mhurhangee/ep-ind-claims huggingface dataset:
A container (100, 200) for consumer goods, comprising: a housing (112, 212) comprising a box (114, 214) and a lid (120, 220) hingedly attached to the box (114, 214) along a lid hinge line, wherein the box (114, 214) comprises a front wall (116, 216) and a rear wall (118, 218), and further wherein the lid (120, 220) is adapted to be manipulated between an open position and a closed position; an inner package (130, 230) disposed within the housing (112, 212) and at least partially defining an interior volume for housing consumer goods, the inner package (130, 230) comprising a wrapper (140, 240) comprising a line of weakness (142, 242) that defines a flap (144, 244) in the wrapper (140, 240) hinged to the remainder of the wrapper (140, 240) along a flap hinge line; wherein the flap (144, 244) is attached to an inner surface (122, 222) of the lid (120, 220) such that upon opening the lid (120, 220) the flap (144, 244) is separated from the wrapper (140, 240) along the line of weakness (142, 242) and hinged to the remainder of the wrapper (140, 240) along the flap hinge line to form an access opening (160, 260) through which the consumer goods can be removed; wherein the flap hinge line is spaced from the lid hinge line, and wherein the entire inner surface of the flap (144, 244) is provided by the inner surface of the wrapper (140, 240); and wherein the wrapper (140, 240) further comprises an envelope fold on a bottom wall (139, 239) of the inner package (130, 230). a housing (112, 212) comprising a box (114, 214) and a lid (120, 220) hingedly attached to the box (114, 214) along a lid hinge line, wherein the box (114, 214) comprises a front wall (116, 216) and a rear wall (118, 218), and further wherein the lid (120, 220) is adapted to be manipulated between an open position and a closed position; an inner package (130, 230) disposed within the housing (112, 212) and at least partially defining an interior volume for housing consumer goods, the inner package (130, 230) comprising a wrapper (140, 240) comprising a line of weakness (142, 242) that defines a flap (144, 244) in the wrapper (140, 240) hinged to the remainder of the wrapper (140, 240) along a flap hinge line; wherein the flap (144, 244) is attached to an inner surface (122, 222) of the lid (120, 220) such that upon opening the lid (120, 220) the flap (144, 244) is separated from the wrapper (140, 240) along the line of weakness (142, 242) and hinged to the remainder of the wrapper (140, 240) along the flap hinge line to form an access opening (160, 260) through which the consumer goods can be removed; wherein the flap hinge line is spaced from the lid hinge line, and wherein the entire inner surface of the flap (144, 244) is provided by the inner surface of the wrapper (140, 240); and wherein the wrapper (140, 240) further comprises an envelope fold on a bottom wall (139, 239) of the inner package (130, 230).
A positive electrode for an air cell, comprising: a catalyst layer composed of a porous layer containing electrical conductive carbon, a binder, and a catalyst component; and a fluid-tight gas-permeable layer composed of a porous layer containing electrical conductive carbon and a binder, wherein the fluid-tight gas-permeable layer is adjacent to the catalyst layer. a catalyst layer composed of a porous layer containing electrical conductive carbon, a binder, and a catalyst component; and a fluid-tight gas-permeable layer composed of a porous layer containing electrical conductive carbon and a binder, wherein the fluid-tight gas-permeable layer is adjacent to the catalyst layer.
Method of joining a first element in composite material with a second element in composite material to define a structural component of an aircraft, the method comprising the steps of: a) arranging the first element in contact on the second element; b) applying a non-rigid heating layer on the first element; c) applying a layer of shape memory thermoplastic polymer, pre-loaded in a compressed non-equilibrium condition, onto the heating layer; d) applying a vacuum bag to the assembly thus obtained; e) sealing the vacuum bag to define a vacuum chamber housing the first element, at least part of the second element, the heating layer and the shape memory layer; f) applying vacuum inside the vacuum chamber; g) applying heat to the first element, to the second element and to the shape memory layer by activating the heating layer; h) expanding the shape memory layer from the compressed non-equilibrium condition to an expanded equilibrium condition by means of the step g) of applying heat; i) applying pressure to the first element for compacting it against the second element by means of the step h) of expanding. a) arranging the first element in contact on the second element; b) applying a non-rigid heating layer on the first element; c) applying a layer of shape memory thermoplastic polymer, pre-loaded in a compressed non-equilibrium condition, onto the heating layer; d) applying a vacuum bag to the assembly thus obtained; e) sealing the vacuum bag to define a vacuum chamber housing the first element, at least part of the second element, the heating layer and the shape memory layer; f) applying vacuum inside the vacuum chamber; g) applying heat to the first element, to the second element and to the shape memory layer by activating the heating layer; h) expanding the shape memory layer from the compressed non-equilibrium condition to an expanded equilibrium condition by means of the step g) of applying heat; i) applying pressure to the first element for compacting it against the second element by means of the step h) of expanding.
Perforation tool for an apparatus for the machine production of a cushioning product to be formed from a single- or multi-ply paper strip, wherein the perforation tool is designed to introduce a perforation in the cushioning product, characterized in that the perforation tool comprises at least one perforation nose (45a, 45b), at least one perforation reception (77a, 77b), wherein the at least one perforation nose (45a, 45b) and the at least one perforation reception (77a, 77b) are attributed to each other in such a way that the at least one perforation nose (45a, 45b) can move in and out with respect to the at least one perforation reception (77a, 77b), and at least one stripper being attributed to the at least one perforation nose (45a, 45b) and/or the at least one perforation reception (77a, 77b) in such a way that perforated cushioning product is removed from the at least one perforation nose (45a, 45b) and/or the at least one perforation reception (77a, 77b) on moving out.
A caustic-free detergent composition comprising: from 0.1-15 wt-% of a chelating agent being an aminocarboxylate or a salt thereof; from 0.1-15 wt-% of a water conditioning polymer wherein the water conditioning polymer is a polyacrylate, polycarboxylate or polycarboxylic acid; from 0.1-15 wt-% of a secondary chelating agent; from 10-60 wt-% of a non-caustic alkalinity source, wherein the non-caustic alkalinity source is an alkali metal silicate and/or metasilicate; from 20-80 wt-% of water, wherein the composition is caustic-free, does not contain surfactants and reduces or eliminates scale build-up on treated surfaces, and wherein a use solution of the composition has a pH less than 11.5, wherein the detergent composition provides an effective sanitizing effect at wash temperatures that are not heated above 60° C (140° F) when employed with a sanitizer. from 0.1-15 wt-% of a chelating agent being an aminocarboxylate or a salt thereof; from 0.1-15 wt-% of a water conditioning polymer wherein the water conditioning polymer is a polyacrylate, polycarboxylate or polycarboxylic acid; from 0.1-15 wt-% of a secondary chelating agent; from 10-60 wt-% of a non-caustic alkalinity source, wherein the non-caustic alkalinity source is an alkali metal silicate and/or metasilicate; from 20-80 wt-% of water, wherein the composition is caustic-free, does not contain surfactants and reduces or eliminates scale build-up on treated surfaces, and wherein a use solution of the composition has a pH less than 11.5, wherein the detergent composition provides an effective sanitizing effect at wash temperatures that are not heated above 60° C (140° F) when employed with a sanitizer.
Method for connecting an optical waveguide embedded in a fibre composite component, in particular of an aircraft and spacecraft, to an external optical waveguide, comprising the following steps: ascertaining a path of the embedded optical waveguide in the fibre composite component; determining a nodal position at which the embedded optical waveguide is to be coupled with the external optical waveguide; exposing, at least in portions, the embedded optical waveguide at the nodal position by removing at least part of the fibre composite component around the embedded optical waveguide; severing the exposed embedded optical waveguide; aligning relative to each other an end portion of the severed, embedded optical waveguide and an end portion of the external optical waveguide, wherein depending on the depth of the embedded optical waveguide in the fibre composite component, the path of the embedded optical waveguide in the fibre composite component is ascertained non-destructively by a digital shearography method, an ultrasound method, an X-ray method or an interferometric method; and splicing the mutually aligned end portions (15, 16) of the optical waveguides (2, 11). ascertaining a path of the embedded optical waveguide in the fibre composite component; determining a nodal position at which the embedded optical waveguide is to be coupled with the external optical waveguide; exposing, at least in portions, the embedded optical waveguide at the nodal position by removing at least part of the fibre composite component around the embedded optical waveguide; severing the exposed embedded optical waveguide; aligning relative to each other an end portion of the severed, embedded optical waveguide and an end portion of the external optical waveguide, wherein depending on the depth of the embedded optical waveguide in the fibre composite component, the path of the embedded optical waveguide in the fibre composite component is ascertained non-destructively by a digital shearography method, an ultrasound method, an X-ray method or an interferometric method; and splicing the mutually aligned end portions (15, 16) of the optical waveguides (2, 11).
Polymer P prepared from at least one hydroxy terminated polyaryleneether HA and at least one siloxane S, wherein said siloxane S is a polysiloxane prepared from tetraalkylorthosilicate and at least one siloxane according to formula I wherein R is an alkyl group and X is a leaving group.
A method of controlling a stencil printer to print solder paste onto an electronic substrate in a print position, the stencil printer comprising a stencil having apertures therein through which solder paste is deposited on the surface of an electronic substrate in a print position and aligned with a first position of the stencil above said electronic substrate using a vision inspection system, the method comprising the steps of translating the stencil from its first position to a second position remote from said electronic substrate and back to its first position to clean the stencil, characterised by the the following steps which are both carried out whilst translating the stencil to clean the stencil: (a) using the vision inspection system to inspect a surface on the electronic substrate whilst the electronic substrate is in the print position after solder paste has been printed onto said electronic substrate through the stencil, and (b) after inspecting an electronic substrate in the print position, using the vision inspection system to align a subsequent electronic substrate in said print position with said first position of the stencil. (a) using the vision inspection system to inspect a surface on the electronic substrate whilst the electronic substrate is in the print position after solder paste has been printed onto said electronic substrate through the stencil, and (b) after inspecting an electronic substrate in the print position, using the vision inspection system to align a subsequent electronic substrate in said print position with said first position of the stencil.
A vibration actuator comprising: a vibrator device; and a contact member (4; 69) that moves relative to the vibrator device, wherein the vibrator device comprises: a plurality of vibrators (1, 2, 3; 65, 66, 67, 68) that are electrically connected in series, and a plurality of inductors (5, 6, 7) that are connected in parallel to the respective vibrators (1, 2, 3; 65, 66, 67, 68), characterised in that the vibrator device further comprises a plurality of capacitors, each capacitor connected in parallel to a respective inductor. a vibrator device; and a contact member (4; 69) that moves relative to the vibrator device, wherein the vibrator device comprises: a plurality of vibrators (1, 2, 3; 65, 66, 67, 68) that are electrically connected in series, and a plurality of inductors (5, 6, 7) that are connected in parallel to the respective vibrators (1, 2, 3; 65, 66, 67, 68), characterised in that the vibrator device further comprises a plurality of capacitors, each capacitor connected in parallel to a respective inductor. a plurality of vibrators (1, 2, 3; 65, 66, 67, 68) that are electrically connected in series, and a plurality of inductors (5, 6, 7) that are connected in parallel to the respective vibrators (1, 2, 3; 65, 66, 67, 68), characterised in that the vibrator device further comprises a plurality of capacitors, each capacitor connected in parallel to a respective inductor.
Composition insoluble in water, with a solid aspect at a temperature of less than or equal to 20°C, comprising the following for 100% of its mass: - X1% by mass of at least one lipophilic surfactant with an HLB value, H1, greater than or equal to 1 and less than 10; - X2% by mass of a least one hydrophilic surfactant with an HLB value, H2, greater than or equal to 10 and less than 20; characterised by the fact that its HLB = X1.H1 + X2.H2, X1 and X2 varying from 2 to 60 and characterised in that it contains no acrylic polymer and/or acetate succinate, and characterised in that: - said at least one lipophilic surfactant is a sorbitan stearate, and - said hydrophilic surfactant is chosen among ethoxylated sorbitan esters, ethoxylated alcohols or acids, polyglycerol esters, glucose esters, block copolymers of ethylene and propylene oxides. - X1% by mass of at least one lipophilic surfactant with an HLB value, H1, greater than or equal to 1 and less than 10; - X2% by mass of a least one hydrophilic surfactant with an HLB value, H2, greater than or equal to 10 and less than 20; - said at least one lipophilic surfactant is a sorbitan stearate, and - said hydrophilic surfactant is chosen among ethoxylated sorbitan esters, ethoxylated alcohols or acids, polyglycerol esters, glucose esters, block copolymers of ethylene and propylene oxides.
A method of access control to a communication interface of an integrated circuit comprising a first communication interface circuit (CLI, CIN), characterized in that it comprises steps of: intercepting by an access control software layer events transmitted between the first communication interface circuit and several applications (AP1-AP3) installed in an applicative software layer on the integrated circuit, allocating to each application (AP1-AP3) of the applicative layer a parameter specific to the application, indicating whether the first application is authorized to use the first communication interface circuit, transmitting by the access control layer, an event intercepted between the first communication interface circuit and one of the applications of the applicative layer, only if the parameter specific to the application indicates that the application is authorized to use the first communication interface circuit, and updating by the access control layer, the parameter specific to the application if a condition is fulfilled by intercepted events, transmitted between another of the applications of the applicative layer and the first communication interface circuit. intercepting by an access control software layer events transmitted between the first communication interface circuit and several applications (AP1-AP3) installed in an applicative software layer on the integrated circuit, allocating to each application (AP1-AP3) of the applicative layer a parameter specific to the application, indicating whether the first application is authorized to use the first communication interface circuit, transmitting by the access control layer, an event intercepted between the first communication interface circuit and one of the applications of the applicative layer, only if the parameter specific to the application indicates that the application is authorized to use the first communication interface circuit, and updating by the access control layer, the parameter specific to the application if a condition is fulfilled by intercepted events, transmitted between another of the applications of the applicative layer and the first communication interface circuit.
A method for re-establishing a Radio Resource Control, RRC, connection for Control Plane Internet-of-Things optimizations between a User Equipment, UE, and a target evolved NodeB, target eNB, the method being performed by the target eNB and comprising: receiving an RRC connection re-establishment request from the UE, wherein the RRC connection re-establishment request includes an authentication token generated with a Non Access Stratum integrity key and a target cell's identity as input; sending a verification message to a Mobility Management Entity, MME, wherein the verification message includes the received authentication token; and receiving a response from the MME, of verification of the authentication token. receiving an RRC connection re-establishment request from the UE, wherein the RRC connection re-establishment request includes an authentication token generated with a Non Access Stratum integrity key and a target cell's identity as input; sending a verification message to a Mobility Management Entity, MME, wherein the verification message includes the received authentication token; and receiving a response from the MME, of verification of the authentication token.
A fire protection sleeve for pipes and ducts which defines a central axis, an inner side and an outer side, which has a swelling material swelling under the effect of heat and which does not have any metallic parts, wherein at least one stabilizer element (11, 21, 31, 41, 51, 61, 71, 81, 91) composed of a flexible and non-combustible material is provided at the inner side of the swelling material in selected regions and, in the event of a fire, stabilizes the swelling material which swells; and an insulating strip is provided at the outer side of the fire protection sleeve, said insulating strip, as a stabilizer element, having at least one joint section (11, 21, 31, 41, 51, 61, 91), which is arranged between the swelling material and the central axis, and being folded in the direction of the central axis by the swelling material in the event of a fire, characterized in that the insulating strip has a plurality of joint sections in the form of individual flaps (11, 21, 31, 41, 51, 61, 91) which are folded over and which enter into a connection with the swelling material in the event of a fire.
An apparatus for use in a sensing application, said apparatus comprising: a body having a cavity containing an opening; a plurality of nano-fingers positioned in the cavity; and further comprising, a destructible cover covering the opening in the cavity to protect the plurality of nano-fingers, wherein the destructible cover is arranged to be destroyed to allow a substance to be tested to be applied to the plurality of nano-fingerswherein each of the plurality of nano-fingers is composed of a flexible material, and wherein the plurality of nano-fingers are collapsed toward each other such that tips of the plurality of nano-fingers are substantially in contact with each other. a body having a cavity containing an opening; a plurality of nano-fingers positioned in the cavity; and further comprising, a destructible cover covering the opening in the cavity to protect the plurality of nano-fingers, wherein the destructible cover is arranged to be destroyed to allow a substance to be tested to be applied to the plurality of nano-fingerswherein each of the plurality of nano-fingers is composed of a flexible material, and
A sealed battery comprising: an electrode assembly; a case having an opening portion and accommodating the electrode assembly; a lid closing the opening portion and having a through-hole (242; 244); a collector terminal (40; 80) including an inner terminal segment (420; 820) electrically connected to the electrode assembly in the case, and a projection (426; 826) passing through the through-hole (242; 244) of the lid and projecting outward from the lid; and an insulating seal in contact with a bottom surface of the lid, the bottom surface being an inner side of the lid in a thickness direction of the lid, the inner side of the lid facing an inside of the case when the lid closes the opening portion, and the insulating seal providing sealing between the lid and the collector terminal (40; 80), wherein the lid has a protrusion protruding from the bottom surface of the lid, the protrusion surrounding the through-hole, characterized in that the protrusion protrudes obliquely downward from the bottom surface of the lid to be inclined toward a hole axis of the through-hole such that a part of the protrusion protrudes into the through-hole (242; 244), and the through-hole (242; 244) has a smallest opening diameter at a position at which the part of the protrusion protrudes into the through-hole (242; 244). an electrode assembly; a case having an opening portion and accommodating the electrode assembly; a lid closing the opening portion and having a through-hole (242; 244); a collector terminal (40; 80) including an inner terminal segment (420; 820) electrically connected to the electrode assembly in the case, and a projection (426; 826) passing through the through-hole (242; 244) of the lid and projecting outward from the lid; and an insulating seal in contact with a bottom surface of the lid, the bottom surface being an inner side of the lid in a thickness direction of the lid, the inner side of the lid facing an inside of the case when the lid closes the opening portion, and the insulating seal providing sealing between the lid and the collector terminal (40; 80), wherein the lid has a protrusion protruding from the bottom surface of the lid, the protrusion surrounding the through-hole, characterized in that the protrusion protrudes obliquely downward from the bottom surface of the lid to be inclined toward a hole axis of the through-hole such that a part of the protrusion protrudes into the through-hole (242; 244), and the through-hole (242; 244) has a smallest opening diameter at a position at which the part of the protrusion protrudes into the through-hole (242; 244).
A drum cover (20a-c) for a drive drum (12, 14) of a corrugated cardboard machine, having a textile carrier layer which has a first coating on a first side and a second coating on a second side, wherein the second coating has a glass transition temperature according to DIN EN ISO 11357-2:2014-07 in the range of - 20°C to 60°C.