mhurhangee/ep-ind-claims huggingface dataset:
An computing system (100, 200) comprising: one or more processors (102, 502); a plurality of persistent memory modules coupled with the one or more processors; and system software to be operated by the one or more processors to: receive volatile memory allocation requests and persistent memory allocation requests from one or more applications executed by the one or more processors; and dynamically allocate memory pages of the persistent memory modules as volatile type memory pages in response to the volatile memory allocation requests; and persistent type memory pages in response to the persistent memory allocation requests, characterized in that the computing system (100, 200) further comprises: one or more page tables to provide a mapping between logical memory of the one or more applications and physical addresses of data stored within the persistent memory modules, whereby the applications have direct access to the data within the persistent memory modules without the need for going through an I/O controller. one or more processors (102, 502); a plurality of persistent memory modules coupled with the one or more processors; and system software to be operated by the one or more processors to: receive volatile memory allocation requests and persistent memory allocation requests from one or more applications executed by the one or more processors; and dynamically allocate memory pages of the persistent memory modules as volatile receive volatile memory allocation requests and persistent memory allocation requests from one or more applications executed by the one or more processors; and dynamically allocate memory pages of the persistent memory modules as volatile type memory pages in response to the volatile memory allocation requests; and persistent type memory pages in response to the persistent memory allocation requests, characterized in that the computing system (100, 200) further comprises: one or more page tables to provide a mapping between logical memory of the one or more applications and physical addresses of data stored within the persistent memory modules, whereby the applications have direct access to the data within the persistent memory modules without the need for going through an I/O controller.
A boron nitride powder comprising boron nitride aggregated grains that are formed by aggregation of scaly hexagonal boron nitride primary particles, the boron nitride powder having the following characteristics to: the primary particles of the scaly hexagonal boron nitride have an average long side length of 1.5 μm or more and 3.5 μm or less and a standard deviation of 1.2 μm or less; the boron nitride aggregated grains have a grain strength of 8.0 MPa or more at a cumulative breakdown rate of 63.2% and a grain strength of 4.5 MPa or more at a cumulative breakdown rate of 20.0%; and the boron nitride powder has an average particle diameter of 20 μm or more and 100 μm or less. the primary particles of the scaly hexagonal boron nitride have an average long side length of 1.5 μm or more and 3.5 μm or less and a standard deviation of 1.2 μm or less; the boron nitride aggregated grains have a grain strength of 8.0 MPa or more at a cumulative breakdown rate of 63.2% and a grain strength of 4.5 MPa or more at a cumulative breakdown rate of 20.0%; and the boron nitride powder has an average particle diameter of 20 μm or more and 100 μm or less.
A method of manufacturing a strap or an antenna formed on a substrate (1, 19) for accommodating an integrated circuit, the method comprising the steps of: forming a conductive structure (2, 17) on the substrate (1, 19); the conductive structure (2, 17) comprising an area (3, 20) which is initially electrically short-circuited and is configured to be turned into four antenna contacts (4a-4d) or four strap contacts (18a-18d), the respective antenna contacts (4a-4d) or strap contacts (18a-18d) to be contacted with contacts (13, 14) of the integrated circuit; forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) by mechanically separating the conductive structure (2, 17) in the area (3, 20) which is initially electrically short-circuited and forming a cross-shaped structure into said area (3, 20) of the conductive structure (2, 17); stretching the substrate (1, 19) by means of stretching means after forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) in a first direction in order to widen a first gap (8, 24) between the respective antenna contacts (4a-4d) or strap contacts (18a, 18d); the first gap (8, 24) being formed by the mechanically separating step; and stretching the substrate (1, 19) by means of stretching means after forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) in a second direction perpendicular to the first direction in order to widen a second gap (9, 25) between the respective antenna contacts (4a, 4c) or strap contacts (18a, 18d); the second gap (9, 25) being formed by the mechanically separating step. forming a conductive structure (2, 17) on the substrate (1, 19); the conductive structure (2, 17) comprising an area (3, 20) which is initially electrically short-circuited and is configured to be turned into four antenna contacts (4a-4d) or four strap contacts (18a-18d), the respective antenna contacts (4a-4d) or strap contacts (18a-18d) to be contacted with contacts (13, 14) of the integrated circuit; forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) by mechanically separating the conductive structure (2, 17) in the area (3, 20) which is initially electrically short-circuited and forming a cross-shaped structure into said area (3, 20) of the conductive structure (2, 17); stretching the substrate (1, 19) by means of stretching means after forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) in a first direction in order to widen a first gap (8, 24) between the respective antenna contacts (4a-4d) or strap contacts (18a, 18d); the first gap (8, 24) being formed by the mechanically separating step; and stretching the substrate (1, 19) by means of stretching means after forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) in a second direction perpendicular to the first direction in order to widen a second gap (9, 25) between the respective antenna contacts (4a, 4c) or strap contacts (18a, 18d); the second gap (9, 25) being formed by the mechanically separating step.
Method for protecting an intermediate circuit capacitor in a power converter circuit comprising at least two submodules in a series circuit, which draws electrical power from a power source outputting a DC voltage by way of an inductance, wherein each submodule has, on the input side, a single-phase half bridge and, on the load side, a full bridge, and wherein the half bridge, the full bridge and an intermediate circuit capacitor are connected in parallel with one another on the DC voltage side, characterised by the following steps: - detecting a fault in one of the submodules, and - blocking an electrical power transmission from the load-side output (30, 32) of the full bridge of the submodule with the detected fault into the submodule with the detected fault. - detecting a fault in one of the submodules, and - blocking an electrical power transmission from the load-side output (30, 32) of the full bridge of the submodule with the detected fault into the submodule with the detected fault.
A chiral reagent or a salt thereof, the chiral reagent having following chemical formula, wherein G 1 is a hydrogen atom, a nitro group, a halogen atom, a cyano group, or a group of formula, or, G 2 is a nitro group, a cyano group, or a group of formula, or, or both G 1 and G 2 are taken together to form a group of formula, wherein G 21 to G 23 are independently a hydrogen atom, a nitro group, a halogen atom, a cyano group or C 1-3 alkyl group, wherein G 31 to G 33 are independently C 1-4 alkyl group, C 1-4 alkoxy group, C 6-14 aryl group, C 7-14 aralkyl group, C 1-4 alkyl C 6-14 aryl group, C 1-4 alkoxy C 6-14 aryl group, or C 6-14 aryl C 1-4 alkyl group, wherein G 41 to G 46 are independently a hydrogen atom, a nitro group, a halogen atom, a cyano group or C 1-3 alkyl group, wherein G 51 to G 53 are independently a hydrogen atom, a nitro group, a halogen atom, a cyano group, C 1-3 alkyl group or C 1-3 alkyloxy group, and G 3 and G 4 are taken together to form a heteroatom-containing ring that has 3 to 16 carbon atoms. wherein G 51 to G 53 are independently a hydrogen atom, a nitro group, a halogen atom, a cyano group, C 1-3 alkyl group or C 1-3 alkyloxy group, and G 3 and G 4 are taken together to form a heteroatom-containing ring that has 3 to 16 carbon atoms.
Osmotic distillation process for concentrating an aqueous liquid containing sodium chloride, where the liquid has a concentration of up to 20% by weight of sodium chloride, preferably from 2 to 18% by weight of sodium chloride, which comprises at least the following steps, a) optionally prepurification of the liquid to remove organic secondary constituents, in particular down to a total content of the organic secondary constituents of 20 ppm, b) introduction of the purified liquid into a first zone as evaporation zone which is separated from a diffusion zone adjoining this first zone by a hydrophobic first membrane which is permeable to water vapor, c) diffusion of water vapor from the liquid containing sodium chloride through the membrane into the diffusion zone, d) further diffusion of water vapor from the diffusion zone through a second hydrophobic membrane which is permeable to water vapor into a stripping zone adjoining the diffusion zone and absorption of the water vapor in a draw solution which is continuously replaced in the stripping zone. a) optionally prepurification of the liquid to remove organic secondary constituents, in particular down to a total content of the organic secondary constituents of 20 ppm, b) introduction of the purified liquid into a first zone as evaporation zone which is separated from a diffusion zone adjoining this first zone by a hydrophobic first membrane which is permeable to water vapor, c) diffusion of water vapor from the liquid containing sodium chloride through the membrane into the diffusion zone, d) further diffusion of water vapor from the diffusion zone through a second hydrophobic membrane which is permeable to water vapor into a stripping zone adjoining the diffusion zone and absorption of the water vapor in a draw solution which is continuously replaced in the stripping zone.
A method of wireless communication at a wireless device comprising a plurality of antennas (220a, 220b, 420a-f), comprising: determining, at a cellular modem (205, 405, 405a) of the wireless device, a duty cycle based at least in part on a previous WLAN scan by a WLAN modem (210, 410, 410a) of the wireless device, receiving (515, 1005) a wireless local area network, WLAN, scanning parameter at the WLAN modem (210, 410, 410a) of the wireless device from the cellular modem (205, 405, 405a) of the wireless device, wherein the WLAN modem (210, 410, 410a) is associated with a WLAN network and the cellular modem (205, 405, 405a) is associated with a cellular network; modifying (520, 1010) a distribution of the plurality of antennas (220a, 220b, 420a-f) between the WLAN modem (210, 410, 410a) and the cellular modem (205, 405, 405a) based at least in part on the WLAN scanning parameter, wherein the WLAN scanning parameter comprises the duty cyle, and wherein the duty cycle is associated with the WLAN scan and the modified distribution of the plurality of antennas (220a, 220b, 420a-f); and performing (525, 1015), by the WLAN modem (210, 410, 410a), the WLAN scan on channels in a band that is shared by the WLAN modem (210, 410, 410a) and the cellular modem (205, 405, 405a) using at least one antenna coupled to the WLAN modem according to the modified distribution of the plurality of antennas (220a, 220b, 420a-f), and based on the WLAN scanning parameter. determining, at a cellular modem (205, 405, 405a) of the wireless device, a duty cycle based at least in part on a previous WLAN scan by a WLAN modem (210, 410, 410a) of the wireless device, receiving (515, 1005) a wireless local area network, WLAN, scanning parameter at the WLAN modem (210, 410, 410a) of the wireless device from the cellular modem (205, 405, 405a) of the wireless device, wherein the WLAN modem (210, 410, 410a) is associated with a WLAN network and the cellular modem (205, 405, 405a) is associated with a cellular network; modifying (520, 1010) a distribution of the plurality of antennas (220a, 220b, 420a-f) between the WLAN modem (210, 410, 410a) and the cellular modem (205, 405, 405a) based at least in part on the WLAN scanning parameter, wherein the WLAN scanning parameter comprises the duty cyle, and wherein the duty cycle is associated with the WLAN scan and the modified distribution of the plurality of antennas (220a, 220b, 420a-f); and performing (525, 1015), by the WLAN modem (210, 410, 410a), the WLAN scan on channels in a band that is shared by the WLAN modem (210, 410, 410a) and the cellular modem (205, 405, 405a) using at least one antenna coupled to the WLAN modem according to the modified distribution of the plurality of antennas (220a, 220b, 420a-f), and based on the WLAN scanning parameter.
Method for producing a biodegradable adhesive tape, comprising - providing a biodegradable pressure-sensitive adhesive comprising at least 60 wt% of at least one polyurethane, and at least one sulfonated carboxylic ester as a dispersion in at least one organic solvent; - coating this dispersion onto a release liner; - removing the organic solvent; and - transferring the pressure-sensitive adhesive onto a biodegradable carrier. - providing a biodegradable pressure-sensitive adhesive comprising at least 60 wt% of at least one polyurethane, and at least one sulfonated carboxylic ester as a dispersion in at least one organic solvent; at least one sulfonated carboxylic ester as a dispersion in at least one organic solvent; - coating this dispersion onto a release liner; - removing the organic solvent; and - transferring the pressure-sensitive adhesive onto a biodegradable carrier.
A method comprising: sharing an access key from a control-plane serving gateway, SGW-C, to a plurality of user-plane serving gateways, SGW-Us; allocating a plurality of Fully Qualified Tunnel Endpoint Identifiers, FQTEIDs, associated with a user equipment, UE, session; generating an access token for the UE session based, at least in part, on the access key and the plurality of FQTEIDs; and appending the access token to user-plane packets for the UE session. sharing an access key from a control-plane serving gateway, SGW-C, to a plurality of user-plane serving gateways, SGW-Us; allocating a plurality of Fully Qualified Tunnel Endpoint Identifiers, FQTEIDs, associated with a user equipment, UE, session; generating an access token for the UE session based, at least in part, on the access key and the plurality of FQTEIDs; and appending the access token to user-plane packets for the UE session.
A high power handling polarization system, comprising: a first optical assembly configured to receive light, comprising: a first substrate located to receive light; a first polarizer adjacent to the first substrate and located to receive light from the first substrate; a planarization layer adjacent to the first polarizer, the planarization layer being formed of a resin cast onto the first polarizer, the planarization layer being substantially index-matched with the first substrate; a second optical assembly located to receive light from the first optical assembly, comprising: a second substrate located to receive light from the planarization layer of the first optical assembly; a first liquid crystal cell located subsequent in the light path to the second substrate; a second liquid crystal cell located to receive light from the first liquid crystal cell; a third substrate located subsequent in the light path to the second liquid crystal cell; and an air gap located between the first optical assembly and the second optical assembly. a first optical assembly configured to receive light, comprising: a first substrate located to receive light; a first polarizer adjacent to the first substrate and located to receive light from the first substrate; a planarization layer adjacent to the first polarizer, the planarization layer being formed of a resin cast onto the first polarizer, the planarization layer being substantially index-matched with the first substrate; a first substrate located to receive light; a first polarizer adjacent to the first substrate and located to receive light from the first substrate; a planarization layer adjacent to the first polarizer, the planarization layer being formed of a resin cast onto the first polarizer, the planarization layer being substantially index-matched with the first substrate; a second optical assembly located to receive light from the first optical assembly, comprising: a second substrate located to receive light from the planarization layer of the first optical assembly; a first liquid crystal cell located subsequent in the light path to the second substrate; a second liquid crystal cell located to receive light from the first liquid crystal cell; a third substrate located subsequent in the light path to the second liquid crystal cell; and a second substrate located to receive light from the planarization layer of the first optical assembly; a first liquid crystal cell located subsequent in the light path to the second substrate; a second liquid crystal cell located to receive light from the first liquid crystal cell; a third substrate located subsequent in the light path to the second liquid crystal cell; and an air gap located between the first optical assembly and the second optical assembly.
A multichip radar system, comprising a plurality of configurable ICs, and a digital interface therebetween, each configurable IC being configurable to operate as a master IC and as a slave IC, and to have an allocated measurement range; wherein each configurable IC comprises: a down-converter adapted to down-convert a respective reflected radar signal; an ADC adapted to convert the respective down-converted signal to a respective digital signal for a common sampling window to accumulate respective digital data; a digital signal processor adapted to divide the respective digital data between a plurality of measurement ranges, the digital signal processor being further adapted to receive digital data corresponding to the IC's allocated measurement range from each of the other ICs, to send digital data corresponding to each other allocated measurement range to the respective other IC, and to process the digital data in its allocated measurement range; and a transmitter adapted to transmit a radar signal; wherein a one of the configurable ICs is configured to operate as a master IC and is configured to transmit a radar signal and each of the other configurable ICs is configured to operate as a slave IC; and wherein each configurable IC is adapted to use a common Local Oscillator signal, a common clock signal, and a common timing signal for determining at least the start of the common sampling window. a down-converter adapted to down-convert a respective reflected radar signal; an ADC adapted to convert the respective down-converted signal to a respective digital signal for a common sampling window to accumulate respective digital data; a digital signal processor adapted to divide the respective digital data between a plurality of measurement ranges, the digital signal processor being further adapted to receive digital data corresponding to the IC's allocated measurement range from each of the other ICs, to send digital data corresponding to each other allocated measurement range to the respective other IC, and to process the digital data in its allocated measurement range; to receive digital data corresponding to the IC's allocated measurement range from each of the other ICs, to send digital data corresponding to each other allocated measurement range to the respective other IC, and to process the digital data in its allocated measurement range; and a transmitter adapted to transmit a radar signal;
A surge protection device "SPD" with a double-trip mechanism, comprising a frame, an electrode, and a reed, wherein the electrode is provided on the frame; the reed corresponds to the electrode and is welded with the electrode through a low-temperature alloy; and the SPD further comprises a first trip structure and a second trip structure on the frame; the first trip structure comprises a slider and a first tension spring; and the first tension spring comprises one end connected to the frame, and the other end connected to the slider; the second trip structure comprises a second tension spring; and the second tension spring comprises one end connected to the frame, and the other end connected to the reed; and when the SPD is triggered, the first tension spring drives the slider to move to the electrode and be located between the electrode and the reed, and the second tension spring drives the reed to move toward a direction away from the electrode. with a double-trip mechanism, comprising a frame, an electrode, and a reed, wherein the electrode is provided on the frame; the reed corresponds to the electrode and is welded with the electrode through a low-temperature alloy; and the SPD further comprises a first trip structure and a second trip structure on the frame; the first trip structure comprises a slider and a first tension spring; and the first tension spring comprises one end connected to the frame, and the other end connected to the slider; the second trip structure comprises a second tension spring; and the second tension spring comprises one end connected to the frame, and the other end connected to the reed; and when the SPD is triggered, the first tension spring drives the slider to move to the electrode and be located between the electrode and the reed, and the second tension spring drives the reed to move toward a direction away from the electrode.
Drilling support device, comprising a centering sleeve (20, 20a) and at least one first wall (10, 10a) provided at an axial end of the centering sleeve at an angle to the centering sleeve (20, 20a), wherein the first wall (10, 10a) has an adhesive on its side facing away from the centering sleeve (20, 20a) for attaching the drilling support device to a room wall, further comprising at least one second wall, which is adjacent to the first wall (10, 10a) and together with the first wall (10, 10a) forms a cavity around at least a part of the centering sleeve (20, 20a), characterized in that the cavity is filled with a coolant in such a way that the drill passes through the coolant before it penetrates the centering sleeve. a centering sleeve (20, 20a) and at least one first wall (10, 10a) provided at an axial end of the centering sleeve at an angle to the centering sleeve (20, 20a), wherein the first wall (10, 10a) has an adhesive on its side facing away from the centering sleeve (20, 20a) for attaching the drilling support device to a room wall, further comprising at least one second wall, which is adjacent to the first wall (10, 10a) and together with the first wall (10, 10a) forms a cavity around at least a part of the centering sleeve (20, 20a), characterized in that the cavity is filled with a coolant in such a way that the drill passes through the coolant before it penetrates the centering sleeve.