mhurhangee/ep-ind-claims huggingface dataset:
An actuator comprising: a composite actuator rod tube having a tapered end; an embedded bolt having a threaded end, wherein the embedded bolt has a complementary shape to the tapered end; a nut configured to engage with the threaded end of the embedded bolt; a piston head concentrically surrounding the tapered end of the composite actuator rod tube; and characterised in that the actuator further comprises a locking mechanism proximate the nut, wherein the locking mechanism comprises a locking cup washer concentrically surrounding a portion of the threaded end of the embedded bolt and a jam nut engaged with the threaded end of the embedded bolt and proximate the locking cup washer. a composite actuator rod tube having a tapered end; an embedded bolt having a threaded end, wherein the embedded bolt has a complementary shape to the tapered end; a nut configured to engage with the threaded end of the embedded bolt; a piston head concentrically surrounding the tapered end of the composite actuator rod tube; and characterised in that the actuator further comprises a locking mechanism proximate the nut, wherein the locking mechanism comprises a locking cup washer concentrically surrounding a portion of the threaded end of the embedded bolt and a jam nut engaged with the threaded end of the embedded bolt and proximate the locking cup washer.
A mop wringer machine, which incorporates pressure devices for the mop operated by en electric motor, as well as a basket through which to pass the water wrung out of the mop into the cleaning water container, to which the machine is conveniently attached, characterised in that the aforementioned wringer basket is mounted on the frame or base of the machine as a floating basket, resting on this frame or base by means of springs whose elastic deformation enables the basket to move downwards when the pressure devices thus require it in accordance with the size and shape of the mop; these pressure devices take the form of a pair of tilting flaps in the shape of U able to adopt two final positions, a top position with the maximum distance separating them, and a bottom position with a minimum distance separating them.
A hybrid material, comprising: a biodegradable polymer; a biodegradable metallic material surface-treated by plasma immersion ion implantation or plasma immersion ion implantation and deposition; and a silane coupling agent chemically bonded to the surface-treated biodegradable metallic material and the biodegradable polymer. a biodegradable polymer; a biodegradable metallic material surface-treated by plasma immersion ion implantation or plasma immersion ion implantation and deposition; and a silane coupling agent chemically bonded to the surface-treated biodegradable metallic material and the biodegradable polymer.
An aqueous disinfecting solution consisting of: (a) 3 to 10% by volume of hydrogen peroxide; (b) 40 to 120 mg/kg of silver ions (Ag +), wherein said silver ions are added in the form of AgNO 3 or Ag 2 SO 4; (c) 20 to 200 mg/kg of phosphate and/or hydrogen phosphate ions, wherein said phosphate ions are added in the form of H 3 PO 4 and said hydrogen phosphate ions are added in the form of KH 2 PO 4; (d) 0.1 to 2 g/kg of at least one non-ionic surfactant selected from: ethoxylated fatty alcohols, ethoxylated fatty acids, esters of ethoxylated fatty acids, or mixtures thereof; (e) at least one complex phosphate or phosphonate selected among potassium pyrophosphate, sodium orthophosphate, sodium tripolyphosphate, sodium hexametaphosphate, sodium hydroxyethylidendiphosphonate and mixtures thereof, in an amount not higher than 300 mg/kg; (f) water. (a) 3 to 10% by volume of hydrogen peroxide; (b) 40 to 120 mg/kg of silver ions (Ag +), wherein said silver ions are added in the form of AgNO 3 or Ag 2 SO 4; (c) 20 to 200 mg/kg of phosphate and/or hydrogen phosphate ions, wherein said phosphate ions are added in the form of H 3 PO 4 and said hydrogen phosphate ions are added in the form of KH 2 PO 4; (d) 0.1 to 2 g/kg of at least one non-ionic surfactant selected from: ethoxylated fatty alcohols, ethoxylated fatty acids, esters of ethoxylated fatty acids, or mixtures thereof; (e) at least one complex phosphate or phosphonate selected among potassium pyrophosphate, sodium orthophosphate, sodium tripolyphosphate, sodium hexametaphosphate, sodium hydroxyethylidendiphosphonate and mixtures thereof, in an amount not higher than 300 mg/kg; (f) water.
Vibration damper for a motor vehicle, notably for a motor vehicle drivetrain, comprising: - a first element and a second element capable of rotational movement with respect to one another about an axis X; and - a cam follower collaborating with a cam, the cam follower being designed to transmit torque between the first element and the cam, and the cam being designed to transmit torque between the cam follower and the second element; the cam being connected to the second element by an elastic connection which is designed to deform and allow the cam follower to move over the cam and allow a relative rotation between the first and second elements in order to damp acyclism between the first and second elements, the cam follower comprising: • a stem having a distal end; • a roller, collaborating with the cam, coaxial with the stem; • rolling bodies arranged in a rolling space which contains a lubricant and is arranged between an external runway borne by the roller and an internal runway borne by the stem so as to allow a relative rotation between the roller and the stem, characterized by • a cover which is arranged facing the distal end of the stem and is fixed fluidtightly over the roller so as to cover the rolling space. - a first element and a second element capable of rotational movement with respect to one another about an axis X; and - a cam follower collaborating with a cam, the cam follower being designed to transmit torque between the first element and the cam, and the cam being designed to transmit torque between the cam follower and the second element; the cam being connected to the second element by an elastic connection which is designed to deform and allow the cam follower to move over the cam and allow a relative rotation between the first and second elements in order to damp acyclism between the first and second elements, • a stem having a distal end; • a roller, collaborating with the cam, coaxial with the stem; • rolling bodies arranged in a rolling space which contains a lubricant and is arranged between an external runway borne by the roller and an internal runway borne by the stem so as to allow a relative rotation between the roller and the stem, • a cover which is arranged facing the distal end of the stem and is fixed fluidtightly over the roller so as to cover the rolling space.
An electrolyte comprising: a) an ionically conductive polymer; b) an ionically conductive ceramic; and c) a dielectric material, wherein the dielectric material comprises a dielectric nanoparticle, the dielectric nanoparticle having an average particle size of less than 100 nanometers; characterized in that the dielectric material is on the surface of the ionically conductive ceramic in the form of a particle, the ionically conductive ceramic having the dielectric material on the surface is distributed throughout the ionically conductive polymer, and the dielectric constant of the dielectric material is at least about 300. a) an ionically conductive polymer; b) an ionically conductive ceramic; and c) a dielectric material,
An intraluminal imaging device, comprising: a flexible elongate member configured for insertion into a vessel of a patient, the flexible elongate member including a proximal portion and a distal portion; an imaging assembly positioned at the distal portion of the flexible elongate member, the imaging assembly comprising a flex circuit; and a bridge member configured to be at electrical ground and in contact with at least a portion of the imaging assembly to maintain the portion of the imaging assembly at electrical ground, wherein the bridge member is disposed in cylindrical configuration and wherein the bridge member extends along a length of the flex circuit; characterised in that the bridge member is spaced from the flex circuit along a portion of the length of the flex circuit. a flexible elongate member configured for insertion into a vessel of a patient, the flexible elongate member including a proximal portion and a distal portion; an imaging assembly positioned at the distal portion of the flexible elongate member, the imaging assembly comprising a flex circuit; and a bridge member configured to be at electrical ground and in contact with at least a portion of the imaging assembly to maintain the portion of the imaging assembly at electrical ground, wherein the bridge member is disposed in cylindrical configuration and wherein the bridge member extends along a length of the flex circuit; characterised in that the bridge member is spaced from the flex circuit along a portion of the length of the flex circuit.
Method of degrading a homo or copolymer into oligomers, trimers, dimers and/or monomers, comprising the steps of providing the polymer in a suitable solvent, wherein the polymer is one or more of a polyester and a polyether, wherein the solvent is a reactant capable of reacting with the polymer being degraded, and chosen from an alkanol or alkanediol, water and amino comprising reactants, the polymer being in solid form, adjusting temperature and pressure to reaction conditions, wherein the degrading is performed at a temperature of 150°C-250°C during a period of 0.1 minutes-168 hours, wherein the pressure is from 90kPa-10.000kPa, providing a catalyst complex comprising a catalyst entity, a magnetic nanoparticle, and a bridging moiety solely between the catalyst entity and the magnetic nanoparticle, wherein the bridging moiety is attached, such as by a covalent bond, to the nanoparticle and the catalyst entity is chemically attached to the bridging moiety, the catalyst complex being capable of degrading a polyester or polyether polymer into oligomers, trimers, dimers and/or monomers, wherein the catalyst entity comprises a first and a second moiety, wherein the first is an aromatic moiety having a positive charge and the second is a moiety having a negative charge, wherein the positive charge is on an imidazole, and wherein the negative charge is on a Fe 3+ comprising salt complex moiety having a three-plus charged iron ion and negatively charged counter-ions, such as an halogenide, wherein the magnetic particles have an average diameter of 3 nm- 100 nm, wherein the magnetic particles are one of ferrite, magnetite, hematite and maghemite, wherein the bridging moiety is one or more of a weak organic acid, silanol, silyl comprising groups, and silanol, and wherein the bridging moiety is present in an amount of 5 ∗ 10 -6 -0.1 Mole bridging moiety/gr magnetic particle, wherein the amount of catalyst is 0.1-35 wt.%, relative to a total weight of polymer provided, wherein the amount of catalyst relates to the catalyst entity and bridging moiety without nanoparticle; degrading the polymer over a period sufficient to degrade a significant portion thereof, recovering the catalyst complex, and recycling the recovered catalyst complex.
An exhaust system for an engine, comprising: an exhaust passage (61, 62) configured to receive exhaust gas emitted from the engine, the exhaust passage (61, 62) having a first diameter reducing portion and a second diameter reducing portion; a flow rectifier (63, 64) having a rectifying portion (63A, 64A) configured to rectify the flow of the exhaust gas in the exhaust passage (61, 62); an exhaust heat recovery unit disposed in the exhaust passage (61, 62) downstream of the flow rectifier (63, 64) and provided with an exhaust heat recovery portion configured to recover heat of the exhaust gas and a cooling portion configured to cool the exhaust heat recovery portion from the outer peripheral side through cooling fluid; the first diameter reducing portion having a gradually reducing diameter in a direction toward the exhaust heat recovery unit from the flow rectifier (63, 64), and the second diameter reducing portion having a gradually reducing diameter in a direction toward the downstream from the exhaust heat recovery unit, characterized in that the exhaust heat recovery portion is a grid-like cylindrical member having a plurality of rectifying holes in which the exhaust gas can pass, wherein the rectifying holes penetrate in an axial direction from the end face of the exhaust heat recovery portion to the other end face. an exhaust passage (61, 62) configured to receive exhaust gas emitted from the engine, the exhaust passage (61, 62) having a first diameter reducing portion and a second diameter reducing portion; a flow rectifier (63, 64) having a rectifying portion (63A, 64A) configured to rectify the flow of the exhaust gas in the exhaust passage (61, 62); an exhaust heat recovery unit disposed in the exhaust passage (61, 62) downstream of the flow rectifier (63, 64) and provided with an exhaust heat recovery portion configured to recover heat of the exhaust gas and a cooling portion configured to cool the exhaust heat recovery portion from the outer peripheral side through cooling fluid; the first diameter reducing portion having a gradually reducing diameter in a direction toward the exhaust heat recovery unit from the flow rectifier (63, 64), and the second diameter reducing portion having a gradually reducing diameter in a direction toward the downstream from the exhaust heat recovery unit, characterized in that the exhaust heat recovery portion is a grid-like cylindrical member having a plurality of rectifying holes in which the exhaust gas can pass, wherein the rectifying holes penetrate in an axial direction from the end face of the exhaust heat recovery portion to the other end face.
A method of identifying a fault in a digital subscriber line in a telecommunications network performed by a fault detection unit, said method comprising: i) determining near-end error instances and far-end error instances associated with the digital subscriber line measured over a period of time; ii) determining the degree of correlation between the near-end error instances and the far-end error instances; iii) identifying (204, 206) a fault on the digital subscriber line in dependence on the determined degree of correlation; characterised in that, determining the degree of correlation comprises numerical analysis of the error instances, wherein the numerical analysis comprises regression analysis on the near end and far end error instances to determine a quality of fit parameter, and wherein the error instances are counts of error occurrences. i) determining near-end error instances and far-end error instances associated with the digital subscriber line measured over a period of time; ii) determining the degree of correlation between the near-end error instances and the far-end error instances; iii) identifying (204, 206) a fault on the digital subscriber line in dependence on the determined degree of correlation;
A binding protein that specifically binds to (i) a peptide consisting of SEQ ID NO:3 of a receptor tyrosine kinase-like orphan receptor 1 protein, or (ii) an epitope of a ROR1 protein, which epitope is within the amino acid sequence set forth in SEQ ID NO:3, wherein the binding protein is a monoclonal antibody or an antigen-binding fragment thereof.
A supramolecule for use in wound treatment, wherein the supramolecule reverses clotting of a hydrophobically modified biopolymer and a membrane, the use comprising: applying, to a gelled hydrophobically modified biopolymer placed on a wound, a supramolecule capable of disrupting interactions between a hydrophobic substituent on the hydrophobically modified biopolymer and a membrane in the wound, without affecting the structure of the membrane or the hydrophobically modified polymer to which the hydrophobic substituents are attached; and wherein the supramolecule is a cyclodextrin.
External use composition comprising soyasaponin Aa as an active ingredient for use in a method for treating or ameliorating skin pigmentation abnormalities or excessive melanin pigmentation.
Human mesenchymal stem cells (MSCs) and parathyroid hormone, for use in treating osteoporotic related conditions in a human subject, wherein a quantity of at least 1x10 6 human MSCs and a quantity of at least 0.1-5 μg/kg of PTH are administered followed by further daily administration of at least 0.1 to 5 μg/kg of PTH for at least 1 week, wherein administration of human MSCs comprises intravenous injection, and administration of PTH comprises subcutaneous injection.
A method associated with downlink paging comprising: determining a set of bits of a user equipment identifier using an on/off DRX cycle of the user equipment and a paging group count transmitted by a network equipment; and assigning a paging frame in a communication channel based upon the on/off cycle of the user equipment, the paging group count, and a value of the set of bits of the user equipment identifier of the user equipment being paged; wherein assigning comprises utilizing the formula SFN mod Paging_DRX_Period == (x div Pagin_Group_Count)*(z), wherein x comprises a DRX cycle of 32*N frames and wherein z comprises a set of bits of the user equipment identifier, the set of bits determined based upon the DRX cycle and the paging group count. determining a set of bits of a user equipment identifier using an on/off DRX cycle of the user equipment and a paging group count transmitted by a network equipment; and assigning a paging frame in a communication channel based upon the on/off cycle of the user equipment, the paging group count, and a value of the set of bits of the user equipment identifier of the user equipment being paged; wherein assigning comprises utilizing the formula SFN mod Paging_DRX_Period == (x div Pagin_Group_Count)*(z), wherein x comprises a DRX cycle of 32*N frames and wherein z comprises a set of bits of the user equipment identifier, the set of bits determined based upon the DRX cycle and the paging group count.
A rotary electromagnetic device, comprising: a rotor; a stator core; a stator wire made of aluminum and wound on the stator core and wherein the stator wire is insulated; and a connection wire connected to the stator wire, wherein the connection wire is made of copper; wherein the connection wire is first connected to the stator wire by ultrasonic welding to form a mutually welded stator wire and connection wire portion, and wherein the mutually welded stator wire and connection wire portion is to be subsequently connected to a terminal made of copper through soldering such that both the connection wire and the stator wire in the mutually welded stator wire and connection wire portion are connected to the terminal. a rotor; a stator core; a stator wire made of aluminum and wound on the stator core and wherein the stator wire is insulated; and a connection wire connected to the stator wire, wherein the connection wire is made of copper; wherein the connection wire is first connected to the stator wire by ultrasonic welding to form a mutually welded stator wire and connection wire portion, and wherein the mutually welded stator wire and connection wire portion is to be subsequently connected to a terminal made of copper through soldering such that both the connection wire and the stator wire in the mutually welded stator wire and connection wire portion are connected to the terminal.
A computer implemented method of handling a factor of a multi-factor authentication sequence, said method comprising: receiving a biometric candidate at a device associated with an identity verification element, said device lacking access to biometric templates stored on the identity verification element until extracted from said identity verification element; generating a cryptographic key from said biometric candidate; decrypting a previously stored, encrypted character sequence associated with said identity verification element, wherein said decrypting employs said cryptographic key and results in a decrypted character sequence; transmitting said decrypted character sequence to said identity verification element; receiving, from said identity verification element, an indication of character sequence verification; determining, from said indication, that said identity verification element has verified said decrypted character sequence; and responsive to said determining that said identity verification element has successfully verified said decrypted character sequence, proceeding with said multi-factor authentication sequence by: extracting said biometric templates from said identity verification element; and determining that said biometric candidate matches one of said biometric templates. receiving a biometric candidate at a device associated with an identity verification element, said device lacking access to biometric templates stored on the identity verification element until extracted from said identity verification element; generating a cryptographic key from said biometric candidate; decrypting a previously stored, encrypted character sequence associated with said identity verification element, wherein said decrypting employs said cryptographic key and results in a decrypted character sequence; transmitting said decrypted character sequence to said identity verification element; receiving, from said identity verification element, an indication of character sequence verification; determining, from said indication, that said identity verification element has verified said decrypted character sequence; and responsive to said determining that said identity verification element has successfully verified said decrypted character sequence, proceeding with said multi-factor authentication sequence by: extracting said biometric templates from said identity verification element; and determining that said biometric candidate matches one of said biometric templates. extracting said biometric templates from said identity verification element; and determining that said biometric candidate matches one of said biometric templates.
Artificial magnetic conductor exhibiting a surface impedance greater than 100 Ω, this conductor comprising: - a ground plane, - at least one first frequency-selective surface (10, 20, 22), transparent for certain wavelengths and reflecting for a range of wavelengths, this frequency-selective surface comprising an array of conductive resonant elements (14; 94; 104, 106) arranged alongside one another in at least two different directions parallel to the ground plane, characterized in that each resonant element (14; 94; 104, 106) is formed by at least one sublayer (38, 42; 82) of ferromagnetic material with a relative permeability greater than 10 for a frequency of 2 GHz and with a thickness strictly less than the skin thickness of this ferromagnetic material. - a ground plane, - at least one first frequency-selective surface (10, 20, 22), transparent for certain wavelengths and reflecting for a range of wavelengths, this frequency-selective surface comprising an array of conductive resonant elements (14; 94; 104, 106) arranged alongside one another in at least two different directions parallel to the ground plane,