mhurhangee/ep-ind-claims huggingface dataset:
A process for making crystalline moxidectin Form A, characterised by a melting point of about 210°C, said process comprising the steps of heating amorphous moxidectin in an oil bath held at a temperature of about 190°C for a period of from about 2 to about 10 minutes, followed by cooling.
An apparatus comprising: an inner module including a plurality of microphones for capturing sound or a plurality of speakers for rendering sound; an outer module that surrounds a perimeter of the inner module; a plurality of light emitters under the inner module configured to project light radially outward; a light distribution medium configured to transport light projected from at least some of the plurality of light emitters to an edge of the light distribution medium with a diffusive surface, the edge traversing a boundary between the inner module and the outer module. an inner module including a plurality of microphones for capturing sound or a plurality of speakers for rendering sound; an outer module that surrounds a perimeter of the inner module; a plurality of light emitters under the inner module configured to project light radially outward; a light distribution medium configured to transport light projected from at least some of the plurality of light emitters to an edge of the light distribution medium with a diffusive surface, the edge traversing a boundary between the inner module and the outer module.
Gastronorm cookware carrier made of cast metal, in particular of cast aluminium, for insertion into a convection oven, with a flat frame part, in which at least two recesses are provided at a distance from one another, which are each delimited by a circumferential indentation which tapers in a funnel-like manner in the direction of the recess, wherein a flat plate is arranged parallel to the frame part without any intermediate space, which closes all recesses and which forms the base of the gastronorm cookware carrier.
A method of fabricating a nitrided low-alloy steel part, the method comprising: a) decarburizing the surface of a low-alloy steel part including at least one alloying element that is both nitride-forming and carbide-forming in order to obtain a decarburized part presenting a carbon-depleted surface layer of thickness less than or equal to 1.5 mm, the minimum content of carbon by weight in the carbon-depleted surface layer being less than or equal to 70% of the carbon content by weight in the core of the decarburized part, and the minimum content of carbon by weight in the carbon-depleted surface layer being greater than or equal to 0.05%; b) treating the decarburized part with quenching treatment followed by annealing treatment; and c) nitriding the carbon-depleted surface layer in order to obtain a nitrided low-alloy steel part, step c) being performed after step b). a) decarburizing the surface of a low-alloy steel part including at least one alloying element that is both nitride-forming and carbide-forming in order to obtain a decarburized part presenting a carbon-depleted surface layer of thickness less than or equal to 1.5 mm, the minimum content of carbon by weight in the carbon-depleted surface layer being less than or equal to 70% of the carbon content by weight in the core of the decarburized part, and the minimum content of carbon by weight in the carbon-depleted surface layer being greater than or equal to 0.05%; b) treating the decarburized part with quenching treatment followed by annealing treatment; and c) nitriding the carbon-depleted surface layer in order to obtain a nitrided low-alloy steel part, step c) being performed after step b).
A method for a pre-caching network node of a content-centric network, the method comprising: when it is determined that selected content is to be pre-cached by said pre-caching network node, setting a resistance value allocated to incoming links (184; 182) with other network nodes when carrying packets associated with said selected content to a negative value, wherein said resistance value identifies an adjustment to be made to a charge associated with said packets, said negative value causing an increase in said charge when traversing one of said incoming links, a magnitude of said charge value affecting how far said packets are able to propagate throughout said content-centric network. when it is determined that selected content is to be pre-cached by said pre-caching network node, setting a resistance value allocated to incoming links (184; 182) with other network nodes when carrying packets associated with said selected content to a negative value, wherein said resistance value identifies an adjustment to be made to a charge associated with said packets, said negative value causing an increase in said charge when traversing one of said incoming links, a magnitude of said charge value affecting how far said packets are able to propagate throughout said content-centric network.
A method for optimizing a random access procedure of a user equipment in a wireless communication system, comprising the steps of: transmitting by the user equipment a preamble selected from a specific preamble group; and transmitting by the user equipment a combined message generated by applying TTI bundling based on a Transmission Time Interval, TTI, bundling indicator with a number of TTIs, if a random access response message including the TTI bundling indicator is received in response to the preamble; wherein the specific preamble group comprises at least one preamble indicating that the user equipment transmits the combined message generated by applying the TTI bundling. transmitting by the user equipment a preamble selected from a specific preamble group; and transmitting by the user equipment a combined message generated by applying TTI bundling based on a Transmission Time Interval, TTI, bundling indicator with a number of TTIs, if a random access response message including the TTI bundling indicator is received in response to the preamble; wherein the specific preamble group comprises at least one preamble indicating that the user equipment transmits the combined message generated by applying the TTI bundling.
A composite silver nanoparticle comprising: a crystalline silver core made up of aggregated silver atoms whose average particle diameter measurable based on a transmission electron microscopy diagram ranges from 1 to 20 nm and wherein a lattice image is observed for said silver core when said composite silver nanoparticle is observed by a high resolution transmission electron microscope, and an organic coating layer formed around said silver core, the organic coating layer generated from an aliphatic alcohol with a carbon number of 1 to 12, wherein said organic coating layer includes at least an alkoxide group and/or a carboxylic acid group, wherein said composite silver nanoparticle is obtained by the steps of: - preparing an alcohol solution by mixing silver salt microparticles into an alcohol solvent with a carbon number of 1 to 12, - heating said alcohol solution in a reaction chamber at a predetermined generation temperature PT for a predetermined generation time generating an aldehyde, - forming said silver core through reducing of said silver salt microparticle by said alcohol solvent and/or said generated aldehyde, and - forming said organic coating layer around said silver core. a crystalline silver core made up of aggregated silver atoms whose average particle diameter measurable based on a transmission electron microscopy diagram ranges from 1 to 20 nm and wherein a lattice image is observed for said silver core when said composite silver nanoparticle is observed by a high resolution transmission electron microscope, and an organic coating layer formed around said silver core, the organic coating layer generated from an aliphatic alcohol with a carbon number of 1 to 12, wherein said organic coating layer includes at least an alkoxide group and/or a carboxylic acid group, wherein said composite silver nanoparticle is obtained by the steps of: - preparing an alcohol solution by mixing silver salt microparticles into an alcohol solvent with a carbon number of 1 to 12, - heating said alcohol solution in a reaction chamber at a predetermined generation temperature PT for a predetermined generation time generating an aldehyde, - forming said silver core through reducing of said silver salt microparticle by said alcohol solvent and/or said generated aldehyde, and - forming said organic coating layer around said silver core. - preparing an alcohol solution by mixing silver salt microparticles into an alcohol solvent with a carbon number of 1 to 12, - heating said alcohol solution in a reaction chamber at a predetermined generation temperature PT for a predetermined generation time generating an aldehyde, - forming said silver core through reducing of said silver salt microparticle by said alcohol solvent and/or said generated aldehyde, and - forming said organic coating layer around said silver core.
A dental component system including an abutment and an impression coping for use with the abutment of the dental component system, the impression coping comprising: a body portion with an apical first end, a coronal second end, and an internal chamber having chamber side walls and an end wall positioned adjacent the body portion coronal second end, the internal chamber opening to the apical first end, the internal chamber including a non-frustoconical first section located adjacent the apical first end and formed to match the shape of the abutment and a substantially cylindrical second section adjacent the coronal second end; wherein the distance between the apical first end and the coronal second end on the facial aspect of the body portion of the impression coping is sufficiently greater than the distance between the apical first end and the coronal second end on the lingual aspect, such that the impression coping is configured to engage an angled coronal portion of the abutment, characterised in that the abutment has a shape including a sloping margin shoulder, in that the impression coping further comprises a facial aspect and a lingual aspect of the body portion, wherein a distance between the apical first end and the coronal second end on the facial aspect is greater than a distance between the apical first end and the coronal second end on the lingual aspect to match the sloping margin shoulder of the abutment, and in that an apical end of the impression coping comprises an arcuate edge configured to engage or seat on an arcuate transition zone of the margin shoulder of the abutment. a body portion with an apical first end, a coronal second end, and an internal chamber having chamber side walls and an end wall positioned adjacent the body portion coronal second end, the internal chamber opening to the apical first end, the internal chamber including a non-frustoconical first section located adjacent the apical first end and formed to match the shape of the abutment and a substantially cylindrical second section adjacent the coronal second end; wherein the distance between the apical first end and the coronal second end on the facial aspect of the body portion of the impression coping is sufficiently greater than the distance between the apical first end and the coronal second end on the lingual aspect, such that the impression coping is configured to engage an angled coronal portion of the abutment,
A screw-in element having a lateral surface that is nonlinear in at least one partial area and a thread lying at least in this partial area having a changing thread profile formed by thread tooth (12-16, 20-24, 25, 26) and thread groove, wherein the flank of the thread tooth lying in the screwing direction has a constant angle to a vertical to the center axis (80, 88) of the screw-in element, characterized in that the other flank (27, 28, 44-47) of the thread tooth in said partial area is subject to a change in the angle to said vertical to the center axis (80, 88) of the screw-in element.
A conveyance mechanism, comprising: a conveyance passage which is a passage where a conveyance object is conveyed; a conveyance member which moves the conveyance object along the conveyance passage; a motor which drives the conveyance member; a control part which controls an output torque of the motor; a conveyance state identifying means which identifies a conveyance state that is a position and/or a conveyance direction of the conveyance object in the conveyance passage; and a storage part, the conveyance mechanism being characterized in that: upper limit torque information which is an upper limit value of an output torque allowable for the motor or a parameter value required for calculation of the upper limit value is registered for each type of the conveyance state in the storage part, and the control part acquires the upper limit torque information corresponding to the conveyance state from the storage part based on the conveyance state identified by the conveyance state identifying means and dynamically switches the upper limit value of the output torque allowable for the motor. a conveyance passage which is a passage where a conveyance object is conveyed; a conveyance member which moves the conveyance object along the conveyance passage; a motor which drives the conveyance member; a control part which controls an output torque of the motor; a conveyance state identifying means which identifies a conveyance state that is a position and/or a conveyance direction of the conveyance object in the conveyance passage; and a storage part, the conveyance mechanism being characterized in that: upper limit torque information which is an upper limit value of an output torque allowable for the motor or a parameter value required for calculation of the upper limit value is registered for each type of the conveyance state in the storage part, and the control part acquires the upper limit torque information corresponding to the conveyance state from the storage part based on the conveyance state identified by the conveyance state identifying means and dynamically switches the upper limit value of the output torque allowable for the motor. upper limit torque information which is an upper limit value of an output torque allowable for the motor or a parameter value required for calculation of the upper limit value is registered for each type of the conveyance state in the storage part, and the control part acquires the upper limit torque information corresponding to the conveyance state from the storage part based on the conveyance state identified by the conveyance state identifying means and dynamically switches the upper limit value of the output torque allowable for the motor.
An external storage device comprising: (a) a substrate; (b) a controller electrically coupled to the substrate; (c) at least one memory die stack electrically coupled to the substrate; (d) a connector electrically coupled to the substrate; (e) wherein the external storage device is configured to support at least two USB standards with interfaces that are mechanically different; (f) wherein the connector comprises springs and connection fingers electrically coupled to the substrate; characterised in that (g) the connector comprises a cover having a plurality of apertures positioned adjacent and/or behind the connection fingers; (h) each spring having a coupling projection that extends through each aperture when the springs are in an uncompressed position; and in that the connection fingers are embedded within the cover. (a) a substrate; (b) a controller electrically coupled to the substrate; (c) at least one memory die stack electrically coupled to the substrate; (d) a connector electrically coupled to the substrate; (e) wherein the external storage device is configured to support at least two USB standards with interfaces that are mechanically different; (f) wherein the connector comprises springs and connection fingers electrically coupled to the substrate; characterised in that (g) the connector comprises a cover having a plurality of apertures positioned adjacent and/or behind the connection fingers; (h) each spring having a coupling projection that extends through each aperture when the springs are in an uncompressed position; and in that the connection fingers are embedded within the cover.
A method of producing an antibody, or an antigen binding fragment thereof, that binds to CLDN6 associated with the surface of a cell that expresses CLDN6 and that does not detectably bind to CLDN9 associated with the surface of a cell that expresses CLDN9, the method comprising the steps of: (a) culturing a host cell transformed to express the antibody or antigen binding fragment thereof; and (b) isolating the antibody or antigen binding fragment thereof expressed by the host cell; wherein the transformed host cell comprises: (i) a nucleic acid sequence encoding a polypeptide comprising the antibody heavy chain CDR1, CDR2, and CDR3 regions having the amino acid sequences of positions 26-33, positions 51-58, and positions 97-106 of SEQ ID NO: 36, respectively, or a variant thereof; and a nucleic acid sequence encoding a polypeptide comprising the antibody light chain CDR1, CDR2, and CDR3 regions having the amino acid sequences of positions 27-31, positions 49-51, and positions 88-97 of SEQ ID NO: 35, respectively, or a variant thereof, wherein the variant comprises heavy chain CDR1, CDR2, and CDR3 regions having amino acid sequences according to SEQ ID NOs: 47, 48, and 46, respectively, and light chain CDR1, CDR2, and CDR3 regions having amino acid sequences according to SEQ ID NOs: 52, 53, and 51, respectively wherein binding of the antibody to CLDN6 and CLDN9 is determined by flow cytometry analysis as binding of the antibody to CLDN6 and CLDN9 expressed on the surface of intact cells. (a) culturing a host cell transformed to express the antibody or antigen binding fragment thereof; and (b) isolating the antibody or antigen binding fragment thereof expressed by the host cell; (i) a nucleic acid sequence encoding a polypeptide comprising the antibody heavy chain CDR1, CDR2, and CDR3 regions having the amino acid sequences of positions 26-33, positions 51-58, and positions 97-106 of SEQ ID NO: 36, respectively, or a variant thereof; and a nucleic acid sequence encoding a polypeptide comprising the antibody light chain CDR1, CDR2, and CDR3 regions having the amino acid sequences of positions 27-31, positions 49-51, and positions 88-97 of SEQ ID NO: 35, respectively, or a variant thereof,
A method of shutting an inter-switch link by coordinating between a first switch and a second switch on a Fibre Channel network, the method comprising: (a) determining that the inter-switch link is to be shut-down; (b) modifying forwarding parameters in the first switch to ensure that no further frames are forwarded from the first switch onto the inter-switch link; (c) ensuring that no frames remain queued in the first switch for transmission on the inter-switch link; (d) sending a communication to the second switch informing it that the inter-switch link is to be shut down; (e) modifying forwarding parameters in the second switch to ensure that no frames are forwarded from the second switch onto the inter-switch link; (f) ensuring that no frames remain queued in the second switch for transmission on the inter-switch link; (g) receiving (220, 225) confirmation from the second switch that it is prepared for the inter-switch link to shut down; and (h) shutting down the inter-switch link. (a) determining that the inter-switch link is to be shut-down; (b) modifying forwarding parameters in the first switch to ensure that no further frames are forwarded from the first switch onto the inter-switch link; (c) ensuring that no frames remain queued in the first switch for transmission on the inter-switch link; (d) sending a communication to the second switch informing it that the inter-switch link is to be shut down; (e) modifying forwarding parameters in the second switch to ensure that no frames are forwarded from the second switch onto the inter-switch link; (f) ensuring that no frames remain queued in the second switch for transmission on the inter-switch link; (g) receiving (220, 225) confirmation from the second switch that it is prepared for the inter-switch link to shut down; and (h) shutting down the inter-switch link.
Method for cleaning a molding surface of a reusable lens mold, in particular of a reusable lens mold for molding ophthalmic lenses such as soft contact lenses, the method comprising the steps of: - generating a jet of deionized water, - exposing the molding surface of the reusable lens mold to the jet of deionized water, characterized in that the jet of deionized water has a circular full cone spray pattern and impinges on the molding surface of the reusable lens mold, and wherein the circular full cone spray pattern has a uniform distribution of the volume flow of deionized water over the base of the cone of the circular full cone spray pattern. - generating a jet of deionized water, - exposing the molding surface of the reusable lens mold to the jet of deionized water,
An ion implantation apparatus comprising: a vacuum chamber, a roller electrode arranged such that a film can be wound on a portion of its outer circumferential part, voltage application means configured to apply a voltage to the roller electrode, a gas introduction unit having a gas supply outlet configured to supply an ion implantation gas into the vacuum chamber, and a gas discharge outlet configured to discharge the gas present in the gas introduction unit and in the vacuum chamber, characterised in that the gas introduction unit and the gas discharge outlet are disposed so as to be opposite each other along the axial direction of the roller electrode, the roller electrode intervening therebetween. a vacuum chamber, a roller electrode arranged such that a film can be wound on a portion of its outer circumferential part, voltage application means configured to apply a voltage to the roller electrode, a gas introduction unit having a gas supply outlet configured to supply an ion implantation gas into the vacuum chamber, and a gas discharge outlet configured to discharge the gas present in the gas introduction unit and in the vacuum chamber, characterised in that the gas introduction unit and the gas discharge outlet are disposed so as to be opposite each other along the axial direction of the roller electrode, the roller electrode intervening therebetween.