mhurhangee/ep-ind-claims huggingface dataset:
A stroller, comprising: • a frame comprising a first seat support clement; • a first seat removably connected to the first seat support element; • a left front wheel, a right front wheel, and at least one rear wheel; the stroller being characterized in that it further comprises: • a second seat attachment comprising: • a separate left attachment frame member, wherein the left attachment frame member comprises a connector portion capable of removably connecting to the stroller frame in a front portion of the stroller and a second seat support element capable of removably attaching a second seat, • a separate right attachment frame member, wherein the right attachment frame member comprises a connector portion capable of removably connecting to the stroller frame in a front portion of the stroller and a second seat support element capable of removably attaching the second seat, wherein the second seat is selectively supported in either a forward or backward position between the left attachment frame member and the right attachment frame member. • a frame comprising a first seat support clement; • a first seat removably connected to the first seat support element; • a left front wheel, a right front wheel, and at least one rear wheel; • a second seat attachment comprising: • a separate left attachment frame member, wherein the left attachment frame member comprises a connector portion capable of removably connecting to the stroller frame in a front portion of the stroller and a second seat support element capable of removably attaching a second seat, • a separate right attachment frame member, wherein the right attachment frame member comprises a connector portion capable of removably connecting to the stroller frame in a front portion of the stroller and a second seat support element capable of removably attaching the second seat, • a separate left attachment frame member, wherein the left attachment frame member comprises a connector portion capable of removably connecting to the stroller frame in a front portion of the stroller and a second seat support element capable of removably attaching a second seat, • a separate right attachment frame member, wherein the right attachment frame member comprises a connector portion capable of removably connecting to the stroller frame in a front portion of the stroller and a second seat support element capable of removably attaching the second seat,
A cleaning tool comprising: (a) a shaft extending from a proximal end to a distal end, the shaft comprising a handle at the proximal end and a tool head at the distal end, the tool head comprising first and second major sides (111, 112) extending longitudinally from the handle; and (b) a sock removably mountable on the tool head, the sock comprising a pocket with an opening for inserting the tool head, characterized in that the tool head comprises a through hole, and the sock comprises a fastener comprising a first coupling member and a second coupling member, and wherein the first and second coupling members (31, 32) are constructed to align with and couple through the through hole on the tool head. (a) a shaft extending from a proximal end to a distal end, the shaft comprising a handle at the proximal end and a tool head at the distal end, the tool head comprising first and second major sides (111, 112) extending longitudinally from the handle; and (b) a sock removably mountable on the tool head, the sock comprising a pocket with an opening for inserting the tool head,
An unmanned aerial vehicle, UAV, comprising: a fuselage; at least one stabilizer; and wherein a base of the stabilizer is configured to pivot about a first axis and a second axis, wherein the at least one stabilizer comprises a flexible fairing at the base of the stabilizer configured to enable a rotation of the stabilizer about the second axis while maintaining an aerodynamic efficiency, wherein the at least one stabilizer is configurable in at least the following arrangements: a compact arrangement comprising: the at least one stabilizer stowed against the fuselage, and a deployed arrangement comprising: the least one stabilizer deployed from the fuselage about the first axis. a fuselage; at least one stabilizer; and wherein a base of the stabilizer is configured to pivot about a first axis and a second axis, wherein the at least one stabilizer comprises a flexible fairing at the base of the stabilizer configured to enable a rotation of the stabilizer about the second axis while maintaining an aerodynamic efficiency, wherein the at least one stabilizer is configurable in at least the following arrangements: a compact arrangement comprising: the at least one stabilizer stowed against the fuselage, and a deployed arrangement comprising: the least one stabilizer deployed from the fuselage about the first axis. a compact arrangement comprising: the at least one stabilizer stowed against the fuselage, and a deployed arrangement comprising: the least one stabilizer deployed from the fuselage about the first axis.
A silicon-based active material-polymer composite which is secondary particles in which silicon-based particles as primary particles and conductive polymer particles are mixed, wherein the conductive polymer particles have a volumetric modulus of elasticity of 10 Pa to 100 Pa at a temperature of 25°C, with the volumetric modulus of elasticity being measured as described in the specification.
A vacuum heat insulator comprising: a container constituting an airtight structure; a core material provided inside the container; an exhaust hole provided in the container; and a sealant for sealing the exhaust hole, wherein the exhaust hole is configured for evacuation inside the container through the exhaust hole, the sealant is configured to seal the exhaust hole while maintaining a vacuum inside the container, and the sealant includes at least a metal foil, the container includes an inner plate and an outer plate, the inner plate is provided with the exhaust hole, characterized in that a reinforcement is provided between the inner plate and the core material. a container constituting an airtight structure; a core material provided inside the container; an exhaust hole provided in the container; and a sealant for sealing the exhaust hole, wherein the exhaust hole is configured for evacuation inside the container through the exhaust hole, the sealant is configured to seal the exhaust hole while maintaining a vacuum inside the container, and the sealant includes at least a metal foil, the container includes an inner plate and an outer plate, the inner plate is provided with the exhaust hole, characterized in that a reinforcement is provided between the inner plate and the core material.
An endoluminal prosthesis system (100, 200, 300, 400) comprising an endoluminal prosthesis, wherein said prosthesis comprises: a graft having a tubular body comprising proximal and distal ends (22, 24), and inner and outer surfaces, wherein said graft is adapted to have partially and fully deployed states, and wherein said graft is adapted to form a temporary channel (120, 310, 410) disposed external to the outer surface of the graft in the partially deployed state, the temporary channel beginning at the distal end of the graft, extending along only a portion of a longitudinal length of the graft and terminating before the proximal end of the graft, wherein the temporary channel is adapted to be removed when the graft is in the fully deployed state; and at least one fenestration disposed in a sidewall of the graft between the proximal and distal ends (22, 24) of the graft, wherein the proximal end of the temporary channel is aligned with the fenestration. a graft having a tubular body comprising proximal and distal ends (22, 24), and inner and outer surfaces, wherein said graft is adapted to have partially and fully deployed states, and wherein said graft is adapted to form a temporary channel (120, 310, 410) disposed external to the outer surface of the graft in the partially deployed state, the temporary channel beginning at the distal end of the graft, extending along only a portion of a longitudinal length of the graft and terminating before the proximal end of the graft, wherein the temporary channel is adapted to be removed when the graft is in the fully deployed state; and at least one fenestration disposed in a sidewall of the graft between the proximal and distal ends (22, 24) of the graft, wherein the proximal end of the temporary channel is aligned with the fenestration.
A method for coupling a stent to a polymeric coating for delivery of one or more therapeutic agents, the method including: providing a polymeric coating including an outer surface having a first outer diameter (d c1) in a first state; aligning at least a portion of the polymeric coating over a balloon of a balloon catheter; softening at least a portion of the polymeric coating to facilitate expansion of the polymeric coating from its first state to its second state; providing a stent having a compressed state and an expanded state, wherein the inner diameter (d s) of the stent in the expanded state is greater than the first outer diameter of the polymeric coating; aligning the stent at least partially over the polymeric coating when the polymeric coating is in its first state; inflating the balloon to expand the polymeric coating from the first state to the second state to increase the diameter of the polymeric coating to a second outer diameter (d c2), which is equal to or greater than the inner diameter of the stent, to coat the inner surface of the stent with the polymeric coating, thereby causing the outer surface of the polymeric coating to engage the inner surface of the stent; maintaining inflation of the balloon for a predetermined period of time to permit the polymeric coating to become secured to the inner surface of the stent; and deflating the balloon. providing a polymeric coating including an outer surface having a first outer diameter (d c1) in a first state; aligning at least a portion of the polymeric coating over a balloon of a balloon catheter; softening at least a portion of the polymeric coating to facilitate expansion of the polymeric coating from its first state to its second state; providing a stent having a compressed state and an expanded state, wherein the inner diameter (d s) of the stent in the expanded state is greater than the first outer diameter of the polymeric coating; aligning the stent at least partially over the polymeric coating when the polymeric coating is in its first state; inflating the balloon to expand the polymeric coating from the first state to the second state to increase the diameter of the polymeric coating to a second outer diameter (d c2), which is equal to or greater than the inner diameter of the stent, to coat the inner surface of the stent with the polymeric coating, thereby causing the outer surface of the polymeric coating to engage the inner surface of the stent; maintaining inflation of the balloon for a predetermined period of time to permit the polymeric coating to become secured to the inner surface of the stent; and deflating the balloon.
A method of detecting an envelope, the method comprising: determining samples of a modulated signal to comprise exactly four samples; generating sample sets based on the samples, wherein each of the sample sets comprise a respective pair of the four samples, wherein two samples are each shared between two sample sets; determining a sample set from the sample sets; determining an envelope component value associated with a sample among samples included in the determined sample set, based on a difference between the samples included in the determined sample set, and a difference between samples included in each of the sample sets other than the determined sample set; and detecting an envelope of the modulated signal based on the envelope component value, wherein the envelope component value is calculated according to R n = √ b 2 − a ⋅ c / k, wherein R(n) represents the envelope component value, k represents a scaling factor, and a = x n − x n − 1; b = x n + 1 − x n; c = x n + 2 − x n + 1, wherein x(n), x(n-1), x(n+1) and x(n+2) represent the sample value x of sample number n, n-1, n+1 and n+2, respectively. determining samples of a modulated signal to comprise exactly four samples; generating sample sets based on the samples, wherein each of the sample sets comprise a respective pair of the four samples, wherein two samples are each shared between two sample sets; determining a sample set from the sample sets; determining an envelope component value associated with a sample among samples included in the determined sample set, based on a difference between the samples included in the determined sample set, and a difference between samples included in each of the sample sets other than the determined sample set; and detecting an envelope of the modulated signal based on the envelope component value, wherein the envelope component value is calculated according to R n = √ b 2 − a ⋅ c / k, wherein R(n) represents the envelope component value, k represents a scaling factor, and a = x n − x n − 1; b = x n + 1 − x n; c = x n + 2 − x n + 1, wherein x(n), x(n-1), x(n+1) and x(n+2) represent the sample value x of sample number n, n-1, n+1 and n+2, respectively.
A microwave ablation catheter for use in a branched luminal network, comprising: a coaxial cable configured to be coupled to a microwave energy source, wherein the coaxial cable includes an inner conductor, an outer conductor, and a dielectric disposed between the inner and outer conductors, and wherein at least a portion of the outer conductor is braided; a distal radiating section provided at the distal end of the coaxial cable and configured to deliver microwave energy to tissue; and an elongated housing defining a plurality of lumens in fluid communication with a fluid source, the plurality of lumens including: a first inflow lumen defined around the coaxial cable, the first inflow lumen configured to facilitate inflow of fluid to the distal radiating section; a second inflow lumen and at least one outflow lumen disposed around the first inflow lumen, the second inflow lumen configured to facilitate inflow of fluid to the distal radiating section, and the at least one outflow lumen configured to facilitate outflow of fluid from the distal radiating section. a coaxial cable configured to be coupled to a microwave energy source, wherein the coaxial cable includes an inner conductor, an outer conductor, and a dielectric disposed between the inner and outer conductors, and wherein at least a portion of the outer conductor is braided; a distal radiating section provided at the distal end of the coaxial cable and configured to deliver microwave energy to tissue; and an elongated housing defining a plurality of lumens in fluid communication with a fluid source, the plurality of lumens including: a first inflow lumen defined around the coaxial cable, the first inflow lumen configured to facilitate inflow of fluid to the distal radiating section; a second inflow lumen and at least one outflow lumen disposed around the first inflow lumen, the second inflow lumen configured to facilitate inflow of fluid to the distal radiating section, and the at least one outflow lumen configured to facilitate outflow of fluid from the distal radiating section. a first inflow lumen defined around the coaxial cable, the first inflow lumen configured to facilitate inflow of fluid to the distal radiating section; a second inflow lumen and at least one outflow lumen disposed around the first inflow lumen, the second inflow lumen configured to facilitate inflow of fluid to the distal radiating section, and the at least one outflow lumen configured to facilitate outflow of fluid from the distal radiating section.
An acceleration and deceleration device for braking moving objects before they reach an open or closed end position and for guiding these objects into this end position in an impact-free manner, comprising an entraining element which can be guided from a force-fittingly and/or form-fittingly secured park position into an end position by discharging a spring energy storage mechanism, configured as a tension spring, of the acceleration and deceleration device, wherein by means of the entraining element, a piston of a cylinder-piston unit of the acceleration and deceleration device can be moved in a deceleration stroke direction, characterized in that - the entraining element has a spring deflection surface spaced apart from a spring receptacle, on which surface the tension spring hooked in the spring receptacle of the entraining element bears, at least when the entraining element is situated in the end position, and that - the spring deflection surface is a uniaxially convex surface, of which the imaginary bending midline is oriented normally to the deceleration stroke direction. - the entraining element has a spring deflection surface spaced apart from a spring receptacle, on which surface the tension spring hooked in the spring receptacle of the entraining element bears, at least when the entraining element is situated in the end position, and that - the spring deflection surface is a uniaxially convex surface, of which the imaginary bending midline is oriented normally to the deceleration stroke direction.
A lubricating composition comprising an oil of lubricating viscosity and 0.01 to 5 wt % of a compound obtained by a process comprising reacting a glycolic acid or an alkali or alkaline metal salt thereof, with an alcohol, wherein the compound is represented by formula: wherein k is 1 to 4, or 1 to 2, or 1; and each R is independently hydrogen, or a hydrocarbyl group, typically containing 4 to 30, or 6 to 20, or 8 to 18, or 8 to 16 carbon atoms. wherein k is 1 to 4, or 1 to 2, or 1; and each R is independently hydrogen, or a hydrocarbyl group, typically containing 4 to 30, or 6 to 20, or 8 to 18, or 8 to 16 carbon atoms.
A chip-type electronic component comprising: a ceramic body including an internal electrode (3a, 3b); and an external electrode provided on an end surface of the internal electrode so as to provide electrical conduction to the internal electrode (3a, 3b), wherein the external electrode (1a, 1b) includes: a resin electrode layer (12a, 12b) containing a conductive constituent and a resin constituent, the resin electrode layer formed in a region including at least an end surface of the ceramic body, and formed so as to connect to the internal electrode (3a, 3b) directly or indirectly and connect with the ceramic body; and a plating metal layer (13a, 13b) formed so as to cover the resin electrode layer, wherein the adhesion strength between the ceramic body and the resin electrode layer (12a, 12b) is higher than the adhesion strength between the resin electrode layer and the plating metal layer (13a, 13b), wherein the resin electrode layer has a surface Ag concentration of 2 atom% to 8 atom%, wherein a resin constituent with a coupling agent added thereto is used as the resin constituent constituting the resin electrode layer (12a, 12b). a resin electrode layer (12a, 12b) containing a conductive constituent and a resin constituent, the resin electrode layer formed in a region including at least an end surface of the ceramic body, and formed so as to connect to the internal electrode (3a, 3b) directly or indirectly and connect with the ceramic body; and a plating metal layer (13a, 13b) formed so as to cover the resin electrode layer,
A stacked IC device comprising: a top tier and a bottom tier, each tier having a substrate layer and an active layer in which active circuits are disposed, wherein the top tier and the bottom tier are stacked so that the active layer of the top tier faces the active layer of the bottom tier; and a thermal electric device comprising at least one P_N junction (301, 302) and a bottom conductor, wherein the material of the P_N junction is disposed within the substrate layer of the top tier, wherein the TE device is adapted to facilitate thermal flow between the bottom conductor of said TE device and a localised area of the stacked IC device, and wherein the thermal flow passes through the active layers of both the top and bottom tiers.. a top tier and a bottom tier, each tier having a substrate layer and an active layer in which active circuits are disposed, wherein the top tier and the bottom tier are stacked so that the active layer of the top tier faces the active layer of the bottom tier; and a thermal electric device comprising at least one P_N junction (301, 302) and a bottom conductor, wherein the material of the P_N junction is disposed within the substrate layer of the top tier, wherein the TE device is adapted to facilitate thermal flow between the bottom conductor of said TE device and a localised area of the stacked IC device, and wherein the thermal flow passes through the active layers of both the top and bottom tiers..
A method of installing a subsurface tank, comprising the steps of: - building a framework having dimensions corresponding to a required volume of the tank; - providing a foil having dimensions sufficient to cover the framework; - covering at least the bottom and wall surfaces of the framework with said foil; - placing said framework in a hole sufficient for said framework to be contained below ground surface; characterized in that said step of building said framework comprises building said framework from a modular space frame, which is made from a lightweight rigid structure constructed from interlocking struts in a geometric triangular pattern. - building a framework having dimensions corresponding to a required volume of the tank; - providing a foil having dimensions sufficient to cover the framework; - covering at least the bottom and wall surfaces of the framework with said foil; - placing said framework in a hole sufficient for said framework to be contained below ground surface; characterized in that said step of building said framework comprises building said framework from a modular space frame, which is made from a lightweight rigid structure constructed from interlocking struts in a geometric triangular pattern.
A process for the production of biogas from biodegradable material which comprises the steps of: (a) adding the biodegradable material to the reactor; (b) inoculating the microorganisms; (c) adding a colloidal solution of surface-modified iron oxide nanoparticles to the reactor, wherein the diameter of the iron oxide nanoparticles is between 3 nm and 30 nm; (d) providing anaerobic conditions; (e) carrying out the anaerobic digestion; (f) collecting the biogas; wherein the steps (a), (b) and (c) can be carried out in any order. (a) adding the biodegradable material to the reactor; (b) inoculating the microorganisms; (c) adding a colloidal solution of surface-modified iron oxide nanoparticles to the reactor, wherein the diameter of the iron oxide nanoparticles is between 3 nm and 30 nm; (d) providing anaerobic conditions; (e) carrying out the anaerobic digestion; (f) collecting the biogas;
A heat-sensitive recording material comprising at least one color-developing compound represented by the general formula: wherein, R 1 to R 5 each independently represent a hydrogen atom, a halogen atom, a nitro group, an amino group, an alkyl group, an alkoxy group, an aryloxy group, an alkylcarbonyloxy group, an arylcarbonyloxy group, an alkylcarbonylamino group, an arylcarbonylamino group, an alkylsulfonylamino group, an arylsulfonylamino group, a monoalkylamino group, a dialkylamino group, or an arylamino group.