mhurhangee/ep-ind-claims huggingface dataset:
A cryptographic device arranged to compute ( f K) a key -dependent cryptographic function ( f) for an input message, the cryptographic device comprising - a data store arranged to store multiple variables ( w) on which the cryptographic device acts to compute the cryptographic function, a variable ( w) being distributed over multiple shares ( w j) and represented in the data store as multiple encoded shares ( x j), an encoded share being an encoding ( x j = Enc j ( w i,s i)) of a share ( w j) together with a state ( s j), the multiple states ( s j) corresponding to the same variable ( w) having a relationship with the input message so that there exists an injective mapping (∑) from the input message to the multiple states (∑ = ( s 0,..., s n -1)), - a table store storing multiple look-up tables, a look-up table taking as input one or more encoded shares of one or more variables, the multiple look-up tables together forming a table network implementing the cryptographic function, the table network performing operations on the multiple shares ( w j) of the encoded variable ( w) and simultaneously performing redundant operations on the multiple states ( s j) maintaining an injective mapping from the input message to the multiple states, - a control unit configured to apply the cryptographic function to the input message by applying the multiple look-up tables to the variables represented in the data store. - a data store arranged to store multiple variables ( w) on which the cryptographic device acts to compute the cryptographic function, a variable ( w) being distributed over multiple shares ( w j) and represented in the data store as multiple encoded shares ( x j), an encoded share being an encoding ( x j = Enc j ( w i,s i)) of a share ( w j) together with a state ( s j), the multiple states ( s j) corresponding to the same variable ( w) having a relationship with the input message so that there exists an injective mapping (∑) from the input message to the multiple states (∑ = ( s 0,..., s n -1)), - a table store storing multiple look-up tables, a look-up table taking as input one or more encoded shares of one or more variables, the multiple look-up tables together forming a table network implementing the cryptographic function, the table network performing operations on the multiple shares ( w j) of the encoded variable ( w) and simultaneously performing redundant operations on the multiple states ( s j) maintaining an injective mapping from the input message to the multiple states, - a control unit configured to apply the cryptographic function to the input message by applying the multiple look-up tables to the variables represented in the data store.
Connector system for attaching a withdrawal device to a container for a medical liquid, said connector system comprising a first withdrawal port and a second withdrawal port, which are each designed for withdrawing the medical liquid from the container, the first withdrawal port and the second withdrawal port being of different designs and each being closed by a reclosable membrane (20, 21) and a break-off cap (32, 33), wherein the first withdrawal port is designed to receive a first withdrawal device with a cylinder attachment, and wherein the second withdrawal port is designed to receive a second withdrawal device with a spike attachment.
A compartmental analyzer that is configured to perform compartmental analysis of dynamics of a tracer in a brain on the basis of a strength of an electromagnetic wave from the tracer in the brain measured by a measurement apparatus, wherein the compartmental analyzer includes: a rate constant calculation unit and wherein the rate constant calculation unit is configured to calculate rate constants as parameters for analyzing the dynamics of cerebral blood flow in the brain when the tracer moves between compartments in a specified region-of-interest of the brain on the basis of a strength of an electromagnetic wave in a first compartment corresponding to a cerebral blood vessel in the brain measured by the measurement apparatus or an input function in the first compartment, a strength of an electromagnetic wave in a second compartment corresponding to brain tissue in the brain measured by the measurement apparatus, and a strength of an electromagnetic wave in a third compartment corresponding to a cerebral sulcus or a cerebral ventricle in the brain measured by the measurement apparatus wherein the rate constants comprise a first rate constant when the tracer moves from the first compartment to the second compartment, a second rate constant when the tracer moves from second compartment to the first compartment, a third rate constant when the tracer moves from the first compartment to the third compartment, a fourth rate constant when the tracer moves from the third compartment to the first compartment, a fifth rate constant when the tracer moves from the third compartment to the second compartment, and a sixth rate constant when the tracer moves from the second compartment to the third compartment. a rate constant calculation unit and wherein the rate constant calculation unit is configured to calculate rate constants as parameters for analyzing the dynamics of cerebral blood flow in the brain when the tracer moves between compartments in a specified region-of-interest of the brain on the basis of a strength of an electromagnetic wave in a first compartment corresponding to a cerebral blood vessel in the brain measured by the measurement apparatus or an input function in the first compartment, a strength of an electromagnetic wave in a second compartment corresponding to brain tissue in the brain measured by the measurement apparatus, and a strength of an electromagnetic wave in a third compartment corresponding to a cerebral sulcus or a cerebral ventricle in the brain measured by the measurement apparatus wherein the rate constants comprise a first rate constant when the tracer moves from the first compartment to the second compartment, a second rate constant when the tracer moves from second compartment to the first compartment, a third rate constant when the tracer moves from the first compartment to the third compartment, a fourth rate constant when the tracer moves from the third compartment to the first compartment, a fifth rate constant when the tracer moves from the third compartment to the second compartment, and a sixth rate constant when the tracer moves from the second compartment to the third compartment.
A holographic sight comprising a chassis having a base; a support member integrally formed with the base and extending upward from the base; a plurality of optical components including a laser diode, a mirror, a collimating optic, a diffraction grating, and an image hologram, and a unitary optical component carrier integrally formed with the support member, the unitary optical component carrier comprising a first receptacle configured to receive the laser diode, a second receptacle configured to receive the mirror, a third receptacle configured to receive the collimating optic, a fourth receptacle configured to receive the diffraction grating, and a fifth receptacle configured to receive the image hologram, wherein the support member is flexible and the unitary optical component carrier angularly movable, and wherein the unitary optical component carrier comprises a rigid body and is substantially resistant to changes in relative distances between the optical components (134, 136, 138, 140, and 142). a base; a support member integrally formed with the base and extending upward from the base; a plurality of optical components including a laser diode, a mirror, a collimating optic, a diffraction grating, and an image hologram, and a unitary optical component carrier integrally formed with the support member, the unitary optical component carrier comprising a first receptacle configured to receive the laser diode, a second receptacle configured to receive the mirror, a third receptacle configured to receive the collimating optic, a fourth receptacle configured to receive the diffraction grating, and a fifth receptacle configured to receive the image hologram, wherein the support member is flexible and the unitary optical component carrier angularly movable, and wherein the unitary optical component carrier comprises a rigid body and is substantially resistant to changes in relative distances between the optical components (134, 136, 138, 140, and 142).
An operation method of a terminal in a communication network, the operation method comprising: receiving, from a base station, a first higher layer signaling message which includes information indicating that a multi-uplink grant used for scheduling a plurality of subframes is enabled among a single-uplink grant and the multi-uplink grant; transmitting a second message including an indicator indicating that the terminal supports a communication operation using the multi-uplink grant to the base station; detecting a control channel of a subframe #n transmitted from the base station; receiving the multi-uplink grant including a scheduling delay offset from the control channel; determining a position of a first subframe among the plurality of subframes scheduled by the multi-uplink grant using the scheduling delay offset; and transmitting the plurality of subframes scheduled by the multi-uplink grant to the base station wherein the plurality of subframes include subframes #(n+l+k) to #(n+l+k+(N SF -1)), the subframe #(n+1+k) is the first subframe, n is an integer equal to or greater than 0, 1 is an integer equal to or greater than 4, k, which means the scheduling delay offset, is an integer equal to or greater than 0, and N SF is a number of the plurality of subframes. receiving, from a base station, a first higher layer signaling message which includes information indicating that a multi-uplink grant used for scheduling a plurality of subframes is enabled among a single-uplink grant and the multi-uplink grant; transmitting a second message including an indicator indicating that the terminal supports a communication operation using the multi-uplink grant to the base station; detecting a control channel of a subframe #n transmitted from the base station; receiving the multi-uplink grant including a scheduling delay offset from the control channel; determining a position of a first subframe among the plurality of subframes scheduled by the multi-uplink grant using the scheduling delay offset; and transmitting the plurality of subframes scheduled by the multi-uplink grant to the base station wherein the plurality of subframes include subframes #(n+l+k) to #(n+l+k+(N SF -1)), the subframe #(n+1+k) is the first subframe, n is an integer equal to or greater than 0, 1 is an integer equal to or greater than 4, k, which means the scheduling delay offset, is an integer equal to or greater than 0, and N SF is a number of the plurality of subframes.
Method for adjusting configurable functions of an electronic controller in a vehicle, with the configurable functions comprising the output of an output signal, which can be defined by the configuration, as a function of configurable input signals in such a way that the input signals of a configurable function to be taken into consideration for determining the output signal can be selected by the user from a range of input signals of the electronic controller, with the output signal being automatically determined by a computer device by means of configurable combinations between the input signals, and it being possible for a time criterion to be associated with an input signal by means of the configuration, and the output signal being determined taking into account the time criterion.
A coupling comprising a first and second elongated part to be coupled to each other by insertion of the first part into the second part, each part (11, 12) comprises an internal liquefied gas conduit (11a, 12a) to be fluidly connected at a connection point for transfer of liquefied gas, preferably liquefied hydrogen or helium, through the coupling, one of the first part and the second part comprises a warm seal and the second part comprises a purge opening, the coupling further comprising a cold seal arranged to seal a volume between the cold seal and the warm seal from the internal liquefied gas conduits (11a, 12a), characterized in that the warm seal is arranged to seal a space between the first and second parts from the atmosphere, the coupling further comprising a locking device with a first and second lock position wherein, - in the first lock position, the first part is partly inserted into the second part such that a space is formed between the first and second parts, and - the warm seal is engaged such that the purge opening is located between the space and the warm seal enabling purging of a volume between the first and second parts; and - in the second lock position the first part is fully inserted into the second part forming a fluid connection at the connection point. the warm seal is arranged to seal a space between the first and second parts from the atmosphere, the coupling further comprising a locking device with a first and second lock position wherein, - in the first lock position, the first part is partly inserted into the second part such that a space is formed between the first and second parts, and - the warm seal is engaged such that the purge opening is located between the space and the warm seal enabling purging of a volume between the first and second parts; and - in the second lock position the first part is fully inserted into the second part forming a fluid connection at the connection point. - in the first lock position, the first part is partly inserted into the second part such that a space is formed between the first and second parts, and - the warm seal is engaged such that the purge opening is located between the space and the warm seal enabling purging of a volume between the first and second parts; and - in the second lock position the first part is fully inserted into the second part forming a fluid connection at the connection point.
A catheter set with a catheter, which comprises a catheter shaft, a packaging surrounding the catheter, which comprises an opening for extending the catheter, and a gripping aid disposed in the packaging, which is displaceable on the catheter shaft, wherein the gripping aid is fastened to the packaging at a distance from the extension opening in such a manner that a collapsible packaging material is disposed between the gripping aid and the extension opening, and wherein the catheter comprises a limit-stop on its end facing away from the extension opening, characterized in that the inner diameter (Di) of the gripping aid is greater than the outer diameter of the limit-stop, so that the limit-stop can be pulled through the gripping aid and that the diameter of the extension opening is smaller than the outer diameter of the limit-stop in order to retain the catheter end equipped with the limit-stop inside the packaging and to seal-off the extension opening.
. A method of encoding an input audio content having one or more audio components, wherein each audio component is associated with a spatial location, the method including the steps of: rendering said input audio content into an audio playback presentation, said audio playback presentation intended for reproduction on an audio reproduction system; determining a set of M binaural representations (Y m) by applying M sets of transfer functions to the input audio content, wherein the M sets of transfer functions are based on a collection of individual binaural playback profiles; computing M sets of transform parameters (W m) enabling a transform from said audio playback presentation to M approximations of said M binaural representations, wherein said M sets of transform parameters are determined by minimizing a difference between said M binaural representations and said M approximations, M>1; and encoding said audio playback presentation and said M sets of transform parameters for transmission to a decoder. rendering said input audio content into an audio playback presentation, said audio playback presentation intended for reproduction on an audio reproduction system; determining a set of M binaural representations (Y m) by applying M sets of transfer functions to the input audio content, wherein the M sets of transfer functions are based on a collection of individual binaural playback profiles; computing M sets of transform parameters (W m) enabling a transform from said audio playback presentation to M approximations of said M binaural representations, wherein said M sets of transform parameters are determined by minimizing a difference between said M binaural representations and said M approximations, M>1; and encoding said audio playback presentation and said M sets of transform parameters for transmission to a decoder.
A non-human transgenic mammal, which is a rodent, comprising a modified endogenous PIK3CA locus, wherein said modified endogenous PIK3CA locus comprises a dormant mutant PIK3CA exon 20 allele encoding a H1047R mutation downstream to wild-type exon 20 followed by a transcriptional stop cassette, wherein said wild-type exon 20 followed by a transcriptional stop cassette is flanked by loxP sites, and wherein said non-human transgenic animal is capable of conditional expression of the PIK3CA H1047R ( PIK3CA e20H1047R) mutant allele, wherein the conditional expression of said mutant allele is under control of the PIK3CA endogenous promoter and wherein said conditional expression is triggered by activation of said mutant allele by Cre-mediated recombination.
A flow control device that controls the flow of fluid through a conduit, comprising: a body having an axis and defining a passage that allows fluid to flow from an upstream position to a downstream position, the valve body having a converging portion in the upstream position with an inner surface that curves gradually inward, but having an annular rim formed by a portion that extends outward from the inward curving shape, and a throat between the converging and diverging portions (102, 104); a flow regulator (106, 206) supported within the body for controlling the flow of fluid through the conduit, the flow regulator, (106, 206) having an annular seating surface configured to contact the annular rim of the body and a first resilient_mechanism (110, 210) that biases the flow regulator (106, 206) toward a pre-determined position; and a second resilient mechanism that is spaced from the flow regulator (106, 206) by a spacer to damp movement of the flow regulator (106, 206). a body having an axis and defining a passage that allows fluid to flow from an upstream position to a downstream position, the valve body having a converging portion in the upstream position with an inner surface that curves gradually inward, but having an annular rim formed by a portion that extends outward from the inward curving shape, and a throat between the converging and diverging portions (102, 104); a flow regulator (106, 206) supported within the body for controlling the flow of fluid through the conduit, the flow regulator, (106, 206) having an annular seating surface configured to contact the annular rim of the body and a first resilient_mechanism (110, 210) that biases the flow regulator (106, 206) toward a pre-determined position; and a second resilient mechanism that is spaced from the flow regulator (106, 206) by a spacer to damp movement of the flow regulator (106, 206).
A compound that is a small molecule inhibitor of phospholipase A2 (sPLA2), selected from varespladib, methylvarespladib, AZD2716, 3-(5'-benzyl-2'-carbamoylbiphenyl-3-yl) propanoic acid (Compound 4), and pharmaceutically acceptable salts of any of the foregoing, for use in the treatment of hymenoptera envenoming.
A polypeptide from an Eimeria species parasite comprising the amino acid sequence as shown as SEQ ID No. 1 or the Eimeria tenella amino acid sequence shown as Et IMP-1 shown in Figure 1 (b) or a variant having at least 80% sequence identity to SEQ ID NO: 1 and being capable of inducing a protective immune response in a subject against subsequent challenge with an apicomplexan parasite.
An automatic speed searching device for a partial stroke test of a control valve, the automatic speed device comprising: a spool valve operatively connected to a pilot valve, the pilot valve being configured to position the spool valve to one of an open position and a closed position, the spool valve including a first control fluid inlet, a first control fluid outlet, and a second control fluid outlet, the first control fluid inlet being fluidly connected to a supply of control fluid and the first control fluid outlet being configured to be connected to a valve actuator; a blocker valve fluidly connected to the second control fluid outlet of the spool valve; and an electrical module operatively connected to the pilot valve, the supply of control fluid, and the blocker valve, wherein the open position of the spool valve fluidly connects the first control fluid inlet to the first control fluid outlet and the closed position of the spool valve fluidly connects the first control fluid outlet to the second control fluid outlet. a spool valve operatively connected to a pilot valve, the pilot valve being configured to position the spool valve to one of an open position and a closed position, the spool valve including a first control fluid inlet, a first control fluid outlet, and a second control fluid outlet, the first control fluid inlet being fluidly connected to a supply of control fluid and the first control fluid outlet being configured to be connected to a valve actuator; a blocker valve fluidly connected to the second control fluid outlet of the spool valve; and an electrical module operatively connected to the pilot valve, the supply of control fluid, and the blocker valve, wherein the open position of the spool valve fluidly connects the first control fluid inlet to the first control fluid outlet and the closed position of the spool valve fluidly connects the first control fluid outlet to the second control fluid outlet.
Steam turbine, comprising a guide device having guide vanes, which are arranged in a guide channel between an inner guide ring and an outer guide ring, wherein the guide vanes are connected to the inner and outer guide rings (5, 4) and are fastened by the outer guide ring to a guide-vane carrier, into the inner peripheral contour of which the outer guide ring is inserted, characterised in that an outer contour of the inner guide ring continuously changes in diameter across the guide vanes and the inner guide ring comprises vane recesses of which the shape has been adapted to the cross-sectional contour of the guide vanes, in which recesses the guide vanes are received at a vane end portion, wherein the vane recesses are in the form of through-hole-shaped openings such that the guide vanes can be inserted through the inner guide ring, wherein the guide vanes are retained in the vane recesses by an annular or annular-segment-shaped retaining strip, which can be inserted into an annular or annular-segment-shaped retaining recess in the inner ring, which recess extends from an end face into the inner ring transversely to the longitudinal direction of the guide vanes in the form of a groove, and can be brought into engagement with a retaining notch in the guide vanes in each case.
An aspirator assembly for an inflatable device, comprising: an inner housing disposed about an axis and having an outlet formed through the inner housing; and an outer housing translatable relative to the inner housing and disposed about the axis with a surface of the outer housing covering the outlet, wherein the outer housing is configured to expose the outlet in response to a gas pressure within the aspirator assembly being above a threshold. an inner housing disposed about an axis and having an outlet formed through the inner housing; and an outer housing translatable relative to the inner housing and disposed about the axis with a surface of the outer housing covering the outlet, wherein the outer housing is configured to expose the outlet in response to a gas pressure within the aspirator assembly being above a threshold.