mhurhangee/patent-ind-claim-en huggingface dataset:
A storage system for storing items within containers, the storage system comprising: a first set of parallel rails or tracks and a second set of parallel rails or tracks extending substantially perpendicularly to the first set of rails or tracks in a substantially horizontal plane to form a grid pattern comprising a plurality of grid spaces; a set of uprights , the uprights supporting the rails or tracks , the uprights and tracks together defining a framework ; and a plurality of containers located in stacks beneath the tracks and within the framework , each stack being located within a footprint of a single grid space, a portion of the containers occupying a space below a grid space; characterised in that the storage system further comprises: robotic picking means disposed above the containers and adapted to be operable on or above the rails or tracks of the storage system; in which at least one container located beneath the rails or tracks comprises inventory items , the picking means being adapted to pick at least one inventory item from the at least one container and deposit the or each item into at least one or more further containers . a first set of parallel rails or tracks and a second set of parallel rails or tracks extending substantially perpendicularly to the first set of rails or tracks in a substantially horizontal plane to form a grid pattern comprising a plurality of grid spaces; a set of uprights , the uprights supporting the rails or tracks , the uprights and tracks together defining a framework ; and a plurality of containers located in stacks beneath the tracks and within the framework , each stack being located within a footprint of a single grid space, a portion of the containers occupying a space below a grid space; characterised in that the storage system further comprises: robotic picking means disposed above the containers and adapted to be operable on or above the rails or tracks of the storage system; in which at least one container located beneath the rails or tracks comprises inventory items , the picking means being adapted to pick at least one inventory item from the at least one container and deposit the or each item into at least one or more further containers . robotic picking means disposed above the containers and adapted to be operable on or above the rails or tracks of the storage system; in which at least one container located beneath the rails or tracks comprises inventory items , the picking means being adapted to pick at least one inventory item from the at least one container and deposit the or each item into at least one or more further containers .
A fuel tank for a vehicle, said fuel tank comprising a plurality of chambers , said chambers fluidly connected so as to allow a flow of fuel between the chambers, and wherein at least one of the chambers comprises a flexible fluid container and said flexible fluid container is contained within an expandable rigid outer shell , characterised in that the expandable rigid outer shell is provided with a latch mechanism to lock the rigid outer shell into any one of a plurality of expanded positions.
A method of creating a hydrodynamic barrier of an operating fluid on a surface , the method comprising: outputting, through a plurality of outlets disposed on the surface , the operating fluid; and simultaneously with the outputting, withdrawing, through a plurality of inlets disposed on the surface , the operating fluid, thereby creating a hydrodynamic barrier on the surface with movement of the operating fluid, wherein the plurality of outlets comprise a plurality of substantially trapezoidal outlet trenches disposed on the surface , and wherein the plurality of inlets comprise a plurality of substantially trapezoidal inlet trenches disposed on the surface , the inlet trenches and the outlet trenches being disposed in an alternating pattern. outputting, through a plurality of outlets disposed on the surface , the operating fluid; and simultaneously with the outputting, withdrawing, through a plurality of inlets disposed on the surface , the operating fluid, thereby creating a hydrodynamic barrier on the surface with movement of the operating fluid, wherein the plurality of outlets comprise a plurality of substantially trapezoidal outlet trenches disposed on the surface , and wherein the plurality of inlets comprise a plurality of substantially trapezoidal inlet trenches disposed on the surface , the inlet trenches and the outlet trenches being disposed in an alternating pattern.
Wiper rubber for a wiper blade of a windscreen wiper, comprising a wiper rubber base element , the wiper rubber base element being coated with a coating , the coating comprising particles , more particularly for reducing friction, and the coating having an average layer thickness (d) in a range from > 2 μm to < 10 μm, characterized in that the coating comprises a structured coating, composed of plastics particles , and a graphite coating and in that surface portions of the wiper rubber base element that lie between the plastics particles of the structured coating bear the graphite coating.
A coating composition comprising a water-thinned isocyanate component A having an isocyanate concentration between 2% by weight and 40% by weight, defined as the proportion by weight of the isocyanate group in the overall molecule that contains at least one hydrophilized polyisocyanate, the isocyanate groups of which are in direct contact with water, wherein the coating composition has a content of polymeric polyols of not more than 10% by weight.
Autonomous vehicle , having a vehicle body with a receiving device which is designed to receive an object to be transported on the vehicle body , a chassis with at least one driven wheel and with at least one sensor device which has a detection region surrounding the autonomous vehicle for identifying obstacles which enter the detection region of the sensor device in the immediate vicinity of the autonomous vehicle , characterized in that the autonomous vehicle has a joint arrangement which is designed to adjust the sensor device with respect to the vehicle body in such a manner that the sensor device selectively - can be operated in a first arrangement monitoring the basic circumferential contour (G) of the vehicle body and - can be operated in at least one second arrangement monitoring an overall circumferential contour (K), consisting of the basic circumferential contour (G) and an expansion contour (E) of the autonomous vehicle arising when an object to be transported is received, in which second arrangement the sensor device is repositioned in relation to the first arrangement in such a manner that an object to be transported , which is received by the autonomous vehicle , is enclosed by the outwardly detecting detection region (B) of the sensor device , said detection region completely surrounding the overall circumferential contour (K) in the second arrangement. - can be operated in a first arrangement monitoring the basic circumferential contour (G) of the vehicle body and - can be operated in at least one second arrangement monitoring an overall circumferential contour (K), consisting of the basic circumferential contour (G) and an expansion contour (E) of the autonomous vehicle arising when an object to be transported is received, in which second arrangement the sensor device is repositioned in relation to the first arrangement in such a manner that an object to be transported , which is received by the autonomous vehicle , is enclosed by the outwardly detecting detection region (B) of the sensor device , said detection region completely surrounding the overall circumferential contour (K) in the second arrangement.
A positive electrode active material for all-solid-state lithium secondary battery , comprising: a positive electrode active substance and a sodium thiosulfate coating layer coating a surface of the positive electrode active substance, wherein a mass percentage of the sodium thiosulfate coating layer in the positive electrode active material is 1% to 30%, wherein the sodium thiosulfate coating layer is a continuous amorphous membrane layer on the surface of the positive electrode active substance, wherein the continuous amorphous membrane layer is obtainable by planetary ball milling, and wherein the positive electrode active substance layer further comprises a solid-state electrolyte.
A method of forming a moulded article comprising: - preparing a fibre suspension by liquidising fibrous material in a suspending liquid using a bladed liquidiser having 2-4 blades rotating at 5000 to 10000 revolutions per minute or a cylindrical slotted member rotated about the axis of the cylinder with a rotation speed of 200 to 500 rpm to liquidise the fibrous material; - feeding the fibre suspension to the moulding surface of a porous mould (107; 1707) comprised of bonded particles; - removing said suspending liquid via the pores of said porous mould (107; 1707) to deposit suspended fibres on said moulding surface as a shaped article ; and - expelling further suspending liquid from said article by applying pressure to the article against said moulding surface with a rubber former (76; 1737) advanced into the moulding surface or with a flexible impermeable membrane pressed against the article using pressure applied behind the membrane. - preparing a fibre suspension by liquidising fibrous material in a suspending liquid using a bladed liquidiser having 2-4 blades rotating at 5000 to 10000 revolutions per minute or a cylindrical slotted member rotated about the axis of the cylinder with a rotation speed of 200 to 500 rpm to liquidise the fibrous material; - feeding the fibre suspension to the moulding surface of a porous mould (107; 1707) comprised of bonded particles; - removing said suspending liquid via the pores of said porous mould (107; 1707) to deposit suspended fibres on said moulding surface as a shaped article ; and - expelling further suspending liquid from said article by applying pressure to the article against said moulding surface with a rubber former (76; 1737) advanced into the moulding surface or with a flexible impermeable membrane pressed against the article using pressure applied behind the membrane.
An unpolarized multiple orientation plug connector comprising: a body ; a connector tab coupled to and extending away from the body , the connector tab including first and second surfaces ; a first plurality of external contacts carried by the tab at the first surface and a second plurality of external contacts carried by the tab at the second surface , wherein the first plurality of contacts includes a first pair of data contacts (106 , ) usable to enable communication using a first communication protocol and an ID contact (106 ) configured to carry information that identifies the communication protocol associated with the first pair of data contacts (106 , ); wherein the unpolarized multiple orientation plug connector is characterized by circuitry configured to participate in a handshaking algorithm that communicates the communication protocol used by the first pair of data contacts (106 , ) over the ID contact (106 ). a body ; a connector tab coupled to and extending away from the body , the connector tab including first and second surfaces ; a first plurality of external contacts carried by the tab at the first surface and a second plurality of external contacts carried by the tab at the second surface , wherein the first plurality of contacts includes a first pair of data contacts (106 , ) usable to enable communication using a first communication protocol and an ID contact (106 ) configured to carry information that identifies the communication protocol associated with the first pair of data contacts (106 , ); wherein the unpolarized multiple orientation plug connector is characterized by circuitry configured to participate in a handshaking algorithm that communicates the communication protocol used by the first pair of data contacts (106 , ) over the ID contact (106 ).
A method of forming an article made of a metal matrix composite material having particles bonded to an anodizable matrix material , wherein optionally the particles comprise an anodizable material, comprising: anodizing the anodizable matrix material to form an anodic layer on the anodizable matrix material; machining at least a portion of the anodic layer; removing at least a portion of the anodic layer after machining by etching, abrasive blasting or chemical stripping to remove a predetermined material thickness to expose at least a portion of the particles that are intact and bonded to the anodizable matrix material; inspecting the article to determine whether the article is within a predetermined tolerance; and repeating at least the anodizing, machining, and inspecting steps until the article is within the predetermined tolerance. anodizing the anodizable matrix material to form an anodic layer on the anodizable matrix material; machining at least a portion of the anodic layer; removing at least a portion of the anodic layer after machining by etching, abrasive blasting or chemical stripping to remove a predetermined material thickness to expose at least a portion of the particles that are intact and bonded to the anodizable matrix material; inspecting the article to determine whether the article is within a predetermined tolerance; and repeating at least the anodizing, machining, and inspecting steps until the article is within the predetermined tolerance.
A method for use in a wireless transmit/receive unit, WTRU, the method comprising: receiving a first sidelink control information, SCI, from a second WTRU within a WTRU group; receiving from the second WTRU a first resource control information, RCI, within a first set of resources scheduled by the first SCI, wherein the first RCI comprises information about which WTRU in the WTRU group is scheduled to use a second set of resources; determining , based on the first RCI, that one or more subresources within the second set of resources are available; and transmitting data in the one or more subresources. receiving a first sidelink control information, SCI, from a second WTRU within a WTRU group; receiving from the second WTRU a first resource control information, RCI, within a first set of resources scheduled by the first SCI, wherein the first RCI comprises information about which WTRU in the WTRU group is scheduled to use a second set of resources; determining , based on the first RCI, that one or more subresources within the second set of resources are available; and transmitting data in the one or more subresources.
High concentration parenteral compositions of paracetamol or its pharmaceutically acceptable salts delivering full therapeutic dose of 500 mg paracetamol in 2-3 ml in an aqueous solvent system comprising: a) glycofurol 25 to 40% v/v, ethanol 20 to 37% v/v and paracetamol from 166 to 200 mg per ml and volume of water to make the total volume of the composition up to 2-3 ml; OR b) glycofurol 25 to 40% v/v, ethanol 23 to 35% v/v and paracetamol from 200 to 250 mg per ml and volume of water to make the total volume of the composition up to 2-3 ml; OR c) glycofurol 25 to 42% v/v, ethanol 10 to 35% v/v, polyethylene glycol 3 to 19% v/v and paracetamol from 166 to 200 mg per ml and volume of water to make the total volume of the composition up to 2-3 ml; OR d) glycofurol 30 to 40% v/v, ethanol 24 to 35% v/v, polyethylene glycol 3 to 6% v/v and paracetamol from 200 to 250 mg per ml and volume of water to make the total volume of the composition up to 2-3 ml; and wherein the viscosity is in the range of 0.007 to 0.028 Pa·s (7 to 28 cps) at 25 deg. C. a) glycofurol 25 to 40% v/v, ethanol 20 to 37% v/v and paracetamol from 166 to 200 mg per ml and volume of water to make the total volume of the composition up to 2-3 ml; OR b) glycofurol 25 to 40% v/v, ethanol 23 to 35% v/v and paracetamol from 200 to 250 mg per ml and volume of water to make the total volume of the composition up to 2-3 ml; OR c) glycofurol 25 to 42% v/v, ethanol 10 to 35% v/v, polyethylene glycol 3 to 19% v/v and paracetamol from 166 to 200 mg per ml and volume of water to make the total volume of the composition up to 2-3 ml; OR d) glycofurol 30 to 40% v/v, ethanol 24 to 35% v/v, polyethylene glycol 3 to 6% v/v and paracetamol from 200 to 250 mg per ml and volume of water to make the total volume of the composition up to 2-3 ml;
An article produced from a mixture of materials having: a polymeric content comprising: a starch-based polymeric material formed from at least a first starch and a second starch, and a plasticizer, and including no greater than 5% by weight water; and a petrochemical-based polymeric material selected from the group consisting of a polyolefin, polystyrene, high impact polystyrene, and combinations thereof, the petrochemical-based polymeric material being present in an amount of up to 99% by weight of the mixture of materials wherein an amount of the polymeric content that biodegrades after 91 days is greater than an amount of the starch-based polymeric material based on results of a biomethane potential test conducted according to ASTM D5511 at a temperature of 52°C using an inoculum having 55% by weight water and 45% by weight organic solids. a polymeric content comprising: a starch-based polymeric material formed from at least a first starch and a second starch, and a plasticizer, and including no greater than 5% by weight water; and a petrochemical-based polymeric material selected from the group consisting of a polyolefin, polystyrene, high impact polystyrene, and combinations thereof, the petrochemical-based polymeric material being present in an amount of up to 99% by weight of the mixture of materials a starch-based polymeric material formed from at least a first starch and a second starch, and a plasticizer, and including no greater than 5% by weight water; and a petrochemical-based polymeric material selected from the group consisting of a polyolefin, polystyrene, high impact polystyrene, and combinations thereof, the petrochemical-based polymeric material being present in an amount of up to 99% by weight of the mixture of materials wherein an amount of the polymeric content that biodegrades after 91 days is greater than an amount of the starch-based polymeric material based on results of a biomethane potential test conducted according to ASTM D5511 at a temperature of 52°C using an inoculum having 55% by weight water and 45% by weight organic solids.
A data acquisition method, applied to a tunnel detection vehicle , wherein the tunnel detection vehicle comprises a control apparatus and at least one group of imaging apparatuses ; the at least one group of imaging apparatuses is electrically connected with the control apparatus ; the method comprises: the control apparatus controls the at least one group of imaging apparatuses to move in a reciprocating mode along a preset trajectory (S101); when a motion direction of the imaging apparatuses is opposite to a travelling direction of the tunnel detection vehicle , and a difference value between the magnitude of a motion speed of the imaging apparatus and the magnitude of a motion speed of the tunnel detection vehicle is within a preset range, the control apparatus controls the imaging apparatuses to acquire image data of an inner wall of a tunnel (S102). the control apparatus controls the at least one group of imaging apparatuses to move in a reciprocating mode along a preset trajectory (S101); when a motion direction of the imaging apparatuses is opposite to a travelling direction of the tunnel detection vehicle , and a difference value between the magnitude of a motion speed of the imaging apparatus and the magnitude of a motion speed of the tunnel detection vehicle is within a preset range, the control apparatus controls the imaging apparatuses to acquire image data of an inner wall of a tunnel (S102).
A protective cover comprising: a padding layer ; and at least one backing layer comprising a network of fiber-reinforced plastic (FRP) threads that are woven or knitted into a piece of fabric, wherein the piece of fabric comprises a first plurality of FRP threads substantially along a first direction and a second plurality of FRP threads substantially along a second direction, wherein a surface of the at least one backing layer is substantially rectangular comprising a first side , and wherein a plurality of the FRP threads are arranged along a direction that is oblique relative to the first side. a padding layer ; and at least one backing layer comprising a network of fiber-reinforced plastic (FRP) threads that are woven or knitted into a piece of fabric, wherein the piece of fabric comprises a first plurality of FRP threads substantially along a first direction and a second plurality of FRP threads substantially along a second direction, wherein a surface of the at least one backing layer is substantially rectangular comprising a first side , and wherein a plurality of the FRP threads are arranged along a direction that is oblique relative to the first side.
A nasal dilator for stabilizing and supporting or dilating nasal outer wall tissues, comprising: a first end region , a second end region , and an intermediate region interconnecting the first and second end regions; an engagement element for engaging the nasal dilator to skin surfaces of the nasal outer wall tissues; and a resilient element for providing resilient spring biasing forces when the dilator is engaged to the nasal outer wall tissues, the resilient element positioned along at least the intermediate region ; wherein at least a portion of at least one peripheral edge of at least one of the resilient and engagement elements and a corresponding surface area adjacent said at least one peripheral edge defining a decorative design element, the peripheral edge is shaped to form at least a portion of a predetermined artistic design, such that the decorative design element is integrated into the at least one of the resilient and engagement elements, the resilient element comprises adjacent, spaced apart, substantially parallel resilient members ; and the decorative design element is defined, at least in part, by at least a portion of a long edge of at least one resilient member and at least a portion of the space extending between adjacent resilient members , characterized in that the resilient element is asymmetric about a lateral centerline of the dilator, the resilient element being configured by a periphery of one or more openings formed inboard the outer periphery so as to have substantially symmetric spring biasing force or resiliency on each side of the lateral centerline. a first end region , a second end region , and an intermediate region interconnecting the first and second end regions; an engagement element for engaging the nasal dilator to skin surfaces of the nasal outer wall tissues; and a resilient element for providing resilient spring biasing forces when the dilator is engaged to the nasal outer wall tissues, the resilient element positioned along at least the intermediate region ; wherein at least a portion of at least one peripheral edge of at least one of the resilient and engagement elements and a corresponding surface area adjacent said at least one peripheral edge defining a decorative design element, the peripheral edge is shaped to form at least a portion of a predetermined artistic design, such that the decorative design element is integrated into the at least one of the resilient and engagement elements, the resilient element comprises adjacent, spaced apart, substantially parallel resilient members ; and the decorative design element is defined, at least in part, by at least a portion of a long edge of at least one resilient member and at least a portion of the space extending between adjacent resilient members ,