mhurhangee/ep-ind-claims huggingface dataset:
A system (100; 200; 300) for establishing temporary and permanent credentials for secure remote data access, the system comprising: a temporary smart card configured to provide a temporary credential for a first insecure device (204; 306), thereby providing the first insecure device (204; 306) with temporary secure access to a remote data source (102; 222; 302) when the temporary smart card is used with the first insecure device (204; 306), wherein the first insecure device (204; 306) loses the temporary secure access as soon as the temporary smart card is removed from the first insecure device (204; 306); and an enrollment smart card configured to provide a permanent credential on a second trusted device, thereby enabling the second trusted device to establish a secure access to the remote data source without presence of the enrollment smart card or the temporary smart card, wherein when the temporary smart card or the enrollment smart card is lost, a certificate revocation list is configured by a certification authority to include: a certificate [ pub T] E which contains a public key pub T for the temporary smart card signed with a private key priv E for the enrollment smart card; and a certificate [ pub E] F which contains a public key pub E for the enrollment smart card signed with a private key priv F for the certification authority. a temporary smart card configured to provide a temporary credential for a first insecure device (204; 306), thereby providing the first insecure device (204; 306) with temporary secure access to a remote data source (102; 222; 302) when the temporary smart card is used with the first insecure device (204; 306), wherein the first insecure device (204; 306) loses the temporary secure access as soon as the temporary smart card is removed from the first insecure device (204; 306); and an enrollment smart card configured to provide a permanent credential on a second trusted device, thereby enabling the second trusted device to establish a secure access to the remote data source without presence of the enrollment smart card or the temporary smart card, wherein when the temporary smart card or the enrollment smart card is lost, a certificate revocation list is configured by a certification authority to include: a certificate [ pub T] E which contains a public key pub T for the temporary smart card signed with a private key priv E for the enrollment smart card; and a certificate [ pub E] F which contains a public key pub E for the enrollment smart card signed with a private key priv F for the certification authority. a certificate [ pub T] E which contains a public key pub T for the temporary smart card signed with a private key priv E for the enrollment smart card; and a certificate [ pub E] F which contains a public key pub E for the enrollment smart card signed with a private key priv F for the certification authority.
A graphene composite, comprising: a graphene including a defect; and a self-assembled monolayer disposed on the defect, wherein the self-assembled monolayer is formed by self-assembling, on the defect, a compound represented by Chemical Formula 1 below: wherein in Chemical Formula 1, R 1 is a C3 to C30 alkyl group, R 2 and R 3, which are identical to or different from each other, are independently a hydrogen atom or a C1 to C6 alkyl group, and R 4 is a C1 to C6 alkyl group. a graphene including a defect; and a self-assembled monolayer disposed on the defect, wherein the self-assembled monolayer is formed by self-assembling, on the defect, a compound represented by Chemical Formula 1 below: wherein in Chemical Formula 1, R 1 is a C3 to C30 alkyl group, R 2 and R 3, which are identical to or different from each other, are independently a hydrogen atom or a C1 to C6 alkyl group, and R 4 is a C1 to C6 alkyl group.
A retorted pet food composition comprising: from 10% to 60% protein on a dry matter basis; from 5% to 40% fat on a dry matter basis; and from 30% to 65% carbohydrate on a dry matter basis; and at least one amylase, wherein the amylase is a temperature-labile amylase; wherein the pet food composition has a soft texture; wherein the pet food composition has a penetrating force that is within the range of from 10% to 80% of that of a pet food composition without added amylase, and wherein the composition comprises substantially no enzymatically-active amylase; and wherein the composition is a wet pet food composition comprising from 30% to 80% water. from 10% to 60% protein on a dry matter basis; from 5% to 40% fat on a dry matter basis; and from 30% to 65% carbohydrate on a dry matter basis; and at least one amylase, wherein the amylase is a temperature-labile amylase; wherein the pet food composition has a soft texture; wherein the pet food composition has a penetrating force that is within the range of from 10% to 80% of that of a pet food composition without added amylase, and wherein the composition comprises substantially no enzymatically-active amylase; and wherein the composition is a wet pet food composition comprising from 30% to 80% water.
A paper for smoking articles containing cellulose fibers, and being made by adding cellulose nanofibers and filler particles, wherein the paper for smoking articles has a basis weight of 20 gsm to 80 gsm and is a mixture paper of the cellulose fibers and the cellulose nanofibers, wherein the filler particles are held inside the paper, the cellulose nanofibers have an average fiber diameter D of 1 μm or less and a fiber length L satisfying L/D>100 and are contained in an amount of 2 % by weight to 13 % by weight, based on the total weight of the cellulose fibers, the cellulose nanofibers, and the filler particles, and the filler particles, serving as an absorbent or a catalyst, are contained in the paper for smoking articles in an amount of 2 % by weight to 60 % by weight, and the primary particles of the filler particles have an average particle diameter of 1 μm or less. the paper for smoking articles has a basis weight of 20 gsm to 80 gsm and is a mixture paper of the cellulose fibers and the cellulose nanofibers, wherein the filler particles are held inside the paper, the cellulose nanofibers have an average fiber diameter D of 1 μm or less and a fiber length L satisfying L/D>100 and are contained in an amount of 2 % by weight to 13 % by weight, based on the total weight of the cellulose fibers, the cellulose nanofibers, and the filler particles, and the filler particles, serving as an absorbent or a catalyst, are contained in the paper for smoking articles in an amount of 2 % by weight to 60 % by weight, and the primary particles of the filler particles have an average particle diameter of 1 μm or less.
A LiDAR transceiver comprising an imaging component for receiving light, and a photonic integrated circuit, PIC, transmitter, the imaging component comprising: a photonic integrated circuit, PIC, receiver, a slab, a wedge, and a lens, wherein the wedge has a front surface and an opposing back surface and the imaging component is arranged to define a receiving optical path through the front surface of the wedge, the receiving optical path continuing through the wedge and through the slab to the PIC receiver, the lens being configured to focus light of the receiving optical path onto the PIC receiver; and the transceiver arranged to define a transmitting optical path from the transmitter, through the wedge and through the front surface of the wedge, wherein the wedge comprises a transmitting window through which the transmitting optical path passes, the transmitting window having optical characteristics configured to allow light to enter the wedge at the back surface, pass through the wedge and exit the wedge at the front surface. transmitter, the imaging component comprising: a photonic integrated circuit, PIC, receiver, a slab, a wedge, and a lens, wherein the wedge has a front surface and an opposing back surface and the imaging component is arranged to define a receiving optical path through the front surface of the wedge, the receiving optical path continuing through the wedge and through the slab to the PIC receiver, the lens being configured to focus light of the receiving optical path onto the PIC receiver; and the transceiver arranged to define a transmitting optical path from the transmitter, through the wedge and through the front surface of the wedge, wherein the wedge comprises a transmitting window through which the transmitting optical path passes, the transmitting window having optical characteristics configured to allow light to enter the wedge at the back surface, pass through the wedge and exit the wedge at the front surface. a photonic integrated circuit, PIC, receiver, a slab, a wedge, and a lens, wherein the wedge has a front surface and an opposing back surface and the imaging component is arranged to define a receiving optical path through the front surface of the wedge, the receiving optical path continuing through the wedge and through the slab to the PIC receiver, the lens being configured to focus light of the receiving optical path onto the PIC receiver; and the transceiver arranged to define a transmitting optical path from the transmitter, through the wedge and through the front surface of the wedge, wherein the wedge comprises a transmitting window through which the transmitting optical path passes, the transmitting window having optical characteristics configured to allow light to enter the wedge at the back surface, pass through the wedge and exit the wedge at the front surface.
An apparatus for computing, comprising: one or more computer processors; one or more graphics processors; a graphics instruction buffer to store graphics instructions for execution by the one or more graphics processors; a graphics profiler to be operated by the one or more computer processors to collect graphics profile information from the one of more graphics processors; and a graphics instruction instrumentor to be operated by the one or more computer processors to: identify the graphics instructions to be executed by the one or more graphics processors; and store instrumentation graphics instructions on the graphics instruction buffer, through storage of an interrupt-generation instruction to alert the graphics profiler to collect the graphics profile information or through storage of an event-wait instruction to cause the one or more graphics processors to pause execution of further graphics instructions, in association with the identified graphics instructions. one or more computer processors; one or more graphics processors; a graphics instruction buffer to store graphics instructions for execution by the one or more graphics processors; a graphics profiler to be operated by the one or more computer processors to collect graphics profile information from the one of more graphics processors; and a graphics instruction instrumentor to be operated by the one or more computer processors to: identify the graphics instructions to be executed by the one or more graphics processors; and store instrumentation graphics instructions on the graphics instruction buffer, through storage of an interrupt-generation instruction to alert the graphics profiler to collect the graphics profile information or through storage of an event-wait instruction to cause the one or more graphics processors to pause execution of further graphics instructions, in association with the identified graphics instructions. identify the graphics instructions to be executed by the one or more graphics processors; and store instrumentation graphics instructions on the graphics instruction buffer, through storage of an interrupt-generation instruction to alert the graphics profiler to collect the graphics profile information or through storage of an event-wait instruction to cause the one or more graphics processors to pause execution of further graphics instructions, in association with the identified graphics instructions.
A wave power plant, comprising a floating body and means for converting the wave energy received by the body into electric power, wherein the body is a mainly vertical wall, which, in use, is for the most part below the water level W, but with its upper part above the water level, and the wave power plant comprises anchoring means arranged in the lower part of the body, the anchoring means including an anchoring mass suspended in an articulated manner on a downwards extending elongated anchoring device connected to the body in an articulated manner, in connection with which anchoring mass are arranged elongated anchoring devices extending transversely forwards against the incoming direction of the waves and backwards in the incoming direction of the waves, the anchoring devices being connected to the bottom of the installation site of the wave power plant, characterised in that the upper part of the front side of the cross-section of the body opposite to the main incoming direction of the waves is designed to incline forwards and the lower part to incline backwards, in such a way that the propagating wave meets the upper and lower parts at different stages of the wave, whereupon the lower part tends to move mainly in the opposite direction with respect to the upper part.
A method for producing a porous metal-organic framework material comprising the step reacting a reaction mixture in the liquid phase of at least one copper compound having at least one at least bidentate, organic compound which can bind by coordination to the copper in the presence of a nonaqueous solvent, the at least one at least bidentate, organic compound being a tricarboxylic or tetracarboxylic acid, the reaction proceeding at atmospheric pressure in a range from 90°C to 150°C, the copper compound being different from copper nitrate and the nonaqueous solvent being selected from the group consisting of C 4-10 -alkanol, dimethyl sulfoxide (DMSO), N,N-dimethylformamide, N,N-diethylformamide, N,N-dimethylacetamide (DMAc), acetonitrile, toluene, dioxane, chlorobenzene, methyl ethyl ketone, pyridine, optionally halogenated C 7-200 -alkane, sulfolane, alkylene polyols such as ethylene glycol, polyalkylene polyols such as polyethylene glycol, glycerol, N-methylpyrrolidone, gamma-butyrolactone, alicyclic alcohols such as cyclohexanol, ketones such as acetone or acetylacetone, cycloketones such as cyclohexanone, sulfolene or mixtures thereof.
A package (10;100) having a valve closure device (20;50), wherein the package (10; 100) comprises: a first panel portion; a second panel portion, wherein at least the first panel and the second panel define an internal cavity; and a closure device (20;50) having a valve portion, and seals provided to create a flow pathway between the seals such that contents can be forced by the valve device (20;50) upon application of pressure to a portion of the package (10;100), characterised in that the seals overlap one or more end portions of the closure device (20;50). a first panel portion; a second panel portion, wherein at least the first panel and the second panel define an internal cavity; and a closure device (20;50) having a valve portion, and seals provided to create a flow pathway between the seals such that contents can be forced by the valve device (20;50) upon application of pressure to a portion of the package (10;100), characterised in that the seals overlap one or more end portions of the closure device (20;50).
A semiconductor structure, the semiconductor structure comprises: a substrate having a power supply port; a memory module positioned on an upper surface of the substrate, the memory module comprising a plurality of memory chips stacked in a first direction, the first direction being parallel to the upper surface of the substrate, each of the plurality of memory chips having a power supply signal line, at least one of the plurality of memory chips having a power supply wiring layer, the power supply signal line being electrically connected to the power supply wiring layer, the power supply wiring layer being positioned in the memory module, an end surface of the power supply wiring layer far away from the substrate being exposed by the memory module, a solder bump being further provided on the end surface; and a lead frame electrically connected to the solder bump and the power supply port, wherein the lead frame comprises a plurality of frame strips arranged at intervals, and the plurality of frame strips being arranged in a second direction; the second direction is perpendicular to the first direction and is parallel to the upper surface of the substrate; each of the power supply wiring layers comprises a plurality of power supply wirings, and different power supply wirings having different voltages; and different frame strips are connected to the power supply wirings having the different voltages. a substrate having a power supply port; a memory module positioned on an upper surface of the substrate, the memory module comprising a plurality of memory chips stacked in a first direction, the first direction being parallel to the upper surface of the substrate, each of the plurality of memory chips having a power supply signal line, at least one of the plurality of memory chips having a power supply wiring layer, the power supply signal line being electrically connected to the power supply wiring layer, the power supply wiring layer being positioned in the memory module, an end surface of the power supply wiring layer far away from the substrate being exposed by the memory module, a solder bump being further provided on the end surface; and a lead frame electrically connected to the solder bump and the power supply port, wherein the lead frame comprises a plurality of frame strips arranged at intervals, and the plurality of frame strips being arranged in a second direction; the second direction is perpendicular to the first direction and is parallel to the upper surface of the substrate; each of the power supply wiring layers comprises a plurality of power supply wirings, and different power supply wirings having different voltages; and different frame strips are connected to the power supply wirings having the different voltages.
An electronic delay detonator logging control device, the device comprising: a logging mode operation unit configured to operate a logging mode when a controller is interconnected with a trunk line connected to a plurality of electronic delay detonators; a detonator detection signal transmission unit transmitting a detonator detection signal to the plurality of electronic delay detonators through the trunk line when the logging mode is operated; a detection reception response signal reception unit receiving a detonator detection reception response signal for a detonator detection signal transmitted from at least any one electronic delay detonator to which a log counter is not assigned among the plurality of electronic delay detonators; a log counter transmission unit issuing and transmitting the log counter to at least any one of the electronic delay detonators when the detonator detection reception response signal is received; a counter reception response signal reception unit receiving a counter reception response signal for a log counter reception transmitted from at least any one of the electronic delay detonators that receives and records the issued log counter; and a logging mode termination unit terminating the logging mode via user operation. a logging mode operation unit configured to operate a logging mode when a controller is interconnected with a trunk line connected to a plurality of electronic delay detonators; a detonator detection signal transmission unit transmitting a detonator detection signal to the plurality of electronic delay detonators through the trunk line when the logging mode is operated; a detection reception response signal reception unit receiving a detonator detection reception response signal for a detonator detection signal transmitted from at least any one electronic delay detonator to which a log counter is not assigned among the plurality of electronic delay detonators; a log counter transmission unit issuing and transmitting the log counter to at least any one of the electronic delay detonators when the detonator detection reception response signal is received; a counter reception response signal reception unit receiving a counter reception response signal for a log counter reception transmitted from at least any one of the electronic delay detonators that receives and records the issued log counter; and a logging mode termination unit terminating the logging mode via user operation.
A kit comprising sterile components of an injection port, a syringe, and an in-situ curable injectable material; characterised in that the injection port and the injectable material comprise the same material.
A computer-implemented method, the method comprising: receiving historical lane level traffic information including a representation of a speed of travel along a respective lane of a link; receiving recent lane level traffic information including a representation of a speed of travel along the respective lane of the link, wherein the recent lane level traffic information is indicative of more recent traffic conditions than traffic conditions represented by at least some of the historical lane level traffic information; determining a representation of a difference between representations of the speed of travel provided by the historical lane level traffic information and the recent lane level traffic information; identifying the lane level traffic surprise based upon the representation of the difference; causing provision of the representation of the difference to a navigation system; and characterized by using the representation of the difference as a routing cost by a routing algorithm of the navigation system. receiving historical lane level traffic information including a representation of a speed of travel along a respective lane of a link; receiving recent lane level traffic information including a representation of a speed of travel along the respective lane of the link, wherein the recent lane level traffic information is indicative of more recent traffic conditions than traffic conditions represented by at least some of the historical lane level traffic information; determining a representation of a difference between representations of the speed of travel provided by the historical lane level traffic information and the recent lane level traffic information; identifying the lane level traffic surprise based upon the representation of the difference; causing provision of the representation of the difference to a navigation system; and characterized by using the representation of the difference as a routing cost by a routing algorithm of the navigation system.
A flyer bow for assembling / twisting / braiding cables, said flyer bow comprising: - a body having a longitudinal orifice formed in the mass of said body and over the entire length of said flyer bow, and - a cable guide element housed in said orifice to guide the longitudinal running of the cable, said cable guide element having an inner surface defining the cable passage, characterized in that said inner surface is formed by a spring having adjacent turns, said turns of said spring forming micro- bulges and micro- hollows whose height amplitude is between 0.1 and 1 mm. - a body having a longitudinal orifice formed in the mass of said body and over the entire length of said flyer bow, and - a cable guide element housed in said orifice to guide the longitudinal running of the cable, said cable guide element having an inner surface defining the cable passage,
Rifaximin for use in reducing the frequency of hospitalization visits in a method of treating hepatic encephalopathy, comprising administering rifaximin, wherein the rifaximin is administered orally in the form of a tablet at a dosage between 1000 mg to 1200 mg rifaximin daily for a period of 12 months or longer.