mhurhangee/ep-ind-claims huggingface dataset:
A device for accommodating a rear silencer of a two-wheeled vehicle, especially a motorcycle, with an accommodation part which can be fastened to a structural component of the two-wheeled vehicle and with which the rear silencer is held, wherein the accommodation part is a plastics-material part and wherein the accommodation part is a functional component which performs functions which go beyond holding the rear silencer, characterised in that the accommodation part is a helmet compartment.
A method for calibrating electromagnetic radiation-based three-dimensional imaging, the method comprising: - obtaining a calibration imaging result at least partly on the basis of first electromagnetic waves received from a calibration artifact (101, 201, 301a, 301b, 601) having a predetermined thickness profile, - forming calibration data on the basis of the calibration imaging result and the pre-determined thickness profile of the calibration artifact, and - correcting, with the aid of the calibration data, an imaging result obtained at least partly on the basis of second electromagnetic waves received from a sample to be imaged, wherein: - a thickness of the calibration artifact is in a depth direction (z) in which the first electromagnetic waves depart from the calibration artifact, and - the calibration artifact comprises layers (104, 105) having pre-determined thicknesses and stacked on each other so as to achieve the pre-determined thickness profile of the calibration artifact, characterized in that at least a part of the sample and at least a part of the calibration artifact are located concurrently in a field-of-view of the electromagnetic radiation-based three-dimensional imaging, and the first and second electromagnetic waves are received concurrently from the calibration artifact and from the sample. - obtaining a calibration imaging result at least partly on the basis of first electromagnetic waves received from a calibration artifact (101, 201, 301a, 301b, 601) having a predetermined thickness profile, - forming calibration data on the basis of the calibration imaging result and the pre-determined thickness profile of the calibration artifact, and - correcting, with the aid of the calibration data, an imaging result obtained at least partly on the basis of second electromagnetic waves received from a sample to be imaged, - a thickness of the calibration artifact is in a depth direction (z) in which the first electromagnetic waves depart from the calibration artifact, and - the calibration artifact comprises layers (104, 105) having pre-determined thicknesses and stacked on each other so as to achieve the pre-determined thickness profile of the calibration artifact,
A method comprising, with a computing platform: obtaining an encoded routability graph representative of feasible paths in an indoor environment represented by an encoded map; and assigning likelihoods of transition from an ingress edge in said encoded routability graph to individual egress edges through a junction connecting said ingress edge to a plurality of egress edges based, at least in part, on: (i) one or more features of said encoded map, (ii) a number of possible origination paths in said encoded routability graph connected to said junction through said ingress edge leading toward said junction, and (iii) a number of possible destination paths connected to said junction through said individual egress edges leading away from said junction; characterised in that said possible origination paths and said possible destination paths are based, at least in part, on point-to-point connections between nodes representing points of interest in said encoded map along said encoded routability graph. obtaining an encoded routability graph representative of feasible paths in an indoor environment represented by an encoded map; and assigning likelihoods of transition from an ingress edge in said encoded routability graph to individual egress edges through a junction connecting said ingress edge to a plurality of egress edges based, at least in part, on: (i) one or more features of said encoded map, (ii) a number of possible origination paths in said encoded routability graph connected to said junction through said ingress edge leading toward said junction, and (iii) a number of possible destination paths connected to said junction through said individual egress edges leading away from said junction; (i) one or more features of said encoded map, (ii) a number of possible origination paths in said encoded routability graph connected to said junction through said ingress edge leading toward said junction, and (iii) a number of possible destination paths connected to said junction through said individual egress edges leading away from said junction; characterised in that said possible origination paths and said possible destination paths are based, at least in part, on point-to-point connections between nodes representing points of interest in said encoded map along said encoded routability graph.
An electrode material comprising: a conductive sheet containing carbon nanotubes having an average fiber diameter of 1 μm or less; a liquid inflow member that is formed on a first surface of the conductive sheet such that an electrolyte solution that is passed therethrough flows into the conductive sheet; and a liquid outflow member that is formed on a second surface of the conductive sheet and out of which flows the electrolyte solution that has passed through the conductive sheet; wherein, when using a sheet surface of the conductive sheet as a reference plane, the Darcy permeability, in an in-plane direction, inside the liquid inflow member, is at least 100 times the Darcy permeability, in a normal direction, through the conductive sheet. a conductive sheet containing carbon nanotubes having an average fiber diameter of 1 μm or less; a liquid inflow member that is formed on a first surface of the conductive sheet such that an electrolyte solution that is passed therethrough flows into the conductive sheet; and a liquid outflow member that is formed on a second surface of the conductive sheet and out of which flows the electrolyte solution that has passed through the conductive sheet; wherein, when using a sheet surface of the conductive sheet as a reference plane, the Darcy permeability, in an in-plane direction, inside the liquid inflow member, is at least 100 times the Darcy permeability, in a normal direction, through the conductive sheet.
Medical instrument with a hollow shaft, an actuating unit arranged at the proximal end of the shaft, and an instrument tip with an instrument arranged at the distal end of the shaft, wherein the instrument is actuatable via an actuating element, which is mounted axially displaceably in the shaft and is operatively connected at the proximal end to the actuating unit, and the instrument tip is pivotable relative to the longitudinal axis of the shaft via a joint mechanism, wherein the joint mechanism is composed of pivoting members which are arranged at the distal end of the shaft and which, via steering wires running in the longitudinal direction of the shaft, are connected to a proximal-side drive in such a way that a movement of the proximal-side drive causes a corresponding relative movement of the distal-side pivoting members and thus a pivoting of the instrument tip, and also with a trigger mechanism via which the steering wires can be brought, independently of the actuation of the proximal-side drive, into a relaxed state that enables the mobility of the instrument tip, characterized in that the trigger mechanism is formed as a purely mechanical trigger mechanism.
A process for preparing a divinylarene dioxide comprising: a) reacting a divinylarene with hydrogen peroxide in the presence of a catalyst and an organic modifier to form a divinylarene dioxide; wherein the hydrogen peroxide is present in an excess or an equivalent mole ratio per mole of vinyl group; wherein said organic modifier is a Lewis base, and wherein said divinylarene dioxide is produced at a yield of greater than 30%; and b) isolating the divinylarene dioxide reaction product; and reducing the concentration of said organic modifier in the reaction product to 5 weight percent or less. a) reacting a divinylarene with hydrogen peroxide in the presence of a catalyst and an organic modifier to form a divinylarene dioxide; wherein the hydrogen peroxide is present in an excess or an equivalent mole ratio per mole of vinyl group; wherein said organic modifier is a Lewis base, and wherein said divinylarene dioxide is produced at a yield of greater than 30%; and b) isolating the divinylarene dioxide reaction product; and reducing the concentration of said organic modifier in the reaction product to 5 weight percent or less.
A method of providing services performed by a system comprising a processor and a federated service bus, wherein the federated service bus comprises an evolved packet core service bus, EPC-SB, and a radio access network service bus, RAN-SB, wherein the EPC-SB is connected to the RAN-SB by a federation bus, wherein one of the EPC-SB and the RAN-SB is a parent and the other of the EPC-SB and the RAN-SB is a child, wherein the parent is configured to register a producer and store information produced by the producer, wherein the child is configured to accept subscription of an application executed by the processor and act as a broker to obtain the information from the parent, wherein which one of the EPC-SB and the RAN-SB is the parent depends on a kind of service provided by the federated service bus, wherein the method comprises: • providing, by the federated service bus, load information as the information of each of equivalent packet data network, PDN, gateways, GWs, being located in multiple sites, to the application, wherein the provision of the load information is the kind of service; • selecting, by the application, a PDN GW in 3GPP S2a among the equivalent PDN GWs based on the load information. • providing, by the federated service bus, load information as the information of each of equivalent packet data network, PDN, gateways, GWs, being located in multiple sites, to the application, wherein the provision of the load information is the kind of service; • selecting, by the application, a PDN GW in 3GPP S2a among the equivalent PDN GWs based on the load information.
An optical lens element resin composition including: - dicyclohexylmethane diisocyanate, wherein the amount of dicyclohexylmethane diisocyanate in the resin composition is between 45% and 55% by weight; - a polythiol compound having 3 or 4 thiol groups, wherein the polythiol compound is selected from the group consisting of: 4-mercaptomethyl-3,6-dithia-1,8-octanedithiol; Trimethylolpropane Tris(3-mercaptopropionate); Pentaerythritol Tetrakis(2-mercaptoacetate); Trimethylolpropane Tris(2-mercaptoacetate); Pentaerythritol Tetrakis(3-mercapto-propionate); and mixtures of two or more thereof; and - a thermal catalyst, wherein the thermal catalyst is dibutyltin dichloride in a concentration of from 0.3 to 0.7% by weight. - dicyclohexylmethane diisocyanate, wherein the amount of dicyclohexylmethane diisocyanate in the resin composition is between 45% and 55% by weight; - a polythiol compound having 3 or 4 thiol groups, wherein the polythiol compound is selected from the group consisting of: 4-mercaptomethyl-3,6-dithia-1,8-octanedithiol; Trimethylolpropane Tris(3-mercaptopropionate); Pentaerythritol Tetrakis(2-mercaptoacetate); Trimethylolpropane Tris(2-mercaptoacetate); Pentaerythritol Tetrakis(3-mercapto-propionate); and mixtures of two or more thereof; and - a thermal catalyst, wherein the thermal catalyst is dibutyltin dichloride in a concentration of from 0.3 to 0.7% by weight.
A reaction force adjustment support device supporting reaction force adjustment of a suspension mechanism having plural spring chambers (5, 6) in which spring pressures can be individually adjusted, comprising: a pressure data storage unit storing pressure data of the respective spring chambers (5, 6); a graphic user interface unit displaying a display screen which can be directly operated by a user; a reaction force calculator calculating reaction force data by using the pressure data of the respective spring chambers (5, 6) stored in the pressure data storage unit; a graph generating unit generating a graph of reaction force characteristics by using the reaction force data calculated by the reaction force calculator; and a controller displaying a screen for adjusting a reaction force where the screen has an operation portion (75 to 78) for adjusting the spring pressures provided for the respective spring chambers (5, 6) and a drawing area of the graph on the display screen, and controlling the reaction force calculator and the graph generating unit by user's operation with respect to the operation portion (75 to 78) with the pressure data changed for the respective spring chambers (5, 6) to vary the graph. a pressure data storage unit storing pressure data of the respective spring chambers (5, 6); a graphic user interface unit displaying a display screen which can be directly operated by a user; a reaction force calculator calculating reaction force data by using the pressure data of the respective spring chambers (5, 6) stored in the pressure data storage unit; a graph generating unit generating a graph of reaction force characteristics by using the reaction force data calculated by the reaction force calculator; and a controller displaying a screen for adjusting a reaction force where the screen has an operation portion (75 to 78) for adjusting the spring pressures provided for the respective spring chambers (5, 6) and a drawing area of the graph on the display screen, and controlling the reaction force calculator and the graph generating unit by user's operation with respect to the operation portion (75 to 78) with the pressure data changed for the respective spring chambers (5, 6) to vary the graph.
A method for determining the likelihood that a mammal is experiencing autodigestion, comprising: a) analyzing a provided biological sample from the mammal for the presence of one or more tissue breakdown products; and b) classifying the mammal as likely experiencing autodigestion if the one or more tissue breakdown products are present in the biological sample at a level higher than a control level of the one or more tissue breakdown products, or classifying the mammal as not likely experiencing autodigestion if the one or more tissue breakdown products are not present in the biological sample at a level higher than the control level of the one or more tissue breakdown products, wherein the biological samples is air expired by the mammal, plasma, urine, saliva, tears, or sweat fluid; and wherein the one or more tissue breakdown products are selected from the group consisting of methional, pentanoic acid, 2-furfurylthiol, phenylacetaldehyde, 2,6-dimethyl-5-heptenal, -2-octenal, 2-nonenal, citronellal, 2,3-diethyl-5-methylpyrazine, and 4- acetylmethylcyclohexene, putrescine, cadaverine, methanethiol, indole, skatole, and hydrogen sulfide. a) analyzing a provided biological sample from the mammal for the presence of one or more tissue breakdown products; and b) classifying the mammal as likely experiencing autodigestion if the one or more tissue breakdown products are present in the biological sample at a level higher than a control level of the one or more tissue breakdown products, or classifying the mammal as not likely experiencing autodigestion if the one or more tissue breakdown products are not present in the biological sample at a level higher than the control level of the one or more tissue breakdown products, wherein the biological samples is air expired by the mammal, plasma, urine, saliva, tears, or sweat fluid; and wherein the one or more tissue breakdown products are selected from the group consisting of methional, pentanoic acid, 2-furfurylthiol, phenylacetaldehyde, 2,6-dimethyl-5-heptenal, -2-octenal, 2-nonenal, citronellal, 2,3-diethyl-5-methylpyrazine, and 4- acetylmethylcyclohexene, putrescine, cadaverine, methanethiol, indole, skatole, and hydrogen sulfide. wherein the biological samples is air expired by the mammal, plasma, urine, saliva, tears, or sweat fluid; and wherein the one or more tissue breakdown products are selected from the group consisting of methional, pentanoic acid, 2-furfurylthiol, phenylacetaldehyde, 2,6-dimethyl-5-heptenal, -2-octenal, 2-nonenal, citronellal, 2,3-diethyl-5-methylpyrazine, and 4- acetylmethylcyclohexene, putrescine, cadaverine, methanethiol, indole, skatole, and hydrogen sulfide.
A method of preparing silicon carbide, the method comprising steps of: preparing a mixed solution including a carbon raw material and a silica raw material; and synthesizing silicon carbide by drying the mixed solution and heat treating the dried mixed solution in an inert atmosphere, wherein the silica raw material is a spherical silica aerogel, wherein the spherical silica aerogel comprises hydrophobic powder, wherein a heat treatment temperature of step is in a range of 1,450°C to 1,550°C. preparing a mixed solution including a carbon raw material and a silica raw material; and synthesizing silicon carbide by drying the mixed solution and heat treating the dried mixed solution in an inert atmosphere, wherein the silica raw material is a spherical silica aerogel, wherein the spherical silica aerogel comprises hydrophobic powder, wherein a heat treatment temperature of step is in a range of 1,450°C to 1,550°C.
Connector for releasably attaching two hydrocarbon ducts, the connector comprising first and second connector members (7,8), each connector member (7,8) having a housing (18,19) with a fluid passage (40,41), a valve (42, 43) rotatably seated in the passage for closing off the fluid passage, drive members (21,22) attached to a respective valve (42,43) situated at an outer surface of the housing for rotation of the valves between an open state and a closed state, each drive member (21,22) comprising a displacement device (50,51) movable in an axial direction of the housing (18,19) and a first and second force element (53,53',54) coupled to a respective displacement device (50,51), wherein in the coupled state of the connector members (7,8), the displacement device of the second drive member engages with the displacement device of the first drive member to place the first and second drive members (21,22) in an axial opening position in which the valves (42,43) are opened and the force elements (53,53') are in a compressed state, and wherein upon axial retraction of the second displacement device away from the first connector member, the first and second displacement devices (50,51) are movable by expansion of the force elements (53,53') to an axial closure position in which the valves are closed, characterized in that the second drive member comprises a cylinder, a piston being connected to the second displacement device, which displacement device extends outside the cylinder, a pressure fluid line being connected to the cylinder at a piston side that is situated away from the first connector member and a spring member being situated at or near the opposite piston side providing an axial force on the piston directed away from the first connector member.
A method of operation for an end user's mobile computing device that provides navigation-related services to an end user, the method comprising, on the end user's mobile computing device: receiving backup driving instructions data from a remotely located navigation services provider for travelling to a destination along a route; storing the backup driving instructions locally; providing the backup driving instructions to the end user; requesting, from the remotely located navigation services provider, data for providing dynamic driving instructions for traveling to the destination along the route; obtaining the dynamic driving instructions data from said remotely located navigation services provider, wherein the dynamic driving instructions comprise several maneuvering instructions along the route;storing the dynamic driving instructions data locally;providing to the end user, from the local storage, at appropriate times and locations along the route, a maneuvering instruction of the dynamic driving instructions; receiving new dynamic driving instructions for following a new route to the destination that takes into account changes in traffic conditions; storing the new dynamic driving instructions locally; and providing to the end user, from the local storage, at appropriate times and locations along the new route, a maneuvering instruction of the new dynamic driving instructions. receiving backup driving instructions data from a remotely located navigation services provider for travelling to a destination along a route; storing the backup driving instructions locally; providing the backup driving instructions to the end user; requesting, from the remotely located navigation services provider, data for providing dynamic driving instructions for traveling to the destination along the route; obtaining the dynamic driving instructions data from said remotely located navigation services provider, wherein the dynamic driving instructions comprise several maneuvering instructions along the route;storing the dynamic driving instructions data locally;providing to the end user, from the local storage, at appropriate times and locations along the route, a maneuvering instruction of the dynamic driving instructions; receiving new dynamic driving instructions for following a new route to the destination that takes into account changes in traffic conditions; storing the new dynamic driving instructions locally; and providing to the end user, from the local storage, at appropriate times and locations along the new route, a maneuvering instruction of the new dynamic driving instructions.