mhurhangee/ep-ind-claims huggingface dataset:
A device for providing protection against contamination of a taper contact surface with blood or tissue particles present in a surgical wound, the device comprising: a flexible conical hollow sleeve adapted to be applied over said taper contact surface, wherein said taper contact surface is a male Morse taper; a circular rim, wherein said circular rim is firmly attached to the outer surface of the narrow top end of said flexible conical hollow sleeve characterized in that said flexible conical hollow sleeve is constructed from a soft, flexible, extendable and malleable polymeric material such as silicone, rubber and other soft and flexible polymers. a flexible conical hollow sleeve adapted to be applied over said taper contact surface, wherein said taper contact surface is a male Morse taper; a circular rim, wherein said circular rim is firmly attached to the outer surface of the narrow top end of said flexible conical hollow sleeve characterized in that said flexible conical hollow sleeve is constructed from a soft, flexible, extendable and malleable polymeric material such as silicone, rubber and other soft and flexible polymers.
A method for identifying an RFID card as a passive RFID card or an active RFID card, the method comprising the steps of: sending a first RFID command, while keeping an RFID field on; receiving, from each of the at least one passive RFID card and the at least one active RFID cards, a corresponding first answering signal; populating a first list with each corresponding first answering signal from the at least one passive RFID card and the at least one active RFID cards; sending a second RFID command, wherein the RFID field is paused for a predefined pausing period after sending the second RFID command; receiving, from the at least one active RFID cards, a corresponding second answering signal; populating a second list with each corresponding second answering signal from the at least one active RFID cards; comparing the entries of the first list with the entries of the second list; identifying each of the at least one passive RFID card by having its corresponding first answering signal in the first list but not in the second list. sending a first RFID command, while keeping an RFID field on; receiving, from each of the at least one passive RFID card and the at least one active RFID cards, a corresponding first answering signal; populating a first list with each corresponding first answering signal from the at least one passive RFID card and the at least one active RFID cards; sending a second RFID command, wherein the RFID field is paused for a predefined pausing period after sending the second RFID command; receiving, from the at least one active RFID cards, a corresponding second answering signal; populating a second list with each corresponding second answering signal from the at least one active RFID cards; comparing the entries of the first list with the entries of the second list; identifying each of the at least one passive RFID card by having its corresponding first answering signal in the first list but not in the second list.
A housing assembly for a small kitchen appliance, comprising at least two shell parts, a base plate, a cover plate and a transparent plate, wherein the shell parts are configured to form a receiving area for receiving the base plate, characterized in that the cover plate on its lower end comprises a recessed portion of an essentially dovetail form for receiving the transparent plate, the recessed portion having cut-outs on its lateral sides adapted for engaging with lateral protrusions of the transparent plate and the cover plate having a groove adjacent to a periphery of the recessed portion adapted for engaging with a projection of the transparent plate to form an inseparable form-fitting attachment, wherein the so attached cover plate and the transparent plate are attachable to the base plate.
A method comprising: receiving, by an operating system, a plurality of data structures from a plurality of applications (210-1, 210-2, 210-N) executing on the operating system, wherein each of the plurality of data structures includes a declarative definition of one or more objects (100A, 100C) within a volumetric space to be displayed to a user of the operating system; generating, by the operating system, a render graph comprising the declarative definition of each of the plurality of data structures; and causing, by the operating system, one or more images of the one or more objects (100A, 100C) associated with each of the plurality of data structures to be rendered based on the render graph and a pose of the user relative to the volumetric space; characterized in that: the declarative definitions comprised in the render graph represent how the one or more objects (100A, 100C) should appear to a user from multiple perspectives in the volumetric space; and the method further comprises: determining, by the operating system, a second pose of the user while at least one of the plurality of applications (210-1, 210-2, 210-N) is in a sleep mode; and causing, by the operating system, one or more second images of the one or more objects (100A, 100C) associated with each of the plurality of data structures to be rendered based on the render graph and the second pose of the user relative to the volumetric space. receiving, by an operating system, a plurality of data structures from a plurality of applications (210-1, 210-2, 210-N) executing on the operating system, wherein each of the plurality of data structures includes a declarative definition of one or more objects (100A, 100C) within a volumetric space to be displayed to a user of the operating system; generating, by the operating system, a render graph comprising the declarative definition of each of the plurality of data structures; and causing, by the operating system, one or more images of the one or more objects (100A, 100C) associated with each of the plurality of data structures to be rendered based on the render graph and a pose of the user relative to the volumetric space; characterized in that: the declarative definitions comprised in the render graph represent how the one or more objects (100A, 100C) should appear to a user from multiple perspectives in the volumetric space; and determining, by the operating system, a second pose of the user while at least one of the plurality of applications (210-1, 210-2, 210-N) is in a sleep mode; and causing, by the operating system, one or more second images of the one or more objects (100A, 100C) associated with each of the plurality of data structures to be rendered based on the render graph and the second pose of the user relative to the volumetric space.
Front shock-absorber assembly for a motor vehicle comprising, at each of the right-hand and left-hand sides thereof, at least a lower longitudinal structural element (6, 7) and an upper longitudinal structural element (4, 5), the front shock-absorber assembly comprising a high-energy impact absorption structure which comprises an elongate right-hand plate (18, 118) and an elongate left-hand plate (19, 119), each plate being fixedly joined to a lower longitudinal element and an upper longitudinal element located at the same side of the vehicle; a deformable right-hand element (30, 130) and a deformable left-hand element (31, 131) for absorbing medium-energy impacts; and a framework (16; 116) for absorbing low-energy impacts, characterised in that a rear surface of a deformable element being in abutment against the majority of a front surface of an associated plate, and in that the framework is fixed to the structure (12; 112) so that, in the event of an impact, a rear surface of the framework moves into abutment against a front surface of the deformable elements (30, 31; 130, 131).
A method, implemented with the assistance of a computer, of determining an effective orthodontic treatment comprising: a) storing first positions of a patient's teeth; b) displaying the patient's teeth according to the first positions; c) selecting orthodontic appliances according to a proposed orthodontic treatment of the patient's teeth; d) storing second positions of the patient's teeth, wherein the second positions are desired positions, the selected Orthodontic appliances being configured to be installed on the patient's teeth in the second positions; and, e) performing a finite element analysis to assess effects on the orthodontic appliances and on the patient's teeth based on the first and second positions and on the proposed Orthodontic treatment, wherein the performing of the finite element analysis comprises performing the finite element analysis based on a movement of the patient's teeth from the second positions to the first positions, and wherein the performing of the finite element analysis comprises performing the finite element analysis in two stages, wherein the first stage determines deformation of archwires, and wherein the second stage determine stresses, strains, forces, and/or moments on the proposed set of orthodontic appliances and on the patient's teeth, periodontic ligament structure, and bone as a result of the deformation. a) storing first positions of a patient's teeth; b) displaying the patient's teeth according to the first positions; c) selecting orthodontic appliances according to a proposed orthodontic treatment of the patient's teeth; d) storing second positions of the patient's teeth, wherein the second positions are desired positions, the selected Orthodontic appliances being configured to be installed on the patient's teeth in the second positions; and, e) performing a finite element analysis to assess effects on the orthodontic appliances and on the patient's teeth based on the first and second positions and on the proposed Orthodontic treatment, wherein the performing of the finite element analysis comprises performing the finite element analysis based on a movement of the patient's teeth from the second positions to the first positions, and
A package for housing an electronic component, comprising: a substrate part comprising an insulating substrate made from a ceramic sintered body that comprises a recess portion, and a wiring conductor provided on the insulating substrate; a metal portion made from a sintered body of a getter metal material directly bonded to the recess portion; and a cavity portion provided on an inner surface of the recess portion, wherein the metal portion is positioned within the cavity portion, wherein the inner surface of the recess portion comprises a side face and a bottom face, the side face comprising a step-shaped portion, the step-shaped portion comprising a top face and a side face, the side face of the step-shaped portion extending between the top face of the step-shaped portion and the bottom face of the recess portion, the cavity portion is provided on the side face of the step-shaped portion, the wiring conductor is provided on the top face of the step-shaped portion, the top face of the step-shaped portion has a polygonal frame shape in a plan view, and the metal portion and the wiring conductor are electrically insulated from one another. a substrate part comprising an insulating substrate made from a ceramic sintered body that comprises a recess portion, and a wiring conductor provided on the insulating substrate; a metal portion made from a sintered body of a getter metal material directly bonded to the recess portion; and a cavity portion provided on an inner surface of the recess portion, wherein the metal portion is positioned within the cavity portion, wherein the inner surface of the recess portion comprises a side face and a bottom face, the side face comprising a step-shaped portion, the step-shaped portion comprising a top face and a side face, the side face of the step-shaped portion extending between the top face of the step-shaped portion and the bottom face of the recess portion, the cavity portion is provided on the side face of the step-shaped portion, the wiring conductor is provided on the top face of the step-shaped portion, the top face of the step-shaped portion has a polygonal frame shape in a plan view, and the metal portion and the wiring conductor are electrically insulated from one another.
A lock for a container, in particular for a carrying container in the form of a tornister, a backpack or the like, comprising a receiving unit adapted to be secured to a wall of the container and an engagement unit, adapted to be secured to a container lid movable relative to the wall and releasably engaged with the receiving unit, the engagement unit having an outwardly projecting and rotatably supported mandrel which is rotatably movable between an unlocking position and a locking position, accommodates a first magnet and is provided on its circumferential surface with at least three guide grooves which are distributed over the circumference, are each open at their end facing the front free end of the mandrel and extend from there in the manner of a spiral section in the direction of the rear end of the mandrel, and wherein the receiving unit comprises a recess receiving the mandrel, the shape of which recess is adapted to the shape of the mandrel, a second magnet cooperating in a holding manner with the first magnet, which second magnet is arranged in the region of the bottom of the recess, and a number of engagement elements corresponding to the number of guide grooves, which engagement elements are formed and positioned in such a manner that in the unlocked position of the mandrel they engage with the guide grooves provided on the mandrel when the mandrel is inserted into the recess and are then moved within the guide grooves when the mandrel is transferred into its locked position, wherein the transfer of the mandrel from the unlocked position to the locked position is assisted by the increasing magnetic attraction of the mutually attracting magnets (9, 30) and the mandrel is held in its locked position by the magnets (9, 30) upon reaching the locked position.
A method for function testing of a brake of a motor driving a load, wherein a value of a basic characteristic is associated with the respective operating state of the motor, wherein in a first step a first value of the basic characteristic is determined, wherein the motor if this first value of the basic characteristic is present holds the load counter to the force of gravity, in a second step the brake is applied at a first position of the motor, in a third step a second value of the basic characteristic is specified to the motor, so that the motor acts counter to the applied brake, in a fourth step the position of the motor is determined as second position after application of the second value and is compared with the first position, characterised in that the basic characteristic is a motor current, a flux, a DC voltage, a magnetisation, a fluid pressure, a torque or a similar state variable, the second value of the basic characteristic being determined in such a way that it amounts to a multiple of the first value of the basic characteristic, the second value of the basic characteristic being determined in such a way that the action of the motor is directed in the opposite direction to the action of the motor when providing the first value, the function test having a plurality of parts, the second value of the basic characteristic of each of these parts being changed, as a result of which the different safety stages are represented in the motor with the brake, the change increasing monotonically in terms of amount, the function test being deemed to have been passed if the position of the motor at the conclusion of the function test is the first position and if the position of the motor remains unchanged during all the parts, the motor being supplied from a device which feeds the motor, which controls the value of the basic characteristic.
An apparatus, comprising: a left side strap; a left pivot point located on the left side strap; a right side strap; a right pivot point located on the right side strap; a lower front strap; a lower left attachment point located on the lower front strap, the lower left attachment point being pivotally connected to the left pivot point; a lower right attachment point located on the lower front strap, the lower right attachment point being pivotally connected to the right pivot point; an upper front strap; an upper left attachment point located on the upper front strap, the upper left attachment point being pivotally connected to the left pivot point; and an upper right attachment point located on the upper front strap, the upper right attachment point being pivotally connected to the right pivot point, characterized in that the lower front strap and the upper front strap are independently movable, so the two front straps (1310, 1410) can be positioned independently at different angles. a left side strap; a left pivot point located on the left side strap; a right side strap; a right pivot point located on the right side strap; a lower front strap; a lower left attachment point located on the lower front strap, the lower left attachment point being pivotally connected to the left pivot point; a lower right attachment point located on the lower front strap, the lower right attachment point being pivotally connected to the right pivot point; an upper front strap; an upper left attachment point located on the upper front strap, the upper left attachment point being pivotally connected to the left pivot point; and an upper right attachment point located on the upper front strap, the upper right attachment point being pivotally connected to the right pivot point, characterized in that the lower front strap and the upper front strap are independently movable, so the two front straps (1310, 1410) can be positioned independently at different angles.
A method performed by a remote radio unit, RRU, of a distributed base station system of a wireless communication network, the distributed base station system further comprising a base band unit, BBU, connected to the RRU over a fronthaul link, the RRU being connected to N antennas (121, 122, 123), the method comprising: obtaining uplink signals y as received at the N antennas (121, 122, 123) from a number of User Equipments (UEs) (131, 132, 133) wirelessly connected to the RRU, the uplink signals comprising K user-layer signals overlaid with interference signals and noise; obtaining a channel estimation matrix Ĥ of wireless communication channels H between the number UEs (131, 132, 133) and the N antennas (121, 122, 123); determining an error estimation matrix Z based on the obtained channel estimation matrix Ĥ, and on received reference signals y ref, l as received at the N antennas from the number of UEs, the received reference signals having L symbols, L being smaller than N; determining intermediate signals ỹ, based on the uplink signals y, the channel estimation matrix Ĥ and the error estimation matrix Z, and sending to the BBU over the fronthaul link, the determined intermediate signals ỹ, wherein the determining of the intermediate signals ỹ comprises multiplying the received incoming signal y with the transpose and conjugate A ∗ of an extended channel matrix A, which is obtained based on the channel estimation matrix Ĥ and the error estimation matrix Z, wherein the extended channel matrix A is obtained as A = [Ĥ Z] or A = [Ĥ G R], wherein G R is is a first part matrix, G R =U R Σ R, of a singular value decomposition of Z, Z=U R Σ R V, and Σ R is an MxM diagonal matrix composed by the M largest singular values of Z, wherein M is smaller than L. obtaining uplink signals y as received at the N antennas (121, 122, 123) from a number of User Equipments (UEs) (131, 132, 133) wirelessly connected to the RRU, the uplink signals comprising K user-layer signals overlaid with interference signals and noise; obtaining a channel estimation matrix Ĥ of wireless communication channels H between the number UEs (131, 132, 133) and the N antennas (121, 122, 123); determining an error estimation matrix Z based on the obtained channel estimation matrix Ĥ, and on received reference signals y ref, l as received at the N antennas from the number of UEs, the received reference signals having L symbols, L being smaller than N; determining intermediate signals ỹ, based on the uplink signals y, the channel estimation matrix Ĥ and the error estimation matrix Z, and
A distributed antenna switch comprising: a plurality of first interfaces (304, 402), each of the plurality of first interfaces (304, 402) configured to receive a downlink serialized data stream from a different network interface across a different first digital communication link; a first plurality of downlink selector/summer functions, each configurable to operate as at least one of a downlink selector and a downlink summer; while operating as a downlink selector, any of the first plurality of downlink selector/summer functions are configured to generate an aggregate downlink serialized data stream by selecting and interleaving portions of at least two of the plurality of downlink serialized data streams into the aggregate downlink serialized data stream; while operating as a downlink summer, any of the first plurality of downlink selector/summer functions are configured to generate the aggregate downlink serialized data stream by digitally summing data from timeslots of at least two of the plurality of downlink serialized data streams into the aggregate downlink serialized data stream; and at least one second interface (306, 406), the at least one second interface (306, 406) configured to communicate the aggregate downlink serialized data stream to a remote antenna unit over a second digital communication link. a plurality of first interfaces (304, 402), each of the plurality of first interfaces (304, 402) configured to receive a downlink serialized data stream from a different network interface across a different first digital communication link; a first plurality of downlink selector/summer functions, each configurable to operate as at least one of a downlink selector and a downlink summer; while operating as a downlink selector, any of the first plurality of downlink selector/summer functions are configured to generate an aggregate downlink serialized data stream by selecting and interleaving portions of at least two of the plurality of downlink serialized data streams into the aggregate downlink serialized data stream; while operating as a downlink summer, any of the first plurality of downlink selector/summer functions are configured to generate the aggregate downlink serialized data stream by digitally summing data from timeslots of at least two of the plurality of downlink serialized data streams into the aggregate downlink serialized data stream; and at least one second interface (306, 406), the at least one second interface (306, 406) configured to communicate the aggregate downlink serialized data stream to a remote antenna unit over a second digital communication link.
A telecommunications module comprising at least one pair of contact elements (13, 15) each extending between opposed sides (7, 8) of the module and having contacts (9, 10) at each end to which connections can be made, wherein each contact element comprises first and second parts, the first part being resiliently-biased into engagement with the second part at a disconnection point and wherein a separating member is located between the disconnection points of the pair of contact elements; the separating member being shaped to deflect a probe, inserted into the module from one of the opposed sides, towards the disconnection point of a selected one of the pair of contact elements (13, 15) to break the engagement between the first and second parts (17, 19) of that contact element, wherein the separating member has a tapered probe-deflecting end directed towards the said one of the opposed sides (7, 8) of the module.