mhurhangee/ep-ind-claims huggingface dataset:
Vibration device for training and therapeutic applications comprising a frame, a first standing surface element for a foot to be set on, which is held movably on the frame by means of a first bearing assembly, a second standing surface element for a further foot to be set on, and which is held movably on the frame by means of a second bearing assembly, wherein both the first bearing arrangement at the first standing surface element as well as the second bearing assembly at the second standing surface element in each case comprise three bearing devices with in each case two degrees of freedom, and a movement mechanism driven by a motor, by means of which a repetitive pivoting movement can be generated by way of the bearing assemblies (8, 10) on both standing surface elements (4, 6), in each case about both a longitudinal axis as well as about a transverse axis, wherein, of the bearing devices of the first bearing assembly, two bearing devices form a first pair of bearings, and of the bearing devices of the second bearing assembly, two bearing devices form a second pair of bearings respectively on a first side of the standing surface elements (4, 6), and in this situation all four bearing devices are mounted coaxially along a common axis, which is formed by a common drive shaft, and can be subjected to a drive force from the motor, characterised in that the two pairs of bearings (14, 16) are held in relation to one another, in the direction of rotation, offset eccentrically by a bearing pair offset in respect of the drive shaft.
A prosthetic heart valve comprising: a rigid structure (140, 160) being a support frame and having a circumference; and a valve portion, wherein the rigid structure (140, 160) comprises a plurality of segments (146, 172) passing about the circumference, and wherein adjacent segments (146, 172) are secured together at a seam (152, 174) configured to fail when the prosthetic heart valve is subject to a dilation force, and characterized in that the prosthetic heart valve further comprises an elastic member (156, 178) configured to pull at least two adjacent segments (146, 172) toward each other. a rigid structure (140, 160) being a support frame and having a circumference; and a valve portion, wherein the rigid structure (140, 160) comprises a plurality of segments (146, 172) passing about the circumference, and wherein adjacent segments (146, 172) are secured together at a seam (152, 174) configured to fail when the prosthetic heart valve is subject to a dilation force, and characterized in that the prosthetic heart valve further comprises an elastic member (156, 178) configured to pull at least two adjacent segments (146, 172) toward each other.
A hypereutectic high pressure die cast aluminum silicon alloy comprising: - 16% to 23% by weight silicon, - 0.01% to 1.5% by weight iron, - 0.01% to 0.6% by weight manganese, - 0.01% to 1.3% by weight magnesium, - 0.05% to 0.2% by weight strontium, - optionally 0.01 % to 4.5% by weight nickel, - optionally 0.2% to 5% copper, and - the balance aluminum, wherein the die cast alloy has a microstructure with a volume fraction of primary silicon of greater than 10%. - 16% to 23% by weight silicon, - 0.01% to 1.5% by weight iron, - 0.01% to 0.6% by weight manganese, - 0.01% to 1.3% by weight magnesium, - 0.05% to 0.2% by weight strontium, - optionally 0.01 % to 4.5% by weight nickel, - optionally 0.2% to 5% copper, and - the balance aluminum,
A data delivery system comprising a plurality of communication apparatuses, and a control server selecting a communication apparatus to which update data is to be delivered from among the plurality of communication apparatuses, the control server comprising: a selecting unit selecting the communication apparatus to which the update data is to be delivered based on priority levels set in association with communication apparatuses which are delivery targets; a transmitting unit transmitting a message inquiring as to whether or not the communication apparatus is ready to accept the update data, to the communication apparatus selected by the selecting unit; a receiving unit receiving a response message transmitted by the communication apparatus in response to the message transmitted by the transmitting unit; and a delivery requesting unit selecting the communication apparatus to which the update data is to be delivered based on the response message received by the receiving unit and requesting a delivery server which stores the update data to deliver the update data to the selected communication apparatus; characterized in that the delivery requesting unit selects the communication apparatus to which the update data is to be delivered based on processing load to be applied upon delivery of the update data, and when the processing load of the delivery server is equal to or greater than a specified value set in advance, the delivery requesting unit detects new update data which can be delivered without making the processing load of the delivery server exceed the specified value and the communication apparatus to which this new update data is to be delivered. a selecting unit selecting the communication apparatus to which the update data is to be delivered based on priority levels set in association with communication apparatuses which are delivery targets; a transmitting unit transmitting a message inquiring as to whether or not the communication apparatus is ready to accept the update data, to the communication apparatus selected by the selecting unit; a receiving unit receiving a response message transmitted by the communication apparatus in response to the message transmitted by the transmitting unit; and a delivery requesting unit selecting the communication apparatus to which the update data is to be delivered based on the response message received by the receiving unit and requesting a delivery server which stores the update data to deliver the update data to the selected communication apparatus;
Method for producing a thermal-radiation-reflecting envelope construction for a building, comprising the following steps: - forming the outer surface of the building from an insulating layer which is at the same time a vapour barrier layer and of which the degree of absorption is ε>0.6; - fastening spacer elements to the building outer surface; - providing a carrier layer having a layer with thermal-radiation-reflecting material; - fastening the carrier layer at a first location to the spacer elements; - manually tensioning the carrier layer; - fastening the tensioned carrier layer to further locations or surfaces of the spacer elements in such a way that the carrier layer is tensioned over its whole area over the spacer elements on the side of and parallel to the building outer surface, wherein an inner side, which has the layer with the thermal-radiation-reflecting material, of the carrier layer points towards the building outer surface and wherein an air layer is formed between the carrier layer and the building outer surface and also between the spacer elements. - forming the outer surface of the building from an insulating layer which is at the same time a vapour barrier layer and of which the degree of absorption is ε>0.6; - fastening spacer elements to the building outer surface; - providing a carrier layer having a layer with thermal-radiation-reflecting material; - fastening the carrier layer at a first location to the spacer elements; - manually tensioning the carrier layer; - fastening the tensioned carrier layer to further locations or surfaces of the spacer elements in such a way that the carrier layer is tensioned over its whole area over the spacer elements on the side of and parallel to the building outer surface, wherein an inner side, which has the layer with the thermal-radiation-reflecting material, of the carrier layer points towards the building outer surface and wherein an air layer is formed between the carrier layer and the building outer surface and also between the spacer elements. - fastening the carrier layer at a first location to the spacer elements; - manually tensioning the carrier layer; - fastening the tensioned carrier layer to further locations or surfaces of the spacer elements in such a way that the carrier layer is tensioned over its whole area over the spacer elements on the side of and parallel to the building outer surface, wherein an inner side, which has the layer with the thermal-radiation-reflecting material, of the carrier layer points towards the building outer surface and wherein an air layer is formed between the carrier layer and the building outer surface and also between the spacer elements.
Method for operating a wind farm which comprises a farm master and a plurality of wind power plants, each with a controller, for generating electrical power, where the farm master prespecifies the power output of the wind power plants, and the wind farm can be operated in a normal mode and a reduced-power throttle mode, where, in the throttle mode, a signal for a power reduction of the wind farm ΔP set,farm is applied to the farm master and participating wind power plants throttle their power generation on this basis, characterized by defining an individual setpoint power reduction P set,i for each participating wind power plant, comprising the steps of: determining an available power P avail(i) for each of the participating wind power plants and reducing this available power by a reduction proportion ΔP i; determining the reduction proportions ΔP i using an optimization method with the optimization condition of equal increase time T regain, opt = T regain, i for all participating wind power plants; and repeating until the optimization method reaches a presettable termination criterion. determining an available power P avail(i) for each of the participating wind power plants and reducing this available power by a reduction proportion ΔP i; determining the reduction proportions ΔP i using an optimization method with the optimization condition of equal increase time T regain, opt = T regain, i for all participating wind power plants; and repeating until the optimization method reaches a presettable termination criterion.
A catalyst additive composition comprising 10-40 wt% of calcined clay, 10-40 wt% of diluent clay, 10-30 wt% of silica, 1-30 wt% of alumina, less than 0.3 wt% sodium with a surface area of 140 to 165 m 2 /g, average pore diameter of 80 to 86 Å, apparent bulk density of 0.7 to 1 g/cc, an attrition index below 10 and has a pore volume in the range of 0.2 to 0.4 cc/gm. and acidity of 0.158 to 0.168 mmol/g.
A microemulsion comprising 0.1 to 50% by weight of at least one active substance selected from the group consisting of fungicides, insecticides, nematicides, herbicides, growth regulators and mixtures of these as component A, 0.5 to 40% by weight of at least one solvent selected from the group consisting of 1-methoxy-2-propanol acetate, n-propyl lactate, gamma-butyrolactone, dimethyl sulfoxide (DMSO) and mixtures of these as component B, 10 to 40% by weight of at least one nonionic surfactant selected from the group consisting of compounds which are formed by alkoxylating compounds with at least one active hydrogen atom, alkoxylates of alkylphenols, block polymers of C 2 -C 6 -alkylene oxides, alkylglycosides and mixtures of these as component C, 0 to 10% by weight of further additives as component D, at least 10% by weight of water as component E and 0.1 to 60% by weight of at least one solvent which is partially miscible with water, selected from the group consisting of benzyl alcohol, C8/C10-fatty acid dimethyl amides, cyclohexanone, 2-heptanone, tributyl phosphate and mixtures of these as component F, in each case based on the total microemulsion, where the total of the amounts of components A, B, C, D, E and F amounts to 100% by weight and where the microemulsion does not comprise any anionic surfactants. 0.1 to 50% by weight of at least one active substance selected from the group consisting of fungicides, insecticides, nematicides, herbicides, growth regulators and mixtures of these as component A, 0.5 to 40% by weight of at least one solvent selected from the group consisting of 1-methoxy-2-propanol acetate, n-propyl lactate, gamma-butyrolactone, dimethyl sulfoxide (DMSO) and mixtures of these as component B, 10 to 40% by weight of at least one nonionic surfactant selected from the group consisting of compounds which are formed by alkoxylating compounds with at least one active hydrogen atom, alkoxylates of alkylphenols, block polymers of C 2 -C 6 -alkylene oxides, alkylglycosides and mixtures of these as component C, 0 to 10% by weight of further additives as component D, at least 10% by weight of water as component E and 0.1 to 60% by weight of at least one solvent which is partially miscible with water, selected from the group consisting of benzyl alcohol, C8/C10-fatty acid dimethyl amides, cyclohexanone, 2-heptanone, tributyl phosphate and mixtures of these as component F,
Method for establishing a stream in a TSN network, in which - at least one stream subscriber (1, 2) wishing to send data via the stream to at least one further stream subscriber (1, 2) and/or wishing to receive data via the stream from at least one further stream subscriber (1, 2) sends a request message to a DNS server on which entries are deposited that each comprise a stream identifier of a first type assigned to a stream and a stream identifier of a second type, which is different than said stream identifier of a first type, assigned to the respective stream and the indication of a stipulated type that is used exclusively for this type of entries, wherein the request message comprises at least one stream identifier of the first type, which is known to the at least one stream subscriber (1, 2), and the stipulated type, - the at least one stream subscriber (1, 2) receives from the DNS server a response message that contains a stream identifier of the second type associated with the stream, and - the at least one stream subscriber (1, 2) uses the received stream identifier to register on the stream. - at least one stream subscriber (1, 2) wishing to send data via the stream to at least one further stream subscriber (1, 2) and/or wishing to receive data via the stream from at least one further stream subscriber (1, 2) sends a request message to a DNS server on which entries are deposited that each comprise a stream identifier of a first type assigned to a stream and a stream identifier of a second type, which is different than said stream identifier of a first type, assigned to the respective stream and the indication of a stipulated type that is used exclusively for this type of entries, wherein the request message comprises at least one stream identifier of the first type, which is known to the at least one stream subscriber (1, 2), and the stipulated type, - the at least one stream subscriber (1, 2) receives from the DNS server a response message that contains a stream identifier of the second type associated with the stream, and - the at least one stream subscriber (1, 2) uses the received stream identifier to register on the stream.
A Filter Bank Multicarrier frequency spread receiver for decoding a signal, said receiver comprising a linear phase rotation module adapted to introduce a linear phase rotation to the signal, a Discrete Fourier Transform unit receiving the signal from the linear phase rotation module, and a Finite Impulse Response digital filter receiving the signal from the Discrete Fourier Transform unit, wherein coefficients of said Finite Impulse Response digital filter define a shift of a frequency response of a prototype filter of said receiver, and wherein said introduced linear phase rotation is compensated by the frequency shift of said Finite Impulse Response digital filter wherein said frequency shift is equal to the reciprocal of a power of two of a modulation sub carrier spacing, and wherein the coefficients of said Finite Impulse Response digital filter are truncated such that said Finite Impulse Response digital filter has fewer coefficients than the frequency response of said prototype filter.
An electroosmotic pump, comprising: a housing having a pump cavity; a porous core medium positioned within the pump cavity to form an exterior reservoir that extends at least partially about an exterior surface of the porous core medium, the porous core medium having an open inner chamber provided therein, the inner chamber representing an interior reservoir; and electrodes (16, 17) positioned in the inner chamber and positioned proximate the exterior surface, the electrodes inducing flow of a fluid through the porous core medium between the interior and exterior reservoirs, wherein a gas is generated when the electrodes induce flow of the fluid; the housing having a fluid inlet to convey the fluid to one of the interior reservoir and the exterior reservoir, the housing having a fluid outlet to discharge the fluid from another of the interior reservoir and the exterior reservoir, the housing having a gas outlet to discharge the gas from the pump cavity. a housing having a pump cavity; a porous core medium positioned within the pump cavity to form an exterior reservoir that extends at least partially about an exterior surface of the porous core medium, the porous core medium having an open inner chamber provided therein, the inner chamber representing an interior reservoir; and electrodes (16, 17) positioned in the inner chamber and positioned proximate the exterior surface, the electrodes inducing flow of a fluid through the porous core medium between the interior and exterior reservoirs, wherein a gas is generated when the electrodes induce flow of the fluid; the housing having a fluid inlet to convey the fluid to one of the interior reservoir and the exterior reservoir, the housing having a fluid outlet to discharge the fluid from another of the interior reservoir and the exterior reservoir, the housing having a gas outlet to discharge the gas from the pump cavity.
A vehicle seat with a side airbag device, comprising: an inflator that is provided at the vehicle seat and that, when a side collision of a vehicle is sensed or predicted, is operated and generates gas; and a side airbag (20, 20', 70, 80, 100, 110) that is provided at a side portion of a seat back of the vehicle seat, and that, in the mounted state of the seat, can inflate and expand between a seated passenger and a vehicle body side portion due to gas that the inflator generates being supplied to an interior of the side airbag, and that, in an inflated and expanded state, is divided into a front side bag portion and a rear side bag portion that are lined-up in a vehicle longitudinal direction, and at which a forwardly extending portion, that is provided at an upper portion of the rear side bag portion, extends from a side of a shoulder portion of the seated passenger toward a vehicle front side and is disposed above the front side bag portion, and, due to a dimension in a vehicle transverse direction of the forwardly extending portion being set to be smaller than that of the front side bag portion, a vehicle transverse direction inner side surface at an upper end side of the front side bag portion is inclined or curved so as to rise up while heading toward a vehicle transverse direction outer side, characterized in that the forwardly extending portion is formed such that a dimension, in a vertical direction in an inflated and expanded state, becomes smaller while heading toward a front end side. an inflator that is provided at the vehicle seat and that, when a side collision of a vehicle is sensed or predicted, is operated and generates gas; and a side airbag (20, 20', 70, 80, 100, 110) that is provided at a side portion of a seat back of the vehicle seat, and that, in the mounted state of the seat, can inflate and expand between a seated passenger and a vehicle body side portion due to gas that the inflator generates being supplied to an interior of the side airbag, and that, in an inflated and expanded state, is divided into a front side bag portion and a rear side bag portion that are lined-up in a vehicle longitudinal direction, and at which a forwardly extending portion, that is provided at an upper portion of the rear side bag portion, extends from a side of a shoulder portion of the seated passenger toward a vehicle front side and is disposed above the front side bag portion, and, due to a dimension in a vehicle transverse direction of the forwardly extending portion being set to be smaller than that of the front side bag portion, a vehicle transverse direction inner side surface at an upper end side of the front side bag portion is inclined or curved so as to rise up while heading toward a vehicle transverse direction outer side,
System (101, 103, 105) for processing data flows using blind transport format detection, the system (101, 103, 105) comprising: - a classifier (61, 63) for classifying of data channels (31..35) into a first and a second class of data channels, wherein first class data channels are data channels that do not need information from other data channels in order to be processed, and wherein second class data channels need information from at least one of the first class data channels in order to be processed, and for classifying of data channels (31..35) into a first and a second sub-class of the first class, wherein first sub-class data channels (31..33) are data channels that do not provide information for processing other data channels, and wherein second sub-class data channels are data channels that provide additional information needed for processing of the second class data channels; - a first processor for processing of the first class data channels; - a first checking unit for checking whether there are any channels of the second sub-class; - a calculator for calculating information for the second class data channels from processing results of the first processor; and - a second processor for processing the second class data channels using information calculated by the calculator, a third checking unit for checking (54a, 54b) whether there are any data channels (31, 32, 33) belonging to the first sub-class of data channels; and - a third processor for processing the first sub-class data channels (31, 32, 33). - a classifier (61, 63) for classifying of data channels (31..35) into a first and a second class of data channels, wherein first class data channels are data channels that do not need information from other data channels in order to be processed, and wherein second class data channels need information from at least one of the first class data channels in order to be processed, and for classifying of data channels (31..35) into a first and a second sub-class of the first class, wherein first sub-class data channels (31..33) are data channels that do not provide information for processing other data channels, and wherein second sub-class data channels are data channels that provide additional information needed for processing of the second class data channels; - a first processor for processing of the first class data channels; - a first checking unit for checking whether there are any channels of the second sub-class; - a calculator for calculating information for the second class data channels from processing results of the first processor; and - a second processor for processing the second class data channels using information calculated by the calculator, - a third processor for processing the first sub-class data channels (31, 32, 33).