mhurhangee/patent-ind-claim-en huggingface dataset:
An isolated peptide having the following structural formula A 1-A2-A3-A4-A5-A6-A7-A8-A9-A10 wherein A1 is Asp, Glu, pyroglutamate, Gln, Asn, D-Asp, D-Glu, D-pyroglutamate, D-Gln, D-Asn, bhAsp, Ida, N-MeAsp, Ala, D-Ala, Cys, D-Cys, Phe, D-Phe, Asp or D-Asp linked to Cys or D-Cys, Phe or D-Phe linked to a PEG molecule linked to chenodeoxycholate, ursodeoxycholate, or palmitoyl, or Dpa or (D)Dpa linked to palmitoyl; A2 is Thr, Ser, Val, Ala, D-Thr, D-Ser, D-Val, Tie, Inp, Chg, bhThr, or N-MeThr, D-Ala, Cys, D-Cys, Pro, D-Pro, Gly, or D-Gly; A3 is His, Asn, Arg, D-His, D-Asn, D-Arg, Dpa, (D)Dpa, 2-aminoindan, Ala, D-Ala, Cys, D-Cys, Dpa, Asp or D-Asp linked to Dpa or (D)Dpa; A4 is Phe, Leu, Ile, Trp, Tyr, D-Phe, D-Leu, D-Ile, D-Trp, Phg, bhPhe, Dpa, Bip, 1Nal, bhDpa, Amc, PheF5, hPhe, Igl, cyclohexylalanine, Ala, D-Ala, Pro, or D-Pro; A5 is Pro, Ser, D-Pro, D-Ser, Oic, bhPro, trans-4-PhPro, cis-4-PhPro, cis-5-PhPro, Idc, Ala, D-Ala, Arg, or D-Arg; A6 is Ile, Leu, Val, D-Ile, D-Leu, Phg, Chg, Amc, bhlle, Ach, Melle, Ala, D-Ala, Phe, D-Phe, Arg, D-Arg, Cys, or D-Cys; A7 is Cys, Ser, Ala, D-Cys, S-tertiary butyl-cysteine, homoC, Pen, or (D)Pen; A8 is Ile, Leu, Thr, Val, Arg, D-Ile, D-Leu, D-Thr, D-Val, D-Arg, Chg, Dpa, bhlle, Ach, Melle, Cys, or D-Cys; A9 is Phe, Leu, Ile, Tyr, D-Phe, D-Leu, D-Ile, PheF5, N-MePhe, benzylamide, bhPhe, Dpa, Bip, 1Nal, bhDpa, cyclohexylalanine, Phe or D-Phe linked to RA, Asp, D-Asp, Asp or D-Asp linked to RB, bhPhe linked to RC, or cysteamide, wherein RA is -CONH 2 -CH 2 -CH 2 -S, -D-Pro linked to Pro-Lys or Pro-Arg, -bhPro linked to Pro linked to Pro-Lys or Pro-Arg, -D-Pro linked to bhPro-Lys or bhPro-Arg, wherein RB is -PEG11-GYIPEAPRDGQAYVRKDGEWVLLSTFL, -(PEG11)-(GPHyp)10, and wherein RC is -D-Pro linked to Pro-Lys or Pro-Arg, -D-Pro linked to bhPro-Lys or bhPro-Arg; and A10 is Cys, Ser, Ala, D-Cys, D-Ser, or D-Ala; wherein the carboxy-terminal amino acid is in amide or carboxy-form; and wherein at least one sulfhydryl amino acid is present as one of the amino acids in the sequence; and wherein A1, A2, A3, A1 to A2, A1 to A3, A10, A9 to A10, A8 to A10, or a combination thereof is present or absent; and wherein the peptide binds ferroportin.
A catheter pump assembly , comprising: a proximal portion; a distal portion; a catheter body having a lumen extending along a longitudinal axis between the proximal and distal portions; an impeller disposed at the distal portion and comprising a plurality of impeller blades; and a stator disposed proximal of the impeller to straighten flow downstream from the impeller , the stator being collapsible from a deployed configuration to a collapsed configuration and comprising a plurality of stator blades which convert at least a radial component of flow generated by the impeller to a flow that is substantially entirely axial, characterized in that the stator blades are oriented in an opposite direction to the orientation of the impeller blades. a proximal portion; a distal portion; a catheter body having a lumen extending along a longitudinal axis between the proximal and distal portions; an impeller disposed at the distal portion and comprising a plurality of impeller blades; and a stator disposed proximal of the impeller to straighten flow downstream from the impeller , the stator being collapsible from a deployed configuration to a collapsed configuration and comprising a plurality of stator blades which convert at least a radial component of flow generated by the impeller to a flow that is substantially entirely axial, characterized in that the stator blades are oriented in an opposite direction to the orientation of the impeller blades.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, configuration information on a plurality of scheduling request, SR, configurations, wherein each of the plurality of SR configurations corresponds to periodicity information depending on a subcarrier spacing for SR transmission, and wherein at least one of the plurality of SR configurations is configured for licensed band and at least one of the plurality of SR configurations is configured for unlicensed band; in case that an SR is triggered, identifying an SR configuration corresponding to the SR among the plurality of SR configurations; in case that an SR prohibit timer configured for the SR configuration is not running and a number of SR transmissions counted for the SR configuration is lower than a maximum number of SR transmissions configured for the SR configuration and the SR configuration is said at least one of the plurality of SR configurations configured for unlicensed band, identifying whether a channel where the SR is to be transmitted is occupied based on a result of channel sensing in the unlicensed band; and in case that the channel is not occupied, transmitting the SR to the base station and increasing the number of SR transmissions counted for the SR configuration by 1, wherein an SR prohibit timer is configured for each of the plurality of SR configurations, wherein a maximum number of SR transmissions is configured for each of the plurality of SR configurations, and wherein a number of SR transmissions is counted for each of the plurality of SR configurations. receiving, from a base station, configuration information on a plurality of scheduling request, SR, configurations, wherein each of the plurality of SR configurations corresponds to periodicity information depending on a subcarrier spacing for SR transmission, and wherein at least one of the plurality of SR configurations is configured for licensed band and at least one of the plurality of SR configurations is configured for unlicensed band; in case that an SR is triggered, identifying an SR configuration corresponding to the SR among the plurality of SR configurations; in case that an SR prohibit timer configured for the SR configuration is not running and a number of SR transmissions counted for the SR configuration is lower than a maximum number of SR transmissions configured for the SR configuration and the SR configuration is said at least one of the plurality of SR configurations configured for unlicensed band, identifying whether a channel where the SR is to be transmitted is occupied based on a result of channel sensing in the unlicensed band; and in case that the channel is not occupied, transmitting the SR to the base station and increasing the number of SR transmissions counted for the SR configuration by 1, wherein an SR prohibit timer is configured for each of the plurality of SR configurations, wherein a maximum number of SR transmissions is configured for each of the plurality of SR configurations, and wherein a number of SR transmissions is counted for each of the plurality of SR configurations.
A computer-implemented method for use in providing authentication of an application programing interface, API, message to a network, the method comprising: receiving by an intermediate computing device an API message from a client , the API message including a client certificate; then appending, by the intermediate computing device , the client certificate to the API message as an X509 object; then appending, by the intermediate computing device , an intermediate certificate to the API message, the intermediate certificate indicative of the intermediate computing device ; then transmitting, by the intermediate computing device , the appended API message to an API gateway , the API gateway being coupled to the intermediate computing device and including a local repository defining recognized computing devices; then performing, by the API gateway , validation of the intermediate computing device based on the intermediate certificate identifying the intermediate computing device as one of the recognized computing devices, via the local repository; then performing, by the API gateway , validation of the client based on the client certificate via a global access manager, separate from the local repository; then causing a security token indicative of the client to be generated, when the intermediate computing device is validated, which permits the API message, from the client , to be delivered and used within a payment network to access one or more back-end services . receiving by an intermediate computing device an API message from a client , the API message including a client certificate; then appending, by the intermediate computing device , the client certificate to the API message as an X509 object; then appending, by the intermediate computing device , an intermediate certificate to the API message, the intermediate certificate indicative of the intermediate computing device ; then transmitting, by the intermediate computing device , the appended API message to an API gateway , the API gateway being coupled to the intermediate computing device and including a local repository defining recognized computing devices; then performing, by the API gateway , validation of the intermediate computing device based on the intermediate certificate identifying the intermediate computing device as one of the recognized computing devices, via the local repository; then performing, by the API gateway , validation of the client based on the client certificate via a global access manager, separate from the local repository; then causing a security token indicative of the client to be generated, when the intermediate computing device is validated, which permits the API message, from the client , to be delivered and used within a payment network to access one or more back-end services .
Loudspeaker comprising: - a magnetic unit (M) wherein an air gap (T) is generated, - a voice coil mounted on a cylindrical support and disposed in such manner as to move axially in the air gap (T) of the magnetic unit, - a basket fixed to the magnetic unit (M), - a membrane fixed to the cylindrical support of the voice coil and connected to the basket , - a rim that connects a peripheral part of the membrane to the basket, and - at least one vibrating element configured to control vibrating modes of said membrane , said vibrating element being fixed to said membrane, and said vibrating element comprising: - a base fixed to said membrane, - a shank that projects from the base, and - a mass that projects from the shank in cantilever mode; wherein said mass is made of a rigid non-deformable material; said mass is free for oscillating in any direction; and said vibrating element is made of injection molded plastic material. - a magnetic unit (M) wherein an air gap (T) is generated, - a voice coil mounted on a cylindrical support and disposed in such manner as to move axially in the air gap (T) of the magnetic unit, - a basket fixed to the magnetic unit (M), - a membrane fixed to the cylindrical support of the voice coil and connected to the basket , - a rim that connects a peripheral part of the membrane to the basket, and - at least one vibrating element configured to control vibrating modes of said membrane , said vibrating element being fixed to said membrane, and - a base fixed to said membrane, - a shank that projects from the base, and - a mass that projects from the shank in cantilever mode;
A method for determining the potency of a supernatant of a mammalian cell culture to be used in the treatment of an inflammatory condition comprising the steps of a) incubating SH-SY5Y cells in a culture medium comprising or consisting of said supernatant, b) measuring a promoter activity of an activator protein 1 (AP-1) promoter, wherein the supernatant of the mammalian cell culture has the potential to be used in the treatment of an inflammatory condition, if the promoter activity of the AP-1 promoter is at least 50% higher compared to the promoter activity measured when the SH-SY5Y cells are cultivated in a culture medium lacking said supernatant. a) incubating SH-SY5Y cells in a culture medium comprising or consisting of said supernatant, b) measuring a promoter activity of an activator protein 1 (AP-1) promoter,
Garment for wearing outdoors, which consists of a single part or is sewn together from a plurality of parts (9-13), which single part or which single parts each consist of a warp-knitted laminate , and which laminate is at least built up from • a warp-knitted fabric , the warp-knitted fabric forming the outer shell of the garment, • followed by a film on the inner side of this warp-knitted fabric , which film is stretchable in all directions, is waterproof but vapor-permeable and is glued on full-surface and, following inwards • a warp-knitted fabric or knitted fabric of fluffy thread as thermal insulation, and • on the very inside, a flatly or circularly knitted or warp-knitted or woven inner lining which is suspended from the warp-knitted fabric or knitted fabric being the thermal insulation or is detachably or firmly fastened thereto by means of seams or stitches. • a warp-knitted fabric , the warp-knitted fabric forming the outer shell of the garment, • followed by a film on the inner side of this warp-knitted fabric , which film is stretchable in all directions, is waterproof but vapor-permeable and is glued on full-surface • a warp-knitted fabric or knitted fabric of fluffy thread as thermal insulation, and • on the very inside, a flatly or circularly knitted or warp-knitted or woven inner lining which is suspended from the warp-knitted fabric or knitted fabric being the thermal insulation or is detachably or firmly fastened thereto by means of seams or stitches.
An electromagnetic valve device comprising an armature unit which is designed for carrying out an opening or closing operation of a fluid channel, and which, as a reaction to stationary coil means , which at least partially surround the armature unit, being energized, is drivable so as to be moveable along an axial direction relative to the coil means, the coil means having a coil former forming a winding section for a winding to be energized, and the coil former forming an axially extending inner casing which is designed for guiding the armature unit and in the lateral surface of which slot- or groove-like channels permitting drainage of an armature movement space are formed, fluid guide sections being assigned to the coil former for the formation of a section of the fluid channel, the fluid guide sections being arranged radially outwards, characterized in that the fluid guide sections have deflection and/or meander means for fluid guidance.
A method of managing quality of service , QoS, in a data network, the method comprising: receiving at an access network, AN, node in an AN , from a core network , CN, QoS policy information, the QoS policy information comprising one or more QoS parameters and one or more data session descriptors ; obtaining a QoS policy based on at least a portion of the QoS policy information; storing one or more QoS policies and the one or more data session descriptors in a QoS map that links the one or more QoS policies with the one or more respective descriptors; and applying the QoS policy to a flow between the CN and a user equipment, UE, when a descriptor in a packet in the flow corresponds to the QoS policy; wherein the obtaining the QoS policy comprises: selecting, from the QoS map, the QoS policy that is linked to the descriptor in the packet; and selecting AN resources for the flow based on the QoS policy. receiving at an access network, AN, node in an AN , from a core network , CN, QoS policy information, the QoS policy information comprising one or more QoS parameters and one or more data session descriptors ; obtaining a QoS policy based on at least a portion of the QoS policy information; storing one or more QoS policies and the one or more data session descriptors in a QoS map that links the one or more QoS policies with the one or more respective descriptors; and applying the QoS policy to a flow between the CN and a user equipment, UE, when a descriptor in a packet in the flow corresponds to the QoS policy; wherein the obtaining the QoS policy comprises: selecting, from the QoS map, the QoS policy that is linked to the descriptor in the packet; and selecting AN resources for the flow based on the QoS policy. selecting, from the QoS map, the QoS policy that is linked to the descriptor in the packet; and selecting AN resources for the flow based on the QoS policy.
A device comprising a processor configured to: receive an instruction to apply a requested power back-off, PBO, for transmitting a data packet at an adjusted transmission power adapted from a current transmission power; estimate a first energy quantity for transmitting the data packet based on the adjusted transmission power and a first estimated length of time for transmitting the data packet at the adjusted transmission power; determine a second transmission power that is greater than the adjusted transmission power and estimate a second energy quantity based on the second transmission power and a second estimated length of time for transmitting the data packet at the second transmission power, wherein the second energy quantity is less than the first energy quantity; and apply a second PBO based on the second transmission power for transmitting the data packet instead of applying the requested PBO. receive an instruction to apply a requested power back-off, PBO, for transmitting a data packet at an adjusted transmission power adapted from a current transmission power; estimate a first energy quantity for transmitting the data packet based on the adjusted transmission power and a first estimated length of time for transmitting the data packet at the adjusted transmission power; determine a second transmission power that is greater than the adjusted transmission power and estimate a second energy quantity based on the second transmission power and a second estimated length of time for transmitting the data packet at the second transmission power, wherein the second energy quantity is less than the first energy quantity; and apply a second PBO based on the second transmission power for transmitting the data packet instead of applying the requested PBO.
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: determining a path for an autonomous driving vehicle, wherein the path is located within a first lane of an environment in which the autonomous driving vehicle is currently located; obtaining sensor data, wherein the sensor data indicates a set of speeds for a set of moving obstacles located in a second lane of the environment and wherein the second lane is adjacent to the first lane; determining whether the set of speeds is lower than a threshold speed; determining a new speed for the autonomous driving vehicle in response to determining that the set of speeds is lower than the threshold speed; and controlling the autonomous driving vehicle based on the path and the new speed. determining a path for an autonomous driving vehicle, wherein the path is located within a first lane of an environment in which the autonomous driving vehicle is currently located; obtaining sensor data, wherein the sensor data indicates a set of speeds for a set of moving obstacles located in a second lane of the environment and wherein the second lane is adjacent to the first lane; determining whether the set of speeds is lower than a threshold speed; determining a new speed for the autonomous driving vehicle in response to determining that the set of speeds is lower than the threshold speed; and controlling the autonomous driving vehicle based on the path and the new speed.
An assembly consisting of a support plate and a pallet connectable to a carrying drone, the pallet comprising: a strap ; a body part which is adapted to press and support goods loaded on the support plate from the top, connect and fix the goods with the support plate up and down through the strap , and has a fastening port fastenable to the carrying drone ; and a power supply unit which is embedded in a partial region of the body part to provide power to the carrying drone connected to a power cable , wherein the body part comprises a fork insertion hole which is provided on the circumferential surface of the body part so that a fork of a forklift can be inserted, a connection port which is adapted to connect and fix the support plate using the strap , a fastening port in which at least two fastening ports are provided on one side of the body part to be fastened to the carrying drone , and a first receiving portion provided on a circumferential surface of the fastening port in a groove shape in which the fastening port is adapted to be received. a strap ; a body part which is adapted to press and support goods loaded on the support plate from the top, connect and fix the goods with the support plate up and down through the strap , and has a fastening port fastenable to the carrying drone ; and a power supply unit which is embedded in a partial region of the body part to provide power to the carrying drone connected to a power cable , wherein the body part comprises a fork insertion hole which is provided on the circumferential surface of the body part so that a fork of a forklift can be inserted, a connection port which is adapted to connect and fix the support plate using the strap , a fastening port in which at least two fastening ports are provided on one side of the body part to be fastened to the carrying drone , and a first receiving portion provided on a circumferential surface of the fastening port in a groove shape in which the fastening port is adapted to be received.
Device for acting on the body tissue of a living being with a clamping device with contacts at a distance from each other for clamping a section of skin of the living being formed of body tissue, with an adjusting device for adjusting the clamping force (FK) applied to the body tissue, with a first measuring device for determining the clamping force (FK) applied to the section of skin , with a display device for showing the measurements of the first measuring device , and with a second measuring device for recording the distance (Δ) between the contacts , characterised in that the device is configured in such a way that the change in the clamping force (FK) in correlation to the change in the tissue resistance of the section of skin during a measuring time interval (t1, t2) with a constant distance (Δ) between the contacts can be shown on the display device .