mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic relay, comprising: a movable iron core arranged to move up and down in an axial center hole of a solenoid formed by winding a coil; a contact switch wherein an upper end surface of the movable iron core attaches to and detaches from a lower end surface of a fixed iron core arranged in the axial center hole according to magnetization and demagnetization of the solenoid, and a movable contact attaches to and detaches from a fixed contact by a movable shaft which reciprocates along with the movable iron core; and a sliding portion; wherein the sliding portion is disposed in an auxiliary yoke having a cylindrical shape which is provided in a yoke; wherein the sliding portion always abuts the auxiliary yoke; and during the up and down movement of the movable iron core; and wherein a height dimension of the sliding portion is at least equal to or larger than a plate thickness dimension of the yoke, characterized in that the sliding portion is arranged at a lower side of an annular groove portion formed in an exterior circumferential surface of the movable iron core. a movable iron core arranged to move up and down in an axial center hole of a solenoid formed by winding a coil; a contact switch wherein an upper end surface of the movable iron core attaches to and detaches from a lower end surface of a fixed iron core arranged in the axial center hole according to magnetization and demagnetization of the solenoid, and a movable contact attaches to and detaches from a fixed contact by a movable shaft which reciprocates along with the movable iron core; and a sliding portion; wherein the sliding portion is disposed in an auxiliary yoke having a cylindrical shape which is provided in a yoke; wherein the sliding portion always abuts the auxiliary yoke; and during the up and down movement of the movable iron core; and wherein a height dimension of the sliding portion is at least equal to or larger than a plate thickness dimension of the yoke, characterized in that the sliding portion is arranged at a lower side of an annular groove portion formed in an exterior circumferential surface of the movable iron core.
A method for determining the presence of cement behind a tubular body in a subterranean well, comprising: (i) preparing a cement slurry comprising water, portland cement and an expanding agent that comprises calcium oxide, magnesium oxide or calcium sulfate hemihydrate or combinations thereof; (ii) placing the slurry in an annular region between a tubular body and a borehole wall or between two tubular bodies; (iii) allowing the slurry to harden and form a set cement; (iv) allowing the dimensions of the tubular body to fluctuate in response to a temperature change, a pressure change, or a mechanical disturbance resulting from a well intervention or a combination thereof; (v) allowing the expanding agent to react and cause the set cement to be in a state of compression within the annular region; (vi) introducing an acoustic logging tool into the tubular body; and (vii) measuring an acoustic impedance, an amplitude, an attenuation or a bond index or a combination thereof, the measurements taken azimuthally, longitudinally or both along the tubular body. (i) preparing a cement slurry comprising water, portland cement and an expanding agent that comprises calcium oxide, magnesium oxide or calcium sulfate hemihydrate or combinations thereof; (ii) placing the slurry in an annular region between a tubular body and a borehole wall or between two tubular bodies; (iii) allowing the slurry to harden and form a set cement; (iv) allowing the dimensions of the tubular body to fluctuate in response to a temperature change, a pressure change, or a mechanical disturbance resulting from a well intervention or a combination thereof; (v) allowing the expanding agent to react and cause the set cement to be in a state of compression within the annular region; (vi) introducing an acoustic logging tool into the tubular body; and (vii) measuring an acoustic impedance, an amplitude, an attenuation or a bond index or a combination thereof, the measurements taken azimuthally, longitudinally or both along the tubular body.
A meso-optic device, comprising: a substantially annular meso-optic body including an axis of revolution; a divergent conic optical surface substantially coaxial with the axis of revolution, with the divergent conic optical surface configured to receive electromagnetic radiation propagating along an optical axis from an impingent direction, wherein the optical axis is coincident with or intersects the axis of revolution, and with the divergent conic optical surface configured to divergently re-direct the electromagnetic radiation away from the axis of revolution; and a convergent conic optical surface substantially coaxial with the axis of revolution, with the convergent conic optical surface configured to receive the electromagnetic radiation divergently re-directed by the divergent conic optical surface and with the convergent conic optical surface configured to convergently re-direct the electromagnetic radiation toward the axis of revolution, characterized in that, the divergent conic optical surface and the convergent conic optical surface are arranged such that the electromagnetic radiation redirected by the convergent conic optical surface is substantially perpendicular to the electromagnetic radiation entering the meso-optic body, regardless of an angular separation or coincidence between the optical axis and the axis of revolution. a substantially annular meso-optic body including an axis of revolution; a divergent conic optical surface substantially coaxial with the axis of revolution, with the divergent conic optical surface configured to receive electromagnetic radiation propagating along an optical axis from an impingent direction, wherein the optical axis is coincident with or intersects the axis of revolution, and with the divergent conic optical surface configured to divergently re-direct the electromagnetic radiation away from the axis of revolution; and a convergent conic optical surface substantially coaxial with the axis of revolution, with the convergent conic optical surface configured to receive the electromagnetic radiation divergently re-directed by the divergent conic optical surface and with the convergent conic optical surface configured to convergently re-direct the electromagnetic radiation toward the axis of revolution, characterized in that, the divergent conic optical surface and the convergent conic optical surface are arranged such that the electromagnetic radiation redirected by the convergent conic optical surface is substantially perpendicular to the electromagnetic radiation entering the meso-optic body, regardless of an angular separation or coincidence between the optical axis and the axis of revolution.
A bi-specific protein comprising: a) a targeting domain having a binding specificity to a target molecule associated with the outer surface of a cell of a tissue wherein the targeting domain comprises a variant of human Annexin A5 comprising one or more mutations, wherein the one or more mutations consists of a substitution at the position corresponding to C316 and optionally at one or more positions corresponding to R63, K70, K101, E138, D139, N160 and combinations thereof; and b) an engineered activator domain having a binding specificity to a receptor associated with the surface of a cell of the tissue, wherein the engineered activator domain comprises a variant of human insulin-like growth factor IGF-1 comprising one or more mutations, wherein the one or more mutations consists of a substitution at one or more positions corresponding to E3, Y24, Y31, Y60 and combinations thereof, wherein the engineered activator domain decreases activation of the IGF-1 receptor relative to the wild-type IGF-1, wherein the bi-specific protein exhibits an activation of the IGF-1 receptor at least twice stronger on cells containing the target molecule compared to cells that do not contain the target molecule as measured by phosphorylation of a receptor or a downstream effector molecule. a) a targeting domain having a binding specificity to a target molecule associated with the outer surface of a cell of a tissue wherein the targeting domain comprises a variant of human Annexin A5 comprising one or more mutations, wherein the one or more mutations consists of a substitution at the position corresponding to C316 and optionally at one or more positions corresponding to R63, K70, K101, E138, D139, N160 and combinations thereof; and b) an engineered activator domain having a binding specificity to a receptor associated with the surface of a cell of the tissue, wherein the engineered activator domain comprises a variant of human insulin-like growth factor IGF-1 comprising one or more mutations, wherein the one or more mutations consists of a substitution at one or more positions corresponding to E3, Y24, Y31, Y60 and combinations thereof, wherein the engineered activator domain decreases activation of the IGF-1 receptor relative to the wild-type IGF-1,
A composition, comprising: a water-soluble vitamin E derivative mixture present in an amount of from between 1% and 99%, inclusive, by weight of the composition, wherein: the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; the water-soluble vitamin E derivative mixture comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% vitamin E derivative monomer; and a non-polar compound, other than the water-soluble vitamin E derivative mixture. a water-soluble vitamin E derivative mixture present in an amount of from between 1% and 99%, inclusive, by weight of the composition, wherein: the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; the water-soluble vitamin E derivative mixture comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% vitamin E derivative monomer; and a non-polar compound, other than the water-soluble vitamin E derivative mixture. the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; the water-soluble vitamin E derivative mixture comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% vitamin E derivative monomer; and a non-polar compound, other than the water-soluble vitamin E derivative mixture.
Drawer with a front panel, a rear wall, a base, two frames which extend in the depth direction of the drawer and are designed as hollow-wall frames, the frames each receiving in their rear region an adjusting device for adjusting the alignment of a front panel of the drawer, the adjusting device having a holder, an adjusting unit, an adjusting device and a bearing part, wherein the adjusting unit is adjustable relative to the holder by means of the adjusting device, wherein the adjusting unit is adjustable guided in two opposite directions, the adjusting unit being adjustable relative to the holder in the height direction of the drawer, wherein the adjusting unit has two adjustable supporting sections (38, 39) which cooperate with counter bearings (10.16, 10.17), wherein the supporting sections (38, 39) are each adjustable on an eccentric path, and wherein the eccentric paths are oriented in opposite directions, wherein one support section adjusts the adjusting unit in and the other support section adjusts the holder in the opposite direction to the height direction.
A brachytherapy template and a brachytherapy template adaptor for the brachytherapy template, comprising a brachytherapy template including through passages, the adaptor comprising a brachytherapy template adaptor body defining a plurality of adaptor through-passages arrayed to be positioned in unique fluid registry with the plurality of through-passages defined by the brachytherapy template, characterised by least a portion of the adaptor through-passages having a smaller transverse span than the through-passages of the brachytherapy template.
A mounting assembly for a hair cutting appliance, the mounting assembly comprising: a head configured to receive a cutting unit; a base coupled to the head; a pivoting mechanism coupling the base to the head, wherein the pivoting mechanism is configured to permit pivoting movement of the head relative to the base about a head pivot axis; characterised by: a rotatable locking element configured to be rotated between: (i) an engaged position, in which the locking element obstructs pivoting movement of the head to thereby lock the head in a locked position about the head pivot axis, and (ii) a disengaged position in which the locking element does not obstruct pivoting movement of the head such that the head is freely pivotable relative to the base about the head pivot axis; wherein the locking element is configured such that rotating the locking element to the engaged position drives the head into the locked position. a head configured to receive a cutting unit; a base coupled to the head; a pivoting mechanism coupling the base to the head, wherein the pivoting mechanism is configured to permit pivoting movement of the head relative to the base about a head pivot axis; characterised by: a rotatable locking element configured to be rotated between: (i) an engaged position, in which the locking element obstructs pivoting movement of the head to thereby lock the head in a locked position about the head pivot axis, and (ii) a disengaged position in which the locking element does not obstruct pivoting movement of the head such that the head is freely pivotable relative to the base about the head pivot axis; wherein the locking element is configured such that rotating the locking element to the engaged position drives the head into the locked position. a rotatable locking element configured to be rotated between: (i) an engaged position, in which the locking element obstructs pivoting movement of the head to thereby lock the head in a locked position about the head pivot axis, and (ii) a disengaged position in which the locking element does not obstruct pivoting movement of the head such that the head is freely pivotable relative to the base about the head pivot axis; (i) an engaged position, in which the locking element obstructs pivoting movement of the head to thereby lock the head in a locked position about the head pivot axis, and (ii) a disengaged position in which the locking element does not obstruct pivoting movement of the head such that the head is freely pivotable relative to the base about the head pivot axis; wherein the locking element is configured such that rotating the locking element to the engaged position drives the head into the locked position.
A method for manufacturing a titanium aluminide component, the method comprising the steps of: providing an intermediate turbine article including an external surface and at least one internal cooling passage comprised of a titanium aluminide alloy and formed by a consolidation process using additive manufacturing; encapsulating the intermediate turbine article with an aluminum-containing encapsulation layer, wherein the aluminum-containing encapsulation layer comprises: an aluminide comprising TiAl, TiAl 3, or a combination thereof, and the step of encapsulating the intermediate turbine article comprises encapsulating an internal passage surface of the internal cooling passage, encapsulating the external surface of the intermediate turbine article and forming the encapsulation layer that spans surface porosity and cracks and converts the surface porosity and cracks into internal porosity and cracks; compacting the intermediate turbine article after the encapsulation step; and removing the aluminum-containing encapsulation layer to form a finished turbine component, wherein the step of compacting the intermediate turbine article after the encapsulating step comprises hot isostatic pressing the intermediate turbine article with the aluminum-containing encapsulation layer; wherein the encapsulating the internal passage surface further comprises pumping a slurry of aluminide through the internal passage and heating the intermediate turbine article with the slurry in a protective atmosphere to form the encapsulation layer. providing an intermediate turbine article including an external surface and at least one internal cooling passage comprised of a titanium aluminide alloy and formed by a consolidation process using additive manufacturing; encapsulating the intermediate turbine article with an aluminum-containing encapsulation layer, wherein the aluminum-containing encapsulation layer comprises: an aluminide comprising TiAl, TiAl 3, or a combination thereof, and the step of encapsulating the intermediate turbine article comprises encapsulating an internal passage surface of the internal cooling passage, encapsulating the external surface of the intermediate turbine article and forming the encapsulation layer that spans surface porosity and cracks and converts the surface porosity and cracks into internal porosity and cracks; compacting the intermediate turbine article after the encapsulation step; and removing the aluminum-containing encapsulation layer to form a finished turbine component, wherein the step of compacting the intermediate turbine article after the encapsulating step comprises hot isostatic pressing the intermediate turbine article with the aluminum-containing encapsulation layer; wherein the encapsulating the internal passage surface further comprises pumping a slurry of aluminide through the internal passage and heating the intermediate turbine article with the slurry in a protective atmosphere to form the encapsulation layer.
An implantable medical infusion device comprising: a chamber; a variable volume reservoir having an exterior surface and defining a variable interior volume for containing therapeutic fluid, wherein at least a portion of the reservoir is disposed in the chamber; a propellant disposed in the chamber and configured to exert a pressure on the at least a portion of the exterior surface of the reservoir; and a cooler positioned and configured to cool the propellant to reduce pressure in the reservoir during a procedure to fill the reservoir. a chamber; a variable volume reservoir having an exterior surface and defining a variable interior volume for containing therapeutic fluid, wherein at least a portion of the reservoir is disposed in the chamber; a propellant disposed in the chamber and configured to exert a pressure on the at least a portion of the exterior surface of the reservoir; and a cooler positioned and configured to cool the propellant to reduce pressure in the reservoir during a procedure to fill the reservoir.
A light emitting device, comprising: at least two light sources (21, 22, 23, 24) adapted for, in operation, emitting light with a first spectral distribution, a first light guide comprising a first light input surface, which is arranged parallel to the main waveguiding direction of the first light guide, and a first light exit surface extending in an angle different from zero in relation to the first light input surface, the first light guide being adapted for receiving the light with the first spectral distribution at the first light input surface, converting at least a part of the light with the first spectral distribution to light with a second spectral distribution, guiding the light with the second spectral distribution to the first light exit surface and coupling the light with the second spectral distribution out of the first light exit surface, the at least two light sources (21, 22, 23, 24) being arranged at mutually different distances from the first light exit surface of the first light guide, characterised by a control device adapted for dimming the light emitting device starting with the light source of the at least two light sources (21, 22, 23, 24) which is arranged at a largest distance from the first light exit surface of the first light guide. at least two light sources (21, 22, 23, 24) adapted for, in operation, emitting light with a first spectral distribution, a first light guide comprising a first light input surface, which is arranged parallel to the main waveguiding direction of the first light guide, and a first light exit surface extending in an angle different from zero in relation to the first light input surface, the first light guide being adapted for receiving the light with the first spectral distribution at the first light input surface, converting at least a part of the light with the first spectral distribution to light with a second spectral distribution, guiding the light with the second spectral distribution to the first light exit surface and coupling the light with the second spectral distribution out of the first light exit surface, the at least two light sources (21, 22, 23, 24) being arranged at mutually different distances from the first light exit surface of the first light guide, characterised by a control device adapted for dimming the light emitting device starting with the light source of the at least two light sources (21, 22, 23, 24) which is arranged at a largest distance from the first light exit surface of the first light guide.