mhurhangee/patent-ind-claim-en huggingface dataset:
A cable composition, comprising: a conductive core, and a polymeric coating surrounding at least a portion of said conductive core, wherein said polymeric coating comprises at least a portion of a foamed polymeric composition obtainable by foaming a foamable polymeric composition wherein the foamable polymeric composition, comprises: a peroxide-modified linear low-density polyethylene comprising the reaction product of a peroxide and a linear low-density polyethylene; wherein the linear low-density polyethylene has a density ranging from 0.916 to 0.925 g/cm 3 ; wherein the density is determined according to ASTM D792; and a blowing agent, wherein said peroxide-modified linear low-density polyethylene is thermoplastic; wherein the peroxide is present in the foamable composition in an amount ranging from greater than 0 to less than 0.5 wt% based on the combined weight of the linear low-density polyethylene, the peroxide and the blowing agent. a conductive core, and a polymeric coating surrounding at least a portion of said conductive core, wherein said polymeric coating comprises at least a portion of a foamed polymeric composition obtainable by foaming a foamable polymeric composition wherein the foamable polymeric composition, comprises: a peroxide-modified linear low-density polyethylene comprising the reaction product of a peroxide and a linear low-density polyethylene; wherein the linear low-density polyethylene has a density ranging from 0.916 to 0.925 g/cm 3 ; wherein the density is determined according to ASTM D792; and a blowing agent, a peroxide-modified linear low-density polyethylene comprising the reaction product of a peroxide and a linear low-density polyethylene; wherein the linear low-density polyethylene has a density ranging from 0.916 to 0.925 g/cm 3 ; wherein the density is determined according to ASTM D792; and a blowing agent, wherein said peroxide-modified linear low-density polyethylene is thermoplastic; wherein the peroxide is present in the foamable composition in an amount ranging from greater than 0 to less than 0.5 wt% based on the combined weight of the linear low-density polyethylene, the peroxide and the blowing agent.
Modular pointing system , having: a plurality of effector modules , which are respectively designed to act on a target, wherein each effector module is associated with an effector type together with associated function options, wherein the effector module comprises a weapon and/or an air defence device; a pointing module , which is designed to selectively hold one of the effector modules and align it with the target; a support module , which is designed to support the pointing module on a structure, on a vehicle and/or on a base, wherein the effector modules , the pointing module and the support module are respectively designed as individual components that can be carried by a person which can be repeatedly detachably mounted to one another via respective module interfaces; and an operating device , which can be coupled by means of a data interface to the pointing module for controlling the effector module respectively held by the pointing module , characterised in that the operating device is designed to identify the effector type of the effector module respectively held by the pointing module via the data interface and enable the associated function options for an operator; wherein the support module is designed for stationary use as a set-up device via which the modular pointing system can be set down on a base; or wherein the support module is designed as a platform adapter, via which the modular pointing system can be repeatedly detachably mounted on a structure and/or on a vehicle . a plurality of effector modules , which are respectively designed to act on a target, wherein each effector module is associated with an effector type together with associated function options, wherein the effector module comprises a weapon and/or an air defence device; a pointing module , which is designed to selectively hold one of the effector modules and align it with the target; a support module , which is designed to support the pointing module on a structure, on a vehicle and/or on a base, wherein the effector modules , the pointing module and the support module are respectively designed as individual components that can be carried by a person which can be repeatedly detachably mounted to one another via respective module interfaces; and an operating device , which can be coupled by means of a data interface to the pointing module for controlling the effector module respectively held by the pointing module , characterised in that the operating device is designed to identify the effector type of the effector module respectively held by the pointing module via the data interface and enable the associated function options for an operator; wherein the support module is designed for stationary use as a set-up device via which the modular pointing system can be set down on a base; or wherein the support module is designed as a platform adapter, via which the modular pointing system can be repeatedly detachably mounted on a structure and/or on a vehicle .
A medical device for deployment in a lumen, comprising: a tubular support structure comprising: a plurality of ringlets arranged sequentially along a common longitudinal axis thereof, wherein each of the plurality of ringlet is formed by of plurality of crowns connected along a circumferential direction, each crown being formed by two straight struts arranged in V-shaped configuration; a plurality of long connecting elements to connect the plurality of ringlets , wherein at least one of the plurality of long connecting elements connects adjacent ringlets , wherein consecutive long connecting elements connecting adjacent ringlets are to form a mirror-reflection of each other about a radial plane of reflection; characterized in that at least one of the plurality of long connecting elements is formed of two long sections and a short section to form a Z-shaped configuration, wherein the long sections are parallel and the short section forms an obtuse angle with the long sections ; and the obtuse angle is unchanged while compressing or expanding a tubular support structure . a plurality of ringlets arranged sequentially along a common longitudinal axis thereof, wherein each of the plurality of ringlet is formed by of plurality of crowns connected along a circumferential direction, each crown being formed by two straight struts arranged in V-shaped configuration; a plurality of long connecting elements to connect the plurality of ringlets , wherein at least one of the plurality of long connecting elements connects adjacent ringlets , wherein consecutive long connecting elements connecting adjacent ringlets are to form a mirror-reflection of each other about a radial plane of reflection; characterized in that at least one of the plurality of long connecting elements is formed of two long sections and a short section to form a Z-shaped configuration, wherein the long sections are parallel and the short section forms an obtuse angle with the long sections ; and the obtuse angle is unchanged while compressing or expanding a tubular support structure .
Method for additive manufacturing, in which a) a starting material is applied to an application surface of a substrate unit , b) at least a part of the starting material on the substrate unit is solidified to form a shaped body , c) a materially bonded connection between the shaped body and at least one connecting element arranged detachably on the substrate unit is generated during the method step according to feature b), and d) the shaped body is detached from the substrate unit , characterized in that e) an application surface material which does not form a materially bonded connection with the starting material during method step b) is used for the application surface . a) a starting material is applied to an application surface of a substrate unit , b) at least a part of the starting material on the substrate unit is solidified to form a shaped body , c) a materially bonded connection between the shaped body and at least one connecting element arranged detachably on the substrate unit is generated during the method step according to feature b), and d) the shaped body is detached from the substrate unit , characterized in that e) an application surface material which does not form a materially bonded connection with the starting material during method step b) is used for the application surface .
Device for binding several portions of a mass filled into a skin at tying points provided therefor with a thread , the apparatus comprising a rotor and a guide means associated with the rotor for guiding the thread , wherein the rotor has a receiving section for receiving a plurality of windings of the thread , the apparatus being arranged such that, on one revolution of the rotor , the thread is passed from the receiving section through the guide means and wound around the tying point, characterised in that the device further comprises a reservoir for receiving the thread , the device further comprising feeding means , the feeding means being arranged to either feed thread from the reservoir to the receiving section or to remove it from the receiving section .
A device (50; 120; 140; 160; 180; 200; 220; 240; 260) for bisecting heart valve leaflets, comprising: a steerable catheter shaft (52; 122; 142; 162; 182; 202; 222; 242; 262); a foot sheath (82; 144; 164; 184; 204; 224; 248; 268) slidingly disposed within the steerable catheter shaft; a foot element (94; 124; 146; 166; 186; 206; 230; 252; 270) at a distal end of the foot sheath, the foot element configured to engage a valve leaflet (48; 236; 256), the foot element comprising a foot opening (96; 134; 148; 168; 188; 208; 232; 254); a foot alignment magnet disposed at the foot element; a cutting element sheath (78; 126; 150; 170; 190; 210; 224; 244; 264) slidingly disposed within the steerable catheter, the cutting element sheath comprising a cutting element sheath distal end; a cutting element alignment magnet at the cutting element sheath distal end; a cutting element (92; 128; 152; 172; 192; 212; 226; 246; 266) selectively extendable from the cutting element sheath distal end and into the foot opening. a steerable catheter shaft (52; 122; 142; 162; 182; 202; 222; 242; 262); a foot sheath (82; 144; 164; 184; 204; 224; 248; 268) slidingly disposed within the steerable catheter shaft; a foot element (94; 124; 146; 166; 186; 206; 230; 252; 270) at a distal end of the foot sheath, the foot element configured to engage a valve leaflet (48; 236; 256), the foot element comprising a foot opening (96; 134; 148; 168; 188; 208; 232; 254); a foot alignment magnet disposed at the foot element; a cutting element sheath (78; 126; 150; 170; 190; 210; 224; 244; 264) slidingly disposed within the steerable catheter, the cutting element sheath comprising a cutting element sheath distal end; a cutting element alignment magnet at the cutting element sheath distal end; a cutting element (92; 128; 152; 172; 192; 212; 226; 246; 266) selectively extendable from the cutting element sheath distal end and into the foot opening.
A structure for preventing rain leakage in a tree house built with a tree trunk as a pillar, the structure comprising: the tree trunk ; and on an upper part of a roof of the tree house , and a waterproof sheet , characterized in that said waterproof sheet is a two-layer waterproof sheet comprising two layers , the two layers being a waterproof sheet and a non-woven fabric that is water absorbent, the non-woven fabric layer being configured to drain absorbed water from an end of the non-woven fabric layer in use, the two-layer waterproof sheet being wound onto the trunk so that there is direct contact between the non-woven fabric and a surface of the trunk , thereby preventing rainwater from entering the tree house along the trunk . the tree trunk ; and on an upper part of a roof of the tree house , and a waterproof sheet , the two layers being a waterproof sheet and a non-woven fabric that is water absorbent, the non-woven fabric layer being configured to drain absorbed water from an end of the non-woven fabric layer in use, the two-layer waterproof sheet being wound onto the trunk so that there is direct contact between the non-woven fabric and a surface of the trunk , thereby preventing rainwater from entering the tree house along the trunk .
A vehicular seat slide device comprising: a lower rail ; an upper rail provided to be movable relative to the lower rail along a long-side direction of the lower rail and configured to support a seat above; a lock lever supported by the upper rail , and configured to restrict the relative movement of the upper rail by engaging with the lower rail ; and a spring attached to the upper rail , and biasing in such a manner that the lock lever engages with the lower rail ; the spring including: a spring body ; and a locking portion inserted in a locking hole provided at an upper edge of the upper rail and opening to a side surface of the upper rail , the locking portion being insertable into the locking hole by elastically deforming the spring body towards an inner side relative to the locking hole , the spring body being elastically deformable until an end of the locking portion becomes insertable inside the upper rail , the locking portion being restricted from being detached from the locking hole in an insertion direction by being locked at a peripheral edge of the locking hole due to recovery of the elastic deformation of the spring body . a lower rail ; an upper rail provided to be movable relative to the lower rail along a long-side direction of the lower rail and configured to support a seat above; a lock lever supported by the upper rail , and configured to restrict the relative movement of the upper rail by engaging with the lower rail ; and a spring attached to the upper rail , and biasing in such a manner that the lock lever engages with the lower rail ; the spring including: a spring body ; and a locking portion inserted in a locking hole provided at an upper edge of the upper rail and opening to a side surface of the upper rail , the locking portion being insertable into the locking hole by elastically deforming the spring body towards an inner side relative to the locking hole , the spring body being elastically deformable until an end of the locking portion becomes insertable inside the upper rail , the locking portion being restricted from being detached from the locking hole in an insertion direction by being locked at a peripheral edge of the locking hole due to recovery of the elastic deformation of the spring body . a spring body ; and a locking portion inserted in a locking hole provided at an upper edge of the upper rail and opening to a side surface of the upper rail , the locking portion being insertable into the locking hole by elastically deforming the spring body towards an inner side relative to the locking hole , the spring body being elastically deformable until an end of the locking portion becomes insertable inside the upper rail , the locking portion being restricted from being detached from the locking hole in an insertion direction by being locked at a peripheral edge of the locking hole due to recovery of the elastic deformation of the spring body .
A method of producing a mixture of carbon nanotubes having a bimodal size distribution, the method comprising: mixing a carbon oxide gas stream and a reducing agent gas stream to form a reaction gas mixture; introducing the reaction gas mixture to a reaction vessel containing a solid catalyst at a reaction temperature and pressure; reducing carbon oxide in the reaction mixture with the reducing gas in the presence of the solid catalyst and forming carbon nanotubes comprising: a primary population of carbon nanotubes having an aspect ratio of at least 50:1; and a secondary population of carbon nanotubes having a smaller average diameter than an average diameter of the primary population, wherein the carbon nanotubes of the secondary population are interlaced with the primary population, and wherein the secondary population has a random orientation; and removing the solid carbon composition from the reaction vessel. mixing a carbon oxide gas stream and a reducing agent gas stream to form a reaction gas mixture; introducing the reaction gas mixture to a reaction vessel containing a solid catalyst at a reaction temperature and pressure; reducing carbon oxide in the reaction mixture with the reducing gas in the presence of the solid catalyst and forming carbon nanotubes comprising: a primary population of carbon nanotubes having an aspect ratio of at least 50:1; and a secondary population of carbon nanotubes having a smaller average diameter than an average diameter of the primary population, wherein the carbon nanotubes of the secondary population are interlaced with the primary population, and wherein the secondary population has a random orientation; and a primary population of carbon nanotubes having an aspect ratio of at least 50:1; and a secondary population of carbon nanotubes having a smaller average diameter than an average diameter of the primary population, wherein the carbon nanotubes of the secondary population are interlaced with the primary population, and wherein the secondary population has a random orientation; and removing the solid carbon composition from the reaction vessel.
Catalytic recombiner and filter apparatus , preferably for placement in a containment of a nuclear reactor , comprising a natural convection flow duct , inside which a number of catalytic elements for recombining hydrogen and oxygen, or carbon monoxide and oxygen, contained in a gas flow through the flow duct are arranged, the catalytic recombiner and filter apparatus comprises a number of adsorber elements with iodine adsorbing surfaces and with macroscopic flow channels in between them, wherein the iodine adsorbing surfaces are flown over by the gas flow, characterized in that the adsorber elements are arranged, when in use, downstream of the catalytic elements .
An air-guiding device, comprising: a mounting plate ; a plurality of blades , provided on the mounting plate ; a connecting rod , comprising a body and a guiding protrusion provided on the body , the body being connected with the blades ; and a guiding plate , a limiting opening being provided on the guiding plate , a part of the guiding protrusion being provided in the limiting opening and located by the limiting opening , the guiding protrusion being capable of sliding in the limiting opening along an extending direction of the limiting opening under an action of an external force, and an edge, in contact with the guiding protrusion , of the limiting opening having a smoothly deformed curved surface, characterized in that the guiding plate further comprises a first assistant opening configured to assist in expanding the limiting opening . a mounting plate ; a plurality of blades , provided on the mounting plate ; a connecting rod , comprising a body and a guiding protrusion provided on the body , the body being connected with the blades ; and a guiding plate , a limiting opening being provided on the guiding plate , a part of the guiding protrusion being provided in the limiting opening and located by the limiting opening , the guiding protrusion being capable of sliding in the limiting opening along an extending direction of the limiting opening under an action of an external force, and an edge, in contact with the guiding protrusion , of the limiting opening having a smoothly deformed curved surface, characterized in that the guiding plate further comprises a first assistant opening configured to assist in expanding the limiting opening .
A method for cleanly extracting metallic silver, comprising the following steps: mixing an acidic solution containing Ce 4+ and NO 3 - with a silver-containing material for leaching; after the leaching is completed, carrying out a solid-liquid separation to obtain a leaching solution; and electrolyzing the leaching solution obtained in step , wherein an oxidation reaction of Ce 3+ occurs at an anode to obtain a solution containing Ce 4+ to achieve a regeneration of Ce 4+ , and a reduction reaction of Ag + occurs at a cathode to obtain the metallic silver. mixing an acidic solution containing Ce 4+ and NO 3 - with a silver-containing material for leaching; after the leaching is completed, carrying out a solid-liquid separation to obtain a leaching solution; and electrolyzing the leaching solution obtained in step , wherein an oxidation reaction of Ce 3+ occurs at an anode to obtain a solution containing Ce 4+ to achieve a regeneration of Ce 4+ , and a reduction reaction of Ag + occurs at a cathode to obtain the metallic silver.
An upper for an article of footwear , the upper comprising: an outer layer forming an outer surface of the upper and including a plurality of apertures ; an inner layer forming part of an interior surface of the upper , the outer layer and inner layer being joined together or attached; and a chamber element situated between inner layer and outer layer and positioned to contact and be flush against inner surfaces of inner layer and outer layer in a sandwich configuration, the chamber element including: subchambers protruding at least partially through apertures of outer layer ; and interior bonds positioned between subchambers; wherein the chamber element is formed from a first barrier element and a second barrier element , the first barrier element and the second barrier element spaced apart from one another at a first subchamber to define a first interior chamber and spaced apart from one another at a second subchamber to define a second interior chamber, and wherein the chamber element extends from a lateral side of the article of footwear, around a heel region, and into a medial side of the article of footwear. an outer layer forming an outer surface of the upper and including a plurality of apertures ; an inner layer forming part of an interior surface of the upper , the outer layer and inner layer being joined together or attached; and a chamber element situated between inner layer and outer layer and positioned to contact and be flush against inner surfaces of inner layer and outer layer in a sandwich configuration, the chamber element including: subchambers protruding at least partially through apertures of outer layer ; and interior bonds positioned between subchambers; wherein the chamber element is formed from a first barrier element and a second barrier element , the first barrier element and the second barrier element spaced apart from one another at a first subchamber to define a first interior chamber and spaced apart from one another at a second subchamber to define a second interior chamber, and wherein the chamber element extends from a lateral side of the article of footwear, around a heel region, and into a medial side of the article of footwear.