mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication by a base station, comprising: determining a set of antenna ports at the base station that are quasi co-located, QCL, wherein the determination is based on one or more of an angle of arrival at the base station, angle of departure from the base station, and a beam width for each antenna port of the set of antenna ports; transmitting QCL information to a user equipment, UE, indicating that the set of antenna ports are determined to be QCL; and characterized by further comprising: receiving feedback from the UE indicating whether the set of antenna ports at the base station are QCL. determining a set of antenna ports at the base station that are quasi co-located, QCL, wherein the determination is based on one or more of an angle of arrival at the base station, angle of departure from the base station, and a beam width for each antenna port of the set of antenna ports; transmitting QCL information to a user equipment, UE, indicating that the set of antenna ports are determined to be QCL; and characterized by further comprising: receiving feedback from the UE indicating whether the set of antenna ports at the base station are QCL.
A gamma-butyrolactone composition, comprising: gamma-butyrolactone; and a nitrogen-containing compound, wherein the content of the gamma-butyrolactone is 99.0% by mass or more, the nitrogen-containing compound is succinic acid diamide, and the total content of the nitrogen-containing compound is 0.1 ppm by mass to 1,000 ppm by mass as converted to a nitrogen atom. gamma-butyrolactone; and a nitrogen-containing compound, wherein the content of the gamma-butyrolactone is 99.0% by mass or more, the nitrogen-containing compound is succinic acid diamide, and the total content of the nitrogen-containing compound is 0.1 ppm by mass to 1,000 ppm by mass as converted to a nitrogen atom.
Method for applying at least one layer of a liquid or pasty application medium in the form of a curtain moving substantially under the force of gravity onto a moving paper or board web, using a curtain application unit, said method comprising the following steps: generating a free-falling curtain from at least one layer of the application medium, said curtain being kept spread out during the free fall and forming a coating zone through which the paper or board web is moved on a support pad; splitting the curtain into a free-falling curtain centre part and at least one free-falling curtain periphery by way of a free jet that is formed from a separation fluid and penetrates the plane of the curtain in a penetration region and, on account thereof, severs and diverts the free-falling curtain periphery; coating the paper or board web by way of the curtain centre part; characterized in that the free jet has a jet path which in relation to the plane of the curtain encloses an acute first angle (β) and is oriented such that the penetration in the penetration region is performed by way of a jet flank that in relation to the paper or board web is directed outwards. generating a free-falling curtain from at least one layer of the application medium, said curtain being kept spread out during the free fall and forming a coating zone through which the paper or board web is moved on a support pad; splitting the curtain into a free-falling curtain centre part and at least one free-falling curtain periphery by way of a free jet that is formed from a separation fluid and penetrates the plane of the curtain in a penetration region and, on account thereof, severs and diverts the free-falling curtain periphery; coating the paper or board web by way of the curtain centre part; characterized in that the free jet has a jet path which in relation to the plane of the curtain encloses an acute first angle (β) and is oriented such that the penetration in the penetration region is performed by way of a jet flank that in relation to the paper or board web is directed outwards.
- Probe for generating seismic waves, comprising at least: - a tubular body which is elongate in a main axis and has a first end linked to an electrical power cable, - a capacitor bank arranged inside the body and suitable for storing an amount of electrical energy and for releasing this energy in accordance with a discharge pattern, - a spark gap installed at a second end of the body opposite the first end and linked to the capacitor bank, suitable for generating a seismic wave under the effect of the release of the energy stored by the capacitor bank, characterised in that: • the capacitor bank comprises a conductive rod, named a central electrode, formed from at least one rod segment and extending coaxially to the main axis of the body along the capacitor bank, • the capacitor bank is formed from cylindrical capacitors comprising bases each having a different polarity, • the capacitors have an axial recess and are mounted coaxially to each other about the central electrode, parallel to the main axis of the body, and • the capacitors are electrically linked into at least two groups (64, 64', 64", 64"') of capacitors connected in parallel, each group of capacitors comprising at least one capacitor and having a positive pole and a negative pole, said groups being arranged in the body such that the facing poles of two adjacent groups are of the same polarity. - a tubular body which is elongate in a main axis and has a first end linked to an electrical power cable, - a capacitor bank arranged inside the body and suitable for storing an amount of electrical energy and for releasing this energy in accordance with a discharge pattern, - a spark gap installed at a second end of the body opposite the first end and linked to the capacitor bank, suitable for generating a seismic wave under the effect of the release of the energy stored by the capacitor bank, • the capacitor bank comprises a conductive rod, named a central electrode, formed from at least one rod segment and extending coaxially to the main axis of the body along the capacitor bank, • the capacitor bank is formed from cylindrical capacitors comprising bases each having a different polarity, • the capacitors have an axial recess and are mounted coaxially to each other about the central electrode, parallel to the main axis of the body, and • the capacitors are electrically linked into at least two groups (64, 64', 64", 64"') of capacitors connected in parallel, each group of capacitors comprising at least one capacitor and having a positive pole and a negative pole, said groups being arranged in the body such that the facing poles of two adjacent groups are of the same polarity.
An aerosol-generating article (4000a,4000b) comprising an aerosol-generating substrate (4020a,4020b), the aerosol-generating substrate including a homogenised ginger material comprising ginger particles, an aerosol former and a binder, wherein the aerosol-generating substrate (4020a,4020b) comprises: at least 10 micrograms of -gingerol per gram of the substrate, on a dry weight basis; at least 90 micrograms of -gingerol per gram of the substrate, on a dry weight basis; at least 70 micrograms of -shogaol per gram of the substrate, on a dry weight basis; at least 30 micrograms of -shogaol per gram of the substrate, on a dry weight basis; and at least 80 micrograms of -shogaol per gram of the substrate, on a dry weight basis. at least 10 micrograms of -gingerol per gram of the substrate, on a dry weight basis; at least 90 micrograms of -gingerol per gram of the substrate, on a dry weight basis; at least 70 micrograms of -shogaol per gram of the substrate, on a dry weight basis; at least 30 micrograms of -shogaol per gram of the substrate, on a dry weight basis; and at least 80 micrograms of -shogaol per gram of the substrate, on a dry weight basis.
A luminaire for an inductive power transfer lighting system; the luminaire comprising: a luminaire body comprising a base and a hinged lid; a receiving coil within the base and electrically connectable to a lamp; a seal comprising a first sealing surface mounted in the base and around access to the receiving coil, and a second sealing surface mounted in the lid; wherein the first sealing surface includes a first power cable receiving channel running from one side of the base to an opposite side, and the second sealing surface includes a corresponding second power cable receiving channel running from one side of the lid to an opposite side; wherein the luminaire comprises clamping means; whereby when the lid is closed and clamped by the clamping means to the base, the lid and base are sealed together and the power cable receiving channels cooperate to form a bore for holding a power cable passing there through, in sealing engagement with the base and the lid and proximate to the receiving coil; and wherein at least one of the sealing surfaces includes at least one groove (34, 36) transverse to the direction of the bore. a luminaire body comprising a base and a hinged lid; a receiving coil within the base and electrically connectable to a lamp; a seal comprising a first sealing surface mounted in the base and around access to the receiving coil, and a second sealing surface mounted in the lid; wherein the first sealing surface includes a first power cable receiving channel running from one side of the base to an opposite side, and the second sealing surface includes a corresponding second power cable receiving channel running from one side of the lid to an opposite side; wherein the luminaire comprises clamping means; whereby when the lid is closed and clamped by the clamping means to the base, the lid and base are sealed together and the power cable receiving channels cooperate to form a bore for holding a power cable passing there through, in sealing engagement with the base and the lid and proximate to the receiving coil; and wherein at least one of the sealing surfaces includes at least one groove (34, 36) transverse to the direction of the bore.
A method for managing virtual machines hosted on a production host (130; 200; 610), comprising: obtaining a backup generation request for a virtual machine (410; 612) of the virtual machines; making a first determination that the backup generation request impacts a physical disk (234; 400; 414A - 4140; 614) utilized by the virtual machine; in response to the first determination: generating a mirror virtual disk (236; 402; 416A - 4160; 616) for the physical disk, wherein the mirror virtual disk comprises a virtual disk mirroring data of the physical disk but is implemented as a logical disk; generating a backup of the mirror virtual disk as a backup of the physical disk; and storing the backup of the mirror virtual disk in backup storage; and after generating the mirror virtual disk: mapping the mirror virtual disk as a primary disk, wherein the primary disk is used as primary storage for writes; and mapping the physical disk as a secondary disk, wherein the secondary disk is used for redundancy storage for the writes. obtaining a backup generation request for a virtual machine (410; 612) of the virtual machines; making a first determination that the backup generation request impacts a physical disk (234; 400; 414A - 4140; 614) utilized by the virtual machine; in response to the first determination: generating a mirror virtual disk (236; 402; 416A - 4160; 616) for the physical disk, wherein the mirror virtual disk comprises a virtual disk mirroring data of the physical disk but is implemented as a logical disk; generating a backup of the mirror virtual disk as a backup of the physical disk; and storing the backup of the mirror virtual disk in backup storage; and after generating the mirror virtual disk: mapping the mirror virtual disk as a primary disk, wherein the primary disk is used as primary storage for writes; and mapping the physical disk as a secondary disk, wherein the secondary disk is used for redundancy storage for the writes. generating a mirror virtual disk (236; 402; 416A - 4160; 616) for the physical disk, wherein the mirror virtual disk comprises a virtual disk mirroring data of the physical disk but is implemented as a logical disk; generating a backup of the mirror virtual disk as a backup of the physical disk; and storing the backup of the mirror virtual disk in backup storage; and after generating the mirror virtual disk: mapping the mirror virtual disk as a primary disk, wherein the primary disk is used as primary storage for writes; and mapping the physical disk as a secondary disk, wherein the secondary disk is used for redundancy storage for the writes. mapping the mirror virtual disk as a primary disk, wherein the primary disk is used as primary storage for writes; and mapping the physical disk as a secondary disk, wherein the secondary disk is used for redundancy storage for the writes.
An inkjet ink, comprising: water; an organic solvent; a surfactant; and a colorant, wherein the organic solvent contains at least one polyhydric alcohol having an equilibrium moisture content of 30% by mass or higher at a temperature of 23°C and humidity of 80%RH, at least an amide compound represented by the general formula, and at least one selected from the group consisting of compounds represented by the following general formulae to: where R is a C4-C6 alkyl group, where R 1 is a hydrogen atom or a C1-C2 alkyl group, and R 2 is a C1-C4 alkyl group, where R' is a C1-C2 alkyl group, and R 3 is a hydrogen atom, a C1-C8 alkyl group, a cyclic alkyl group, or an aromatic group, where R 4 and R 5 are both a C1-C8 alkyl group. water; an organic solvent; a surfactant; and a colorant, wherein the organic solvent contains at least one polyhydric alcohol having an equilibrium moisture content of 30% by mass or higher at a temperature of 23°C and humidity of 80%RH, at least an amide compound represented by the general formula, and at least one selected from the group consisting of compounds represented by the following general formulae to: where R is a C4-C6 alkyl group, where R 1 is a hydrogen atom or a C1-C2 alkyl group, and R 2 is a C1-C4 alkyl group, where R' is a C1-C2 alkyl group, and R 3 is a hydrogen atom, a C1-C8 alkyl group, a cyclic alkyl group, or an aromatic group, where R 4 and R 5 are both a C1-C8 alkyl group.
A controller (111, 180) comprising: a de-coupler configured to: receive a current value (i o) at an output of an inverter and a voltage value (V c) across a DC-link capacitor, the DC-link capacitor coupled between a rectifier and the inverter; determine an output power (p o) of the inverter based on the received current value (i o) and voltage value (V C); and decouple an average component ( p o) of said output power ( p o) from a fluctuating component ( p̃ o) of said output power (Po); and wherein the controller (111, 180) further comprises: a first controller unit configured to determine a first current ( i ̅ od *) from the average component ( p o) of the output power ( p o); a second controller unit configured to determine a second current ( i od *) from the fluctuating component ( p̃ o) of the output power (p o); and wherein the controller is further configured to determine a current reference (i id *) for controlling the rectifier based on the first current and the second current. receive a current value (i o) at an output of an inverter and a voltage value (V c) across a DC-link capacitor, the DC-link capacitor coupled between a rectifier and the inverter; determine an output power (p o) of the inverter based on the received current value (i o) and voltage value (V C); and decouple an average component ( p o) of said output power ( p o) from a fluctuating component ( p̃ o) of said output power (Po); and wherein the controller (111, 180) further comprises: a first controller unit configured to determine a first current ( i ̅ od *) from the average component ( p o) of the output power ( p o); a second controller unit configured to determine a second current ( i od *) from the fluctuating component ( p̃ o) of the output power (p o); and wherein the controller is further configured to determine a current reference (i id *) for controlling the rectifier based on the first current and the second current. a first controller unit configured to determine a first current ( i ̅ od *) from the average component ( p o) of the output power ( p o); a second controller unit configured to determine a second current ( i od *) from the fluctuating component ( p̃ o) of the output power (p o); and wherein the controller is further configured to determine a current reference (i id *) for controlling the rectifier based on the first current and the second current.
Mobile detonation-proof transport container, configured as an upright cylindrical container comprising a shell part and an open bottom part, suspended from a remote-controlled crane arm, for loading and unloading of detonation-dangerous objects in the container, wherein the container comprise two sets of individually maneuverable remote-controlled gripping tools (6, 19) for the loading and unloading of detonation-dangerous objects in the container and a top part comprising a mounting plate on whose bottom side the two sets of individually maneuverable gripping tools (6, 19) are mounted, wherein the individually maneuverable gripping tools (6, 19) comprise, firstly, a first set of gripping tools for the maneuvering of detonation-dangerous objects in a first direction and, secondly, a second set of gripping tools for the maneuvering of detonation-dangerous objects in a second direction different from the first direction, the second direction being in the horizontal plane, and wherein the second set of gripping tools comprise four rectangularly or squarely shaped grilles vertically arranged on vertical raisable and lowerable drive shafts inside the container, wherein the grilles are arranged rotatably in the horizontal plane.
A method, comprising: intercepting, by a proxy device, a client session associated with a client device and a destination device; allocating, by the proxy device, a first port of the proxy device as a source port of a proxy session for the client session; determining, by the proxy device and based on allocating the first port, whether session information associated with the proxy session would match session information associated with another proxy session; and initiating, by the proxy device, the proxy session after determining whether the session information associated with the proxy session would match session information associated with another proxy session, wherein a source port of the proxy session is one of: the first port of the proxy device based on a determination that the session information associated with the proxy session would not match session information associated with another proxy session, or a second port of the proxy device based on a determination that the session information associated with the proxy session would match session information associated with another proxy session. intercepting, by a proxy device, a client session associated with a client device and a destination device; allocating, by the proxy device, a first port of the proxy device as a source port of a proxy session for the client session; determining, by the proxy device and based on allocating the first port, whether session information associated with the proxy session would match session information associated with another proxy session; and initiating, by the proxy device, the proxy session after determining whether the session information associated with the proxy session would match session information associated with another proxy session, wherein a source port of the proxy session is one of: the first port of the proxy device based on a determination that the session information associated with the proxy session would not match session information associated with another proxy session, or a second port of the proxy device based on a determination that the session information associated with the proxy session would match session information associated with another proxy session. the first port of the proxy device based on a determination that the session information associated with the proxy session would not match session information associated with another proxy session, or a second port of the proxy device based on a determination that the session information associated with the proxy session would match session information associated with another proxy session.
A cobalt-rich wear resistant and corrosion resistant alloy consisting of, in weight %: 0.1 to 0.8% C; 0.1 to 1.5% Mn; 3 to 5% Si; 10 to 20% Cr; 5 to 32% Fe; 0.5 to 4% W; 10 to 30% Mo; 0 to 20% Ni; 20 to 40% Co; up to 6% V; up to 3% Nb; total V plus Nb of 0.5 to 8.5%; and balance unavoidable impurities. 0.1 to 0.8% C; 0.1 to 1.5% Mn; 3 to 5% Si; 10 to 20% Cr; 5 to 32% Fe; 0.5 to 4% W; 10 to 30% Mo; 0 to 20% Ni; 20 to 40% Co; up to 6% V; up to 3% Nb; total V plus Nb of 0.5 to 8.5%; and balance unavoidable impurities.
A polymeric sheet composition, comprising: at least two outer layers A and C and a middle layer B, wherein the A and C layers individually comprise a thermoplastic polymer comprised of one of more of a co-polyester or a polyurethane having a modulus of from about 1,000 MPa to 2,500 MPa measured according to ASTM D638 and a glass transition temperature and/or melting point of from about 80 °C to 180 °C determined by a DSC measurement at a heating and cooling rate of 10°C/min and the middle B layer is comprised of one or more of a polyurethane elastomer, a polyolefin elastomer, a polyester elastomer, a styrenic elastomer, a polyamide elastomer, a cyclic olefin elastomer, an acrylic elastomer, an aromatic or aliphatic polyether elastomer and a polyester polyurethane elastomer having a modulus of from about 50 MPa to about 500 MPa measured according to ASTM D638 and one or more of a glass transition temperature and/or melting point of from about 90 °C to about 220 °C determined by a DSC measurement. at least two outer layers A and C and a middle layer B, wherein the A and C layers individually comprise a thermoplastic polymer comprised of one of more of a co-polyester or a polyurethane having a modulus of from about 1,000 MPa to 2,500 MPa measured according to ASTM D638 and a glass transition temperature and/or melting point of from about 80 °C to 180 °C determined by a DSC measurement at a heating and cooling rate of 10°C/min and the middle B layer is comprised of one or more of a polyurethane elastomer, a polyolefin elastomer, a polyester elastomer, a styrenic elastomer, a polyamide elastomer, a cyclic olefin elastomer, an acrylic elastomer, an aromatic or aliphatic polyether elastomer and a polyester polyurethane elastomer having a modulus of from about 50 MPa to about 500 MPa measured according to ASTM D638 and one or more of a glass transition temperature and/or melting point of from about 90 °C to about 220 °C determined by a DSC measurement.
A mobile station being assigned with a shared uplink state flag, USF, wherein the shared USF comprises a predetermined number of bursts (Burst 1,..., Burst 4) having a predetermined number of mobile station specific symbol segments (TSC MS1,..., TSC MS16) separated by a tail-bit and guard symbols.
Medical product, in particular implant, preferably in the form of a chain net for use in the treatment, in particular in the filling and/or closure, of a bone defect, having a plurality of individual link elements which are connected to each other in such a way that adjacent individual link elements are linked to each other, wherein the individual link elements of the chain net are subdivided into main link elements and connection link elements, wherein the main link elements and the connection link elements form a grid structure which is planar in the x-y plane in the interlinked state, characterized in that the connection link elements have a different geometric form from the main link elements.