mhurhangee/ep-ind-claims huggingface dataset:
A gear transmission (100, 200) comprising: a first reduction unit (100a, 200a) of an eccentric oscillating type, and a second reduction unit of an eccentric oscillating type, disposed coaxially with the first reduction unit (100a, 200a) so as to surround the first reduction unit (100a, 200a), and in which an output member (6, 206) of the first reduction unit (100a, 200a) is engaged with a crankshaft, wherein an internal gear (4, 204) of the first reduction unit (100a, 200a) is disposed between an input gear of the crankshaft and an eccentric body of the crankshaft. a first reduction unit (100a, 200a) of an eccentric oscillating type, and a second reduction unit of an eccentric oscillating type, disposed coaxially with the first reduction unit (100a, 200a) so as to surround the first reduction unit (100a, 200a), and in which an output member (6, 206) of the first reduction unit (100a, 200a) is engaged with a crankshaft, wherein an internal gear (4, 204) of the first reduction unit (100a, 200a) is disposed between an input gear of the crankshaft and an eccentric body of the crankshaft.
A method for applying a patterned structure on a surface, the method comprising: providing a donor substrate comprising a donor material between a light source and a receiving surface, providing by means of the light source a light pulse directed to the donor substrate, wherein the light pulse is configured to cause the donor material to be transferred from the donor substrate onto the receiving surface, wherein the donor material forms a pattern of material portions at one or more occupied regions of the donor substrate with the donor material attached thereto and one or more unoccupied regions of the donor substrate free of the donor material, wherein the unoccupied regions are interspersed between the occupied regions, wherein the pattern of donor material on the donor substrate is transferred as a whole by the light pulse so as to form a resulting pattern of donor material on the receiving surface, wherein a mesh is employed for obtaining a meshed light pattern directed to the donor substrate so as to divide one or more material portions on the donor substrate into smaller sub-portions when transferred onto the receiving surface. providing a donor substrate comprising a donor material between a light source and a receiving surface, providing by means of the light source a light pulse directed to the donor substrate, wherein the light pulse is configured to cause the donor material to be transferred from the donor substrate onto the receiving surface, wherein the donor material forms a pattern of material portions at one or more occupied regions of the donor substrate with the donor material attached thereto and one or more unoccupied regions of the donor substrate free of the donor material, wherein the unoccupied regions are interspersed between the occupied regions, wherein the pattern of donor material on the donor substrate is transferred as a whole by the light pulse so as to form a resulting pattern of donor material on the receiving surface, wherein a mesh is employed for obtaining a meshed light pattern directed to the donor substrate so as to divide one or more material portions on the donor substrate into smaller sub-portions when transferred onto the receiving surface.
A liquid droplet discharging apparatus, comprising a liquid droplet discharging unit, wherein the liquid droplet discharging unit includes a nozzle surface, and a nozzle having an edge and a nozzle hole being formed in the nozzle surface, the liquid droplet discharging unit being configured to discharge a liquid through the nozzle, wherein a water contact angle of an adjoining region of the nozzle in the nozzle surface is greater than a water contact angle of any other region of the nozzle surface, the adjoining region has an inner rim and an outer rim and is a region present apart from the edge of the nozzle at a distance of 20 micrometers or less from the edge of the nozzle, and the distance between the inner rim and the outer rim of the adjoining region is greater than or equal to half the diameter of the nozzle hole but less than or equal to five times greater than the diameter of the nozzle hole. a liquid droplet discharging unit, wherein the liquid droplet discharging unit includes a nozzle surface, and a nozzle having an edge and a nozzle hole being formed in the nozzle surface, the liquid droplet discharging unit being configured to discharge a liquid through the nozzle, wherein a water contact angle of an adjoining region of the nozzle in the nozzle surface is greater than a water contact angle of any other region of the nozzle surface, the adjoining region has an inner rim and an outer rim and is a region present apart from the edge of the nozzle at a distance of 20 micrometers or less from the edge of the nozzle, and the distance between the inner rim and the outer rim of the adjoining region is greater than or equal to half the diameter of the nozzle hole but less than or equal to five times greater than the diameter of the nozzle hole.
A chair comprising: a movable part including a seat on which a user sits; a supporting part configured to support the movable part in such a way that it can be moved to the right and to the left, characterised in that the supporting part comprises a rail that defines a trajectory of the movement of the movable part in the right and the left, the rail is inclined so as to descend toward an end part of the rail from the center of the rail in the longitudinal direction, and the movable part moves along the rail of the supporting part; and biasing means for biasing the movable part toward a neutral position in the right and the left, wherein the supporting part supports the movable part in such a way that the movable part descends as the movable part is away from the neutral position. a movable part including a seat on which a user sits; a supporting part configured to support the movable part in such a way that it can be moved to the right and to the left, characterised in that the supporting part comprises a rail that defines a trajectory of the movement of the movable part in the right and the left, the rail is inclined so as to descend toward an end part of the rail from the center of the rail in the longitudinal direction, and the movable part moves along the rail of the supporting part; and biasing means for biasing the movable part toward a neutral position in the right and the left, wherein the supporting part supports the movable part in such a way that the movable part descends as the movable part is away from the neutral position.
A method for monitoring the thread arrival during the insertion depending on the weaving pattern of different weft threads (1, 2, 3... n) into the shed of a weaving machine, wherein an inserted weft thread is monitored by an opto-electronic sensor in the area of the end of the insertion path, which depending on different properties crucial for the monitoring of the weft thread and/or depending on the behavior of the weft thread during the passage through the sensor generates different electrical signal profiles (6.1, 6.2, 6.3... 6.n), which are characterized by different levels and different points in time and which are evaluated by at least one electronic control unit, characterized in that a reference signal typical for each weft thread (1, 2, 3... n) to be inserted depending on the weaving pattern is calculated and stored by means of the control unit from several signal profiles of the passage processes generated by weft insertions into the weaving machine during the passage of the respective weft threads through the sensor and that within a weaving cycle of the weaving machine the actual signal profile of the passage process, which is generated during the passage of a weft thread through the sensor, is electronically compared by means of the control unit with the stored reference signal of the weft thread (1, 2, 3... n) to be inserted depending on the weaving pattern in said weaving cycle.
Sanitary device having a bowl body which is to be fastened in a suspended manner, wherein at least two bolt-like wall holders are provided on the wall for fastening purposes, wherein there is at least one holder provided which, in respect of the installed position, has at least one transverse through-passage in the longitudinal direction of the wall holders, for accommodating one of the wall holders, and also has a threaded bore, wherein the threaded bore is arranged essentially perpendicularly to the transverse through-passage, for accommodating a locking screw, and is accessible from beneath in the installed position, and wherein the holder can be fastened in at least one bore (11, 14) present in a wall of the bowl body, characterized in that the holder is designed in the form of a transverse strut, wherein the ends of the transverse strut project into essentially horizontally formed and mutually opposite bores (11, 14) in the side walls of the bowl body.
An automated system for the recovery of dead animals inside their housing premises, lying on a surface, comprising: - an automated mobile equipment; - automation motor means; - a control unit adapted to supervise the functions of said equipment; - supply means adapted to supply energy to said equipment, characterized in that it comprises: - guide means for said equipment, wherein said equipment comprises a vehicle and said vehicle comprises: - locomotion motor means (26, 27); - identification means for identifying said dead animals lying on said surface; - lifting means for lifting said dead animals; - container means for containing said dead animals; and wherein said control unit cooperates with said guide means for processing the motion commands for said vehicle, so that said vehicle covers the entire surface of said premises. - an automated mobile equipment; - automation motor means; - a control unit adapted to supervise the functions of said equipment; - supply means adapted to supply energy to said equipment, - guide means for said equipment, - locomotion motor means (26, 27); - identification means for identifying said dead animals lying on said surface; - lifting means for lifting said dead animals; - container means for containing said dead animals;
Device for the non-destructive testing of an electrically conductive part comprising: - an induction portion, and - a receiving portion, - processing means, characterised in that the induction portion comprises an inductor dissociated into n elementary inductors of the web type supplied at different frequencies f1, f2,..., fn, in that the receiving portion comprises n' magnetic receivers distributed over m columns, each column comprising at most n receivers, at least one column comprising at least two receivers, the magnetic receivers being connected to one another over each column, the m columns of receivers being supplied by electrical signals v1', v2',..., vm', of frequencies f1', f2',..., fm', zero or non-zero, each magnetic receiver being arranged under an elementary inductor, m magnetic receivers being positioned under each elementary inductor, the indices n, n' and m being positive integers such that n>=2, 1<n' <=n ∗ m and m>=1, in that the processing means comprise, for each column of receivers of rank i, with 1 ≤ i ≤ m, means for measuring a signal at the terminals of this column of receivers followed by means of demodulating this signal at frequencies f 1 +f i ', f 2 +f i ',..., f n +f i ' or f 1 -f i ', f 2 -f i ',..., f n -f i ' and means of calculating a magnetic field at each of the receivers of this column, and in that the magnetic receivers are connected in series or in parallel. - an induction portion, and - a receiving portion, - processing means,
A method for diagnosing an electrical network including a plurality of nodes, each node being equipped with a local device (1, 3, 5) capable of measuring at least one property of the electrical energy passing through the corresponding node, the method comprising: a. recording events (21, 22, 23, 24, 25, 26) by each local device, each event being defined at least by an identifier of the node and/or of the local device, a date and a value quantifying an anomaly in the at least one measured property; b. performing a general collection of the records of each local device, relating to a common time range, on a central device connected to the network; c. supplementing each event collected with network tree data at the date of the event, so that changes to the network that may have an influence on the at least one property measured at the date of the event are identifiable; characterised in that the method further comprises d. comparing the events with history data of changes in the network so as to distinguish between first events (22, 25, 26) not attributable to said modifications from second events (21, 23, 24) attributable to said modifications; e. scheduling the first events with respect to each other according to preestablished rules of relevance and/or priority; f. selecting part of the first events (22, 25) according to the scheduling; g. enriching the data of said selection by performing a targeted collection of additional data from each local device identified in said selection. a. recording events (21, 22, 23, 24, 25, 26) by each local device, each event being defined at least by an identifier of the node and/or of the local device, a date and a value quantifying an anomaly in the at least one measured property; b. performing a general collection of the records of each local device, relating to a common time range, on a central device connected to the network; c. supplementing each event collected with network tree data at the date of the event, so that changes to the network that may have an influence on the at least one property measured at the date of the event are identifiable; d. comparing the events with history data of changes in the network so as to distinguish between first events (22, 25, 26) not attributable to said modifications from second events (21, 23, 24) attributable to said modifications; e. scheduling the first events with respect to each other according to preestablished rules of relevance and/or priority; f. selecting part of the first events (22, 25) according to the scheduling; g. enriching the data of said selection by performing a targeted collection of additional data from each local device identified in said selection.
A storage device comprising: a memory device (220, 400) including a memory cell array (225, 430) configured to store metadata and main data; and a storage controller configured to access the memory device (220, 400) and control the memory device (220, 400), wherein the storage controller is configured to read data from the memory device (220, 400) at a speed that is adaptively varied to a first read speed (Level N) or a second read speed (Level F) according to a state of the memory device (220, 400), the second read speed (Level F) being faster than the first read speed (Level N), wherein the storage controller is configured to perform error detection for the read data from the memory device (220, 400) and to operate the memory device (220, 400) at the second read speed (Level F) until an error is detected in the read data, and characterized in that the storage controller is configured to operate the memory device (220, 400) at the first read speed (Level N) based on a number of errors detected in the read data exceeding an error threshold (Th). a memory device (220, 400) including a memory cell array (225, 430) configured to store metadata and main data; and a storage controller configured to access the memory device (220, 400) and control the memory device (220, 400), wherein the storage controller is configured to read data from the memory device (220, 400) at a speed that is adaptively varied to a first read speed (Level N) or a second read speed (Level F) according to a state of the memory device (220, 400), the second read speed (Level F) being faster than the first read speed (Level N), wherein the storage controller is configured to perform error detection for the read data from the memory device (220, 400) and to operate the memory device (220, 400) at the second read speed (Level F) until an error is detected in the read data, and characterized in that the storage controller is configured to operate the memory device (220, 400) at the first read speed (Level N) based on a number of errors detected in the read data exceeding an error threshold (Th).
Cooking device, comprising at least one hob having at least one hot plate and having at least one heating device provided for heating at least one cooking region and having at least one sensor device, the hob comprising at least one support device, which is suitable and designed for positioning at least one container of food to be cooked, the heating device comprising at least one induction device and the sensor device comprising at least one magnetic shielding device, the magnetic shielding device being designed and suitable for shielding against electromagnetic interactions and in particular for shielding against the electromagnetic field of the induction device, the sensor device comprising a first sensor unit and another sensor unit, the sensor device comprising at least one sensor unit (13, 23) that is suitable in particular for contactlessly detecting at least one characteristic parameter for temperatures, at least one damping means being provided, by means of which the sensor device is arranged, in the installation position of the hob, beneath the support device so as to be resilient at least in part, and at least one sealing device being provided for thermal insulation, at least part of the sealing device being arranged between the support device and at least part of the sensor device at least in part, characterised in that the sealing device is formed as a micanite layer.
A string trimmer attachment for use with a trimmer, the string trimmer attachment comprising: an attachment body defining a central opening positionable on a body of a trimmer head, the attachment body defining a first driven member in the central opening, the first driven member being engageable with a drive member of the trimmer head; and a first line-holding structure supported on the attachment body operable to hold a first trimming line extending radially-outwardly from the attachment body, characterised in that the first line-holding structure is circumferentially spaced from the first driven member. an attachment body defining a central opening positionable on a body of a trimmer head, the attachment body defining a first driven member in the central opening, the first driven member being engageable with a drive member of the trimmer head; and a first line-holding structure supported on the attachment body operable to hold a first trimming line extending radially-outwardly from the attachment body, characterised in that the first line-holding structure is circumferentially spaced from the first driven member.
A bonding wire for semiconductor, comprising: a core wire made of copper or a copper alloy; a coating layer containing palladium of 50% by volume or more, said coating layer being formed on a surface of said core wire, and having a thickness of 10 to 200nm; and an alloy layer containing noble metal and palladium, said alloy layer being formed on a surface of said coating layer, and having a thickness of 1 to 80nm, wherein said noble metal is gold, and a concentration of said noble metal in said alloy layer is not less than 10% and not more than 75% by volume, and crystal grains having <111> crystal orientations angled at 15 degrees or less to a wire drawing direction occupy an area percentage of 40% to 100% when observing crystal orientations of crystal grains on the surface of the bonding wire. a core wire made of copper or a copper alloy; a coating layer containing palladium of 50% by volume or more, said coating layer being formed on a surface of said core wire, and having a thickness of 10 to 200nm; and an alloy layer containing noble metal and palladium, said alloy layer being formed on a surface of said coating layer, and having a thickness of 1 to 80nm, wherein said noble metal is gold, and a concentration of said noble metal in said alloy layer is not less than 10% and not more than 75% by volume, and crystal grains having <111> crystal orientations angled at 15 degrees or less to a wire drawing direction occupy an area percentage of 40% to 100% when observing crystal orientations of crystal grains on the surface of the bonding wire.
A method for wireless communication, the method comprising: receiving, via a plurality of receiver front ends (410, 412, 414, 500), a plurality of RF signals from a transmitting device, the plurality of RF signals corresponding to a plurality of hopping frequencies; down-converting, during a first time period, said plurality of received RF signals in parallel, wherein down-converting said plurality of received RF signals comprises mixing each received RF signal with a local oscillator signal of a frequency based on a hopping frequency of the plurality of hopping frequencies; determining a hopping sequence by obtaining one of transmitting device clock information from the down-converted plurality of received RF signals and a channel number transmitted with a transmitting device address from the down-converted plurality of received RF signals, the channel number corresponding to a specific hopping frequency; and if the number of the plurality of receiver front ends is less than the plurality of hopping frequencies, down-converting after the first time period said plurality of received RF signals in parallel, wherein down-converting said plurality of received RF signals after the first time period comprises mixing each received RF signal with a local oscillator signal of a frequency based on one or more hopping frequencies of the plurality of hopping frequencies not used during the first time period. receiving, via a plurality of receiver front ends (410, 412, 414, 500), a plurality of RF signals from a transmitting device, the plurality of RF signals corresponding to a plurality of hopping frequencies; down-converting, during a first time period, said plurality of received RF signals in parallel, wherein down-converting said plurality of received RF signals comprises mixing each received RF signal with a local oscillator signal of a frequency based on a hopping frequency of the plurality of hopping frequencies; determining a hopping sequence by obtaining one of transmitting device clock information from the down-converted plurality of received RF signals and a channel number transmitted with a transmitting device address from the down-converted plurality of received RF signals, the channel number corresponding to a specific hopping frequency; and if the number of the plurality of receiver front ends is less than the plurality of hopping frequencies, down-converting after the first time period said plurality of received RF signals in parallel, wherein down-converting said plurality of received RF signals after the first time period comprises mixing each received RF signal with a local oscillator signal of a frequency based on one or more hopping frequencies of the plurality of hopping frequencies not used during the first time period.