mhurhangee/ep-ind-claims huggingface dataset:
Communication platform for remotely managing a set of equipments (10, 11, 12, 13) by means of at least one telecommunication network, the communication platform comprising means for: - obtaining at least one processing operation consisting of a list containing at least one rule and at least one action for at least one equipment of said set identified by a subscriber to an access server (30, 31) capable of communicating with said communication platform, a processing operation being configured by said subscriber to the access server, and at least one said processing operation comprising a call to at least one remote server installed in said telecommunication network, - storing said at least one processing operation, - receiving at least one message from said equipment (10, 11, 12, 13), - applying at least one rule from said processing operation stored for said equipment by said communication platform on the basis of said message from said equipment (10, 11, 12, 13), - setting up a link to at least one remote server (22, 23, 24) in order to request at least one datum intended for applying a rule associated with said processing operation and/or in order to generate an action associated with said processing operation, - generating, by way of said platform, at least one action associated with said processing operation stored by said communication platform on the basis of said message from said equipment (10, 11, 12, 13), - recording, by way of said platform, at least one result obtained at the end of said processing operation, and - providing, by way of said platform, access to said at least one result to a subscriber to the access server. - obtaining at least one processing operation consisting of a list containing at least one rule and at least one action for at least one equipment of said set identified by a subscriber to an access server (30, 31) capable of communicating with said communication platform, a processing operation being configured by said subscriber to the access server, and at least one said processing operation comprising a call to at least one remote server installed in said telecommunication network, - storing said at least one processing operation, - receiving at least one message from said equipment (10, 11, 12, 13), - applying at least one rule from said processing operation stored for said equipment by said communication platform on the basis of said message from said equipment (10, 11, 12, 13), - setting up a link to at least one remote server (22, 23, 24) in order to request at least one datum intended for applying a rule associated with said processing operation and/or in order to generate an action associated with said processing operation, - generating, by way of said platform, at least one action associated with said processing operation stored by said communication platform on the basis of said message from said equipment (10, 11, 12, 13), - recording, by way of said platform, at least one result obtained at the end of said processing operation, and - providing, by way of said platform, access to said at least one result to a subscriber to the access server.
Flat toy for flipping into air having a power source for supplying the toy with power, a motion sensor for acquiring movement information, and a computing unit for computing, based on the movement information, flight characteristics such as number of flips performed, magnitude and direction of acceleration along preferably six axes, or total acceleration of the toy, characterized in a housing consisting of bilateral coasters serving as an upper and lower shell, said coasters being exchangeable for custom designs or special motifs; and four corners being protected by detachable corner bumpers or the shells being framed by a rubber sleeve instead of the corner bumpers. a power source for supplying the toy with power, a motion sensor for acquiring movement information, and a computing unit for computing, based on the movement information, flight characteristics such as number of flips performed, magnitude and direction of acceleration along preferably six axes, or total acceleration of the toy, characterized in a housing consisting of bilateral coasters serving as an upper and lower shell, said coasters being exchangeable for custom designs or special motifs; and four corners being protected by detachable corner bumpers or the shells being framed by a rubber sleeve instead of the corner bumpers.
A device to operate several functions in a motor vehicle, with an actuating element which is mounted on a rotary shaft so that it can swivel and can be moved between at least two positions, with a switching function allocated to at least one of the positions, so that different functions can be initiated by manual actuations of the actuating element whereby the actuating element is located centrally at a bearing point in relation to the direction of the vertical axis (z) and whereby the end-sections (4a, 4b) of the rotary shaft to the actuating element are mounted at two lateral bearing points in two slots directed along an vertical axis (z), characterized by the fact that when operated the actuating element gives a tactile feedback via an electromagnetic actuator which displaces the actuating element temporarily in the axial direction (y) of the rotary shaft, the actuating element is held centrally at a middle bearing point, where the middle bearing point is held at the upper and lower sides of the operating strip by centering pegs (28, 30) made up of two housing sections (6, 7) which are aligned on both sides of the actuating element along the vertical axis (z) and the actuating element is supported on the swivel studs by at least two articulated links and floats on these.
A progressing cavity pump comprising: a drive component configured to be rotated by a motor; a driven component that is rotationally coupled to the drive component, wherein the driven component is fluidly isolated from the drive component; a stator; and a rotor positioned inside the stator and configured such that rotation of the driven component causes relative rotation between the rotor and the stator, which in turn causes material in the pump to be pumped therethrough, characterised in that: the driven component is magnetically rotationally coupled to the drive component, the stator is a wobble stator such that the stator is radially deformed by rotation of the rotor and the pump further includes an alignment shaft which supports the rotor thereon, and the rotor is rotatable relative to the alignment shaft. a drive component configured to be rotated by a motor; a driven component that is rotationally coupled to the drive component, wherein the driven component is fluidly isolated from the drive component; a stator; and a rotor positioned inside the stator and configured such that rotation of the driven component causes relative rotation between the rotor and the stator, which in turn causes material in the pump to be pumped therethrough, characterised in that: the driven component is magnetically rotationally coupled to the drive component, the stator is a wobble stator such that the stator is radially deformed by rotation of the rotor and the pump further includes an alignment shaft which supports the rotor thereon, and the rotor is rotatable relative to the alignment shaft.
A snow sliding board, in particular a ski, comprising at least one trimming device (22, 23) comprising at least one trimming rod which is orientated to its axis in the longitudinal direction of the sliding board body, comprising at least one damping element and comprising at least one adjusting or tensioning means (18, 19), exhibiting an adjustable mechanical tension, for axially supporting the trimming rod at both ends, wherein the at least one tensioning means (18, 19) is provided on a binding plate which is fastened to the sliding board body, characterised in that the at least one trimming device (22, 23) and its/their functional elements are fully accommodated within the sliding board body.
An impeller used for a cross-flow fan including a plurality of such impellers having the same shape and connected to each other in a direction of a rotation axis, the impeller comprising: a plurality of blades; a first connection portion having at least one projection (13b-13d); and a second connection portion having concavities (14b-14j), wherein the projection of one of the impellers and one part of the concavities of another one of the impellers are configured such that they can be fitted to each other in N (N is an integer not smaller than two) ways of having a matched rotation axis, to connect the first connection portion of the one of the impellers and the second connection portion of the another one of the impellers, characterized in that the concavities (14b-14j) are in a larger quantity than the projection(s) (13b-13d). a plurality of blades; a first connection portion having at least one projection (13b-13d); and a second connection portion having concavities (14b-14j),
A flow improver for fuel oil, comprising a copolymer containing - 70 to 95 mole % structural units made of ethylene (a); and - 5 to 30 mole % structural units made of vinylic monomer(s) selected from a group consisting of vinyl acetate, vinyl propionate, vinyl hexanoate, vinyl 2-ethylhexanoate, vinyl neodecanoate, vinyl decanoate, vinyl dodecanoate, vinyl palmitate and vinyl stearate; - at minus 20 °C in hexane insoluble components in an amount of at least 60 % by weight; and - at plus 10 °C in hexane insoluble components in an amount of at most 30 % by weight, both percentages referring to the total weight of the copolymer wherein the method of preparing said copolymer includes specific polymerization conditions such as - using a polymerization temperature in the range of from 30 to 130 °C; - adding the monomers dropwise with the progress of polymerization to keep the monomer ratio constant during the polymerization reaction; - using a chain transfer agent selected from a group including mercaptans, secondary alcohols, substituted aromatic compounds and aldehydes; and - performing the polymerization reaction in absence of a solvent; in order to provide within the copolymer a degree of branching methyl groups which means the percentage of the number of methyl groups resulting from branching relative to the total number of methylene and methine groups derived from the vinyl groups of (a) and in a range of from 0,3 to 2,2 %. - 70 to 95 mole % structural units made of ethylene (a); and - 5 to 30 mole % structural units made of vinylic monomer(s) selected from a group consisting of vinyl acetate, vinyl propionate, vinyl hexanoate, vinyl 2-ethylhexanoate, vinyl neodecanoate, vinyl decanoate, vinyl dodecanoate, vinyl palmitate and vinyl stearate; - at minus 20 °C in hexane insoluble components in an amount of at least 60 % by weight; and - at plus 10 °C in hexane insoluble components in an amount of at most 30 % by weight, - using a polymerization temperature in the range of from 30 to 130 °C; - adding the monomers dropwise with the progress of polymerization to keep the monomer ratio constant during the polymerization reaction; - using a chain transfer agent selected from a group including mercaptans, secondary alcohols, substituted aromatic compounds and aldehydes; and - performing the polymerization reaction in absence of a solvent;
A garment processing apparatus comprising: a duct disposed at an upper part of a drum, configured to form a flow passage passing through a heat exchanger installed at the inside of the apparatus, and having an inclined bottom surface; a fan motor installed at the duct to move air inside the duct; a condensed water discharge part disposed at a bottom surface of the duct, wherein condensed water generated from air passing through the heat exchanger is collected in the condensed water discharge part; a drain part installed at a lower part of the drum and configured to discharge the condensed water collected in the condensed water discharge part to the outside; and a condensed water discharge pipe connecting the condensed water discharge part and the drain part to allow the condensed water to flow, wherein the condensed water discharge pipe comprises a condensed water storage part bent from at least a portion to collect the condensed water to prevent air from flowing back from the drain part to the condensed water discharge part by a pressure difference generated by a drive of the fan motor, and further comprising a condensed water discharge pipe support member having a form corresponding to the condensed water storage part and formed to surround at least a portion of the condensed water storage part. a duct disposed at an upper part of a drum, configured to form a flow passage passing through a heat exchanger installed at the inside of the apparatus, and having an inclined bottom surface; a fan motor installed at the duct to move air inside the duct; a condensed water discharge part disposed at a bottom surface of the duct, wherein condensed water generated from air passing through the heat exchanger is collected in the condensed water discharge part; a drain part installed at a lower part of the drum and configured to discharge the condensed water collected in the condensed water discharge part to the outside; and a condensed water discharge pipe connecting the condensed water discharge part and the drain part to allow the condensed water to flow, wherein the condensed water discharge pipe comprises a condensed water storage part bent from at least a portion to collect the condensed water to prevent air from flowing back from the drain part to the condensed water discharge part by a pressure difference generated by a drive of the fan motor, and further comprising a condensed water discharge pipe support member having a form corresponding to the condensed water storage part and formed to surround at least a portion of the condensed water storage part.
An oligonucleotide comprising a 5'-terminal nucleotide, wherein the 5'-terminal nucleotide is represented by Formula III: wherein R a and R b are each independently selected from hydrogen, CH 3, CH 2 CH 3, CH 2 CH 2 CN, CH 2 OCOC(CH 3) 3, CH 2 OCH 2 CH 2 Si(CH 3) 3, or a protecting group; wherein B is a natural nucleobase, a modified nucleobase, a universal base or absent; wherein Y is an internucleotide linking group attaching the 5'-terminal nucleotide to an oligonucleotide; and wherein X 2 is OH, F, OCH 3, or OCH 2 CH 2 OCH 3 and R 8 is absent or wherein X 2 is O and R 8 is a glutathione sensitive moiety, for example wherein X 2 is OH, F, or OCH 3 and R 8 is absent and wherein the glutathione sensitive moiety comprises a sulfonyl group or a disulfide bond. wherein R a and R b are each independently selected from hydrogen, CH 3, CH 2 CH 3, CH 2 CH 2 CN, CH 2 OCOC(CH 3) 3, CH 2 OCH 2 CH 2 Si(CH 3) 3, or a protecting group; wherein B is a natural nucleobase, a modified nucleobase, a universal base or absent; wherein Y is an internucleotide linking group attaching the 5'-terminal nucleotide to an oligonucleotide; and wherein X 2 is OH, F, OCH 3, or OCH 2 CH 2 OCH 3 and R 8 is absent or wherein X 2 is O and R 8 is a glutathione sensitive moiety, for example wherein X 2 is OH, F, or OCH 3 and R 8 is absent and wherein the glutathione sensitive moiety comprises a sulfonyl group or a disulfide bond.
Method for producing a nanostructured electrode for an electrochemical cell, - in which active material is applied to an electrically conductive substrate using magnetron sputtering, - in which a ceramic target, comprising an electrode material with an additional proportion of carbon between 0.1 and 25% by weight is used, and - in which the active material is deposited on the electrically conductive substrate in a process step, in which the substrate is kept at temperatures between 400° C and 1200° C during deposition, and a fibre-type porous network forms during deposition. - in which active material is applied to an electrically conductive substrate using magnetron sputtering, - in which a ceramic target, comprising an electrode material with an additional proportion of carbon between 0.1 and 25% by weight is used, and - in which the active material is deposited on the electrically conductive substrate in a process step,
A beverage dispenser, comprising: a housing configured to house at least one beverage container therein, wherein the at least one beverage container comprises an identification tag associated therewith; at least one identification tag reader disposed within the housing, wherein the at least one identification tag reader is configured to detect the identification tag associated with the at least one beverage container; a user interface disposed about an exterior of the housing, wherein the user interface comprises at least one beverage identification area that corresponds to the at least one beverage container; at least one controller in communication with the at least one identification tag reader and the user interface, wherein the at least one controller is configured to update the at least one beverage identification area based at least in part on the identification of the at least one beverage container by the at least one identification tag reader and to determine an amount of beverage ingredient in the at least one beverage container; characterised in that the controller is configured to track an amount of beverage ingredient remaining within the at least one container by uploading the amount of beverage ingredient remaining within the at least one beverage container to the identification tag. a housing configured to house at least one beverage container therein, wherein the at least one beverage container comprises an identification tag associated therewith; at least one identification tag reader disposed within the housing, wherein the at least one identification tag reader is configured to detect the identification tag associated with the at least one beverage container; a user interface disposed about an exterior of the housing, wherein the user interface comprises at least one beverage identification area that corresponds to the at least one beverage container; at least one controller in communication with the at least one identification tag reader and the user interface, wherein the at least one controller is configured to update the at least one beverage identification area based at least in part on the identification of the at least one beverage container by the at least one identification tag reader and to determine an amount of beverage ingredient in the at least one beverage container; characterised in that the controller is configured to track an amount of beverage ingredient remaining within the at least one container by uploading the amount of beverage ingredient remaining within the at least one beverage container to the identification tag.
A method, implemented in a user terminal, of discriminating between a subcell of a known cell and a new cell having the same cell identifier as the known cell, the user terminal comprising a receiver to receive signals from one or more signal sources in a mobile communication network, the one or more signal sources being an antenna in the subcell of the known cell or an antenna in the new cell and a searcher for detecting a signal from a signal source within the mobile communication network,said method comprising: determining the cell identifier and timing of a detected signal; comparing the detected signal with a corresponding received signal received from the known cell having the same cell identifier as the detected signal but with a different timing; and determining, based on whether or not the detected signal matches the corresponding received signal in said comparison, whether the detected signal originates in the known cell or the new cell. determining the cell identifier and timing of a detected signal; comparing the detected signal with a corresponding received signal received from the known cell having the same cell identifier as the detected signal but with a different timing; and determining, based on whether or not the detected signal matches the corresponding received signal in said comparison, whether the detected signal originates in the known cell or the new cell.
Method for detecting a volatile analyte for categorization and separation of cork stoppers according to the concentration of the said analyte, characterized in that said method comprises at least one cycle in which: a) the cork stoppers are separately or jointly taken to an incubation chamber wherein an incubation period begins, and which remains closed during the incubation period by means of a selector valve which will be opened to remove the gas sample for analysis; b) air or nitrogen is injected into the incubation chamber, dragging the gas enriched with the cork volatile compounds and leading it to the concentration system which contains a trap, the latter being at a temperature equal to or lower than room temperature, and concentrating the volatile compounds for analysis by adsorption or affinity; c) the trap is heated to a temperature within the range of 80°C to 300°C for a period of time of 10 to 60 seconds, for desorption of the volatile compounds; d) the volatile compounds are led by the dragging gas to a detection system by means of a heated tube; e) the detection system registers a signal related to the presence of the analyte, said signal being used for: the purposes of classifying the cork stopper or groups of cork stoppers; f) software receives the signal and compares it with an established minimum limit, making a decision of approval or rejection of said cork stopper or groups of cork stoppers. a) the cork stoppers are separately or jointly taken to an incubation chamber wherein an incubation period begins, and which remains closed during the incubation period by means of a selector valve which will be opened to remove the gas sample for analysis; b) air or nitrogen is injected into the incubation chamber, dragging the gas enriched with the cork volatile compounds and leading it to the concentration system which contains a trap, the latter being at a temperature equal to or lower than room temperature, and concentrating the volatile compounds for analysis by adsorption or affinity; c) the trap is heated to a temperature within the range of 80°C to 300°C for a period of time of 10 to 60 seconds, for desorption of the volatile compounds; d) the volatile compounds are led by the dragging gas to a detection system by means of a heated tube; e) the detection system registers a signal related to the presence of the analyte, said signal being used for: the purposes of classifying the cork stopper or groups of cork stoppers; f) software receives the signal and compares it with an established minimum limit, making a decision of approval or rejection of said cork stopper or groups of cork stoppers.