toggle the controllable switch when the receiver circuit receives a wireless instruction; sending the wireless instruction by a communication circuit; toggling the controllable switch by the second control circuit upon receiving the wireless instruction at the receiver circuit, wherein an onboard system of a vehicle comprises the communication circuit and an automatic parking unit suited to control a maneuver of the vehicle in the park area, the communication circuit is suited to send the wireless instruction synchronously to said maneuver, the automatic parking unit is suited to compute an appropriate time for operation the access system and wherein the communication circuit is suited to transmit the wireless instruction at said appropriate time.
Device for producing a nonthermal atmospheric pressure plasma, having a piezoelectric transformer of the Rosen type, a driver circuit which is designed to apply an input signal to the piezoelectric transformer, and a field probe which is configured to measure a field strength of an electric field produced by the piezoelectric transformer at a measurement point, wherein the driver circuit is configured to adapt the input signal while taking into account the measurement results of the field probe, wherein the driver circuit is embodied fully or partially by software. a piezoelectric transformer of the Rosen type, a driver circuit which is designed to apply an input signal to the piezoelectric transformer, and a field probe which is configured to measure a field strength of an electric field produced by the piezoelectric transformer at a measurement point, wherein the driver circuit is configured to adapt the input signal while taking into account the measurement results of the field probe, wherein the driver circuit is embodied fully or partially by software.
Mobile care assistance apparatus, comprising: - an autonomous vehicle, which has a vehicle body on which a plurality of wheels are rotatably mounted, of which at least one wheel is driven, wherein the wheels are designed for moving the autonomous vehicle on an underlying surface, in particular the wheels are controlled in their respective directions of rotation, rotational speeds and/or steering positions by means of a drive control apparatus of the autonomous vehicle, - at least one robot arm, which is arranged on the autonomous vehicle and has a plurality of links and a plurality of joints, wherein the plurality of links are adjustable in relation to one another by movements of the joints, and, for this purpose, the joints are each assigned electrically activatable motors of the robot arm such that the joints, activated by a robot control system of the care assistance apparatus, can be automatically moved, and - a coupling device, which is designed to guide a rollator handled by a person, a wheelchair, on which a person is sitting, and/or a walking, sitting or standing person in order to bring the person from a starting location to a destination in a manner automatically guided by means of the mobile care assistance device, characterized in that, in order to form a manual input means for the person being guided, the robot arm is operated by means of the robot control system under compliance control such that, in the event of manual movement of one or more links of the robot arm by the person, a drive command can be transmitted to the robot control system and to the drive control apparatus. - an autonomous vehicle, which has a vehicle body on which a plurality of wheels are rotatably mounted, of which at least one wheel is driven, wherein the wheels are designed for moving the autonomous vehicle on an underlying surface, in particular the wheels are controlled in their respective directions of rotation, rotational speeds and/or steering positions by means of a drive control apparatus of the autonomous vehicle, - at least one robot arm, which is arranged on the autonomous vehicle and has a plurality of links and a plurality of joints, wherein the plurality of links are adjustable in relation to one another by movements of the joints, and, for this purpose, the joints are each assigned electrically activatable motors of the robot arm such that the joints, activated by a robot control system of the care assistance apparatus, can be automatically moved, and - a coupling device, which is designed to guide a rollator handled by a person, a wheelchair, on which a person is sitting, and/or a walking, sitting or standing person in order to bring the person from a starting location to a destination in a manner automatically guided by means of the mobile care assistance device,
An addition fragmentation agent of the formula: wherein R 1 is each independently a C 2 -C 10 alkylene group; Y is -O-, -O-CO-, or -O-CO-NH-; each X 1 is -O-; n is 0; m is 2; two of said R 2 groups being a high refractive index group; and two of said R 2 groups being a (meth)acryloyl group; said addition-fragmentation agent having a refractive index of ≥ 1.50; and wherein the high refractive index group is selected from 2-, 3-, and 4-biphenyl or 1-, 2-, 3- and 4-napthyl. R 1 is each independently a C 2 -C 10 alkylene group; Y is -O-, -O-CO-, or -O-CO-NH-; each X 1 is -O-; n is 0; m is 2; two of said R 2 groups being a high refractive index group; and two of said R 2 groups being a (meth)acryloyl group; said addition-fragmentation agent having a refractive index of ≥ 1.50; and
A method of producing reduced coenzyme Q 10, including the following steps: phosphorylation of oxidized coenzyme Q 10, wherein the phosphorylation of oxidized coenzyme Q 10 is carried out by dissolving the oxidized coenzyme Q 10 in phosphoric acid solution, then adding phosphonolipide or phosphonolipide salt in an amount of 2 to 10 % by weight of oxidized coenzyme Q 10 with 10 to 120 minutes stirring at 28 °C to 45 °C; reduction of phosphorylated oxidized coenzyme Q 10 by biological reductases; extracting reduced coenzyme Q 10 from reductases. phosphorylation of oxidized coenzyme Q 10, wherein the phosphorylation of oxidized coenzyme Q 10 is carried out by dissolving the oxidized coenzyme Q 10 in phosphoric acid solution, then adding phosphonolipide or phosphonolipide salt in an amount of 2 to 10 % by weight of oxidized coenzyme Q 10 with 10 to 120 minutes stirring at 28 °C to 45 °C; reduction of phosphorylated oxidized coenzyme Q 10 by biological reductases; extracting reduced coenzyme Q 10 from reductases.
Method for producing an adhesive bond of two substrates, at least one of which is transparent and at least one of which has a surface with a surface energy (measured by test method C) of not more than 40 mN/m, comprising the use of a double-sidedly pressure-sensitively adhesive product having first and second pressure-sensitively adhesive surfaces, the double-sidedly pressure-sensitively adhesive product being an adhesive transfer tape, the first pressure-sensitively adhesive surface being lined with a first release layer, and the second pressure-sensitively adhesive surface being lined with a second release layer, the peel force of the first release layer from the first pressure-sensitively adhesive surface, AZK 1, being lower than the peel force of the second release layer from the second pressure-sensitively adhesive surface, AZK 2, and the ratio of the bond strength of the fresh bond (KK fresh, measured by test method B) of the first pressure-sensitively adhesive surface to a surface having a surface energy (measured by test method C) of not more than 40 mN/m to the peel force (measured by test method A) of the second release layer from the second pressure-sensitively adhesive surface, KK fresh:AZK 2, being at least 13.5, comprising the following steps: (a) parting the first release layer from the first pressure-sensitively adhesive surface, and contacting the first pressure-sensitively adhesive surface with the surface of the first of the two substrates to be adhesively bonded having a surface energy (measured by test method C) of not more than 40 mN/m, (b) parting the second release layer from the second pressure-sensitively adhesive surface, and contacting the second pressure-sensitively adhesive surface with the surface of the second of the two substrates to be adhesively bonded so that the bond strength of the second pressure-sensitively adhesive surface to the surface of the second of the two substrates to be adhesively bonded is less than 35 cN/cm (measured by test method B). (a) parting the first release layer from the first pressure-sensitively adhesive surface, and contacting the first pressure-sensitively adhesive surface with the surface of the first of the two substrates to be adhesively bonded having a surface energy (measured by test method C) of not more than 40 mN/m, (b) parting the second release layer from the second pressure-sensitively adhesive surface, and contacting the second pressure-sensitively adhesive surface with the surface of the second of the two substrates to be adhesively bonded so that the bond strength of the second pressure-sensitively adhesive surface to the surface of the second of the two substrates to be adhesively bonded is less than 35 cN/cm (measured by test method B).
A method of collecting on-path telemetry data by a node in a multicast network, the method comprising: collecting the on-path telemetry data in accordance with a received instruction header, the instruction header identifying the on-path telemetry data to be collected at the node and instructing the node to transmit a postcard containing the on-path telemetry data collected at all nodes in a section to a collector when the node comprises an end node of the section; determining whether the node is the end node of the section; transmitting the instruction header and the on-path telemetry data collected by the node to a downstream node when the node is not the end node of the section; and transmitting the postcard to the collector when the node is the end node of the section. collecting the on-path telemetry data in accordance with a received instruction header, the instruction header identifying the on-path telemetry data to be collected at the node and instructing the node to transmit a postcard containing the on-path telemetry data collected at all nodes in a section to a collector when the node comprises an end node of the section; determining whether the node is the end node of the section; transmitting the instruction header and the on-path telemetry data collected by the node to a downstream node when the node is not the end node of the section; and transmitting the postcard to the collector when the node is the end node of the section.
Method for producing a three-dimensional preform comprising - producing an initial preform comprising a plurality of superposed plies, said plies being formed from unidirectional continuous fibres and a first polymer, and - thermoforming the initial preform between the male forming tool and the female forming tool of a press to obtain a three-dimensional preform, and wherein during forming, an outer web (51, 52; 151, 152) is positioned at the interface between the initial preform and the male tooling and at the interface between the initial preform and the female tooling, said outer webs being formed from a second polymer such that, during forming, the outer webs remain in the solid state and are deformed, said outer webs are nonwoven webs formed from filaments of the second polymer. - producing an initial preform comprising a plurality of superposed plies, said plies being formed from unidirectional continuous fibres and a first polymer, and - thermoforming the initial preform between the male forming tool and the female forming tool of a press to obtain a three-dimensional preform,
A process for the production of bio-oil from municipal solid waste, comprising the following steps: a) subjecting said municipal solid waste to liquefaction obtaining a mixture including an oily phase consisting of bio-oil, a solid phase and a first aqueous phase; b) subjecting the first aqueous phase obtained in the liquefaction step a) to a treatment with at least one adsorbing material obtaining a second aqueous phase; c) subjecting the second aqueous phase obtained in the treatment step b) with at least one adsorbing material to fermentation obtaining a biomass; d) subjecting the biomass obtained in the fermentation step c) to said liquefaction step a); wherein said liquefaction step (a) is carried out at a temperature ranging from 150°C to 350°C, at a pressure ranging from 5 bar to 170 bar, for a time ranging from 5 minutes to 240 minutes. a) subjecting said municipal solid waste to liquefaction obtaining a mixture including an oily phase consisting of bio-oil, a solid phase and a first aqueous phase; b) subjecting the first aqueous phase obtained in the liquefaction step a) to a treatment with at least one adsorbing material obtaining a second aqueous phase; c) subjecting the second aqueous phase obtained in the treatment step b) with at least one adsorbing material to fermentation obtaining a biomass; d) subjecting the biomass obtained in the fermentation step c) to said liquefaction step a);