mhurhangee/patent-ind-claim-en huggingface dataset:
A mid-turbine frame located in a gas turbine engine axially aft of a high-pressure turbine and fore of a low-pressure turbine , the mid-turbine frame comprising: an outer frame case ; an inner frame case ; a plurality of hollow spokes attached between the outer frame case and the inner frame case to distribute force from the inner frame case to the outer frame case , wherein cooling airflow flows through the plurality of hollow spokes to the inner frame case , the hollow spokes are connected to the outer frame case by nut that allows the hollow spokes to be tensioned, and the inner frame case includes a manifold defined by first and second annular walls, and first and second axial walls for receiving cooling airflow provided via the plurality of hollow spokes ; characterised by further comprising: a metering plate configured to meter or control the flow of cooling airflow into the hollow spokes , wherein the size of the metering plate is adjustable to selectively increase or decrease the volume of cooling air provided to the hollow spokes to dictate the amount of cooling provided to the hollow spokes . an outer frame case ; an inner frame case ; a plurality of hollow spokes attached between the outer frame case and the inner frame case to distribute force from the inner frame case to the outer frame case , wherein cooling airflow flows through the plurality of hollow spokes to the inner frame case , the hollow spokes are connected to the outer frame case by nut that allows the hollow spokes to be tensioned, and the inner frame case includes a manifold defined by first and second annular walls, and first and second axial walls for receiving cooling airflow provided via the plurality of hollow spokes ; characterised by further comprising: a metering plate configured to meter or control the flow of cooling airflow into the hollow spokes , wherein the size of the metering plate is adjustable to selectively increase or decrease the volume of cooling air provided to the hollow spokes to dictate the amount of cooling provided to the hollow spokes .
A brazing consumable, comprising: a flux core (203; 303; 403; 503), and a metallic sheath (201; 301; 401; 501) which surrounds said flux core such that said metallic sheath has a seam (207; 307; 407; 507) through which at least some of said flux core passes when said brazing consumable is heated; wherein said sheath has an exterior surface such that said consumable has a cross-sectional shape which is circular for a portion of a perimeter of said cross-sectional shape, characterized in that said exterior surface has at least one protrusion (205; 305; 405; 505) which extends outward from said exterior surface, wherein said protrusion is positioned remote from said seam along said exterior surface of said sheath, and wherein said at least one protrusion has a distal edge which extending away from said exterior surface. a flux core (203; 303; 403; 503), and a metallic sheath (201; 301; 401; 501) which surrounds said flux core such that said metallic sheath has a seam (207; 307; 407; 507) through which at least some of said flux core passes when said brazing consumable is heated; wherein said sheath has an exterior surface such that said consumable has a cross-sectional shape which is circular for a portion of a perimeter of said cross-sectional shape, characterized in that said exterior surface has at least one protrusion (205; 305; 405; 505) which extends outward from said exterior surface, wherein said protrusion is positioned remote from said seam along said exterior surface of said sheath, and wherein said at least one protrusion has a distal edge which extending away from said exterior surface.
A separation arrangement integrated into a tank with at least two chambers located one after the other and separated by a separating wall , and comprising a first inlet into the tank for food waste mixed with water and a second inlet into the tank, wherein the first inlet opens out into a first of the at least two chambers and wherein a second chamber is provided with an outlet , characterised in that the second inlet for dish washing water without food waste, opens out into the second of the at least two chambers, and in that a connection is arranged in order to allow water separated from the food waste in the first chamber to flow onwards into the second chamber and to be mixed with dish-washing water, and in that the second chamber is arranged to separate fat from water and wherein the outlet is for water separated from fat.
A method of fabricating a security product or product of value including a substrate made of paper and a diffractive security element which is directly connected to the substrate by means of an adhesive layer , the method comprising the steps of: (i) applying a hot-melt adhesive and a latent-reactive adhesive a) onto a region of the substrate which region is provided for the security element and/or b) onto said security element , wherein either a mixture of the hot-melt adhesive and the latent-reactive adhesive is applied or the hot-melt adhesive and the latent-reactive adhesive are applied separately from each other section by section and wherein the application temperature T a1 of the hot-melt adhesive is lower than the application temperature T a2 of the latent-reactive adhesive and a temperature T 1 is selected such that during the application process T a1 ≤ T 1 < T a2 ; (ii) placing the security element onto the substrate ; and (iii) heating thereof to a temperature T 2 , where T 2 ≥ T a2 . (i) applying a hot-melt adhesive and a latent-reactive adhesive a) onto a region of the substrate which region is provided for the security element and/or b) onto said security element , wherein either a mixture of the hot-melt adhesive and the latent-reactive adhesive is applied or the hot-melt adhesive and the latent-reactive adhesive are applied separately from each other section by section and wherein the application temperature T a1 of the hot-melt adhesive is lower than the application temperature T a2 of the latent-reactive adhesive and a temperature T 1 is selected such that during the application process T a1 ≤ T 1 < T a2 ; (ii) placing the security element onto the substrate ; and (iii) heating thereof to a temperature T 2 , where T 2 ≥ T a2 .
A polymerizable polyacidic polymer having repeating units of the following formula (I): wherein R 1 represents a group of the following formula (II): wherein Ar is an aromatic group which may be further substituted, R 2 and R 3 , which may be the same or different, independently represent a hydrogen atom, or a C 1-6 alkyl group which may be substituted with a carboxylic acid group; R which may be the same or different when more than one R is present, represents a hydrogen atom, a carboxylic acid group, a COOR a group, a CONHR b group, or a CONR c 2 group, wherein R a , R b , and R c represent a C 1-6 alkyl group; R 8 represents a halogen atom or a group selected from -OH, -OR d , -NR e H,-NR e R f , -SH, and -SR g , wherein R d , R e , R f , R g , and R g , represent a C 1-6 alkyl group; o is an integer of 1 or 2; n is an integer of 1 to 4; provided that when o is 2, the R 8 cannot be both OH. Ar is an aromatic group which may be further substituted, R 2 and R 3 , which may be the same or different, independently represent a hydrogen atom, or a C 1-6 alkyl group which may be substituted with a carboxylic acid group; R which may be the same or different when more than one R is present, represents a hydrogen atom, a carboxylic acid group, a COOR a group, a CONHR b group, or a CONR c 2 group, wherein R a , R b , and R c represent a C 1-6 alkyl group; R 8 represents a halogen atom or a group selected from -OH, -OR d , -NR e H,-NR e R f , -SH, and -SR g , wherein R d , R e , R f , R g , and R g , represent a C 1-6 alkyl group; o is an integer of 1 or 2; n is an integer of 1 to 4;
A process for adsorbing sodium ibuprofen dihydrate onto a substrate, comprising the steps of: (a) adding and mixing an inert adsorbent to a non-solid form comprising the sodium ibuprofen dihydrate, thereby forming a mixture; and (b) drying the mixture to form a solid crumbly material; wherein the inert adsorbent is mesoporous silica. (a) adding and mixing an inert adsorbent to a non-solid form comprising the sodium ibuprofen dihydrate, thereby forming a mixture; and (b) drying the mixture to form a solid crumbly material; wherein the inert adsorbent is mesoporous silica.
A method for a network comprising a plurality of logical networks (2701-2703), the method comprising: distributing a plurality of packets which are associated with different sets of compute virtual machines, 'VMs', of different logical networks (2701-2703) and which belong to a plurality of flows entering or exiting the different logical networks (2701-2703) to a plurality of service VMs, 'SVMs', (211-214) in different edge SVM clusters (2711-2713), with each SVM cluster performing a set of services on flows for a different logical network (2701-2703) at an edge SVM providing access into or out of the logical network (2701-2703), wherein the different logical networks are implemented by configuring a shared set of managed physical forwarding elements executing on host computers in a datacenter, wherein the compute VMs and the SVMs (211-214) execute on the host computers , and wherein each flow is assigned to one SVM (211-214) in the edge SVM cluster (2711-2713) of the flow's source or destination logical network (2701-2703) and each SVM (211-214) is assigned to perform stateful processing for at least one flow; and performing the stateful processing for the plurality of flows at the edge SVM clusters (2711-2713) according to the assignment of the flows. distributing a plurality of packets which are associated with different sets of compute virtual machines, 'VMs', of different logical networks (2701-2703) and which belong to a plurality of flows entering or exiting the different logical networks (2701-2703) to a plurality of service VMs, 'SVMs', (211-214) in different edge SVM clusters (2711-2713), with each SVM cluster performing a set of services on flows for a different logical network (2701-2703) at an edge SVM providing access into or out of the logical network (2701-2703), wherein the different logical networks are implemented by configuring a shared set of managed physical forwarding elements executing on host computers in a datacenter, wherein the compute VMs and the SVMs (211-214) execute on the host computers , and wherein each flow is assigned to one SVM (211-214) in the edge SVM cluster (2711-2713) of the flow's source or destination logical network (2701-2703) and each SVM (211-214) is assigned to perform stateful processing for at least one flow; and performing the stateful processing for the plurality of flows at the edge SVM clusters (2711-2713) according to the assignment of the flows.
A method of separating microorganisms from non-microorganism cells in a non-microorganism cell-containing sample, the method comprising: a) incubating the sample with particles to form particle-microorganism complexes, wherein the step of incubating is performed in the presence of sodium polyanethol sulfonate and a reagent that selectively lyses non-microorganism cells in the sample whilst retaining intact microorganisms present in the sample; and b) separating the particle-microorganism complexes from the non-microorganism cells, wherein the sample is a blood containing sample, wherein the particles have a diameter of between 0.1 and 3.0 μm, and wherein the outer surface of the particles comprises or is coated with any one or more of: i) carboxylic acid groups; ii) amino groups; iii) hydrophobic groups; and iv) streptavidin. a) incubating the sample with particles to form particle-microorganism complexes, wherein the step of incubating is performed in the presence of sodium polyanethol sulfonate and a reagent that selectively lyses non-microorganism cells in the sample whilst retaining intact microorganisms present in the sample; and b) separating the particle-microorganism complexes from the non-microorganism cells, wherein the sample is a blood containing sample, wherein the particles have a diameter of between 0.1 and 3.0 μm, and wherein the outer surface of the particles comprises or is coated with any one or more of: i) carboxylic acid groups; ii) amino groups; iii) hydrophobic groups; and iv) streptavidin. i) carboxylic acid groups; ii) amino groups; iii) hydrophobic groups; and iv) streptavidin.
A computer implemented method of monitoring edema by determining a volume of a predetermined anatomical body part, the method comprising: monitoring a field of view of a depth sensing camera apparatus ; obtaining three-dimensional data of one or more anatomical body parts present in the field of view of the depth sensing camera apparatus; determining a volume of the one or more anatomical body parts present in the field of view of a depth sensing camera apparatus based on the three-dimensional data, wherein determining the volume comprises processing the three-dimensional data in dependence on a three-dimensional representation of the predetermined anatomical body part; identifying a predetermined anatomical body part as being present in the field of view of the depth sensing camera apparatus; associating the volume of one of the one or more anatomical body parts with the identified predetermined anatomical body part; and outputting the volume of the predetermined anatomical body part. monitoring a field of view of a depth sensing camera apparatus ; obtaining three-dimensional data of one or more anatomical body parts present in the field of view of the depth sensing camera apparatus; determining a volume of the one or more anatomical body parts present in the field of view of a depth sensing camera apparatus based on the three-dimensional data, wherein determining the volume comprises processing the three-dimensional data in dependence on a three-dimensional representation of the predetermined anatomical body part; identifying a predetermined anatomical body part as being present in the field of view of the depth sensing camera apparatus; associating the volume of one of the one or more anatomical body parts with the identified predetermined anatomical body part; and outputting the volume of the predetermined anatomical body part.
A method of wireless communication of a first user equipment, UE, comprising: receiving , from a second UE, a set of discovery channel measurement time configurations, DMTCs; receiving information indicating a DMTC of the set of DMTCs to be used for measuring discovery signals; and measuring discovery signals received from the second UE based on the indicated DMTC. receiving , from a second UE, a set of discovery channel measurement time configurations, DMTCs; receiving information indicating a DMTC of the set of DMTCs to be used for measuring discovery signals; and measuring discovery signals received from the second UE based on the indicated DMTC.
A shoe sole member that is partially or entirely formed from a resin foam product constituted by integrating a plurality of resin foam particles, wherein the plurality of resin foam particles consist of a resin composition containing a polyamide elastomer, characterized in that , the resin foam product satisfies all formulas to below, when a loss factor at -20°C is referred to as tanδ [-20°C], a loss factor at 25°C is referred to as tanδ [25°C], a storage elastic modulus at 25°C of the resin composition is referred to as E' [25°C], the minimum value of a complex viscosity at 100°C to 130°C of the resin composition is referred to as ηmin, and the maximum value thereof is referred to as ηmax, in a dynamic viscoelasticity measurement: 1 ≤ tan ⁢ δ − 20 ° C / tan ⁢ δ 25 ° C ≤ 5 50 MPa ≤ E ′ 25 ° C ≤ 400 MPa 0.05 MPa ⋅ s ≤ η ⁢ min and η ⁢ max ≤ 0.6 MPa ⋅ s
A computing device to perform a secure boot, the computing device comprising: a security engine of the computing device comprising a secure boot module to: (i) consecutively determine a hash value for each block of a plurality of blocks of initial boot firmware, wherein to consecutively determine the hash values comprises to (a) retrieve each block of the plurality of blocks from a memory of the computing device, (b) store each retrieved block in a secure memory of the security engine, and (c) determine the hash value for each block stored in the secure memory; and (ii) generate an aggregated hash value from the hash value determined for each block of the initial boot firmware; and a processor comprising a Cache as RAM and a processor initialization module to (i) compare the aggregated hash value to a reference checksum value associated with the initial boot firmware to determine whether the aggregated hash value matches the reference checksum value and (ii) complete initialization of the processor in response to a determination that the aggregated hash value matches the reference checksum value, wherein the secure boot module or the processor initialization module to copy each block stored in the secure memory to the Cache as RAM of the processor. a security engine of the computing device comprising a secure boot module to: (i) consecutively determine a hash value for each block of a plurality of blocks of initial boot firmware, wherein to consecutively determine the hash values comprises to (a) retrieve each block of the plurality of blocks from a memory of the computing device, (b) store each retrieved block in a secure memory of the security engine, and (c) determine the hash value for each block stored in the secure memory; and (ii) generate an aggregated hash value from the hash value determined for each block of the initial boot firmware; and a processor comprising a Cache as RAM and a processor initialization module to (i) compare the aggregated hash value to a reference checksum value associated with the initial boot firmware to determine whether the aggregated hash value matches the reference checksum value and (ii) complete initialization of the processor in response to a determination that the aggregated hash value matches the reference checksum value, wherein the secure boot module or the processor initialization module to copy each block stored in the secure memory to the Cache as RAM of the processor.
A method for operating a user agent for a mobile device in a wireless communication network, the method comprising: calculating, by a user agent, a relay node selection rank for a plurality of relay nodes, based at least partly on signal strength of the plurality of relay nodes; selecting, by the user agent, a relay node from the plurality of relay nodes based at least partly on the relay node selection ranks as ranked by the user agent; and recommending, by the user agent, the selected relay node to an access node in the wireless communication network. calculating, by a user agent, a relay node selection rank for a plurality of relay nodes, based at least partly on signal strength of the plurality of relay nodes; selecting, by the user agent, a relay node from the plurality of relay nodes based at least partly on the relay node selection ranks as ranked by the user agent; and recommending, by the user agent, the selected relay node to an access node in the wireless communication network.
An alkoxylate mixture comprising compounds of the following formula: wherein R1 is either methyl or ethyl or a combination thereof, R2 is either hydrogen, methyl or ethyl or any combination thereof, wherein x is 3 or 4, y is 1 or 2, m has an average value of from 1 to 15, and n has an average value of 0 to 40, with the proviso that the mixture includes a compound wherein x + y is 4, a compound wherein x + y is 5 and a compound wherein x + y is 6.
A multilayer tube (10; 110), particularly for fluids, which comprises a sheath (11; 111) made of fluorinated polymers which is located in the innermost layer and is adapted to be in contact with a circulating fluid, wherein said sheath (11; 111) has a smooth internal surface (30; 130) and is reinforced with external layers that are predominantly made of rubber, and wherein it comprises one or more intermediate reinforcement layers (12; 112), which are arranged coaxially to said sheath (11; 111), and an external covering layer (13; 113) which is made of elastomeric material and is coaxial to said one or more reinforcement layers (12; 112), said one or more intermediate reinforcement layers comprising at least one first textile reinforcement layer (17; 117) and at least one second textile reinforcement layer (18;118), with the interposition of a filler layer (19; 119) made of elastomeric material, said sheath (11; 111) having an external surface (31; 131) which is cemented by way of a chemical process that renders the fluorinated polymer bondable by adhesive to other surfaces, said sheath (11; 111) and said one or more intermediate reinforcement layers (12; 112) being coupled stably by way of the interposition of a layer of rubber (16; 116) characterized in that said sheath is constituted by coupling a first, nonconducting material (14; 114) to a second, black-pigmented material that is electrically at least antistatic in the form of one or more continuous strips (15; 115), said one or more continuous strips having a helical extension.
A multi-cavity oven comprising: a housing defining an interior cooking volume surrounded by insulated outer walls and at least one door that may open and close to provide access to the interior cooking volume; a set of shelves subdividing the cooking volume into cooking cavities , the shelves comprising separate upper and lower air channels divided by at least one interior barrier wall, each air channel leading from respective air inlets to respective upwardly directed airstream openings and downwardly directed airstream openings through a jet plate , wherein the set of shelves are removable from the interior cooking volume; the multi-cavity oven further characterized by comprising: electrically controllable water valves for introducing moisture into each of the cooking cavities; and a controller configured to provide independent control of moisture according to the cooking schedule in each of the cooking cavities; wherein each of the cavities is associated with an airflow system comprising a heater system, blower motor and variable speed motor controller so that the controller independently controls the airflow circulating through each cavity 20 and the temperature of said airflow. a housing defining an interior cooking volume surrounded by insulated outer walls and at least one door that may open and close to provide access to the interior cooking volume; a set of shelves subdividing the cooking volume into cooking cavities , the shelves comprising separate upper and lower air channels divided by at least one interior barrier wall, each air channel leading from respective air inlets to respective upwardly directed airstream openings and downwardly directed airstream openings through a jet plate , wherein the set of shelves are removable from the interior cooking volume; the multi-cavity oven further characterized by comprising: electrically controllable water valves for introducing moisture into each of the cooking cavities; and a controller configured to provide independent control of moisture according to the cooking schedule in each of the cooking cavities; wherein each of the cavities is associated with an airflow system comprising a heater system, blower motor and variable speed motor controller so that the controller independently controls the airflow circulating through each cavity 20 and the temperature of said airflow. electrically controllable water valves for introducing moisture into each of the cooking cavities; and a controller configured to provide independent control of moisture according to the cooking schedule in each of the cooking cavities; wherein each of the cavities is associated with an airflow system comprising a heater system, blower motor and variable speed motor controller so that the controller independently controls the airflow circulating through each cavity 20 and the temperature of said airflow.