mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an emulsion including a hydrophobic internal phase dispersed in a hydrophilic continuous phase, having an internal phase percentage higher than 55%, wherein said method comprising the following steps: a) producing an oil-in-water emulsion composition with a hydrophobic phase/hydrophilic phase volume ratio of at least 5/95, including a step for incorporating cellulose nanocrystals into the hydrophilic phase, and a step for forming the emulsion by dispersing the hydrophobic phase in the hydrophilic phase, b) producing the said emulsion having an internal phase percentage higher than 55%, including: b.1) a step for adding a volume of hydrophobic phase to the emulsion composition produced in Step a), and stirring the mixture thereby produced, and/or b.2) a step for concentrating the emulsion composition produced in Step a), by removing at least part of the hydrophilic phase. a) producing an oil-in-water emulsion composition with a hydrophobic phase/hydrophilic phase volume ratio of at least 5/95, including a step for incorporating cellulose nanocrystals into the hydrophilic phase, and a step for forming the emulsion by dispersing the hydrophobic phase in the hydrophilic phase, b) producing the said emulsion having an internal phase percentage higher than 55%, including: b.1) a step for adding a volume of hydrophobic phase to the emulsion composition produced in Step a), and stirring the mixture thereby produced, and/or b.2) a step for concentrating the emulsion composition produced in Step a), by removing at least part of the hydrophilic phase. b.1) a step for adding a volume of hydrophobic phase to the emulsion composition produced in Step a), and stirring the mixture thereby produced, and/or b.2) a step for concentrating the emulsion composition produced in Step a), by removing at least part of the hydrophilic phase.
Technoscopic instrument for machining surfaces in technical hollow spaces, wherein the instrument comprises a stationary tubular shaft and a tool unit, which is arranged distally on the shaft, for holding a machining tool and which can be swivelled perpendicularly to a longitudinal axis of the shaft by means of joint, wherein for selective swivelling, the tool unit is coupled to a first adjustment unit that is arranged proximally on the instrument, wherein the swivellable tool unit comprises an end section which is arranged distally with regard to the joint, is borne in an axially displaceable manner and via an elongated control element that does not yield to tension, is rigid and bends perpendicularly to its longitudinal axial extension, is coupled a second adjustment unit arranged proximally on the instrument, which is provided independently of and separately from the first adjustment unit, for the selective telescoping of the end section, characterised in that the control element is at a distance from a longitudinal axis of the shaft and in the tool unit assumes a coaxial alignment with the tool unit, wherein, facing the joint, the tool unit has an inlet area for the control elements that tapers in the distal direction. wherein the swivellable tool unit comprises an end section which is arranged distally with regard to the joint, is borne in an axially displaceable manner and via an elongated control element that does not yield to tension, is rigid and bends perpendicularly to its longitudinal axial extension, is coupled a second adjustment unit arranged proximally on the instrument, which is provided independently of and separately from the first adjustment unit, for the selective telescoping of the end section, characterised in that the control element is at a distance from a longitudinal axis of the shaft and in the tool unit assumes a coaxial alignment with the tool unit, wherein, facing the joint, the tool unit has an inlet area for the control elements that tapers in the distal direction.
A method of anodizing a bonded assembly (600, 100), comprising: attaching a first electrode (700, 200) to a first component (602, 102) of the bonded assembly (600, 100), the bonded assembly (600, 100) comprising: the first component (602, 102), and a second component (604, 104) bonded to the first component (602, 102), wherein the second component (604, 104) is electrically isolated from the first component (602, 102); attaching a second electrode (702, 200) to the second component (604, 104) of the bonded assembly (600, 100); and forming a first oxide layer on the first component (602, 102) and a second oxide layer on the second component (604, 104); wherein attaching the second electrode (702, 200) to the second component (604, 104) comprises contacting the second component (604, 104) with a first arm of the second electrode (702, 200), and disposing an insulator between a second arm of the second electrode (702, 200) and the first component (602, 102). attaching a first electrode (700, 200) to a first component (602, 102) of the bonded assembly (600, 100), the bonded assembly (600, 100) comprising: the first component (602, 102), and a second component (604, 104) bonded to the first component (602, 102), wherein the second component (604, 104) is electrically isolated from the first component (602, 102); the first component (602, 102), and a second component (604, 104) bonded to the first component (602, 102), wherein the second component (604, 104) is electrically isolated from the first component (602, 102); attaching a second electrode (702, 200) to the second component (604, 104) of the bonded assembly (600, 100); and forming a first oxide layer on the first component (602, 102) and a second oxide layer on the second component (604, 104); wherein attaching the second electrode (702, 200) to the second component (604, 104) comprises contacting the second component (604, 104) with a first arm of the second electrode (702, 200), and disposing an insulator between a second arm of the second electrode (702, 200) and the first component (602, 102).
A method for wireless communications by a user equipment, UE, comprising: configuring a first serving frequency as a primary component carrier, PCC; configuring a second serving frequency as a secondary component carrier, SCC; entering a connected mode discontinuous reception, C-DRX, state, while in a connected mode within one or more serving cells; and determining how often to perform search and measurement on the second serving frequency of cells neighboring or potentially neighboring the one or more serving cells based on whether a measurement triggering event is configured on the SCC, wherein a measurement triggering event is determined based on signal strength measurements of the one or more serving cells and the neighbouring cells. configuring a first serving frequency as a primary component carrier, PCC; configuring a second serving frequency as a secondary component carrier, SCC; entering a connected mode discontinuous reception, C-DRX, state, while in a connected mode within one or more serving cells; and determining how often to perform search and measurement on the second serving frequency of cells neighboring or potentially neighboring the one or more serving cells based on whether a measurement triggering event is configured on the SCC, wherein a measurement triggering event is determined based on signal strength measurements of the one or more serving cells and the neighbouring cells.
A fluid distributor mounting assembly, comprising at least one fluid distributor (20, 20'), an associated fluid distribution cabinet and at least one mounting element (30, 30') for securing the at least one fluid distributor (20, 20') in the distribution cabinet, wherein the distribution cabinet comprises a frame and a back wall and the at least one fluid distributor (20, 20') is connected to the at least one mounting element (30, 30'), wherein the back wall of the distribution cabinet has a plurality of recesses and the at least one mounting element comprises insertion elements, wherein the insertion elements can be introduced into recesses in the back wall for securing the at least one fluid distributor (20, 20') in the distribution cabinet, characterised in that the recesses are at least partly configured as vertically tapering holes in the installed state of the fluid distribution cabinet and the insertion elements engage behind some of the vertically tapering holes in the installed state of the fluid distribution cabinet.
An integrated circuit package (300, 500) comprising a patch antenna (100, 200) therein, the patch antenna comprising a substantially laminar antenna section (101, 201, 301) having a first major side (102, 202) and a second major side, the first major side opposite to the second major side, wherein the substantially laminar antenna section comprises at least one aperture (103, 203, 303) extending from the first major side to the second major side, wherein the at least one aperture comprises: one aperture located substantially at the centre of the substantially laminar antenna section; or a plurality of apertures, wherein each aperture of the plurality of apertures is arranged substantially at the centre of the substantially laminar antenna section, away from the edges of the substantially laminar antenna section, wherein the at least one aperture is arranged in the substantially laminar antenna section at a position of low current density relative to a current density profile of the patch antenna at an operating frequency of the patch antenna, wherein the position of low current density comprises a current density less than 75% of an average current density.
A computer-implemented method of fault-resistant multi-node communication, the communication having a plurality of participating nodes, each node having its own public key and private key, each node having a respective output address to which the communication is to assign tokens, the method, comprising: encrypting a first output address associated with said one of the participating nodes using a first public key associated with said one of the participating nodes; adding the encrypted first output address to a set of encrypted output addresses; shuffling the order of the encrypted output addresses in the set; sending the set to a next node; receiving a further shuffled set of addresses from another of the participating nodes, the further shuffled set of addresses including the encrypted first output address; replacing the encrypted first output address in the further shuffled set of addresses with the first output address; and forwarding the further shuffled set of addresses containing the first output address to a subsequent node. encrypting a first output address associated with said one of the participating nodes using a first public key associated with said one of the participating nodes; adding the encrypted first output address to a set of encrypted output addresses; shuffling the order of the encrypted output addresses in the set; sending the set to a next node; receiving a further shuffled set of addresses from another of the participating nodes, the further shuffled set of addresses including the encrypted first output address; replacing the encrypted first output address in the further shuffled set of addresses with the first output address; and forwarding the further shuffled set of addresses containing the first output address to a subsequent node.
A transition duct that is configured to form, in a turbine, an annular gas flow path through which a mainstream gas flowing from a first turbine to a second turbine can pass, wherein the transition duct includes an inner cylindrical member and an outer cylindrical member, the outer cylindrical member is coaxially disposed on an outer side of the inner cylindrical member, an inner circumferential side flow path surface is formed by an outer circumferential surface of the inner cylindrical member and an outer circumferential side flow path surface is formed by an inner circumferential surface of the outer cylindrical member, the gas flow path has the inner circumferential side flow path surface on a center side of a rotary shaft of the first turbine and the second turbine and the outer circumferential side flow path surface which is provided on an outer circumferential side of the inner circumferential side flow path surface so as to oppose the inner circumferential side flow path surface, and the inner circumferential side flow path surface and the outer circumferential side flow path surface each have a changing inclination angle (Φ1,Φ2) with respect to an axial direction of the rotary shaft and extend on an outer side of the rotary shaft in a radial direction from the first turbine toward the second turbine, characterized in that an inner circumferential side maximum inclination portion where the inclination angle (Φ1) of the inner circumferential side flow path surface is maximum is provided within a range from a position aligned with an outer circumferential side maximum inclination portion where the inclination angle (Φ2) of the outer circumferential side flow path surface is maximum to a position, which has advanced to a second turbine side by a length of 20% of a duct length or less, in the axial direction.
An apparatus of a first user equipment, UE, in a wireless communication network, the apparatus comprising: a transceiver; and at least one processor operably coupled to the transceiver, and configured to: receive, from a base station, control information including information of reserved resources, perform a power sensing operation on subframes except for at least one subframe in which a transmission from the first UE occurs, determine (1203,1204) available resources by excluding the reserved resources with sensed power higher than a threshold, perform a transmission from the first UE on the available resources, characterised in that if the at least one subframe being determined as a subframe m that is excluded for the power sensing operation by the first UE, an available resource determination in the subframe m to a subframe m+k ∗ P min is avoided until the power sensing operation is performed in the subframe m+k ∗ P min, wherein k is an integer, k is larger than 0, and P min is set to 100. a transceiver; and at least one processor operably coupled to the transceiver, and configured to: receive, from a base station, control information including information of reserved resources, perform a power sensing operation on subframes except for at least one subframe in which a transmission from the first UE occurs, determine (1203,1204) available resources by excluding the reserved resources with sensed power higher than a threshold, perform a transmission from the first UE on the available resources, characterised in that if the at least one subframe being determined as a subframe m that is excluded for the power sensing operation by the first UE, an available resource determination in the subframe m to a subframe m+k ∗ P min is avoided until the power sensing operation is performed in the subframe m+k ∗ P min, wherein k is an integer, k is larger than 0, and P min is set to 100. receive, from a base station, control information including information of reserved resources, perform a power sensing operation on subframes except for at least one subframe in which a transmission from the first UE occurs, determine (1203,1204) available resources by excluding the reserved resources with sensed power higher than a threshold, perform a transmission from the first UE on the available resources, characterised in that if the at least one subframe being determined as a subframe m that is excluded for the power sensing operation by the first UE, an available resource determination in the subframe m to a subframe m+k ∗ P min is avoided until the power sensing operation is performed in the subframe m+k ∗ P min, wherein k is an integer, k is larger than 0, and P min is set to 100.
A tile-based rendering method comprising: performing binning of a current frame; generating a first identification code of binning information of a tile to be rendered in the current frame and a second identification code of property information of a tile to be rendered in the current frame; comparing the first identification code of the tile to be rendered to a first identification code of a previous tile, wherein a location of the previous tile in a previous frame is the same as a location of the tile to be rendered in the current frame; skipping comparing the second identification codes and rendering the current frame by performing pixel processing of the tile to be rendered in response to the first identification code of the tile to be rendered not being identical to the first identification code of the previous tile; comparing the second identification code of the tile to be rendered to second identification codes of the previous tile in response to the first identification code of the tile to be rendered being identical to the first identification code of the previous tile; rendering the current frame by re-using an image of the previous tile stored in a frame buffer in response to the second identification code of the tile to be rendered being identical to the second identification code of the previous tile, or rendering the current frame by performing pixel processing of the tile to be rendered in response to the second identification code of the tile to be rendered not being identical to the second identification code of the previous tile. performing binning of a current frame; generating a first identification code of binning information of a tile to be rendered in the current frame and a second identification code of property information of a tile to be rendered in the current frame; comparing the first identification code of the tile to be rendered to a first identification code of a previous tile, wherein a location of the previous tile in a previous frame is the same as a location of the tile to be rendered in the current frame; skipping comparing the second identification codes and rendering the current frame by performing pixel processing of the tile to be rendered in response to the first identification code of the tile to be rendered not being identical to the first identification code of the previous tile; comparing the second identification code of the tile to be rendered to second identification codes of the previous tile in response to the first identification code of the tile to be rendered being identical to the first identification code of the previous tile; rendering the current frame by re-using an image of the previous tile stored in a frame buffer in response to the second identification code of the tile to be rendered being identical to the second identification code of the previous tile, or rendering the current frame by performing pixel processing of the tile to be rendered in response to the second identification code of the tile to be rendered not being identical to the second identification code of the previous tile.
A chemical mechanical polishing composition, comprising at least one type of inorganic particles which are dispersed in the liquid medium, wherein the concentration of inorganic particles is not more than 0.6 % by weight of the CMP composition at least one type of polymer particles which are dispersed in the liquid medium, wherein the concentration of the polymer particles is not more than 0.1 % by weight of the CMP composition a liquid medium, wherein the zeta-potential of the inorganic particles in the liquid medium and the zeta-potential of the polymer particles in the liquid medium are positive, and the polymer particles have at least one type of functional group which is an imidazole group and the weight ratio of polymer particles to inorganic particles is in the range from 0.001 to 0.06 and the pH value is in the range of from 4 to 6. at least one type of inorganic particles which are dispersed in the liquid medium, wherein the concentration of inorganic particles is not more than 0.6 % by weight of the CMP composition at least one type of polymer particles which are dispersed in the liquid medium, wherein the concentration of the polymer particles is not more than 0.1 % by weight of the CMP composition a liquid medium,
A system, comprising: a processor configured to: intercept a DNS (Domain Name System) request from a client on a private network, wherein the processor is part of a security appliance configured to intercept communications associated with the private network and wherein the DNS request is directed to a DNS server; extract a domain name from the DNS request; determine based on a policy that access to the domain name is not permitted; respond to the DNS request from the client with a spoofed DNS response comprising a non-existent or unavailable IP (Internet Protocol) address; wherein the processor blocks the DNS request from being transmitted to any DNS server; wherein to determine based on a policy that access to the domain name is not permitted comprises to determine that at least a prescribed number of DNS requests to resolve unknown domain names have been received from the client; wherein the processor is further configured to flag the unknown domain names as suspicious or malicious; and a memory coupled to the processor and configured to provide the processor with instructions. a processor configured to: intercept a DNS (Domain Name System) request from a client on a private network, wherein the processor is part of a security appliance configured to intercept communications associated with the private network and wherein the DNS request is directed to a DNS server; extract a domain name from the DNS request; determine based on a policy that access to the domain name is not permitted; respond to the DNS request from the client with a spoofed DNS response comprising a non-existent or unavailable IP (Internet Protocol) address; wherein the processor blocks the DNS request from being transmitted to any DNS server; wherein to determine based on a policy that access to the domain name is not permitted comprises to determine that at least a prescribed number of DNS requests to resolve unknown domain names have been received from the client; wherein the processor is further configured to flag the unknown domain names as suspicious or malicious; and intercept a DNS (Domain Name System) request from a client on a private network, wherein the processor is part of a security appliance configured to intercept communications associated with the private network and wherein the DNS request is directed to a DNS server; extract a domain name from the DNS request; determine based on a policy that access to the domain name is not permitted; respond to the DNS request from the client with a spoofed DNS response comprising a non-existent or unavailable IP (Internet Protocol) address; wherein the processor blocks the DNS request from being transmitted to any DNS server; wherein to determine based on a policy that access to the domain name is not permitted comprises to determine that at least a prescribed number of DNS requests to resolve unknown domain names have been received from the client; wherein the processor is further configured to flag the unknown domain names as suspicious or malicious; and a memory coupled to the processor and configured to provide the processor with instructions.