mhurhangee/ep-ind-claims huggingface dataset:
A security policy deployment method, comprising: when a lifecycle state of a virtualized network function, VNF, changes, generating, by a management network element, a security policy of the VNF, wherein the security policy of the VNF is used to perform access control on the VNF (step 201); and sending, by the management network element, the security policy of the VNF to a control device, wherein the control device is configured to implement access control on the VNF (step 202). when a lifecycle state of a virtualized network function, VNF, changes, generating, by a management network element, a security policy of the VNF, wherein the security policy of the VNF is used to perform access control on the VNF (step 201); and sending, by the management network element, the security policy of the VNF to a control device, wherein the control device is configured to implement access control on the VNF (step 202).
An apparatus for transferring chips (100-100'-100") from a first position to at least a second position, the apparatus comprising: at least one rotatable transfer assembly comprising at least two transfer heads (120(a-h)), each transfer head structured for picking up a chip in the first position, and for positioning the chip in the at least second position through rotation of the at least one rotatable transfer assembly about an axis of rotation; a transfer assembly actuator for driving the rotatable transfer assembly together with the at least two transfer heads about the axis of rotation; as well as at least a first transfer head actuator (140(a-h)) structured for actuating at least one transfer head in a radial direction relative to the axis of rotation, the at least first transfer head actuator being mounted to the rotatable transfer assembly actuator and comprising an actuator element (142(a-h)) coupled to the at least one transfer head, the actuator element structured to be actuated in the direction of the axis of rotation relative to the rotatable transfer assembly actuator. at least one rotatable transfer assembly comprising at least two transfer heads (120(a-h)), each transfer head structured for picking up a chip in the first position, and for positioning the chip in the at least second position through rotation of the at least one rotatable transfer assembly about an axis of rotation; a transfer assembly actuator for driving the rotatable transfer assembly together with the at least two transfer heads about the axis of rotation; as well as at least a first transfer head actuator (140(a-h)) structured for actuating at least one transfer head in a radial direction relative to the axis of rotation, the at least first transfer head actuator being mounted to the rotatable transfer assembly actuator and comprising an actuator element (142(a-h)) coupled to the at least one transfer head, the actuator element structured to be actuated in the direction of the axis of rotation relative to the rotatable transfer assembly actuator.
A hair shaping composition suitable for topical application to hair, the composition having a pH of 4 or less and comprising, in an aqueous continuous phase: (i) at least 0.5% (by weight based on the total weight of the composition) of a first component selected from D-glucono-δ-lactone, D-glucono-y-lactone, D-gluconic acid and mixtures thereof; (ii) at least 0.5% (by weight based on the total weight of the composition) of a second component selected from glyoxylic acid, glyxoxylic acid hydrate, salts thereof and mixtures thereof; in which the weight ratio of first component (i) to second component (ii) in the hair shaping composition ranges from 10:1 to 1:10. (i) at least 0.5% (by weight based on the total weight of the composition) of a first component selected from D-glucono-δ-lactone, D-glucono-y-lactone, D-gluconic acid and mixtures thereof; (ii) at least 0.5% (by weight based on the total weight of the composition) of a second component selected from glyoxylic acid, glyxoxylic acid hydrate, salts thereof and mixtures thereof;
A sensor for a physical charateristic, comprising a multilayer structure comprising: - at least one electrically conductive layer, comprising nanofillers in a polymer matrix comprising at least one polymer, - and electrical connection means, said structure being thermosetting or thermoplastic or being a crosslinkable elastomer, characterized in that, when the structure is thermosetting, then the degree of crosslinking thereof is greater than 80%, better still greater than 90%, or even greater than 95%, when the structure is a crosslinkable elastomer, then it comprises an amount of crosslinking agent ranging from 5 mol% to 20 mol% relative to the number of moles of the structure, and when the structure is thermoplastic, then it has a constant resistivity value and preferably a degree of crystallinity ranging from 0% to 60%, said sensor comprising a number of electrically conductive layers of at least 2 layers. - at least one electrically conductive layer, comprising nanofillers in a polymer matrix comprising at least one polymer, - and electrical connection means,
A document scanning apparatus for scanning a document, the apparatus comprising: an image sensor unit operable to irradiate an incident light towards the document and generate image data by sensing a reflected light reflected from the document; a supporting unit which supports the image sensor unit; a movement unit operable to move the image sensor unit between a scanning position and a calibration position; a housing operable to house the image sensor unit and the supporting unit; characterised by the apparatus further comprising, a housing cover which is coupled to the housing and seals inside of the housing,a transparent plate, formed in the housing cover, operable to transmit the incident light and the reflected light; a calibration sheet which is attached to a surface of the transparent plate formed in the housing cover, which is exposed to outside, the calibration sheet being positioned in an area including the calibration position; and the movement unit further comprising: a motor operable to provide driving power; and a power transmission apparatus operable to transmit driving power provided by the motor to the supporting unit which supports the image sensor unit, and wherein the housing is further operable to house the movement unit. an image sensor unit operable to irradiate an incident light towards the document and generate image data by sensing a reflected light reflected from the document; a supporting unit which supports the image sensor unit; a movement unit operable to move the image sensor unit between a scanning position and a calibration position; a housing operable to house the image sensor unit and the supporting unit; characterised by the apparatus further comprising, a housing cover which is coupled to the housing and seals inside of the housing,a transparent plate, formed in the housing cover, operable to transmit the incident light and the reflected light; a calibration sheet which is attached to a surface of the transparent plate formed in the housing cover, which is exposed to outside, the calibration sheet being positioned in an area including the calibration position; and the movement unit further comprising: a motor operable to provide driving power; and a power transmission apparatus operable to transmit driving power provided by the motor to the supporting unit which supports the image sensor unit, and wherein the housing is further operable to house the movement unit. a motor operable to provide driving power; and a power transmission apparatus operable to transmit driving power provided by the motor to the supporting unit which supports the image sensor unit, and wherein the housing is further operable to house the movement unit.
An internal gear machine for reverse operation, having a housing with a cavity, an externally toothed pinion and an internally toothed ring gear being arranged within said cavity which engage with each other and whose rotation axes (20, 22) run in parallel and spaced apart from each other, the cavity of the housing being axially limited, a first pressure pocket and a second pressure pocket being located in the housing which are connected to the cavity, the first pressure pocket being connected to a first pressure port and the second pressure pocket being connected to a second pressure port of the internal gear machine, characterized in that a first switching valve is arranged in the connection between the first pressure pocket and the first pressure port and a second switching valve is arranged in the connection between the second pressure pocket and the second pressure port and the first pressure port is connected to a first displacement chamber and the second pressure port is connected to a second displacement chamber of the internal gear machine.
A computer-implemented method for determining at least one bandwidth-guaranteed segment routing, SR, path through a network from an ingress to an egress, the computer-implemented method comprising: a) receiving, as input, a bandwidth demand value; b) obtaining network information; c) determining a constrained shortest multipath, CSG¡, from the ingress to the egress; d) determining a set of SR segment-lists S i = sl 1 i, sl 2 i.. sl n i that are needed to steer traffic over CSG i; and e) tuning the loadshares in L i that the ingress uses to steer portions of the bandwidth demand to the egress, using: S i and the per segment-list loadshare L i = l 1 i, l 2 i,.. l n i; the per segment equal cost multipath, ECMP, and the per link residual capacity; such that the bandwidth capacity that can be carried over CSG i is maximized, or such that the bandwidth capacity exceeds a threshold value. a) receiving, as input, a bandwidth demand value; b) obtaining network information; c) determining a constrained shortest multipath, CSG¡, from the ingress to the egress; d) determining a set of SR segment-lists S i = sl 1 i, sl 2 i.. sl n i that are needed to steer traffic over CSG i; and e) tuning the loadshares in L i that the ingress uses to steer portions of the bandwidth demand to the egress, using: S i and the per segment-list loadshare L i = l 1 i, l 2 i,.. l n i; the per segment equal cost multipath, ECMP, and the per link residual capacity; such that the bandwidth capacity that can be carried over CSG i is maximized, or such that the bandwidth capacity exceeds a threshold value. S i and the per segment-list loadshare L i = l 1 i, l 2 i,.. l n i; the per segment equal cost multipath, ECMP, and the per link residual capacity;
A method of operation of a network node implementing a network function, NF, service producer in a core network, wherein the NF Service producer is a Session Management Function, SMF, specified in the fifth generation Core network, 5GC, the method comprising: - receiving a request message to create or update a resource; - selecting a service instance to create the requested resource or to update the requested resource which is replicated in the service instance; and - sending a response message to the received request wherein the response message comprises a Uniform Resource Identifier, URI, for the created or updated resource together with information associated with the selected service instance. - receiving a request message to create or update a resource; - selecting a service instance to create the requested resource or to update the requested resource which is replicated in the service instance; and - sending a response message to the received request wherein the response message comprises a Uniform Resource Identifier, URI, for the created or updated resource together with information associated with the selected service instance.
A container, comprising a container body, a pressure transfer channel, a control valve, a liquid taking channel and an outflow channel; wherein the pressure transfer channel transferring to the control valve variation of positive and negative pressures applied to the pressure transfer channel by an external variable pressure part; the control valve comprising a valve body and a valve core, and under the positive and negative pressures, the valve core axially reciprocating in the valve body; one end of the valve body being in communication with the pressure transfer channel, the other end being provided with a pressure relief opening, and sidewalls being provided with at least two interfaces (24, 25); outer sides of the interfaces (24, 25) being respectively in communication with the outflow channel and the liquid taking channel, and inner sides leading to an outer side face of the valve core; the valve core being provided with an internal channel, an outer-end opening of the internal channel being in communication with the pressure transfer channel, and an inner-end opening being located on the outer side face of the valve core; the valve core, under the positive pressure, moving to a position where interface through which the inner-end opening is in communication with the outflow channel are connected, under the negative pressure, moving to a position where interface through which the inner-end opening is in communication with the liquid taking channel are connected, and in the absence of pressure, moving to a position where the inner opening and interfaces (24, 25) on the valve body are not connected; one end of the liquid taking channel being in communication with the corresponding interface on the valve body, and the other end leading to the bottom inside the container body; and one end of the outflow channel being in communication with the corresponding interface on the valve body, and the other end leading to the outside of the container body.
A compound of formula (Ie) wherein Q 1 is selected from 2-fluorophenyl, 2-methylphenyl, 2-chlorophenyl, 4-cyanophenyl, 4-nitrophenyl, 4-methylphenyl, 4-fluoro-2-methylphenyl, 5-chloro-2-fluorophenyl, 2-chloro-4-nitrophenyl, furan-2-yl, 4-trifluoromethoxyphenyl, 4-fluoro-3-trifluoromethylphenyl, 4-trifluoromethylphenyl, 2-trifluoromethoxyphenyl, 2-methoxyphenyl, phenyl, 4-fluorophenyl, 2-trifluoromethylphenyl, 2-chloro-4-fluorophenyl, 4-methyl-1,2,3-thiadiazol-5-yl, 2,3-difluorophenyl, 2,4-difluorophenyl, 2-fluoro-5-trifluoromethylphenyl, 2,5-difluoro-4-cyanophenyl, 2-methyl-4-cyanophenyl, 3-methyl-4-nitrophenyl, 2-methyl-4-nitrophenyl, 2,4,6-trifluorophenyl, 2,6-difluorophenyl or an agrochemically acceptable salt or N-oxides thereof.
A method of selecting carrier frequency band of a femtocell base station (30,55) that provides a femtocell and resides within a macrocell provided by a macrocell base station, the method comprising: the femtocell base station operating initially at the carrier frequency band of the macrocell comprising detecting that a first user terminal is in or close to the femtocell, determining that said first user terminal is connectable to the femtocell base station and so connecting said first user terminal to the femtocell base station using a carrier frequency band allocated to the macrocell; detecting that a second user terminal connected to the macrocell base station at a carrier frequency band of the macrocell is in or close to the femtocell; characterised by the femtocell base station switching its carrier frequency band to one not allocated to the macrocell upon determinating that the second user terminal is not connectable to the femtocell base station in which said first user terminal is handed over to the macrocell base station at the carrier frequency band of the macrocell whereupon the femtocell base station is switched to the frequency band not allocated to the macrocell and then said first user terminal is handed over to the femtocell base station. the femtocell base station operating initially at the carrier frequency band of the macrocell comprising detecting that a first user terminal is in or close to the femtocell, determining that said first user terminal is connectable to the femtocell base station and so connecting said first user terminal to the femtocell base station using a carrier frequency band allocated to the macrocell; detecting that a second user terminal connected to the macrocell base station at a carrier frequency band of the macrocell is in or close to the femtocell; characterised by the femtocell base station switching its carrier frequency band to one not allocated to the macrocell upon determinating that the second user terminal is not connectable to the femtocell base station in which said first user terminal is handed over to the macrocell base station at the carrier frequency band of the macrocell whereupon the femtocell base station is switched to the frequency band not allocated to the macrocell and then said first user terminal is handed over to the femtocell base station.
A method for the production of a line guide for a clean room application, with electric lines and an elongate flexible enclosure (100; 500; 900) which is reciprocatingly displaceable in particular with the formation of a direction-changing arc between two runs (1, 3), wherein the flexible enclosure (100; 500; 900) has a number of parallel receiving means (902; 1002; 1102) for at least one respective line, wherein each receiving means (902; 1002; 1102) extends passage-like in a longitudinal direction from a first end to a second end; the method including at least the steps: - providing at least one line bundle of interrelated lines; and - providing the flexible enclosure (100; 500; 900); wherein the enclosure (100; 500; 900) is prefabricated and the line bundle is introduced into a receiving means (902; 1002; 1102) of the prefabricated enclosure (100; 500; 900), wherein the at least one line bundle of interrelated lines includes a wire bundle comprising at least two twisted wires each having its own insulation, wherein the at least one line bundle does not have its own respective outer sheath, and wherein - the prefabricated enclosure (100; 500) comprises at least one enclosure unit (101; 501) having two cooperating closure profiles (511, 512) of a closure for dust-tightly closing an opened state and the line bundle is introduced transversely to the longitudinal direction into the opened enclosure (100; 500); or - the prefabricated enclosure includes at least one enclosure unit which is produced peripherally closed and the line bundle is drawn into the closed enclosure unit in the longitudinal direction. - providing at least one line bundle of interrelated lines; and - providing the flexible enclosure (100; 500; 900); - the prefabricated enclosure (100; 500) comprises at least one enclosure unit (101; 501) having two cooperating closure profiles (511, 512) of a closure for dust-tightly closing an opened state and the line bundle is introduced transversely to the longitudinal direction into the opened enclosure (100; 500); or - the prefabricated enclosure includes at least one enclosure unit which is produced peripherally closed and the line bundle is drawn into the closed enclosure unit in the longitudinal direction.
A vibration measurement device comprising: an excitation unit configured to excite an elastic wave to an inspection target; an illumination unit configured to perform stroboscopic illumination to a measurement region of a surface of the inspection target using a wavelength stabilized laser beam source, that includes a semiconductor laser, provided with a volume holographic grating, the volume holographic grating being configured to selectively return light of a narrower wavelength band than a wavelength band of an oscillation laser beam from the semiconductor laser to the semiconductor laser; and a displacement measurement unit configured to collectively measure a displacement of each point of the measurement region in a back-and-forth direction by speckle-sharing interferometer in at least three mutually different phases of the elastic wave by controlling a phase of the elastic wave and timing of the stroboscopic illumination. an excitation unit configured to excite an elastic wave to an inspection target; an illumination unit configured to perform stroboscopic illumination to a measurement region of a surface of the inspection target using a wavelength stabilized laser beam source, that includes a semiconductor laser, provided with a volume holographic grating, the volume holographic grating being configured to selectively return light of a narrower wavelength band than a wavelength band of an oscillation laser beam from the semiconductor laser to the semiconductor laser; and a displacement measurement unit configured to collectively measure a displacement of each point of the measurement region in a back-and-forth direction by speckle-sharing interferometer in at least three mutually different phases of the elastic wave by controlling a phase of the elastic wave and timing of the stroboscopic illumination.
A sample cooling and storage mechanism, comprising: a refrigeration device and a gradient cooling device; wherein the refrigeration device is configured to perform temperature-controlled refrigeration on storage vials; the gradient cooling device is configured to perform programmed gradient cooling on the storage vials; and the refrigeration device comprises at least one refrigeration zone; a nitrogen spraying component, a heating component and a storage vial rack are provided in the refrigeration zone; the nitrogen spraying component is configured to spray nitrogen in the refrigeration zone; and the heating component heats an interior of the refrigeration zone; the nitrogen spraying component comprises a nitrogen spraying tube; the nitrogen spraying tube is provided with a plurality of nitrogen spraying holes; and an end of the nitrogen spraying tube is communicated with a nitrogen supply tube assembly, characterized in that the nitrogen spraying component is configured to convert liquid nitrogen into gaseous nitrogen to supply the nitrogen in gaseous form; the nitrogen supply tube assembly comprises a solenoid valve, a nitrogen supply coil tube, and a heating tube; wherein the nitrogen spraying tube is communicated with the nitrogen supply coil tube; the nitrogen supply coil tube is circled around the heating tube; and the solenoid valve is configured to control a start of heating of the heating tube. a refrigeration device and a gradient cooling device; wherein the refrigeration device is configured to perform temperature-controlled refrigeration on storage vials; the gradient cooling device is configured to perform programmed gradient cooling on the storage vials; and the refrigeration device comprises at least one refrigeration zone; a nitrogen spraying component, a heating component and a storage vial rack are provided in the refrigeration zone; the nitrogen spraying component is configured to spray nitrogen in the refrigeration zone; and the heating component heats an interior of the refrigeration zone; the nitrogen spraying component comprises a nitrogen spraying tube; the nitrogen spraying tube is provided with a plurality of nitrogen spraying holes; and an end of the nitrogen spraying tube is communicated with a nitrogen supply tube assembly, characterized in that the nitrogen spraying component is configured to convert liquid nitrogen into gaseous nitrogen to supply the nitrogen in gaseous form; the nitrogen supply tube assembly comprises a solenoid valve, a nitrogen supply coil tube, and a heating tube; wherein the nitrogen spraying tube is communicated with the nitrogen supply coil tube; the nitrogen supply coil tube is circled around the heating tube; and the solenoid valve is configured to control a start of heating of the heating tube.
An isolated multimeric or heterodimeric cytokine receptor comprising: a first polypeptide comprising an amino acid sequence having at least 90 percent sequence identity with residues 20-649 of SEQ ID NO:109 and a second polypeptide comprising residues 28-429 of SEQ ID NO:7; wherein the multimeric or heterodimeric cytokine receptor binds a ligand comprising residues 27-164 of SEQ ID NO:2. a first polypeptide comprising an amino acid sequence having at least 90 percent sequence identity with residues 20-649 of SEQ ID NO:109 and a second polypeptide comprising residues 28-429 of SEQ ID NO:7; wherein the multimeric or heterodimeric cytokine receptor binds a ligand comprising residues 27-164 of SEQ ID NO:2.