mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, carried out by a radio access network, RAN, node in a data transmission system, wherein the data transmission system comprises a user equipment, a server, the RAN node, a mobility management entity, MME, and a service capability exposure function entity, SCEF, and the method comprises: receiving an attach request from the user equipment, UE; establishing RAN context information which includes a device identifier associated with the UE and radio resource control, RRC, context, wherein the RRC context includes location information of the UE and air interface resource information; sending the RAN context information to the MME; deleting the RAN context information; obtaining the RAN context information from the MME when target data is received, wherein the target data is associated with the user equipment; forwarding the target data based on the RAN context information; and deleting the RAN context information, wherein the obtaining and forwarding are either: from the UE and to the MME respectively; or from the MME and to the UE respectively. receiving an attach request from the user equipment, UE; establishing RAN context information which includes a device identifier associated with the UE and radio resource control, RRC, context, wherein the RRC context includes location information of the UE and air interface resource information; sending the RAN context information to the MME; deleting the RAN context information; obtaining the RAN context information from the MME when target data is received, wherein the target data is associated with the user equipment; forwarding the target data based on the RAN context information; and deleting the RAN context information, wherein the obtaining and forwarding are either: from the UE and to the MME respectively; or from the MME and to the UE respectively. from the UE and to the MME respectively; or from the MME and to the UE respectively.
Polyamide moulding composition comprising: a) at least one partially aromatic polyamide producible by polycondensation of a1) at least one aromatic dicarboxylic acid and possibly at least one aliphatic dicarboxylic acid with 6 to 44 C atoms, a2) at least one aliphatic and/or cycloaliphatic diamine and a3) possibly at least one lactam with 4 to 15 C atoms and/or at least one α,ω-amino acid with 4 to 15 C atoms, b) at least one UV absorber from the group of N,N'-oxamides and also c) at least one UV absorber from the group of hydroxyphenyltriazines. a) at least one partially aromatic polyamide producible by polycondensation of a1) at least one aromatic dicarboxylic acid and possibly at least one aliphatic dicarboxylic acid with 6 to 44 C atoms, a2) at least one aliphatic and/or cycloaliphatic diamine and a3) possibly at least one lactam with 4 to 15 C atoms and/or at least one α,ω-amino acid with 4 to 15 C atoms, a1) at least one aromatic dicarboxylic acid and possibly at least one aliphatic dicarboxylic acid with 6 to 44 C atoms, a2) at least one aliphatic and/or cycloaliphatic diamine and a3) possibly at least one lactam with 4 to 15 C atoms and/or at least one α,ω-amino acid with 4 to 15 C atoms, b) at least one UV absorber from the group of N,N'-oxamides and also c) at least one UV absorber from the group of hydroxyphenyltriazines.
Bearing ring having a ring body and a coating, applied at least to certain regions of the ring body, made of a material that is different from the material of the ring body and contains zinc or zinc and iron or zinc and nickel, characterized in that the coating contains a marking which is created using a laser beam and is designed such that the coating at the location of the marking has a continuous residual thickness of at least 2 μm, wherein the ring body is covered without gaps by the coating at the location of marking.
A sealing apparatus for use in a well pipe, the sealing apparatus comprising: - a gripping device radially movable between an expanded, active position and a retracted, passive position; - a packer element radially movable between an expanded, active position and a retracted, passive position; and - an axially movable activation device designed to set up axial forces for activating the apparatus, the activation device comprising an activator, the sealing apparatus is characterized in that it further comprises: - a mandrel arranged around a centre axis through the apparatus wherein both the gripping device and the packer element are arranged around the mandrel; - a centralizer arranged around the mandrel for centring the apparatus in the well pipe, the centralizer being radially movable between an expanded, active position and a retracted, passive position; and in that - the activator of the activation device is in threaded engagement with a splined nut that is configured to absorb rotational forces and fixedly connected to the mandrel, the activator being rotatable around the centre axis and thereby operatively connected to the gripping device, the packer element and the centralizer via power transmission of said axial forces, between retracted, passive positions and expanded, active positions relative to the centre axis of the apparatus. - a gripping device radially movable between an expanded, active position and a retracted, passive position; - a packer element radially movable between an expanded, active position and a retracted, passive position; and - an axially movable activation device designed to set up axial forces for activating the apparatus, the activation device comprising an activator, - a mandrel arranged around a centre axis through the apparatus wherein both the gripping device and the packer element are arranged around the mandrel; - a centralizer arranged around the mandrel for centring the apparatus in the well pipe, the centralizer being radially movable between an expanded, active position and a retracted, passive position; and in that - the activator of the activation device is in threaded engagement with a splined nut that is configured to absorb rotational forces and fixedly connected to the mandrel, the activator being rotatable around the centre axis and thereby operatively connected to the gripping device, the packer element and the centralizer via power transmission of said axial forces, between retracted, passive positions and expanded, active positions relative to the centre axis of the apparatus.
A method for wireless communications, comprising: transmitting, to an apparatus, a first control frame indicating a desired bandwidth for transmitting data to the apparatus, wherein the first control frame comprises a Request to Send, RTS, frame and wherein the RTS frame comprises a frame format with a bandwidth information field indicating the desired bandwidth; receiving a second control frame indicating an available bandwidth of the apparatus, wherein transmitting the first control frame comprises transmitting the RTS frame, with the bandwidth information field, on each of one or more channels for transmitting the data to the apparatus according to the desired bandwidth and wherein receiving the second control frame comprises receiving a Clear to Send, CTS, frame on each of at least a portion of the channels according to the available bandwidth of the apparatus; the method further characterized by the steps of: transmitting, to the apparatus, a legacy RTS frame according to the Institute of Electrical and Electronics Engineers, IEEE, 802.11a amendment to the IEEE 802.11 standard, the legacy RTS frame being duplicated on each of the at least the portion of the channels; and receiving a legacy CTS frame according to the IEEE 802.11a amendment, the legacy CTS frame being duplicated on each of the at least the portion of the channels, wherein a first Network Allocation Vector, NAV, set by the legacy RTS and legacy CTS frames protects transmission of the data; transmitting the data based on the available bandwidth. transmitting, to an apparatus, a first control frame indicating a desired bandwidth for transmitting data to the apparatus, wherein the first control frame comprises a Request to Send, RTS, frame and wherein the RTS frame comprises a frame format with a bandwidth information field indicating the desired bandwidth; receiving a second control frame indicating an available bandwidth of the apparatus, wherein transmitting the first control frame comprises transmitting the RTS frame, with the bandwidth information field, on each of one or more channels for transmitting the data to the apparatus according to the desired bandwidth and wherein receiving the second control frame comprises receiving a Clear to Send, CTS, frame on each of at least a portion of the channels according to the available bandwidth of the apparatus; transmitting, to the apparatus, a legacy RTS frame according to the Institute of Electrical and Electronics Engineers, IEEE, 802.11a amendment to the IEEE 802.11 standard, the legacy RTS frame being duplicated on each of the at least the portion of the channels; and receiving a legacy CTS frame according to the IEEE 802.11a amendment, the legacy CTS frame being duplicated on each of the at least the portion of the channels, wherein a first Network Allocation Vector, NAV, set by the legacy RTS and legacy CTS frames protects transmission of the data; transmitting the data based on the available bandwidth.
A water-insoluble coloring matter compound represented by the following formula: wherein R 1 and R 2 represent an alkyl group, R 3 represents an aryl group, the alkyl group regarding to R 2 is capable of having a substituent selected from the group consisting of a alkoxy group, a monosubstituted amino group, a disubstituted amino group and a cyano group, and the aryl group regarding to R 3 is capable of having a substituent. wherein R 1 and R 2 represent an alkyl group, R 3 represents an aryl group, the alkyl group regarding to R 2 is capable of having a substituent selected from the group consisting of a alkoxy group, a monosubstituted amino group, a disubstituted amino group and a cyano group, and the aryl group regarding to R 3 is capable of having a substituent.
A meter display device for a vehicle comprising: a rotation number display region (Sa) which displays a rotation number of the output shaft of a drive source, wherein the rotation number display region (Sa) is divided into a plurality of partial display regions (Sa1, Sa2) having different rotation number ranges displayed, wherein the partial display regions (Sa1, Sa2) have display operation elements which are changed between the minimum value and the maximum value of the respective corresponding partial rotation number ranges with the increase and decrease of the rotation number, characterized in that the partial display regions (Sa1, Sa2) are separated from each other on a meter display surface. a rotation number display region (Sa) which displays a rotation number of the output shaft of a drive source, wherein the rotation number display region (Sa) is divided into a plurality of partial display regions (Sa1, Sa2) having different rotation number ranges displayed, wherein the partial display regions (Sa1, Sa2) have display operation elements which are changed between the minimum value and the maximum value of the respective corresponding partial rotation number ranges with the increase and decrease of the rotation number, characterized in that the partial display regions (Sa1, Sa2) are separated from each other on a meter display surface.
A laminated product comprising - a film of microperforated plastic material having protuberances extending in a same direction from a same face of said film, with first holes having an average diameter between 100 micron and 300 micron, produced at the vertices of said protuberances, and - a layer of nonwoven fabric joined by lamination to said film on the opposite face to that on which said protuberances extend, said laminated product being perforated with second through holes having an average diameter between 350 micron and 700 micron. - a film of microperforated plastic material having protuberances extending in a same direction from a same face of said film, with first holes having an average diameter between 100 micron and 300 micron, produced at the vertices of said protuberances, and - a layer of nonwoven fabric joined by lamination to said film on the opposite face to that on which said protuberances extend,
Process for preparing a tris[3-(alkoxysilyl)propyl] isocyanurate from the group of tris[3-(trialkoxysilyl)propyl] isocyanurate, tris[3-(alkyldialkoxysilyl)propyl] isocyanurate and tris[3-(dialkylalkoxysilyl)propyl] isocyanurate by hydrosilylation, by - initially charging a mixture of at least one hydroalkoxysilane from the group of hydrotrialkoxysilane, hydroalkyldialkoxysilane, hydrodialkylalkoxysilane [called H-silane(s) for short] and a Pt catalyst, - heating the mixture to a temperature of 40 to 170°C, - then adding or metering in 1,3,5-triallyl-1,3,5-triazine-2,4,6(1H,3H,5H)-trione, at least one carboxylic acid and at least one alcohol as cocatalyst while mixing, - leaving the mixture to react and then working up the product mixture thus obtained. - initially charging a mixture of at least one hydroalkoxysilane from the group of hydrotrialkoxysilane, hydroalkyldialkoxysilane, hydrodialkylalkoxysilane [called H-silane(s) for short] and a Pt catalyst, - heating the mixture to a temperature of 40 to 170°C, - then adding or metering in 1,3,5-triallyl-1,3,5-triazine-2,4,6(1H,3H,5H)-trione, at least one carboxylic acid and at least one alcohol as cocatalyst while mixing, - leaving the mixture to react and then working up the product mixture thus obtained.
A medical device for eliminating stagnant fluid within an extravascular system, comprising: an extravascular system; a vascular access device attached to the extravascular system; and at least one access port attached to the vascular access device, wherein access of the access port displaces stagnant fluid within the extravascular system, the access port comprising a cam valve, wherein the cam valve includes two unattached halves, characterized in that, each of the two unattached halves are compressed by separate springs, wherein each of the separate springs is coupled to one of the separable halves of the cam valve and to an inner wall of the vascular access device. an extravascular system; a vascular access device attached to the extravascular system; and at least one access port attached to the vascular access device, wherein access of the access port displaces stagnant fluid within the extravascular system, the access port comprising a cam valve, wherein the cam valve includes two unattached halves, characterized in that, each of the two unattached halves are compressed by separate springs, wherein each of the separate springs is coupled to one of the separable halves of the cam valve and to an inner wall of the vascular access device.
A transmission gear comprising: a top land, a tooth surface with a mating pitch point, and a bottom land; wherein the tooth surface consists of an addendum surface, an area around the mating pitch point and a dedendum surface, wherein the addendum surface extends from a point A to a point C, the area around the mating pitch point P extends from point C to a point C', and the dedendum surface extends from point C' to a point B, the tooth surface being formed of a compound surface of three types of surfaces selected from a cycloid surface, a trochoid surface, an epitrochoid surface, a peritrochoid surface and a limacon surface, wherein the area around the mating pitch point being formed of a cycloid surface; and the bottom land being formed of a circular surface. a top land, a tooth surface with a mating pitch point, and a bottom land; wherein the tooth surface consists of an addendum surface, an area around the mating pitch point and a dedendum surface, wherein the addendum surface extends from a point A to a point C, the area around the mating pitch point P extends from point C to a point C', and the dedendum surface extends from point C' to a point B, the tooth surface being formed of a compound surface of three types of surfaces selected from a cycloid surface, a trochoid surface, an epitrochoid surface, a peritrochoid surface and a limacon surface, wherein the area around the mating pitch point being formed of a cycloid surface; and the bottom land being formed of a circular surface.
A method for communication between a medical infusion device and a remote controller, the method comprising: placing a medical infusion device comprising a radio-frequency identification receiver in close proximity to or in physical contact with a remote controller comprising a radio-frequency identification transmitter; generating a first near-field communication between the remote controller and the medical infusion device; and providing identification information specific to the remote controller to the medical infusion device via the first near-field communication, wherein the first near-field communication is established between the radio-frequency identification transmitter and the radio-frequency identification receiver, and wherein the radio-frequency identification transmitter is powered, at least partially, by an electromagnetic field generated by the radio-frequency identification receiver. placing a medical infusion device comprising a radio-frequency identification receiver in close proximity to or in physical contact with a remote controller comprising a radio-frequency identification transmitter; generating a first near-field communication between the remote controller and the medical infusion device; and providing identification information specific to the remote controller to the medical infusion device via the first near-field communication, wherein the first near-field communication is established between the radio-frequency identification transmitter and the radio-frequency identification receiver, and wherein the radio-frequency identification transmitter is powered, at least partially, by an electromagnetic field generated by the radio-frequency identification receiver.
A nacelle for an aircraft propulsion system, comprising: an outer barrel; and an active laminar flow control system including a plurality of suction sources (106A, 106B) and a plurality of arrays of perforations in the outer barrel; wherein the active laminar flow control system is configured with a plurality of zones (118A, 118B), and each of the zones (118A, 118B) includes a respective one of the suction sources (106A, 106B) which is fluidly coupled with a respective one of the arrays of perforations in the outer barrel. an outer barrel; and an active laminar flow control system including a plurality of suction sources (106A, 106B) and a plurality of arrays of perforations in the outer barrel; wherein the active laminar flow control system is configured with a plurality of zones (118A, 118B), and each of the zones (118A, 118B) includes a respective one of the suction sources (106A, 106B) which is fluidly coupled with a respective one of the arrays of perforations in the outer barrel.
A device with improved heat resistance having a first face and a second face, comprising: a body having opposing sides; one or more frames coupled to the opposing sides of the body, the one or more frames extend along one or both of the first face and the second face within an encasing layer, and the one or more frames are coupled to at least one mechanical fastener; the encasing layer disposed substantially entirely around the body, the encasing layer including a fabric layer, a coating and at least one bore through which the at least one mechanical fastener extends; the fabric layer having a first end and a second end coupled together about the perimeter of the body to enclose the body, the fabric layer including an exterior surface; and the coating disposed on the exterior surface of the fabric layer, and the coating forms a barrier for the fabric layer, wherein the first end of the fabric layer is coupled to the second end of the fabric layer to form a seam and the body is a seal body. a body having opposing sides; one or more frames coupled to the opposing sides of the body, the one or more frames extend along one or both of the first face and the second face within an encasing layer, and the one or more frames are coupled to at least one mechanical fastener; the encasing layer disposed substantially entirely around the body, the encasing layer including a fabric layer, a coating and at least one bore through which the at least one mechanical fastener extends; the fabric layer having a first end and a second end coupled together about the perimeter of the body to enclose the body, the fabric layer including an exterior surface; and the coating disposed on the exterior surface of the fabric layer, and the coating forms a barrier for the fabric layer, wherein the first end of the fabric layer is coupled to the second end of the fabric layer to form a seam and the body is a seal body.
A moving head light fixture (101, 301, 401, 501, 601) comprising: o a base; o a yoke connected rotatable to said base; o a head connected rotatable to said yoke; said head comprises a number of light sources and a number of light collecting means arranged in said head, said number of light collecting means collect light from at least one of said light sources and converts said collected light into a number of source light beams (113, 513), said light source beams are emitted from said head, characterized in that said head comprises a diffuser cover, said diffuser cover comprises at least one non-diffusing region (121, 421, 521) where through at least at part of said number of source light beams pass without being diffused and at least one diffuser region (117, 317, 417, 517), said diffuser region receives and diffuses at least a part of said light generated by said light sources and at least a part of said diffuser cover protrudes from said head and is configured to diffuse a part of said received light sidewards and backwards in relation to the source light beams. o a base; o a yoke connected rotatable to said base; o a head connected rotatable to said yoke;
A system for developing a model framework for remote unit monitoring condition-based maintenance, the system comprising: a storage medium, the storage medium being coupled to a processor; the processor configured to: collect data associated with unplanned service requests; generate more than one model from the collected data; predict an unplanned service request based at least in part on the models; and transmit an output of the prediction of the unplanned service request. a storage medium, the storage medium being coupled to a processor; the processor configured to: collect data associated with unplanned service requests; generate more than one model from the collected data; predict an unplanned service request based at least in part on the models; and transmit an output of the prediction of the unplanned service request. collect data associated with unplanned service requests; generate more than one model from the collected data; predict an unplanned service request based at least in part on the models; and transmit an output of the prediction of the unplanned service request.
An arrangement for equipping a dewatering screen with perforated watermark inserts that bear a multilevel injection molded relief, having - an injection molding unit that is adapted and equipped to furnish a dewatering screen with a plurality of watermark inserts having a multilevel injection molded relief, and - a separate perforation unit to which the dewatering screen furnished with the watermark inserts is feedable and that comprises a perforation laser device for producing dewatering perforations in the watermark inserts of the dewatering screen. - an injection molding unit that is adapted and equipped to furnish a dewatering screen with a plurality of watermark inserts having a multilevel injection molded relief, and - a separate perforation unit to which the dewatering screen furnished with the watermark inserts is feedable and that comprises a perforation laser device for producing dewatering perforations in the watermark inserts of the dewatering screen.