mhurhangee/ep-ind-claims huggingface dataset:
A Multiple Input Multiple Output, MIMO, receiving apparatus comprising - an input interface that receives a multiplex signal from a MIMO preprocessing apparatus on an input signal path, said multiplex signal comprising one or more MIMO transmission channels of a MIMO transmission signal, wherein a MIMO transmission channel carrying one or more services comprises two MIMO receive signal components multiplexed onto said multiplex signal, MIMO receive signal component - a signaling unit that signals to said MIMO preprocessing apparatus a channel allocation information indicating the allocation of the two MIMO receive signal components of at least the MIMO transmission channel carrying a desired service that shall be used by said MIMO receiving apparatus to respective frequency channels so that the two MIMO receive signal components of said MIMO transmission channel will be allocated to different frequency channels, - a processing unit that processes the two MIMO receive signal components of the MIMO transmission channel carrying the desired service, including tuning to the frequency channels of the respective MIMO receive signal component based on said channel allocation information, to obtain a service data stream, - an output interface that outputs said service data stream. - an input interface that receives a multiplex signal from a MIMO preprocessing apparatus on an input signal path, said multiplex signal comprising one or more MIMO transmission channels of a MIMO transmission signal, wherein a MIMO transmission channel carrying one or more services comprises two MIMO receive signal components multiplexed onto said multiplex signal, MIMO receive signal component - a signaling unit that signals to said MIMO preprocessing apparatus a channel allocation information indicating the allocation of the two MIMO receive signal components of at least the MIMO transmission channel carrying a desired service that shall be used by said MIMO receiving apparatus to respective frequency channels so that the two MIMO receive signal components of said MIMO transmission channel will be allocated to different frequency channels, - a processing unit that processes the two MIMO receive signal components of the MIMO transmission channel carrying the desired service, including tuning to the frequency channels of the respective MIMO receive signal component based on said channel allocation information, to obtain a service data stream, - an output interface that outputs said service data stream.
A device for providing diffuse emission of light through a flat surface, the device comprising: a flat light guide having two larger flat surfaces on opposite sides and side surfaces, wherein one of the two larger flat surfaces being a light emitting surface and the other surface being a back surface; a connector for coupling light into said flat light guide; and a diffusing layer arranged in contact with said back surface of said flat light guide; a first layer arranged on top of said diffusing layer, wherein said first layer has a refractive index which is lower than a refractive index of said flat light guide; and a second layer covering said light emitting surface having a refractive index which is lower than said refractive index of said flat light guide. a flat light guide having two larger flat surfaces on opposite sides and side surfaces, wherein one of the two larger flat surfaces being a light emitting surface and the other surface being a back surface; a connector for coupling light into said flat light guide; and a diffusing layer arranged in contact with said back surface of said flat light guide; a first layer arranged on top of said diffusing layer, wherein said first layer has a refractive index which is lower than a refractive index of said flat light guide; and a second layer covering said light emitting surface having a refractive index which is lower than said refractive index of said flat light guide.
Method for creating a synthetic mammogram on the basis of a dual energy tomosynthesis recording of an examination region, having the steps: a. making a low energy tomosynthesis recording with a first X-ray energy spectrum, b. making a high energy tomosynthesis recording with a second X-ray energy spectrum of higher energy compared with the first X-ray energy spectrum, wherein the examination region has a contrast medium distribution, c. determining a subtraction volume on the basis of the high energy tomosynthesis recording and the low energy tomosynthesis recording, d. generating a three-dimensional probability map with a weighting factor per voxel on the basis of the subtraction volume, e. creating a synthetic mammogram on the basis of the three-dimensional probability map, characterised in that the weighting factors of the three-dimensional probability map are based upon a quantitative analysis of the contrast medium concentration. a. making a low energy tomosynthesis recording with a first X-ray energy spectrum, b. making a high energy tomosynthesis recording with a second X-ray energy spectrum of higher energy compared with the first X-ray energy spectrum, wherein the examination region has a contrast medium distribution, c. determining a subtraction volume on the basis of the high energy tomosynthesis recording and the low energy tomosynthesis recording, d. generating a three-dimensional probability map with a weighting factor per voxel on the basis of the subtraction volume, e. creating a synthetic mammogram on the basis of the three-dimensional probability map,
A method of wireless communication at a first eNodeB (505-a; 605-a; 705-a; 805-a; 905-a) for establishing selected internet protocol traffic offload, SIPTO, connectivity at a second eNodeB (505-b; 605-b; 705-b; 805-b; 905-b), comprising: establishing a first connection between the first eNodeB (505-a; 605-a; 705-a; 805-a; 905-a) and a user equipment, UE (515; 615; 715; 815; 915); determining a second connection exists or is pending between the UE (515; 615; 715; 815; 915) and the second eNodeB (505-b; 605-b; 705-b; 805-b; 905-b) by communicating with the UE or the second eNodeB, the second eNodeB (505-b; 605-b; 705-b; 805-b; 905-b) being associated with a local gateway (520-b; 620-b; 720-b; 820-b; 920-b) and the second connection providing additional radio resources for the UE (515; 615; 715; 815; 915) while the UE (515; 615; 715; 815; 915) is connected to the first eNodeB (505-a; 605-a; 705-a; 805-a; 905-a); and transmitting to a mobility management entity, MME, (545; 645; 745; 845; 945) based at least in part on the determining, a message associating a network address for the local gateway (520-b; 620-b; 720-b; 820-b; 920-b) of the second eNodeB (505-b; 605-b; 705-b; 805-b; 905-b) with SIPTO connectivity for the UE (515; 615; 715; 815; 915). establishing a first connection between the first eNodeB (505-a; 605-a; 705-a; 805-a; 905-a) and a user equipment, UE (515; 615; 715; 815; 915); determining a second connection exists or is pending between the UE (515; 615; 715; 815; 915) and the second eNodeB (505-b; 605-b; 705-b; 805-b; 905-b) by communicating with the UE or the second eNodeB, the second eNodeB (505-b; 605-b; 705-b; 805-b; 905-b) being associated with a local gateway (520-b; 620-b; 720-b; 820-b; 920-b) and the second connection providing additional radio resources for the UE (515; 615; 715; 815; 915) while the UE (515; 615; 715; 815; 915) is connected to the first eNodeB (505-a; 605-a; 705-a; 805-a; 905-a); and transmitting to a mobility management entity, MME, (545; 645; 745; 845; 945) based at least in part on the determining, a message associating a network address for the local gateway (520-b; 620-b; 720-b; 820-b; 920-b) of the second eNodeB (505-b; 605-b; 705-b; 805-b; 905-b) with SIPTO connectivity for the UE (515; 615; 715; 815; 915).
Unit for detecting geometric characteristics of a component (T, W) of a tired wheel of a vehicle, comprising: - a casing or housing box internally defining at least one housing zone and externally defining an advancing path section of a tired wheel, - at least one lighting means set to illuminate a portion of a component (T, W) of a tired wheel, - at least one sensor means set to detect geometric characteristics of a component (T, W) of a tired wheel of a vehicle illuminated by means of said at least one lighting means, - at least one protection screen or glass component (5, 6) for said at least one lighting means and/or for said at least one sensor means, - at least one means for delivering a cleaning fluid above said at least one protection screen component (5, 6), - means for activating said at least one delivery means, said at least one lighting means and/or said at least one sensor means being housed in said at least one housing zone, wherein said at least one protection screen component (5, 6) is mounted at an, in use, upper wall of said casing or housing box on one side defining said housing zone and on the other side an advancing path section of a tired wheel, such that said at least one protection screen component (5, 6) exits or emerges outside said casing, while said at least one means for delivering a cleaning fluid is set to act on the outside of said casing at the external surface (5a, 6a) of said at least one protection screen component (5, 6). - a casing or housing box internally defining at least one housing zone and externally defining an advancing path section of a tired wheel, - at least one lighting means set to illuminate a portion of a component (T, W) of a tired wheel, - at least one sensor means set to detect geometric characteristics of a component (T, W) of a tired wheel of a vehicle illuminated by means of said at least one lighting means, - at least one protection screen or glass component (5, 6) for said at least one lighting means and/or for said at least one sensor means, - at least one means for delivering a cleaning fluid above said at least one protection screen component (5, 6), - means for activating said at least one delivery means,
Foil arrangement for a board, having a mast which can be fastened by means of an adapter plate or similar to the board and which bears on its end remote from the adaptor plate a fuselage on which are fastened a front wing and a rear wing, wherein the mast has an end portion, which is designed to be set into a receptacle on the adapter plate side, wherein the end portion is set with a slide fit or a press-fit in a pocket of the adapter plate, characterised in that the adapter plate is adhesively bonded with the mast, wherein the adhesive bonding takes place in the overlap region between the end portion and the pocket, wherein the end portion is supported on a floor of the pocket or on the adapter plate, wherein the mast consists of a metallic material, preferably an aluminium alloy.
A brain function-improving agent, food, or medicine having a lipopolysaccharide constituted of Pantoea LPS as an effective component for use in a method of improving brain function by oral administration or buccal administration, wherein said method is for preventing Alzheimer's disease.
Process for producing methanol from an input gas comprising carbon monoxide and hydrogen (H 2), wherein input gas produced at and under elevated pressure is introduced into a pre-reactor stage as an input gas stream for catalytic conversion into a first methanol-containing product stream and methanol is separated from the first methanol-containing product stream and discharged from the pre-reactor stage and residual gas of the remaining input gas stream is compressed to reaction pressure as a residual gas stream and introduced into a main reactor stage for catalytic conversion into a second methanol-containing product stream and methanol is separated from the second methanol-containing product stream and discharged from the main reactor stage, characterized in that the input gas has a carbon monoxide content of 25% to 36% by volume before introduction into the pre-reactor stage. input gas produced at and under elevated pressure is introduced into a pre-reactor stage as an input gas stream for catalytic conversion into a first methanol-containing product stream and methanol is separated from the first methanol-containing product stream and discharged from the pre-reactor stage and residual gas of the remaining input gas stream is compressed to reaction pressure as a residual gas stream and introduced into a main reactor stage for catalytic conversion into a second methanol-containing product stream and methanol is separated from the second methanol-containing product stream and discharged from the main reactor stage, characterized in that the input gas has a carbon monoxide content of 25% to 36% by volume before introduction into the pre-reactor stage.
Apparatus for the targeted application of flowable material to be scattered, such as seed, wherein the apparatus comprises a material application device having a housing having at least one internal guide surface and at least one exit opening for the exit of the material to be scattered, and a swirl device, arranged in the housing, for swirling the material to be scattered, characterised in that the housing of the material application device is cylindrical and has a circumferential cylindrical wall having an inner side and an outer side, and an exit opening which in the operating position is at the bottom, wherein the inner side of the circumferential cylindrical wall serves as the guide surface for the material to be scattered in order to direct the material to be scattered in the direction towards the bottom exit opening, there is provided and coupled with the swirl device at least one device for accelerating the material to be scattered in the form of an air stream, by means of which the material to be scattered is transportable or is transported, the swirl device serves to distribute the material to be scattered over the cross section of the housing and of the guide surface of the housing and comprises at least one baffle plate (21, 22, 25) for deflecting and reducing the speed of travel of the material to be scattered, and the at least one guide surface of the housing of the material application device is so arranged relative to the at least one exit region of the material to be scattered from the swirl device that the material to be scattered, on exiting the swirl device, strikes the at least one guide surface, is deflected and limited in respect of its scatter circle, and the material to be scattered exits the material application device in a flowing manner in a region delimited by the diameter (d) of the at least one exit opening of the housing of the material application device for the areally delimited and uniform application of the material to be scattered to an area of ground beneath the material application device.
A clamping device for clamping a workpiece, comprising a rotatably and axially non-displaceably mounted spindle with a threaded portion having a thread, a drive motor having a rotor for rotating the spindle, and a non-rotatably held spindle nut which co-operates with the thread of the spindle, wherein by rotation of the spindle there is adjustable a clamping element (11, 43) for clamping the workpiece, the clamping element being connected with the spindle nut or formed on the spindle nut, wherein the clamping device has a pulse unit (32, 51) with a rotary part (33, 52), which is mechanically coupled with the rotor of the drive motor, wherein for rotating the spindle by the pulse unit (32, 51) there is transmittable a rotary pulse to the spindle at least once per rotation of the rotary part (33, 52).
A method for implementing short message interaction by using a Radio Data System RDS, characterized in that the method comprises steps of: a source terminal receiving input information of a user, generating a first RDS data packet with authentication information and the input information, and sending the first RDS data packet to a target terminal and the target terminal receiving the first RDS data packet sent from the source terminal, and analyzing the first RDS data packet through the authentication information; wherein before the step of generating the first RDS data packet with the authentication information and the input information, the method further comprises steps of: when receiving the input information of the user, the source terminal generating a second RDS data packet with authentication information, and sending the second RDS data packet to the target terminal and the target terminal analyzing the second RDS data packet through the authentication information, and sending confirmation information to the source terminal after successfully analyzing the second RDS data packet. a source terminal receiving input information of a user, generating a first RDS data packet with authentication information and the input information, and sending the first RDS data packet to a target terminal and the target terminal receiving the first RDS data packet sent from the source terminal, and analyzing the first RDS data packet through the authentication information; wherein before the step of generating the first RDS data packet with the authentication information and the input information, the method further comprises steps of: when receiving the input information of the user, the source terminal generating a second RDS data packet with authentication information, and sending the second RDS data packet to the target terminal and the target terminal analyzing the second RDS data packet through the authentication information, and sending confirmation information to the source terminal after successfully analyzing the second RDS data packet.
An apparatus for intraocular lens selection, comprising: a biometer configured to obtain at least two pre-operative ocular measurement parameters for an eye; a user interface configured to obtain a lens selection parameter for the eye; an autorefractor configured to obtain a post-operative refraction of the eye; a memory; and a processor communicatively coupled to the biometer, the user interface, the autorefractor, and the memory, and configured to: determine an intraocular lens power based on a formula using the at least two pre-operative ocular measurement parameters; determine an estimated error of the formula using a deep learning machine trained on verified post-operative results including post-operative refractions corresponding to intraocular lens powers that are associated with at least two pre-operative ocular measurement parameters; adjust the lens selection parameter based on the estimated error; redetermine a final intraocular lens power based on the formula and the adjusted lens selection parameter; and correlate the at least two pre-operative ocular measurement parameters, the intraocular lens power, and the post-operative refraction as a training set. a biometer configured to obtain at least two pre-operative ocular measurement parameters for an eye; a user interface configured to obtain a lens selection parameter for the eye; an autorefractor configured to obtain a post-operative refraction of the eye; a memory; and a processor communicatively coupled to the biometer, the user interface, the autorefractor, and the memory, and configured to: determine an intraocular lens power based on a formula using the at least two pre-operative ocular measurement parameters; determine an estimated error of the formula using a deep learning machine trained on verified post-operative results including post-operative refractions corresponding to intraocular lens powers that are associated with at least two pre-operative ocular measurement parameters; adjust the lens selection parameter based on the estimated error; redetermine a final intraocular lens power based on the formula and the adjusted lens selection parameter; and correlate the at least two pre-operative ocular measurement parameters, the intraocular lens power, and the post-operative refraction as a training set. determine an intraocular lens power based on a formula using the at least two pre-operative ocular measurement parameters; determine an estimated error of the formula using a deep learning machine trained on verified post-operative results including post-operative refractions corresponding to intraocular lens powers that are associated with at least two pre-operative ocular measurement parameters; adjust the lens selection parameter based on the estimated error; redetermine a final intraocular lens power based on the formula and the adjusted lens selection parameter; and correlate the at least two pre-operative ocular measurement parameters, the intraocular lens power, and the post-operative refraction as a training set.
A tracking device, comprising: a communication interface encased in an encasement with a receptacle on two opposite sides of the encasement; a strap, comprising: a single thin elongated flexible sheet; interlocking links coupled to one side of the single thin elongated flexible sheets; a fiber optic cable extending from a first end of the one or more thin elongated flexible sheets to a second end of the one or more thin elongated flexible sheets; a head connected to each end of the one or more thin elongated flexible sheets; wherein the heads are configured to fit into the receptacles and lock the strap in the receptacles thus preventing the strap from sliding out of the receptacles; wherein the communication interface is configured to detect tampering with the strap by transmitting an optical signal through the fiber optic cable; and wherein the links are arranged in two rows along an elongated axis on one side of the thin elongated flexible sheet, forming a channel between the two rows for placing the fiber optic cable between the links. a communication interface encased in an encasement with a receptacle on two opposite sides of the encasement; a strap, comprising: a single thin elongated flexible sheet; interlocking links coupled to one side of the single thin elongated flexible sheets; a fiber optic cable extending from a first end of the one or more thin elongated flexible sheets to a second end of the one or more thin elongated flexible sheets; a head connected to each end of the one or more thin elongated flexible sheets; wherein the heads are configured to fit into the receptacles and lock the strap in the receptacles thus preventing the strap from sliding out of the receptacles; wherein the communication interface is configured to detect tampering with the strap by transmitting an optical signal through the fiber optic cable; a single thin elongated flexible sheet; interlocking links coupled to one side of the single thin elongated flexible sheets; a fiber optic cable extending from a first end of the one or more thin elongated flexible sheets to a second end of the one or more thin elongated flexible sheets; a head connected to each end of the one or more thin elongated flexible sheets; wherein the heads are configured to fit into the receptacles and lock the strap in the receptacles thus preventing the strap from sliding out of the receptacles; wherein the communication interface is configured to detect tampering with the strap by transmitting an optical signal through the fiber optic cable; and wherein the links are arranged in two rows along an elongated axis on one side of the thin elongated flexible sheet, forming a channel between the two rows for placing the fiber optic cable between the links.