mhurhangee/ep-ind-claims huggingface dataset:
Device for determining a rotation angle and/or a torque of a rotating part, comprising at least one angle detection means designed as an inductive sensor for detecting an angle position of the rotating part relative to a reference position and at least one means of indexing for indexing at a predetermined rotation, preferentially a 360° rotation of the rotating part relative to the reference position, where the angle detection means features a rotor connected in a torque-proof manner to the rotating part, with a base body (2.1) for fastening to the rotating part and several blades (2.2) extending radially outwards from the base body (2.1), and where at least one of the blades (2.2) of the rotor features a marking that can be detected by the means of indexing, characterized in that the means of indexing is designed as a capacitive sensor and a single blade (2.2) of the rotor features a marking that can be detected by the means of indexing, where a single blade (2.2) features an aperture delimited by a surrounding border as being the marking that can be detected by the means of indexing or all blades (2.2) apart from one single blade (2.2) feature an aperture delimited by a surrounding border as being the marking that can be detected by the means of indexing.
Mobile access control device for controlled entry and/or exit for a regulated and controlled inflow and outflow of visitors to a defined region, in particular a fair, exhibition or other event, in which the inflow and outflow of visitors to this event is intended to be handled in a controlled manner, the access control device being configured to release or block the access or exit after checking an access authorization by means of one or more barrier elements, and the access control device being able to be brought into a transport state and into an operating state, characterized in that the mobile access control device comprises a preferably at least substantially cuboidal hollow column, the hollow column being formed by two mutually spaced side elements (4, 5) and a rear wall, which is at least substantially fully covered on the rear wall thereof facing away from the access or exit passage and on the two side elements (4, 5) thereof, and the front side of which is closed by a base plate which is at least largely perpendicular when the access control device is in transport state and which is pivotably hinged in the lower region of the hollow column via a swivel joint in such a way that the base plate closes the control device on the underside in an at least largely horizontal orientation in the operating state, and in the process releases an opening facing the access or exit passage, such that a barrier element which is at least largely completely received in the hollow column in the transport state can be pivoted out or pulled out through said opening in such a way that the access or exit passage can be controlled by means of said barrier element.
An entertainment venue comprising a performance area and a spectator area both surrounding the performance area, wherein the spectator area includes a static spectator portion (2,3) and a dynamic spectator portion (4,5), the dynamic spectator portion including a track substrate defining a continuous loop around the performance area, a plurality of spectator pods adapted for movement around the loop relative to the track substrate; and a platform located adjacent to the track substrate, characterised in that each pod is spaced from and not physically connected to a neighbouring pod; and each pod includes at least one proximity sensor connected to a controller, the controller being adapted to maintain a predetermined minimum spacing between adjacent pods when the pods are in motion and/or detect a foreign object located between adjacent pods.
A method to manage a Circuit Switch Inter RAT, CS IRAT, handover of a user equipment, UE, from a 2G/3G network to a Long Term Evolution, LTE, network wherein at least two different routing paths corresponding to at least two different handover technologies are possible for transferring the Handover messages from a BSC/RNC node of said 2G/3G network to a target eNodeB of said LTE network, said method comprising: transmitting, by the UE, its CS IRAT handover from 2G/3G to LTE capabilities to the BSC/RNC node; selecting (36, 60, 102, 122), by the BSC/RNC node, a routing path among said different routing paths based on the UE capabilities for CS IRAT handover from 2G/3G to LTE and transmitting (38, 62, 102, 122) to a MSC/VLR node of said 2G/3G network a Handover message comprising information indicative of the selected path corresponding to the selected CS handover technology; and transferring (42, 66, 104, 134), by the MSC/VLR node, said Handover message to said target eNodeB through a MME node or through an IWF node depending on said information indicative of the selected path corresponding to the selected CS handover technology. transmitting, by the UE, its CS IRAT handover from 2G/3G to LTE capabilities to the BSC/RNC node; selecting (36, 60, 102, 122), by the BSC/RNC node, a routing path among said different routing paths based on the UE capabilities for CS IRAT handover from 2G/3G to LTE and transmitting (38, 62, 102, 122) to a MSC/VLR node of said 2G/3G network a Handover message comprising information indicative of the selected path corresponding to the selected CS handover technology; and transferring (42, 66, 104, 134), by the MSC/VLR node, said Handover message to said target eNodeB through a MME node or through an IWF node depending on said information indicative of the selected path corresponding to the selected CS handover technology.
A syringe dispenser for expressing an irrigant from a syringe which has a plunger movably positioned inside a barrel, the syringe dispenser comprising: an upper housing and a lower housing; a syringe mounting part disposed within the lower housing and configured to receive the barrel so that the syringe is mounted on the syringe mounting part; a slider disposed within the lower housing, the slider having a plunger receiving portion configured to receive the plunger when the syringe is mounted on the syringe mounting part, and a motor coupling disposed within the upper housing, the motor coupling having bearings configured to provide a friction fit with the inside of the upper housing and a compression spring, wherein the motor coupling is configured to engage a motor and to transfer an output of the motor to a threaded screw, wherein, the slider is connected to (i) one or more guide rods which are configured to confine a movement of the slider to a predetermined path and to (ii) said threaded screw which is configured to be operated by the motor coupling such that the slider moves forwards and backwards and creates a corresponding forwards and backwards movement of plunger in order to express the irrigant from the syringe. an upper housing and a lower housing; a syringe mounting part disposed within the lower housing and configured to receive the barrel so that the syringe is mounted on the syringe mounting part; a slider disposed within the lower housing, the slider having a plunger receiving portion configured to receive the plunger when the syringe is mounted on the syringe mounting part, and a motor coupling disposed within the upper housing, the motor coupling having bearings configured to provide a friction fit with the inside of the upper housing and a compression spring, wherein the motor coupling is configured to engage a motor and to transfer an output of the motor to a threaded screw, wherein, the slider is connected to (i) one or more guide rods which are configured to confine a movement of the slider to a predetermined path and to (ii) said threaded screw which is configured to be operated by the motor coupling such that the slider moves forwards and backwards and creates a corresponding forwards and backwards movement of plunger in order to express the irrigant from the syringe.
An XDI-terminated polyurethane represented by the following formula: and based on methylene diphenyl diisocyanate or based on a mixture of meta-xylylene diisocyanate and methylene diphenyl diisocyanate, said polyurethane not being solid at a temperature ranging from 5°C to 35°C, said polyurethane being such that the NCO function in said formula originates from the reaction between an XDI compound and an OH-terminated preformed polyurethane prepolymer, said polyurethane being characterized in that it is obtained from XDI and MDI such that the XDI/(XDI+MDI) molar ratio ranges from 16% to 25% or is strictly greater than 50%.
Heat exchanger for cooling a working medium by means of a cooling medium with separation of the mediums, - comprising a housing having a housing casing, a working medium inlet, a working medium outlet, a cooling medium inlet and a cooling medium outlet, - comprising a heat exchanger block which is located in the inside of the housing and has a front end cap near the working medium inlet and a rear end cap remote from the working medium inlet, as well as multiple working medium pipes for carrying the working medium, which pipes pass through the two end caps (9, 10) and are securely connected to the two end caps (9, 10), - wherein a working medium path leads from the working medium inlet internally through the working medium pipes to the working medium outlet, - wherein a cooling medium path leads from the cooling medium inlet externally around the working medium pipes to the cooling medium outlet, - wherein a first axial ring seal is arranged axially between an edge of the rear base, said edge running around and projecting radially over the working medium pipes, and a step on the housing, said step running around along the edge, characterised in that the housing has at least one clip-in contour in its inside in the region of the step, which cooperates with a mating clip-in contour on the edge on a rear side of the edge facing away from the first ring seal. - comprising a housing having a housing casing, a working medium inlet, a working medium outlet, a cooling medium inlet and a cooling medium outlet, - comprising a heat exchanger block which is located in the inside of the housing and has a front end cap near the working medium inlet and a rear end cap remote from the working medium inlet, as well as multiple working medium pipes for carrying the working medium, which pipes pass through the two end caps (9, 10) and are securely connected to the two end caps (9, 10), - wherein a working medium path leads from the working medium inlet internally through the working medium pipes to the working medium outlet, - wherein a cooling medium path leads from the cooling medium inlet externally around the working medium pipes to the cooling medium outlet, - wherein a first axial ring seal is arranged axially between an edge of the rear base, said edge running around and projecting radially over the working medium pipes, and a step on the housing, said step running around along the edge, characterised in that the housing has at least one clip-in contour in its inside in the region of the step, which cooperates with a mating clip-in contour on the edge on a rear side of the edge facing away from the first ring seal.
A terminal structure of a high-pressure fuel pipe for a direct injection engine where a connection head is brazed to an end of a fuel pipe composed of a steel pipe or a stainless pipe, the connection head having a spherical or a curved-face pressing seat face at a distal end thereof and a fuel pipe insertion portion on the opposite side of the pressing seat face, wherein the end of the fuel pipe continued to the fuel pipe insertion portion of the connection head is provided with a one-stage drawn portion, an outer diameter D1 of the drawn portion relative to a fuel pipe diameter D satisfying 0.8D ≤ D1 ≤ 0.9D, characterized in that the drawn portion has a straight pipe portion satisfying that a length L1 of the drawn portion having the outer diameter D1 from an end of the fuel pipe insertion portion in an axial direction of the pipe satisfies L1 ≥ 0.06D, and in that a linear length L2 in the axial direction of the pipe from a terminal end, on the opposite side to the connection head, of the length L1 of the drawn portion having the outer diameter D1 in the axial direction of the pipe, to a drawing-termination end, is 0.14D or more, and an entire length (L1 + L2) of the drawn portion is 1.5D or less.
A computer-implemented method of determining the location of a mobile device comprising a camera, comprising the steps of: capturing, using the camera, a sequence of images over a period of time; for pairs of consecutive images from the sequence of images, determining, using a convolutional neural network, features indicative of the motion of the device between the time the first image of the pair of images was captured and the time the second image of the pair of images was captured; for the sequence of images, determining, using a recurrent neural network, features indicative of the location of the device from the features determined by the convolutional neural network; for the sequence of images, determining the location of the device from the features determined by the recurrent neural network; determining, from the features determined by the recurrent neural network, relative location and orientation information for the device for each pair of consecutive captured images; and determining corresponding uncertainty information for the relative location and orientation information for each pair of consecutive captured images. capturing, using the camera, a sequence of images over a period of time; for pairs of consecutive images from the sequence of images, determining, using a convolutional neural network, features indicative of the motion of the device between the time the first image of the pair of images was captured and the time the second image of the pair of images was captured; for the sequence of images, determining, using a recurrent neural network, features indicative of the location of the device from the features determined by the convolutional neural network; for the sequence of images, determining the location of the device from the features determined by the recurrent neural network; determining, from the features determined by the recurrent neural network, relative location and orientation information for the device for each pair of consecutive captured images; and determining corresponding uncertainty information for the relative location and orientation information for each pair of consecutive captured images.
Bumper assembly for a motor vehicle, having a main cross beam and an auxiliary cross beam arranged underneath, which are coupled to one another via vertical struts, wherein the bumper assembly is coupled to the motor vehicle via crash boxes, characterised in that the vertical strut is configured as a separate hollow profile, wherein the hollow profile has two wall surfaces (8, 9) spaced apart from one another in the longitudinal direction of the motor vehicle, wherein a tow lug bush extends through both wall surfaces (8, 9).
A control signaling transmission method, comprising: determining, by a base station, a plurality sets of candidate enhanced Physical Downlink Control Channel, ePDCCH, resource regions; notifying, by the base station, the plurality sets of candidate ePDCCH resource regions to a terminal, or notifying a set of candidate ePDCCH resource regions and a criterion to the terminal so that the terminal determines one or more other sets of candidate ePDCCH resource regions according to the notified set of candidate ePDCCH resource regions and the criterion; determining, by the base station, one set of ePDCCH resource regions of the terminal in a current subframe from the plurality sets of candidate ePDCCH resource regions according to parameter(s) including an aggregation level configuration needed to be detected by the terminal and/or a subframe type of the current subframe, and transmitting, by the base station, control signaling to the terminal on some or all of the resources in the determined one set of ePDCCH resource regions; so that, after the terminal receives the control signaling transmitted by the base station, the terminal detects the received control signaling in the same set of ePDCCH resource regions which is determined by the terminal according to the same parameter(s) from the plurality sets of candidate ePDCCH resource regions received from the base station or determined according to the notified set of candidate ePDCCH resource regions and the criterion. determining, by a base station, a plurality sets of candidate enhanced Physical Downlink Control Channel, ePDCCH, resource regions; notifying, by the base station, the plurality sets of candidate ePDCCH resource regions to a terminal, or notifying a set of candidate ePDCCH resource regions and a criterion to the terminal so that the terminal determines one or more other sets of candidate ePDCCH resource regions according to the notified set of candidate ePDCCH resource regions and the criterion; determining, by the base station, one set of ePDCCH resource regions of the terminal in a current subframe from the plurality sets of candidate ePDCCH resource regions according to parameter(s) including an aggregation level configuration needed to be detected by the terminal and/or a subframe type of the current subframe, and transmitting, by the base station, control signaling to the terminal on some or all of the resources in the determined one set of ePDCCH resource regions;
A myostatin inhibitor that is selective for myostatin for use in a method for treating spinal muscular atrophy in a subject, wherein the selective myostatin inhibitor is to be administered in an amount effective to treat SMA, wherein the subject is: (i) on a SMN corrector therapy or is treated with a SMN corrector therapy within six months of the myostatin inhibitor; and (ii) in a growth phase and/or in need of receiving a long-term therapy, wherein optionally the long-term therapy involves life-time management of SMA, wherein the selective myostatin inhibitor is: (a) an antibody, or antigen-binding portion thereof, that binds pro- or latent myostatin, thereby inhibiting activation of myostatin; or (b) an antibody, or antigen-binding portion thereof, that binds mature myostatin; and wherein the SMN corrector therapy comprises: i) a splice modifier; ii) an SMN gene replacement or gene therapy; iii) an SMN transcription enhancer; iv) an SMN protein translation enhancer; or, v) an SMN protein stabilizer. (a) an antibody, or antigen-binding portion thereof, that binds pro- or latent myostatin, thereby inhibiting activation of myostatin; or (b) an antibody, or antigen-binding portion thereof, that binds mature myostatin; and wherein the SMN corrector therapy comprises: i) a splice modifier; ii) an SMN gene replacement or gene therapy; iii) an SMN transcription enhancer; iv) an SMN protein translation enhancer; or, v) an SMN protein stabilizer. i) a splice modifier; ii) an SMN gene replacement or gene therapy; iii) an SMN transcription enhancer; iv) an SMN protein translation enhancer; or, v) an SMN protein stabilizer.
An imaging control device comprising: a control unit that is able, during a preparation stage before imaging and recordal onto a recording medium of a captured image starts, to adjust a parameter of a correction signal that will be used for correcting a flickering component included in the captured image; and a flickering correction unit configured to correct a flickering component on the captured image on a basis of the correction signal a control unit that is able, during a preparation stage before imaging and recordal onto a recording medium of a captured image starts, to adjust a parameter of a correction signal that will be used for correcting a flickering component included in the captured image; and a flickering correction unit configured to correct a flickering component on the captured image on a basis of the correction signal
A method of obtaining radiation transmission data of an object comprising the steps of: providing a source of high energy ionizing electromagnetic radiation and a radiation detector system (21; 3a, 3b, 3c) spaced therefrom to define a scanning zone therebetween, the detector system being capable of detecting and collecting spectroscopically resolvable information about incident radiation; collecting a dataset of information about radiation incident at the detector and hence transmissivity of an object in the scanning zone at at least one and preferably a plurality of scanning positions from radiation transmitted through the object and received at the detector system (21; 3a, 3b, 3c); resolving each such dataset spectroscopically across a plurality of frequency bands (b1 to b5; c1 to c3) within the spectrum of the source; wherein at least one of the said plurality of frequency bands corresponds to a characteristic Bragg scattered wavelength of a target species to be identified, and wherein a reduction in amplitude in a transmitted signal intensity at the characteristic frequency band is determined numerically by comparison with a known source spectrum and/or with reference to the transmitted intensity data in the vicinity of the characteristic frequency band and a result indicating the presence of the said target species is consequently generated. providing a source of high energy ionizing electromagnetic radiation and a radiation detector system (21; 3a, 3b, 3c) spaced therefrom to define a scanning zone therebetween, the detector system being capable of detecting and collecting spectroscopically resolvable information about incident radiation; collecting a dataset of information about radiation incident at the detector and hence transmissivity of an object in the scanning zone at at least one and preferably a plurality of scanning positions from radiation transmitted through the object and received at the detector system (21; 3a, 3b, 3c); resolving each such dataset spectroscopically across a plurality of frequency bands (b1 to b5; c1 to c3) within the spectrum of the source; wherein at least one of the said plurality of frequency bands corresponds to a characteristic Bragg scattered wavelength of a target species to be identified, and wherein a reduction in amplitude in a transmitted signal intensity at the characteristic frequency band is determined numerically by comparison with a known source spectrum and/or with reference to the transmitted intensity data in the vicinity of the characteristic frequency band and a result indicating the presence of the said target species is consequently generated.
A side guide device capable of forming straight or curved guide sections for conveyors, comprising a support extending along an axis, the said support having a substantially and/or generally constant transverse cross-section and being bendable; the said support having a first side on which there is at least one sliding surface (π1, π2), the said sliding surface (π1, π2) being defined by a plurality of rotating bodies mounted so as to idle on a plurality of axes that are substantially parallel to each other; said support comprising a second side opposite the said first side capable of being engaged by at least two brackets; said support being made from a material based on thermoplastic polymer; said second side of said support comprising a seat extending along the said axis capable of receiving a reinforcing metal section; said device being characterised in that the said second side of the said support comprises two prominences capable of being engaged by the said brackets and defining the said seat intended to receive the said metal section, in which the said two prominences have a substantially and/or generally "T"-shaped transverse cross-section.