mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a cabinet defining a first storage area to store food; a door connected to the cabinet by first hinge members , so as to be rotatable about a first rotary shaft located at the front portion of the cabinet thereby opening or closing the first storage area ; a gasket provided on the door; a container defining a second storage area received in the first storage area , being rotatable by a second hinge member installed on the cabinet, wherein the second hinge member includes: a first link and a second link rotatably installed on the container ; a latch selectively combining the container with the door when both the door and the container are opened; characterized in that the refrigerator further comprises a third link and a fourth link rotatably installed on the cabinet ; a first mount part installed on the container , rotatably combining the first link and the second link ; and a second mount part installed on the cabinet , rotatably combining the third link and the fourth link , wherein each of the first link and the second link is rotatably connected to at least one of the third link and the fourth link , and wherein the second mount part is installed in a depression part formed on the cabinet . a cabinet defining a first storage area to store food; a door connected to the cabinet by first hinge members , so as to be rotatable about a first rotary shaft located at the front portion of the cabinet thereby opening or closing the first storage area ; a gasket provided on the door; a container defining a second storage area received in the first storage area , being rotatable by a second hinge member installed on the cabinet, wherein the second hinge member includes: a first link and a second link rotatably installed on the container ; a latch selectively combining the container with the door when both the door and the container are opened; characterized in that the refrigerator further comprises a third link and a fourth link rotatably installed on the cabinet ; a first mount part installed on the container , rotatably combining the first link and the second link ; and a second mount part installed on the cabinet , rotatably combining the third link and the fourth link , wherein each of the first link and the second link is rotatably connected to at least one of the third link and the fourth link , and wherein the second mount part is installed in a depression part formed on the cabinet .
A powder composition comprising from 60 to 90% by weight of sodium silicate having CAS Registry Number 1344-09-8 and a SiO 2 /Na 2 O molar ratio comprised between 3.0 and 3.6, preferably between 3.2 and 3.5, and from 10 to 40% by weight of sodium aluminosilicate having CAS Registry Number 1344-00-9, wherein said percentages refer to the total weight of the powder composition.
A gas turbine engine component, comprising: an airfoil , including therein a first cavity (340; 440); an outer spindle (204; 304; 404) extending from the airfoil , the outer spindle (204; 304; 404) including a first channel (344; 444) in fluid communication with the first cavity (340; 440); and an inner spindle (206; 306; 406) positioned opposite the airfoil of the outer spindle (204; 304; 404), characterized in that : the airfoil further includes a second cavity (342; 442) and the outer spindle (204; 304; 404) further includes a second channel (346; 446) in fluid communication with the second cavity (342; 442), wherein the outer spindle (204; 304; 404) includes a first opening (216; 316; 416) in fluid communication with the first channel (344; 444) and a second opening (218; 318; 418) in fluid communication with the second channel (346; 446); and characterized in that , at least one of the first cavity (340; 440) and the second cavity (342; 442) extends through the airfoil and exits through the inner spindle (206; 306; 406). an airfoil , including therein a first cavity (340; 440); an outer spindle (204; 304; 404) extending from the airfoil , the outer spindle (204; 304; 404) including a first channel (344; 444) in fluid communication with the first cavity (340; 440); and an inner spindle (206; 306; 406) positioned opposite the airfoil of the outer spindle (204; 304; 404), the airfoil further includes a second cavity (342; 442) and the outer spindle (204; 304; 404) further includes a second channel (346; 446) in fluid communication with the second cavity (342; 442), wherein the outer spindle (204; 304; 404) includes a first opening (216; 316; 416) in fluid communication with the first channel (344; 444) and a second opening (218; 318; 418) in fluid communication with the second channel (346; 446); and characterized in that , at least one of the first cavity (340; 440) and the second cavity (342; 442) extends through the airfoil and exits through the inner spindle (206; 306; 406).
A manipulation device comprising: a manipulation member with a manipulation body that performs an operation in a manipulation direction according to a manipulation by a manipulator; a support body that freely supports an operation of the manipulation body; and a movable load imparting mechanism (F5) that imparts a movable load to the manipulation body; wherein the manipulation body has a movable axis that enables the operation, the movable load imparting mechanism has a movable member that performs the operation by being engaged with the movable axis, a magnetism generating mechanism (FM5) that faces the movable member with a gap intervening, and a magnetic viscous fluid present in at least part of the gap, viscosity of the magnetic viscous fluid changing according to strength of a magnetic field, the magnetism generating mechanism has a coil that generates a magnetic field by being energized, and also has a first yoke provided so as to enclose the coil and to be disposed on one side of the movable member , the magnetic viscous fluid is filled in a first gap , which is the gap between the first yoke and the movable member, and in the gap, a first buffering layer (K16) having hardness lower than hardness of the movable member is provided on at least one of an opposing plane of the first yoke and an opposing plane of the movable member. a manipulation member with a manipulation body that performs an operation in a manipulation direction according to a manipulation by a manipulator; a support body that freely supports an operation of the manipulation body; and a movable load imparting mechanism (F5) that imparts a movable load to the manipulation body; wherein the manipulation body has a movable axis that enables the operation, the movable load imparting mechanism has a movable member that performs the operation by being engaged with the movable axis, a magnetism generating mechanism (FM5) that faces the movable member with a gap intervening, and a magnetic viscous fluid present in at least part of the gap, viscosity of the magnetic viscous fluid changing according to strength of a magnetic field, the magnetism generating mechanism has a coil that generates a magnetic field by being energized, and also has a first yoke provided so as to enclose the coil and to be disposed on one side of the movable member , the magnetic viscous fluid is filled in a first gap , which is the gap between the first yoke and the movable member, and in the gap, a first buffering layer (K16) having hardness lower than hardness of the movable member is provided on at least one of an opposing plane of the first yoke and an opposing plane of the movable member.
A method for producing renewable component(s), the method comprising: a provision step of providing an isomeric raw material originating from a renewable source, wherein the isomeric raw material contains at least 60 wt.-% iso-paraffins and the iso-paraffins of the isomeric raw material contain more than 30 wt.-% multi-branched iso-paraffins, wherein the amounts of iso-paraffins and multi-branched iso-paraffins are determined relative to the total paraffin content in the isomeric raw material, a cracking step of thermally cracking the isomeric raw material to produce a biohydrocarbon mixture containing C4 olefins, and a reaction step of reacting at least a part of the C4 olefins to produce the renewable component(s). a provision step of providing an isomeric raw material originating from a renewable source, wherein the isomeric raw material contains at least 60 wt.-% iso-paraffins and the iso-paraffins of the isomeric raw material contain more than 30 wt.-% multi-branched iso-paraffins, wherein the amounts of iso-paraffins and multi-branched iso-paraffins are determined relative to the total paraffin content in the isomeric raw material, a cracking step of thermally cracking the isomeric raw material to produce a biohydrocarbon mixture containing C4 olefins, and a reaction step of reacting at least a part of the C4 olefins to produce the renewable component(s).
Slurry distributor having a slurry distributor system which has a central distributor arm and two lateral distributor arms pivotably arranged thereon, which are pivotable between a position aligning with the central distributor arm and a position aligning transversely with respect to the central distributor arm , wherein the central distributor arm is pivotable about at least one transverse axis between a working position folded downwards and a transport position folded upwards, characterised in that the at least one transverse axis is translatably movably guided between a lower position and an upper position in at least one slotted hole extending in the upward direction of the slurry distributor .
Compound according to formula I: wherein: • each R1-R10 may individually be H, a halogen, an alkoxy moiety, a siloxy moiety, a nitrogen-containing moiety, an alkyl moiety, an aryl moiety, or an aralkyl moiety, wherein each R1-R10 comprises ≤ 10 carbon atoms, wherein each of R1-R10 may form a cyclic moiety with an adjacent R1-R10 moiety; • Y is O or N-R11, wherein R11 is an alkyl, cycloalkyl, aryl or aralkyl moiety comprising 1-12 carbon atoms; • M is Ti, Zr or Hf, preferably Ti; • X is • a sigma-bonded ligand, for example: (i) a halogen, (ii) an amine, or (iii) a moiety wherein each X may contain 1 to 10 carbon atoms, selected from an alkyl moiety, an aralkyl moiety, an alkoxy moiety, and an aryloxy moiety; or • a diene, for example a butadiene moiety or an isoprene moiety; • z is the number of ligands X that are bonded to M. • each R1-R10 may individually be H, a halogen, an alkoxy moiety, a siloxy moiety, a nitrogen-containing moiety, an alkyl moiety, an aryl moiety, or an aralkyl moiety, wherein each R1-R10 comprises ≤ 10 carbon atoms, wherein each of R1-R10 may form a cyclic moiety with an adjacent R1-R10 moiety; • Y is O or N-R11, wherein R11 is an alkyl, cycloalkyl, aryl or aralkyl moiety comprising 1-12 carbon atoms; • M is Ti, Zr or Hf, preferably Ti; • X is • a sigma-bonded ligand, for example: (i) a halogen, (ii) an amine, or (iii) a moiety wherein each X may contain 1 to 10 carbon atoms, selected from an alkyl moiety, an aralkyl moiety, an alkoxy moiety, and an aryloxy moiety; or • a diene, for example a butadiene moiety or an isoprene moiety; • a sigma-bonded ligand, for example: (i) a halogen, (ii) an amine, or (iii) a moiety wherein each X may contain 1 to 10 carbon atoms, selected from an alkyl moiety, an aralkyl moiety, an alkoxy moiety, and an aryloxy moiety; or • a diene, for example a butadiene moiety or an isoprene moiety; • z is the number of ligands X that are bonded to M.
An electronic apparatus, comprising: a microphone ; a first processor operatively coupled to the microphone and configured to maintain an active state in a low power mode of the electronic apparatus; and a second processor configured to maintain an inactive state in the low power mode, wherein the first processor, based on sensing a sound signal in a specific frequency band through the microphone in the low power mode, is configured to control the electronic apparatus to transmit a trigger signal to the second processor to activate the second processor, and the electronic apparatus is characterised in that the second processor includes a memory configured to receive power in the low power mode, the second processor configured to be activated based on data stored in the memory based on the trigger signal, and to perform speech recognition regarding the sound signal received from the microphone. a microphone ; a first processor operatively coupled to the microphone and configured to maintain an active state in a low power mode of the electronic apparatus; and a second processor configured to maintain an inactive state in the low power mode, wherein the first processor, based on sensing a sound signal in a specific frequency band through the microphone in the low power mode, is configured to control the electronic apparatus to transmit a trigger signal to the second processor to activate the second processor, and the electronic apparatus is characterised in that the second processor includes a memory configured to receive power in the low power mode, the second processor configured to be activated based on data stored in the memory based on the trigger signal, and to perform speech recognition regarding the sound signal received from the microphone.
A mechanical seal system configured to detect operating conditions and provide real-time health assessments to a user during operation, the mechanical seal system comprising: a rotating device including a stationary housing and a rotating shaft ; a mechanical seal configured to provide a sliding seal interface between the stationary housing and the rotating shaft of the rotating device; a lubricating fluid conditioning unit configured introduce lubricating fluid into the sliding seal interface ; a plurality of sensors configured to sense operating conditions of the mechanical seal system ;; and a plurality of failure mode logic modules configured to monitor the sensed operating conditions and provide feedback by way of notifications to a user via a user interface regarding a likelihood of specific types of mechanical failure occurring in the mechanical seal system ; wherein each of the plurality of failure mode logic modules can be activated or deactivated to suit individual customer needs, particular environmental conditions and/or specific applications of the mechanical seal system . a rotating device including a stationary housing and a rotating shaft ; a mechanical seal configured to provide a sliding seal interface between the stationary housing and the rotating shaft of the rotating device; a lubricating fluid conditioning unit configured introduce lubricating fluid into the sliding seal interface ; a plurality of sensors configured to sense operating conditions of the mechanical seal system ;; and a plurality of failure mode logic modules configured to monitor the sensed operating conditions and provide feedback by way of notifications to a user via a user interface regarding a likelihood of specific types of mechanical failure occurring in the mechanical seal system ; wherein each of the plurality of failure mode logic modules can be activated or deactivated to suit individual customer needs, particular environmental conditions and/or specific applications of the mechanical seal system .
A cell encapsulation device comprising: a cell encapsulating pouch comprising a first layer sealed along a portion of its periphery to a second layer along a portion of its periphery to define an interior volume between the first and second layers , wherein the interior volume comprises a first interior surface and an opposing second interior surface spaced apart from the first interior surface ; at least one tensioning member disposed within the interior volume and exerting opposing tensioning forces on the cell encapsulation pouch in an X-Y plane, wherein the at least one tensioning member contacts at least two opposing portions of the cell encapsulating pouch ; and a reservoir space for receiving cells within the interior volume between the first and second interior surfaces , wherein the reservoir space has a thickness in the Z-dimension. a cell encapsulating pouch comprising a first layer sealed along a portion of its periphery to a second layer along a portion of its periphery to define an interior volume between the first and second layers , wherein the interior volume comprises a first interior surface and an opposing second interior surface spaced apart from the first interior surface ; at least one tensioning member disposed within the interior volume and exerting opposing tensioning forces on the cell encapsulation pouch in an X-Y plane, wherein the at least one tensioning member contacts at least two opposing portions of the cell encapsulating pouch ; and a reservoir space for receiving cells within the interior volume between the first and second interior surfaces , wherein the reservoir space has a thickness in the Z-dimension.
Insulating glazing comprising two panels which are made of transparent material, such as glass or plastics material, disposed at outer faces of the insulating glazing and at least one intermediate panel which is placed between said two panels , the intermediate panel cooperating at opposite edges with at least one spacer unit which spaces it from each adjacent panel made of transparent material , the spacer unit comprising two portions with a form in the shape of an overturned "U" delimiting a channel in which an end of the intermediate panel is placed, said portions with a form in the shape of an overturned "U" being interconnected by a wall delimiting said channel , said spacer unit comprising means which can receive the deformation of the intermediate panel, characterised in that said intermediate panel is a luminescent solar concentrator , the luminescent solar concentrator being deformable in a direction (H) which is orthogonal to an axis (Z) perpendicular to its faces with a larger area, further to a variation of the temperature thereof and thermal expansion thereof, said spacer unit comprising electrical contact means which can cooperate by sliding with connectors of the luminescent solar concentrator, said electrical contact means being adapted to be connected by sliding to an electrical circuit on the exterior of the insulating glazing.
A method of preparing hydrophobic aggregates for use in refractory castables, comprising: (a) creating insulating fire brick (IFB); (b) crushing the IFB to a desired particle size to form an aggregate; (c) coating the aggregate with a hydrophobic component; and (d) drying the coated aggregate to less than 1% moisture. (a) creating insulating fire brick (IFB); (b) crushing the IFB to a desired particle size to form an aggregate; (c) coating the aggregate with a hydrophobic component; and (d) drying the coated aggregate to less than 1% moisture.
A glass fiber reinforced polyamide resin composition comprising: 45 to 50 wt% of a polyamide resin, based on 100 wt% in total of the composition; a styrene-maleimide based copolymer having a thermal decomposition temperature of 300°C or more, as measured with a thermogravimetric analyzer, and wherein an amount of the styrene-maleimide based copolymer is 0.1 to 5 wt%, based on 100 wt% in total of the composition; 15 to 25 wt% of a halogen-based flame retardant, based on 100 wt% in total of the composition; and 20 to 25 wt% of glass fiber, based on 100 wt% in total of the composition; wherein the polyamide resin is a mixture of a poly hexamethylene diamine adipamide (nylon 6,6) and poly caprolactam (nylon 6), and wherein a weight ratio of the poly hexamethylene diamine adipamide (nylon 6,6) to the poly caprolactam (nylon 6) is 29:71 to 31:69. 45 to 50 wt% of a polyamide resin, based on 100 wt% in total of the composition; a styrene-maleimide based copolymer having a thermal decomposition temperature of 300°C or more, as measured with a thermogravimetric analyzer, and wherein an amount of the styrene-maleimide based copolymer is 0.1 to 5 wt%, based on 100 wt% in total of the composition; 15 to 25 wt% of a halogen-based flame retardant, based on 100 wt% in total of the composition; and 20 to 25 wt% of glass fiber, based on 100 wt% in total of the composition; wherein the polyamide resin is a mixture of a poly hexamethylene diamine adipamide (nylon 6,6) and poly caprolactam (nylon 6), and wherein a weight ratio of the poly hexamethylene diamine adipamide (nylon 6,6) to the poly caprolactam (nylon 6) is 29:71 to 31:69.
A relocation method, comprising: receiving (S401), by a first session management function network element, first identification information from an access and mobility management function network element, wherein the first session management function network element is a target session management function network element in a session management function network element relocation process, and the first identification information comprises an identifier of a source session management function network element in the session management function network element relocation process; obtaining (S402), by the first session management function network element, information about a plurality of anchor user plane function network elements of a first session based on the first identification information; and sending (S403), by the first session management function network element, the information about the plurality of anchor user plane function network elements to a branching point, wherein the information about the plurality of anchor user plane function network elements is used to establish a connection between the branching point and each of the plurality of anchor user plane function network elements, and the branching point is a user plane function network element that is managed by the first session management function network element and that has a function of diverting traffic. receiving (S401), by a first session management function network element, first identification information from an access and mobility management function network element, wherein the first session management function network element is a target session management function network element in a session management function network element relocation process, and the first identification information comprises an identifier of a source session management function network element in the session management function network element relocation process; obtaining (S402), by the first session management function network element, information about a plurality of anchor user plane function network elements of a first session based on the first identification information; and sending (S403), by the first session management function network element, the information about the plurality of anchor user plane function network elements to a branching point, wherein the information about the plurality of anchor user plane function network elements is used to establish a connection between the branching point and each of the plurality of anchor user plane function network elements, and the branching point is a user plane function network element that is managed by the first session management function network element and that has a function of diverting traffic.
A method comprising: imaging a first graybody located inside a pod with a focal plane array (FPA), wherein the first graybody has a first emissivity; imaging with the FPA a second graybody located inside the pod having a lower emissivity than the first graybody; using data captured while imaging the first and second graybodies to perform non-uniformity correction (NUC) of the FPA; and capturing image data of a scene outside the pod with the FPA after performing NUC. imaging a first graybody located inside a pod with a focal plane array (FPA), wherein the first graybody has a first emissivity; imaging with the FPA a second graybody located inside the pod having a lower emissivity than the first graybody; using data captured while imaging the first and second graybodies to perform non-uniformity correction (NUC) of the FPA; and capturing image data of a scene outside the pod with the FPA after performing NUC.