mhurhangee/patent-ind-claim-en huggingface dataset:
A radio receiver configured to: receive a radio signal (130; 350) over a radio network ; convert at least part of the received radio signal into a sequence of samples; compare a first part (210; 310, 310') of the sequence and a second part (230; 330) of the sequence to determine a similarity, wherein the first part and the second part are of equal length; and in response to said similarity being greater than a similarity threshold : detect a phase difference between the first part of the sequence and the second part of the sequence; calculate a frequency offset between a frequency of the received radio signal and an expected frequency of the received radio signal using said phase difference; and wherein the radio receiver is configured to: use said calculated frequency offset to attempt full access to the radio network; in response to the similarity being less than the similarity threshold, to check how much time has elapsed since an immediately previous attempt at full access; and if the elapsed time is greater than a time threshold, to attempt full access to the radio network. receive a radio signal (130; 350) over a radio network ; convert at least part of the received radio signal into a sequence of samples; compare a first part (210; 310, 310') of the sequence and a second part (230; 330) of the sequence to determine a similarity, wherein the first part and the second part are of equal length; and in response to said similarity being greater than a similarity threshold : detect a phase difference between the first part of the sequence and the second part of the sequence; calculate a frequency offset between a frequency of the received radio signal and an expected frequency of the received radio signal using said phase difference; and wherein the radio receiver is configured to: use said calculated frequency offset to attempt full access to the radio network; in response to the similarity being less than the similarity threshold, to check how much time has elapsed since an immediately previous attempt at full access; and if the elapsed time is greater than a time threshold, to attempt full access to the radio network. detect a phase difference between the first part of the sequence and the second part of the sequence; calculate a frequency offset between a frequency of the received radio signal and an expected frequency of the received radio signal using said phase difference; and wherein the radio receiver is configured to: use said calculated frequency offset to attempt full access to the radio network; in response to the similarity being less than the similarity threshold, to check how much time has elapsed since an immediately previous attempt at full access; and if the elapsed time is greater than a time threshold, to attempt full access to the radio network. use said calculated frequency offset to attempt full access to the radio network; in response to the similarity being less than the similarity threshold, to check how much time has elapsed since an immediately previous attempt at full access; and if the elapsed time is greater than a time threshold, to attempt full access to the radio network.
A semiconductor structure comprising: a substrate ; a nucleation layer located directly on the substrate , wherein the nucleation layer has a thickness of at least one nanometer and includes a plurality of nucleation islands formed of a first group III-V semiconductor material; a first cavity containing layer located directly on the nucleation layer , wherein the first cavity containing layer is formed of a second group III-V semiconductor material, has a thickness greater than two monolayers, and has a first plurality of cavities, and wherein a size of a largest lateral cross-section of the plurality of cavities is at least one nanometer and a shortest distance between the edges of two adjacent cavities is in a range between 5 nanometers and 1 micrometer; and a semiconductor layer immediately adjacent to the first cavity containing layer on an opposing side as the substrate , wherein the semiconductor layer is formed of a third group III-V semiconductor material, characterized in that the first cavity containing layer and the semiconductor layer are part of a superlattice of semiconductor layers including a plurality of cavity containing layers (56A-56C) interchanged with a plurality of semiconductor layers (58A-58C), and wherein at least one of: the plurality of cavity containing layers (56A-56C) or the plurality of semiconductor layers (58A-58C) have thicknesses that vary by at least five percent within the superlattice. a substrate ; a nucleation layer located directly on the substrate , wherein the nucleation layer has a thickness of at least one nanometer and includes a plurality of nucleation islands formed of a first group III-V semiconductor material; a first cavity containing layer located directly on the nucleation layer , wherein the first cavity containing layer is formed of a second group III-V semiconductor material, has a thickness greater than two monolayers, and has a first plurality of cavities, and wherein a size of a largest lateral cross-section of the plurality of cavities is at least one nanometer and a shortest distance between the edges of two adjacent cavities is in a range between 5 nanometers and 1 micrometer; and a semiconductor layer immediately adjacent to the first cavity containing layer on an opposing side as the substrate , wherein the semiconductor layer is formed of a third group III-V semiconductor material, characterized in that the first cavity containing layer and the semiconductor layer are part of a superlattice of semiconductor layers including a plurality of cavity containing layers (56A-56C) interchanged with a plurality of semiconductor layers (58A-58C), and wherein at least one of: the plurality of cavity containing layers (56A-56C) or the plurality of semiconductor layers (58A-58C) have thicknesses that vary by at least five percent within the superlattice.
An apparatus comprising: a drive motor coupled to a drive member ; a hemostasis valve including a valve body with a first leg having a proximal port , a distal port and a lumen extending between the proximal port and the distal port, at least one valve being located in the lumen adjacent the proximal port to permit an interventional device to be passed therethrough, the valve body including a second leg extending at an angle relative to the first leg and in fluid communication with the first leg , a rotating male luer lock connector rotatably connected to the first leg proximate the distal port ; a catheter , the catheter being removably secured to the rotating luer of the hemostasis valve , wherein the proximal end of the catheter has a driven member configured to be rotatably driven by the drive member , wherein the drive member is arranged to removably interface with the driven member while the catheter is secured to the hemostasis valve . a drive motor coupled to a drive member ; a hemostasis valve including a valve body with a first leg having a proximal port , a distal port and a lumen extending between the proximal port and the distal port, at least one valve being located in the lumen adjacent the proximal port to permit an interventional device to be passed therethrough, the valve body including a second leg extending at an angle relative to the first leg and in fluid communication with the first leg , a rotating male luer lock connector rotatably connected to the first leg proximate the distal port ; a catheter , the catheter being removably secured to the rotating luer of the hemostasis valve , wherein the proximal end of the catheter has a driven member configured to be rotatably driven by the drive member , wherein the drive member is arranged to removably interface with the driven member while the catheter is secured to the hemostasis valve .
A method for wireless communication, comprising: transmitting , to at least one base station, at least one indication of a capability to simultaneously transmit using two different radio access technology, RAT, sidelinks over respective frequency bands; transmitting , to the at least one base station or a second base station, an indication of resources, corresponding to a first RAT sidelink of the two different RAT sidelinks, to be excluded in assigning first resources, corresponding to the first RAT sidelink of the two different RAT sidelinks; and receiving , from the at least one base station or the second base station, one or more resource grants assigning at least one of the first resources for transmitting using the first RAT sidelink of the two different RAT sidelinks or second resources for transmitting using the second RAT sidelink of the two different RAT sidelinks. transmitting , to at least one base station, at least one indication of a capability to simultaneously transmit using two different radio access technology, RAT, sidelinks over respective frequency bands; transmitting , to the at least one base station or a second base station, an indication of resources, corresponding to a first RAT sidelink of the two different RAT sidelinks, to be excluded in assigning first resources, corresponding to the first RAT sidelink of the two different RAT sidelinks; and receiving , from the at least one base station or the second base station, one or more resource grants assigning at least one of the first resources for transmitting using the first RAT sidelink of the two different RAT sidelinks or second resources for transmitting using the second RAT sidelink of the two different RAT sidelinks.
A method performed by a user equipment, UE, , the method comprising: receiving a radio resource control, RRC, message including measurement configuration information, the measurement configuration information (i) including at least one of a measurement object information element, IE, and a report configuration IE and (ii) indicating at least one threshold value associated with at least one of a reference signal type and a measurement quantity, including a first threshold value associated with a first reference signal type and a first measurement quantity and a second threshold value associated with the first reference signal type and a second measurement quantity, wherein the measurement configuration information (i) comprises respective threshold values for a plurality of reference signal types for a given frequency and (ii) indicates a Synchronization Signal/Physical Broadcast Channel, SS/PBCH, block measurement threshold; deriving cell quality measurements in accordance with the measurement configuration information; and transmitting a measurement report. receiving a radio resource control, RRC, message including measurement configuration information, the measurement configuration information (i) including at least one of a measurement object information element, IE, and a report configuration IE and (ii) indicating at least one threshold value associated with at least one of a reference signal type and a measurement quantity, including a first threshold value associated with a first reference signal type and a first measurement quantity and a second threshold value associated with the first reference signal type and a second measurement quantity, wherein the measurement configuration information (i) comprises respective threshold values for a plurality of reference signal types for a given frequency and (ii) indicates a Synchronization Signal/Physical Broadcast Channel, SS/PBCH, block measurement threshold; deriving cell quality measurements in accordance with the measurement configuration information; and transmitting a measurement report.
A laser oscillation cooling device comprising: a light emitting section that is configured to emit laser excitation light (Z1); a laser excitation section that is configured to be excited by the laser excitation light (Z1) to emit laser light (Z2), the laser excitation section having a heat generating region (S) where heat is locally generated in operation; a storage tank capable of storing liquid nitrogen (L); and a jetting supply section that is configured to remove heat from the laser excitation section by jetting the liquid nitrogen (L) in the sub-cool state onto the laser excitation section , wherein the laser oscillation cooling device has a pressurizing section that is configured to bring the liquid nitrogen (L) into a sub-cool state by pressurizing the inside of the storage tank ; the jetting supply section is configured to jet the liquid nitrogen (L) in the sub-cool state from a plurality of jet ports arrayed in a two-dimensional manner onto the laser excitation section ; and characterized in that the jetting supply section includes a porous member that is disposed on an upstream side of the jet ports when viewed from a jetting direction of the liquid nitrogen (L) from the ports and has a plurality of pore portions formed to pass through the porous member in the jetting direction for uniformizing the flow rate of the liquid nitrogen (L) over the extending region of the porous member . a light emitting section that is configured to emit laser excitation light (Z1); a laser excitation section that is configured to be excited by the laser excitation light (Z1) to emit laser light (Z2), the laser excitation section having a heat generating region (S) where heat is locally generated in operation; a storage tank capable of storing liquid nitrogen (L); and a jetting supply section that is configured to remove heat from the laser excitation section by jetting the liquid nitrogen (L) in the sub-cool state onto the laser excitation section , wherein the laser oscillation cooling device has a pressurizing section that is configured to bring the liquid nitrogen (L) into a sub-cool state by pressurizing the inside of the storage tank ; the jetting supply section is configured to jet the liquid nitrogen (L) in the sub-cool state from a plurality of jet ports arrayed in a two-dimensional manner onto the laser excitation section ; and characterized in that the jetting supply section includes a porous member that is disposed on an upstream side of the jet ports when viewed from a jetting direction of the liquid nitrogen (L) from the ports and has a plurality of pore portions formed to pass through the porous member in the jetting direction for uniformizing the flow rate of the liquid nitrogen (L) over the extending region of the porous member .
A silicon nitride powder in which a total amount of fluorine is 100 to 1,000 ppm by mass, and a total amount of Fe, Al and Ca is 100 to 1,000 ppm by mass, wherein a ratio of the amount of surface fluorine to the total amount of fluorine is 0.5 or more.
A glove attachment system , comprising: a hollow frustoconical inner member having a plurality of ribs and a plurality of grooves disposed on an external surface of the hollow frustoconical inner member , the hollow frustoconical inner member having a tapered outer diameter; and a sealing collar having a plurality of ribs and a plurality of grooves disposed on an internal surface of the sealing collar , the sealing collar having an inner diameter larger than the tapered outer diameter of the hollow frustoconical inner member , wherein the hollow frustoconical inner member is capable of mating with the sealing collar for releasably joining a sleeve and a glove . a hollow frustoconical inner member having a plurality of ribs and a plurality of grooves disposed on an external surface of the hollow frustoconical inner member , the hollow frustoconical inner member having a tapered outer diameter; and a sealing collar having a plurality of ribs and a plurality of grooves disposed on an internal surface of the sealing collar , the sealing collar having an inner diameter larger than the tapered outer diameter of the hollow frustoconical inner member , wherein the hollow frustoconical inner member is capable of mating with the sealing collar for releasably joining a sleeve and a glove .
A computer-implemented method, comprising: receiving (220; 302), at an identity provider, IDP, and from a client device , an identity authentication request, wherein the IDP performs identifications for accessing a software service that is provided by a software service provider ; transmitting (222; 304), from the IDP to an on-premises directory provider, OPDP , an on-premises verification initiation request for a digest authentication, wherein the OPDP performs identity authentication for accessing the software service and the OPDP operates inside of an enterprise network , and the IDP operates outside of the enterprise network ; receiving (230; 306), at the IDP and from the OPDP, an on-premises verification initiation response, wherein the on-premises verification initiation response includes one or more digest authentication attributes; transmitting (232; 308), from the IDP to the client device, the one or more digest authentication attributes; receiving (240; 310), at the IDP and from the client device, a digest, wherein the digest is calculated based on the one or more digest authentication attributes and one or more identity authentication credentials; transmitting (242; 312), from the IDP to the OPDP, the digest; and receiving (252; 314), at the IDP and from the OPDP, an on-premises verification response that indicates a result of the digest authentication. receiving (220; 302), at an identity provider, IDP, and from a client device , an identity authentication request, wherein the IDP performs identifications for accessing a software service that is provided by a software service provider ; transmitting (222; 304), from the IDP to an on-premises directory provider, OPDP , an on-premises verification initiation request for a digest authentication, wherein the OPDP performs identity authentication for accessing the software service and the OPDP operates inside of an enterprise network , and the IDP operates outside of the enterprise network ; receiving (230; 306), at the IDP and from the OPDP, an on-premises verification initiation response, wherein the on-premises verification initiation response includes one or more digest authentication attributes; transmitting (232; 308), from the IDP to the client device, the one or more digest authentication attributes; receiving (240; 310), at the IDP and from the client device, a digest, wherein the digest is calculated based on the one or more digest authentication attributes and one or more identity authentication credentials; transmitting (242; 312), from the IDP to the OPDP, the digest; and receiving (252; 314), at the IDP and from the OPDP, an on-premises verification response that indicates a result of the digest authentication.
An image collecting method, comprising: enabling (S101) an image collecting unit in an electronic device, when it is identified that after a first specific motion, a posture of the electronic device changes to a specific device posture; monitoring (S102) whether the electronic device performs a second specific motion in the specific device posture; and when it is detected (S103) that the electronic device performs the second specific motion in the specific device posture, controlling the image collecting unit to obtain an at least first image by means of collection within motion time in which the electronic device performs the second specific motion, wherein the enabling an image collecting unit in an electronic device, when it is identified that after a first specific motion, a posture of the electronic device changes to a specific device posture comprises: in a process that after a first device motion, the electronic device changes from a first device posture to the specific device posture acquiring, by using a first motion sensor in the electronic device, a first sensing parameter of the electronic device in a process of the first device motion; determining, according to a variation of the first sensing parameter, whether the first device motion is the first specific motion; and if yes, enabling the image collecting unit. enabling (S101) an image collecting unit in an electronic device, when it is identified that after a first specific motion, a posture of the electronic device changes to a specific device posture; monitoring (S102) whether the electronic device performs a second specific motion in the specific device posture; and when it is detected (S103) that the electronic device performs the second specific motion in the specific device posture, controlling the image collecting unit to obtain an at least first image by means of collection within motion time in which the electronic device performs the second specific motion, in a process that after a first device motion, the electronic device changes from a first device posture to the specific device posture acquiring, by using a first motion sensor in the electronic device, a first sensing parameter of the electronic device in a process of the first device motion; determining, according to a variation of the first sensing parameter, whether the first device motion is the first specific motion; and if yes, enabling the image collecting unit.
An airbag cushion assembly, comprising: an airbag cushion in a folded configuration and having an initial rectangular shape with corner regions; a plurality of studs ; and a compression wrapper coupled with the airbag cushion , characterized in that the compression wrapper comprises: a plurality of vertical straps each comprising an opening coupled with one stud of the plurality of studs , wherein each of the plurality of vertical straps confines and compresses a corner region of the airbag cushion to reshape the airbag cushion ; and a radial strap extending between each adjacent vertical strap . an airbag cushion in a folded configuration and having an initial rectangular shape with corner regions; a plurality of studs ; and a compression wrapper coupled with the airbag cushion , characterized in that the compression wrapper comprises: a plurality of vertical straps each comprising an opening coupled with one stud of the plurality of studs , wherein each of the plurality of vertical straps confines and compresses a corner region of the airbag cushion to reshape the airbag cushion ; and a radial strap extending between each adjacent vertical strap . a plurality of vertical straps each comprising an opening coupled with one stud of the plurality of studs , wherein each of the plurality of vertical straps confines and compresses a corner region of the airbag cushion to reshape the airbag cushion ; and a radial strap extending between each adjacent vertical strap .
A prosthetic valve , comprising: a leaflet frame having a generally tubular shape, the leaflet frame defining a plurality of leaflet windows , wherein each of the leaflet windows includes two leaflet window sides a leaflet window base , and a leaflet window top; and a film coupled to the leaflet frame and defining at least one leaflet extending from each of the leaflet windows, wherein each leaflet has substantially the shape of an isosceles trapezoid having two leaflet sides , a leaflet base and a free edge opposite the leaflet base, wherein the two leaflet sides diverge from the leaflet base, wherein the leaflet base is substantially flat, wherein the leaflet base is coupled to the window base and wherein each of the two leaflet sides are coupled to one of the two window sides. a leaflet frame having a generally tubular shape, the leaflet frame defining a plurality of leaflet windows , wherein each of the leaflet windows includes two leaflet window sides a leaflet window base , and a leaflet window top; and a film coupled to the leaflet frame and defining at least one leaflet extending from each of the leaflet windows, wherein each leaflet has substantially the shape of an isosceles trapezoid having two leaflet sides , a leaflet base and a free edge opposite the leaflet base, wherein the two leaflet sides diverge from the leaflet base, wherein the leaflet base is substantially flat, wherein the leaflet base is coupled to the window base and wherein each of the two leaflet sides are coupled to one of the two window sides.