mhurhangee/ep-ind-claims huggingface dataset:
Clamping block for plug-connecting in a plug-connection system in a space, which is spanned by a longitudinal direction, a transverse direction transverse to the longitudinal direction, and a height direction transverse to the longitudinal direction and transverse to the transverse direction, comprising: - a first block part with an inner space, which is limited in the longitudinal direction and the transverse direction on both sides, and in the height direction on the upper side by a wall, wherein the first block part on the upper side has a first plug-connection element, - a second block part with an inner space, which is limited in the longitudinal direction and the transverse direction on both sides, and in the height direction on the underside by a wall, the second block part on the underside has a second plug-connection element, which can be plugged with the first plug-connection element, - wherein the second block part is larger in both the longitudinal direction and the transverse direction than the first block part, - wherein the first block part is telescopically inserted in the opposite height direction into the inner space of the second block part, and - wherein the two block parts (10, 12) are supported against each other by a common return element arranged in the inner spaces (14, 26), characterized in that the wall of the second block part has form-fitting elements directed towards its inner space on its inward-facing surfaces, which guide the first block part in the height direction and block movement of the first block part in the longitudinal direction and the transverse direction. - a first block part with an inner space, which is limited in the longitudinal direction and the transverse direction on both sides, and in the height direction on the upper side by a wall, wherein the first block part on the upper side has a first plug-connection element, - a second block part with an inner space, which is limited in the longitudinal direction and the transverse direction on both sides, and in the height direction on the underside by a wall, the second block part on the underside has a second plug-connection element, which can be plugged with the first plug-connection element, - wherein the second block part is larger in both the longitudinal direction and the transverse direction than the first block part, - wherein the first block part is telescopically inserted in the opposite height direction into the inner space of the second block part, and - wherein the two block parts (10, 12) are supported against each other by a common return element arranged in the inner spaces (14, 26), characterized in that the wall of the second block part has form-fitting elements directed towards its inner space on its inward-facing surfaces, which guide the first block part in the height direction and block movement of the first block part in the longitudinal direction and the transverse direction.
High precision hydrodynamic polishing tool for fine grinding and polishing of flat or curved optical surfaces, as well as for the optical flattening of semiconductor and metal surfaces comprising: several cylindrical sections comprising a mixing module, and an aerostatic suspension system characterized in that said cylindrical sections consist of the mixing module and the aerostatic suspension system, as well as a module comprising one or more rotational acceleration chambers, a throat actuator, an exit nozzle and a radial, divergent nozzle, and wherein said cylindrical sections are made of previously machined stainless steel or ceramic, coupled to each other by means of a series of peripheral screws. several cylindrical sections comprising a mixing module, and an aerostatic suspension system characterized in that said cylindrical sections consist of the mixing module and the aerostatic suspension system, as well as a module comprising one or more rotational acceleration chambers, a throat actuator, an exit nozzle and a radial, divergent nozzle, and wherein said cylindrical sections are made of previously machined stainless steel or ceramic, coupled to each other by means of a series of peripheral screws.
A functional mixture comprising: (i) at least one multi-functional Michael acceptor; (ii) at least one multi-functional Michael donor; and (iii) at least one soluble weakly basic catalyst wherein the pKa of the conjugate acid of said weakly basic catalyst is greater than or equal to 3 and also is 7.5 or less, and wherein said weakly basic catalyst can be dissolved in said functional mixture in an amount sufficient that the functional mixture will cure; wherein the at least one Michael acceptor is present in an amount greater than 25% by weight, based on the total weight of the functional mixture and whose chemical backbone is derived from bio-based feedstock that is not a petroleum feedstock, wherein the catalyst is selected from the group consisting of sodium salts of carboxylic acids, magnesium salts of carboxylic acids, aluminum salts of carboxylic acids, chromium salts of alkyl carboxylic acids having 6 or fewer carbon atoms, chromium salts of aromatic carboxylic acids, potassium salts of alkyl mono-carboxylic acids having 6 or fewer carbon atoms, potassium salts of multi-carboxylic acids, potassium salts of phosphoric acid, potassium salts of phosphoric acid esters and mixtures thereof. (i) at least one multi-functional Michael acceptor; (ii) at least one multi-functional Michael donor; and (iii) at least one soluble weakly basic catalyst wherein the pKa of the conjugate acid of said weakly basic catalyst is greater than or equal to 3 and also is 7.5 or less, and wherein said weakly basic catalyst can be dissolved in said functional mixture in an amount sufficient that the functional mixture will cure;
Method for detecting radiation during the investigation of a sample, comprising the steps of: (a) generation of the radiation, in particular X-ray radiation or proton radiation, with a source device, (b) passing the radiation through the sample, and (c) detection of the radiation using at least one photoelectric solid-state detector, which includes a photoconduction section with a predetermined response threshold and a potential well section for receiving free charge carriers, wherein the solid-state detector is a GaN or GaAs-based semiconductor detector and the potential well section includes a two-dimensional electron gas, characterized by the step (d) setting the radiation in such a way that the solid-state detector is operated separately from the response threshold of the photoconduction section and in a sensitivity range of the potential well section. (a) generation of the radiation, in particular X-ray radiation or proton radiation, with a source device, (b) passing the radiation through the sample, and (c) detection of the radiation using at least one photoelectric solid-state detector, which includes a photoconduction section with a predetermined response threshold and a potential well section for receiving free charge carriers, wherein the solid-state detector is a GaN or GaAs-based semiconductor detector and the potential well section includes a two-dimensional electron gas, characterized by the step (d) setting the radiation in such a way that the solid-state detector is operated separately from the response threshold of the photoconduction section and in a sensitivity range of the potential well section.
Dental implant assembly comprising an implant with a body having a connection well and an outer implant surface configured for osseointegration, and an abutment comprising a prosthesis mounting portion for assembly of a dental prosthesis thereon and a connector mounting cavity, the assembly further comprising a connector comprising an implant mounting portion for assembly in the connection well of the implant, and an abutment mounting portion for assembly in the connector mounting cavity of the abutment, the abutment mounting portion of the connector comprising an index portion and the abutment connector mounting cavity further comprising an index cavity portion for receiving the index portion therein, the index portions configured to register the rotational orientation of the abutment about a longitudinal axis with respect to the connector, the abutment mounting portion of the connector further comprising an upper conical attachment portion for mounting to a complementary conical cavity portion of the connector mounting cavity of the abutment and a conical lower attachment portion connected to the upper attachment portion, characterized in that the lower attachment portion is connected to the upper attachment portion via a stepped transition, whereby the lower attachment portion comprises a cone taper angle configured for friction fit mounting in the connector mounting cavity of the abutment when the upper attachment portion is cut off.
Method for converting an existing container to an anaerobic water purification system with a conversion kit, the system comprising: - a container for the liquid for treatment provided during use with a sludge bed; - a supply conduit operatively connected to the container for supplying the liquid for treatment; - a distribution system connected to the supply conduit for distributing the liquid over the sludge bed, - the distribution system distributes the liquid from above over substantially the whole surface of the container, providing a downward flow; and - a gas roof that is arranged at or on the container and provided with a volume which can be adapted during use to the biogas production from degrading organic material by using a flexible material, wherein the gas roof is configured to maintain a desired pressure in the container within a desired range, wherein the kit comprises: - the gas roof for at least a part of the existing container; - connecting means for connecting the gas roof to the container; - supply and discharge means (18, 26, 44) for the liquid for treatment and the treated liquid and the biogas, wherein a distribution system distributes the liquid from above over substantially the whole surface of the container; and - carrier material which can be arranged in the container and to which sludge material can attach. - a container for the liquid for treatment provided during use with a sludge bed; - a supply conduit operatively connected to the container for supplying the liquid for treatment; - a distribution system connected to the supply conduit for distributing the liquid over the sludge bed, - the distribution system distributes the liquid from above over substantially the whole surface of the container, providing a downward flow; and - a gas roof that is arranged at or on the container and provided with a volume which can be adapted during use to the biogas production from degrading organic material by using a flexible material, wherein the gas roof is configured to maintain a desired pressure in the container within a desired range, - the gas roof for at least a part of the existing container; - connecting means for connecting the gas roof to the container; - supply and discharge means (18, 26, 44) for the liquid for treatment and the treated liquid and the biogas, wherein a distribution system distributes the liquid from above over substantially the whole surface of the container; and - carrier material which can be arranged in the container and to which sludge material can attach.
Method for operating a wireless-based monitoring system of a motor vehicle, wherein - a central control unit and a plurality of mobile, portable tag units are made available by the monitoring system, - the tag units are held in the motor vehicle by a respective retention device and each retention device respectively has a mechanical encoding through which a spatial orientation of the held tag unit is specified, wherein the spatial orientation of the held tag unit is characteristic of the installation position of the retention device in the motor vehicle, and - each tag unit determines its spatial orientation and thereby its characteristic position in the motor vehicle by means of its own position sensor device, and signals said characteristic position by a wireless connection to the central control unit, and - in a monitoring mode of the monitoring system, each tag unit, by means of its own distance measuring device, repeatedly captures a distance (24, 26, 29) from at least one predetermined object (12, 26, 30) and signals this by a wireless connection to the central control unit, and - the central control unit determines a respective object position of the at least one object (12, 26, 30) on the basis of the respective characteristic position of at least one or a few of the tag units and of the distances (24, 26, 29) signalled respectively by this tag unit or these tag units, and controls at least one predetermined security function in the motor vehicle depending on the respective determined object position of the at least one object (12, 26, 30). - a central control unit and a plurality of mobile, portable tag units are made available by the monitoring system, - the tag units are held in the motor vehicle by a respective retention device and each retention device respectively has a mechanical encoding through which a spatial orientation of the held tag unit is specified, wherein the spatial orientation of the held tag unit is characteristic of the installation position of the retention device in the motor vehicle, and - each tag unit determines its spatial orientation and thereby its characteristic position in the motor vehicle by means of its own position sensor device, and signals said characteristic position by a wireless connection to the central control unit, and - in a monitoring mode of the monitoring system, each tag unit, by means of its own distance measuring device, repeatedly captures a distance (24, 26, 29) from at least one predetermined object (12, 26, 30) and signals this by a wireless connection to the central control unit, and - the central control unit determines a respective object position of the at least one object (12, 26, 30) on the basis of the respective characteristic position of at least one or a few of the tag units and of the distances (24, 26, 29) signalled respectively by this tag unit or these tag units, and controls at least one predetermined security function in the motor vehicle depending on the respective determined object position of the at least one object (12, 26, 30).
Laboratory distribution system for use in a laboratory automation system, the laboratory distribution system comprising a plurality of diagnostic laboratory container carriers and a conveyor device, wherein the diagnostic laboratory container carriers are single sample tube carriers having a circular cylindrical base, the conveyor device comprising - an endless drive member defining a closed-loop conveyor pathway, and - a plurality of supporting elements attached to the endless drive member, which supporting elements are adapted for receiving one diagnostic laboratory container carrier and for transporting said diagnostic laboratory container carrier in an upright position along at least a section of the conveyor pathway, wherein the supporting elements have a receiving area for receiving one diagnostic laboratory container carrier, characterized in that the supporting elements are each mounted pivotally about a horizontal pivot axis by a pivot bearing to the drive member and structured such that a center of gravity of the supporting element with or without an empty or loaded diagnostic laboratory container carrier is arranged below and vertically aligned with the pivot axis when the supporting element is in an upright use position, such that each supporting element is free to pivot about the associated pivot axis under the effect of gravitational forces acting on the supporting element for maintaining an upright use position while travelling along the conveyor path, wherein the supporting elements are provided with a boundary wall extending at least partly about the periphery of the receiving area for centering and retaining the diagnostic laboratory container carrier. - an endless drive member defining a closed-loop conveyor pathway, and - a plurality of supporting elements attached to the endless drive member, which supporting elements are adapted for receiving one diagnostic laboratory container carrier and for transporting said diagnostic laboratory container carrier in an upright position along at least a section of the conveyor pathway, wherein the supporting elements have a receiving area for receiving one diagnostic laboratory container carrier,
A polyurethane foam comprising the reaction product of: (a) a polyisocyanate; and (b) an active-hydrogen containing composition comprising 10 to 90% by weight of an oligomeric polyol made from an epoxidized natural oil, said oligomeric polyol having a hydroxyl number of 45 to 65 mg KOH/g, a number average hydroxyl functionality of less than 2.7, and 40% weight or greater oligomers, and 90 to 10% by weight of a petroleum-derived polyol. (a) a polyisocyanate; and (b) an active-hydrogen containing composition comprising 10 to 90% by weight of an oligomeric polyol made from an epoxidized natural oil, said oligomeric polyol having a hydroxyl number of 45 to 65 mg KOH/g, a number average hydroxyl functionality of less than 2.7, and 40% weight or greater oligomers, and 90 to 10% by weight of a petroleum-derived polyol.
An additive manufacturing system, comprising: an uptake manifold; an intake manifold comprising: a body defining a flow channel therein, the body including: an inlet end defining an inlet configured to intake gas and/or particles from a build area of the additive manufacturing system; and an outlet end defining an outlet that is fluidly connected to the inlet through the flow channel, the outlet configured to be in fluid communication with an uptake manifold of the additive manufacturing system; and at least one mount extending from the outlet end of the body and configured to rotatably mount the body to the uptake manifold. an uptake manifold; an intake manifold comprising: a body defining a flow channel therein, the body including: an inlet end defining an inlet configured to intake gas and/or particles from a build area of the additive manufacturing system; and an outlet end defining an outlet that is fluidly connected to the inlet through the flow channel, the outlet configured to be in fluid communication with an uptake manifold of the additive manufacturing system; and at least one mount extending from the outlet end of the body and configured to rotatably mount the body to the uptake manifold. an inlet end defining an inlet configured to intake gas and/or particles from a build area of the additive manufacturing system; and an outlet end defining an outlet that is fluidly connected to the inlet through the flow channel, the outlet configured to be in fluid communication with an uptake manifold of the additive manufacturing system; and at least one mount extending from the outlet end of the body and configured to rotatably mount the body to the uptake manifold.
A container comprising: a tray comprising: a first compartment; a second compartment; and a partition separating the first compartment from the second compartment; at least one product in the first compartment; and an oxygen absorber in the second compartment, wherein the partition is configured to permit air in the first compartment to flow into the second compartment through the partition, wherein the oxygen absorber is configured to reduce an amount of the air in the first compartment by an oxidation reaction, and characterised in that the tray further comprises a thermal barrier layer on at least a portion of the partition, wherein the thermal barrier layer on the partition is configured to mitigate against a transfer of heat from the second compartment to the first compartment during the oxidation reaction. a tray comprising: a first compartment; a second compartment; and a partition separating the first compartment from the second compartment; a first compartment; a second compartment; and a partition separating the first compartment from the second compartment; at least one product in the first compartment; and an oxygen absorber in the second compartment, wherein the partition is configured to permit air in the first compartment to flow into the second compartment through the partition, wherein the oxygen absorber is configured to reduce an amount of the air in the first compartment by an oxidation reaction, and characterised in that the tray further comprises a thermal barrier layer on at least a portion of the partition, wherein the thermal barrier layer on the partition is configured to mitigate against a transfer of heat from the second compartment to the first compartment during the oxidation reaction.
A substantially spherical microsphere suitable for active embolization or drug delivery comprising: a non-ionic contrast agent, doxorubuicin, and a biocompatible polymeric material comprising a polyvinylalcohol and sodium acrylate copolymer, wherein the microsphere is swellable in a pharmaceutically acceptable solution and has a diameter of from 10 μm to 2000 μm before swelling. a non-ionic contrast agent, doxorubuicin, and a biocompatible polymeric material comprising a polyvinylalcohol and sodium acrylate copolymer, wherein the microsphere is swellable in a pharmaceutically acceptable solution and has a diameter of from 10 μm to 2000 μm before swelling.
A recombinant micro-organism which produces and excretes into culture medium a stilbenoid as a metabolite product when grown under stilbenoid production conditions, which micro-organism has genes encoding enzymes constituting a metabolic pathway for the production of said stilbenoid and an ABC transporter which transports said stilbenoid out of said micro-organism to said culture medium, wherein said transporter is exogenous to said micro-organism or said gene encoding said transporter is endogenous and is present in a higher copy number than in the native micro-organism and/or is under the control of a stronger promoter such that said endogenous gene is expressed at a level higher than the native expression level, wherein said micro-organism has genes encoding enzymes: - phenylalanine ammonia lyase, 4-coumarate-CoA ligase and stilbene synthase; and/or - phenylalanine ammonia lyase, cinnamate 4-hydroxylase, 4-coumarate-CoA ligase and stilbene synthase; and/or - tyrosine ammonia lyase, 4-coumarate-CoA ligase and stilbene synthase; and/or - tyrosine ammonia lyase, cinnamate 4-hydroxylase, 4-coumarate-CoA ligase and stilbene synthase. - phenylalanine ammonia lyase, 4-coumarate-CoA ligase and stilbene synthase; and/or - phenylalanine ammonia lyase, cinnamate 4-hydroxylase, 4-coumarate-CoA ligase and stilbene synthase; and/or - tyrosine ammonia lyase, 4-coumarate-CoA ligase and stilbene synthase; and/or - tyrosine ammonia lyase, cinnamate 4-hydroxylase, 4-coumarate-CoA ligase and stilbene synthase.