mhurhangee/ep-ind-claims huggingface dataset:
A dental anchoring element for fixing a removable dental prosthesis or a dental work on a dental implant or a tooth root, comprising a connecting portion which can be fixedly connected to the implant or the tooth root and which is preferably in the form of an abutment and which carries a male body provided with a radially projecting retention projection, and further comprising a female part adapted to the male body and connected to the dental prosthesis, in which the female part is soft-elastic and at least almost completely surrounds in positively locking relationship the part of the male body projecting above the gingiva, characterised in that the female part is enclosed by a clamping ring which is pushed on to the female part and is preferably arranged below the retention projection on the side of the male body facing towards the gingiva and is provided with a pressing means for pressing the female part against the male body.
A compressor module (1, 101) comprising: a compressor; and a first gas cooler configured to cool gas discharged from the compressor, wherein the first gas cooler includes a plurality of gas cooler split bodies (40A, 140A), each gas cooler split body (40A, 140A) includes a first casing which is formed in a cylindrical container shape extending in a horizontal direction and to which the gas is introduced and a first heat exchange unit which is installed in the first casing and is configured to cool gas passing in one direction orthogonal to a center axis (O2, O3) of the first casing, the gas cooler split bodies (40A, 140A) are arranged in parallel so that the center axes of the first casings are parallel to each other, and the gas sequentially flows through the gas cooler split bodies (40A, 140A), characterized in that the first heat exchange unit of each gas cooler split body is configured so that the gas passes in one direction from one side to the other side of the parallel arrangement direction, and the first gas cooler further includes a connection portion which is installed between the adjacent gas cooler split bodies (40A, 140A) so that the gas flows in one direction from the gas cooler split body (40A, 140A) on one side of the parallel arrangement direction to the gas cooler split body (40A, 140A) on the other side of the parallel arrangement direction. a compressor; and a first gas cooler configured to cool gas discharged from the compressor, wherein the first gas cooler includes a plurality of gas cooler split bodies (40A, 140A), each gas cooler split body (40A, 140A) includes a first casing which is formed in a cylindrical container shape extending in a horizontal direction and to which the gas is introduced and a first heat exchange unit which is installed in the first casing and is configured to cool gas passing in one direction orthogonal to a center axis (O2, O3) of the first casing, the gas cooler split bodies (40A, 140A) are arranged in parallel so that the center axes of the first casings are parallel to each other, and the gas sequentially flows through the gas cooler split bodies (40A, 140A), characterized in that the first heat exchange unit of each gas cooler split body is configured so that the gas passes in one direction from one side to the other side of the parallel arrangement direction, and the first gas cooler further includes a connection portion which is installed between the adjacent gas cooler split bodies (40A, 140A) so that the gas flows in one direction from the gas cooler split body (40A, 140A) on one side of the parallel arrangement direction to the gas cooler split body (40A, 140A) on the other side of the parallel arrangement direction.
Method for producing a microsystem with pixels, having the steps: - providing a silicon wafer; - producing a thermal silicon oxide layer on the surface of the silicon wafer as a base layer with a thickness between 200 nm and 1000 nm by oxidation of the silicon wafer; - producing a silicon oxide thin layer directly on the base layer as a carrier layer with a thickness of 100 nm to 700 nm by a thermal deposition method; - producing a platinum layer directly on the carrier layer with a thermal deposition method with a thickness of 40 nm to 200 nm, through which an intermediate product having the silicon wafer, the base layer, the carrier layer and the platinum layer is produced; - cooling of the intermediate product to room temperature; - pixel-type structuring of the platinum layer by removing superfluous areas of the platinum layer, through which bottom electrodes (8, 12) of the pixels (7, 8) are formed pixel-shaped on the carrier layer by the remaining areas of the platinum layer; - removing material on the side of the silicon wafer facing away from the base layer, so that a frame remains and a membrane formed by the base layer and the carrier layer is tensioned by the frame; - producing the microsystem. - providing a silicon wafer; - producing a thermal silicon oxide layer on the surface of the silicon wafer as a base layer with a thickness between 200 nm and 1000 nm by oxidation of the silicon wafer; - producing a silicon oxide thin layer directly on the base layer as a carrier layer with a thickness of 100 nm to 700 nm by a thermal deposition method; - producing a platinum layer directly on the carrier layer with a thermal deposition method with a thickness of 40 nm to 200 nm, through which an intermediate product having the silicon wafer, the base layer, the carrier layer and the platinum layer is produced; - cooling of the intermediate product to room temperature; - pixel-type structuring of the platinum layer by removing superfluous areas of the platinum layer, through which bottom electrodes (8, 12) of the pixels (7, 8) are formed pixel-shaped on the carrier layer by the remaining areas of the platinum layer; - removing material on the side of the silicon wafer facing away from the base layer, so that a frame remains and a membrane formed by the base layer and the carrier layer is tensioned by the frame; - producing the microsystem.
An ultrasonic wave atomizing device for solution atomization, comprising: a solution storage container containing a solution in which at least water and an active ingredient are mixed and whose viscosity is 1.2 mPa·s (at 20 °C) to 4.0 mPa·s (at 20 °C); a liquid absorbent wick for absorbing the solution from the solution storage container; and a vibrating plate (32, 40, 45, 50) which has multiple micropores penetrating the vibrating plate (32, 40, 45, 50) in a thickness direction and atomizes the solution by vibration of a piezoelectric vibrator which generates ultrasonic vibration when supplied with electricity, the vibrating plate (32, 40, 45, 50) having a convex part which has a frustum shape and is supplied with the solution via the liquid absorbent wick. a solution storage container containing a solution in which at least water and an active ingredient are mixed and whose viscosity is 1.2 mPa·s (at 20 °C) to 4.0 mPa·s (at 20 °C); a liquid absorbent wick for absorbing the solution from the solution storage container; and a vibrating plate (32, 40, 45, 50) which has multiple micropores penetrating the vibrating plate (32, 40, 45, 50) in a thickness direction and atomizes the solution by vibration of a piezoelectric vibrator which generates ultrasonic vibration when supplied with electricity, the vibrating plate (32, 40, 45, 50) having a convex part which has a frustum shape and is supplied with the solution via the liquid absorbent wick.
A motorized beverage machine having: - activation means that comprise a motor; and - a brewing unit that comprises a first assembly and a second assembly cooperating together, each assembly delimiting part of a brewing chamber for containing an ingredient capsule, at least one of said assemblies being: - movable away from the cooperating assembly into an open position within said machine for forming between said assemblies a passage for inserting into and/or removing from the brewing unit said ingredient capsule; and - movable to the cooperating assembly into a closed position for forming said brewing chamber, characterised in that the motor is a low power motor configured to: - generate a maximum torque of no more than 50 mNm; and/or - consume a maximum power of no more than 50 W, for driving said movable assembly between said open and closed positions. - activation means that comprise a motor; and - a brewing unit that comprises a first assembly and a second assembly cooperating together, each assembly delimiting part of a brewing chamber for containing an ingredient capsule, - movable away from the cooperating assembly into an open position within said machine for forming between said assemblies a passage for inserting into and/or removing from the brewing unit said ingredient capsule; and - movable to the cooperating assembly into a closed position for forming said brewing chamber, - generate a maximum torque of no more than 50 mNm; and/or - consume a maximum power of no more than 50 W, for driving said movable assembly between said open and closed positions.
A system to benchmark a cloud computing instance, comprising: a processor (204, 220); a memory (206, 222) communicatively coupled to the processor; a benchmarking application (122, 334, 336, 338), configured to execute on a cloud provider (112, 114, 230, 310, 312) and operative to measure and store one or more benchmark indicia of the cloud provider; a central controller (102, 302), the central controller to: dispatch a benchmarking application to a first cloud provider and a second cloud provider, the first cloud provider being associated with a secure transaction of the benchmarking application and the second cloud provider being associated with a non-secure transaction of the benchmarking application; detect, prior to execution of the benchmarking application on the first cloud provider and the second cloud provider, initial measurements of the one or more benchmark indicia on the first cloud provider and the second cloud provider; cause the benchmarking application to perform a secure transaction on the first cloud provider and a non-secure transaction on the second cloud provider, the benchmarking application to measure corresponding benchmark indicia for the first cloud provider and the second cloud provider; and determine a compensation measurement that identifies a difference in latency between the secure transaction of the benchmarking application on the first cloud provider and the non-secure transaction of the benchmarking application on the second cloud provider based on initial measurements of the one or more benchmark indicia. a processor (204, 220); a memory (206, 222) communicatively coupled to the processor; a benchmarking application (122, 334, 336, 338), configured to execute on a cloud provider (112, 114, 230, 310, 312) and operative to measure and store one or more benchmark indicia of the cloud provider; dispatch a benchmarking application to a first cloud provider and a second cloud provider, the first cloud provider being associated with a secure transaction of the benchmarking application and the second cloud provider being associated with a non-secure transaction of the benchmarking application; detect, prior to execution of the benchmarking application on the first cloud provider and the second cloud provider, initial measurements of the one or more benchmark indicia on the first cloud provider and the second cloud provider; cause the benchmarking application to perform a secure transaction on the first cloud provider and a non-secure transaction on the second cloud provider, the benchmarking application to measure corresponding benchmark indicia for the first cloud provider and the second cloud provider; and determine a compensation measurement that identifies a difference in latency between the secure transaction of the benchmarking application on the first cloud provider and the non-secure transaction of the benchmarking application on the second cloud provider based on initial measurements of the one or more benchmark indicia.
Method for producing polarized eyewear (10, 30, 50) comprising the following steps: - providing a polarizing film or a blank (100, 200) of the eyewear comprising a polarizing film (102, 202), whereby said polarizing film comprising a substrate film and a polarizing agent - dipping said polarizing film or said blank (100, 200) comprising said polarizing film (102, 202) into a solvent dissolving said polarizing agent from said polarizing film (78, 102, 202). - providing a polarizing film or a blank (100, 200) of the eyewear comprising a polarizing film (102, 202), whereby said polarizing film comprising a substrate film and a polarizing agent - dipping said polarizing film or said blank (100, 200) comprising said polarizing film (102, 202) into a solvent dissolving said polarizing agent from said polarizing film (78, 102, 202).
A biological fluid collection device, comprising: a housing having an inlet port, a transfer port, and a flow channel, the inlet port and the transfer port in fluid communication via the flow channel, the housing further defining a reservoir adjacent the transfer port and in fluid communication with the flow channel; a puncturing element disposed within the housing and adapted for movement between a pre-actuated position wherein the puncturing element is retained within the housing and a puncturing position wherein the puncturing element extends through the inlet port of the housing and provides fluid communication with the flow channel; characterized by, a separation member disposed within the flow channel between the inlet port and the reservoir; and a wicking element disposed within the flow channel between the inlet port and the separation member. a housing having an inlet port, a transfer port, and a flow channel, the inlet port and the transfer port in fluid communication via the flow channel, the housing further defining a reservoir adjacent the transfer port and in fluid communication with the flow channel; a puncturing element disposed within the housing and adapted for movement between a pre-actuated position wherein the puncturing element is retained within the housing and a puncturing position wherein the puncturing element extends through the inlet port of the housing and provides fluid communication with the flow channel;
A welding wire coil package for a coil of wire wound on a mandrel, the coil having at least a first and a second turn (11,12) that overlap each other at a crossover point forming a figure eight configuration, the welding wire coil package further comprising: such a welding wire coil, a sheath constructed of a non-shrink wrap material, the sheath being laid over the coil where the sheath includes at least one layer of material that adheres to the wire to hold the wire within the coil in the position that the coil is formed and prevent unintended movement of the wire, the sheath defining an opening through which wire is paid out from an interior surface of the coil; and a first end form located at a first end and a second end form located at a second end of the coil, wherein each end form includes an edge portion defining a mandrel receiving opening, the edge portion being adapted to abut an end of the coil, and an extended element that extends radially outward from the edge portion, wherein the extended element further extends axially outward from the edge portion wherein the sheath at least partially overlies the extended element to attach the end form to the sheath, and in a pair of hubs, wherein the hubs are attached to at least one of the end form and the sheath.
A blender blade assembly for being mounted to an interior base of a blender container for rotation about a vertical axis, said blender blade comprising: a body (144; 82) having an aperture (154; 84), wherein said body (144; 82) is located on a first horizontal plane; a first transition section (196; 86) extending at a downward obtuse angle from a side of said body (144; 82); a second transition section (198; 88) extending at a downward obtuse angle from an opposite side of said body (144; 82); a first blade wing (148; 90) extending outwardly from said first transition section (196; 86), wherein said first blade wing (148; 90) is located on a second horizontal plane; a second blade wing (152; 92) extending outwardly from said second transition section (198; 88), wherein said second blade wing (152; 92) is located on a third horizontal plane; a first wing tip (174; 114) extending at an angle from said first blade wing (148; 90); and a second wing tip (178; 116) extending at an angle from said second blade wing (152; 92). a body (144; 82) having an aperture (154; 84), wherein said body (144; 82) is located on a first horizontal plane; a first transition section (196; 86) extending at a downward obtuse angle from a side of said body (144; 82); a second transition section (198; 88) extending at a downward obtuse angle from an opposite side of said body (144; 82); a first blade wing (148; 90) extending outwardly from said first transition section (196; 86), wherein said first blade wing (148; 90) is located on a second horizontal plane; a second blade wing (152; 92) extending outwardly from said second transition section (198; 88), wherein said second blade wing (152; 92) is located on a third horizontal plane; a first wing tip (174; 114) extending at an angle from said first blade wing (148; 90); and a second wing tip (178; 116) extending at an angle from said second blade wing (152; 92).
A compound of general Formula I: and pharmaceutically acceptable salts, and solvates thereof, wherein: - R 1 represents a saturated or unsaturated, substituted or unsubstituted, branched or unbranched alkyl group comprising 8 to 16 carbon atoms, - R 2 represents a substituent selected from the group comprising hydrogen, alkyl, alkene, alkyne, cycloalkyl, aryl, halo, hydroxyl, oxo, nitro, amido, carboxy, amino, cyano, alkoxy, haloalkoxy, or haloalkyl, preferably R 2 represents a substituent selected from the group comprising hydrogen, methyl, methoxy, ethoxy, chloro, fluoro, more preferably R 2 is hydrogen or methoxy, even more preferably R 2 is a methoxy group, - R 3, R 4, R 5 and R 6 may be identical or different and each represents a substituent selected from hydrogen, alkyl, alkene, alkyne, cycloalkyl, aryl, halo, hydroxyl, oxo, nitro, amido, carboxy, amino, cyano, alkoxy, haloalkoxy, or haloalkyl, preferably R 3, R 4, R 5 and R 6 are identical and represent each a hydrogen, - R 7 represents a halo, preferably R 7 represents a fluoro, with the condition that when R 2 is a hydrogen and R 7 is a fluorine, R 3, R 4, R 5 and R 6 are not a methyl group. - R 1 represents a saturated or unsaturated, substituted or unsubstituted, branched or unbranched alkyl group comprising 8 to 16 carbon atoms, - R 2 represents a substituent selected from the group comprising hydrogen, alkyl, alkene, alkyne, cycloalkyl, aryl, halo, hydroxyl, oxo, nitro, amido, carboxy, amino, cyano, alkoxy, haloalkoxy, or haloalkyl, preferably R 2 represents a substituent selected from the group comprising hydrogen, methyl, methoxy, ethoxy, chloro, fluoro, more preferably R 2 is hydrogen or methoxy, even more preferably R 2 is a methoxy group, - R 3, R 4, R 5 and R 6 may be identical or different and each represents a substituent selected from hydrogen, alkyl, alkene, alkyne, cycloalkyl, aryl, halo, hydroxyl, oxo, nitro, amido, carboxy, amino, cyano, alkoxy, haloalkoxy, or haloalkyl, preferably R 3, R 4, R 5 and R 6 are identical and represent each a hydrogen, - R 7 represents a halo, preferably R 7 represents a fluoro,
An inline transducer meter assembly having an inlet and an outlet for fluid flowing through the inline transducer meter assembly from the inlet to the outlet, the inline transducer meter assembly comprising: a circular shelf integrated in an inline transducer meter body adapted to receive a transducer assembly (121, 121') that interfaces in a complimentary manner with a circular ledge of a circular head section of the transducer assembly; a square or rectangular portal formed between the circular shelf and an inner surface of the inline transducer meter body adapted to interface in a complimentary manner with an alignment section of the transducer assembly having a reduced surface area to reduce upshot force on the alignment section by fluid flowing through the inline transducer housing assembly body and past the square or rectangular portal; and a notch formed in the inner surface of the flow tube opposite the square or rectangular portal and adapted to interface with a positioner formed on and extending from a transducer holder as part of the transducer assembly, said transducer holder positioned near a center of the inline transducer meter body between the square or rectangular portal and the notch, said positioner further configured to operate with the square or rectangular portal to secure the transducer holder in alignment with the fluid as it flows through the inline transducer meter body. a circular shelf integrated in an inline transducer meter body adapted to receive a transducer assembly (121, 121') that interfaces in a complimentary manner with a circular ledge of a circular head section of the transducer assembly; a square or rectangular portal formed between the circular shelf and an inner surface of the inline transducer meter body adapted to interface in a complimentary manner with an alignment section of the transducer assembly having a reduced surface area to reduce upshot force on the alignment section by fluid flowing through the inline transducer housing assembly body and past the square or rectangular portal; and a notch formed in the inner surface of the flow tube opposite the square or rectangular portal and adapted to interface with a positioner formed on and extending from a transducer holder as part of the transducer assembly, said transducer holder positioned near a center of the inline transducer meter body between the square or rectangular portal and the notch, said positioner further configured to operate with the square or rectangular portal to secure the transducer holder in alignment with the fluid as it flows through the inline transducer meter body.
Combination of an abutment and a dental implant, the abutment comprising: an apical base part, provided with profiled sections and with a through bore, a rotationally symmetrical transition portion which coronally borders on the apical base part and an occlusal portion coronally bordering on the transition portion, with which the transition portion blends, characterized in that the apical base part substantially has the form of a cylinder or a truncated cone, and in that the profiled sections are formed as planar surfaces in the surface area of the apical base part, where each planar surface of the profiled section is located on a plane defined by the two generatrices of the apical base part which limit the planar surface in the axial direction of the abutment, and in that the apical base part of the abutment is adapted for accommodation in the dental implant. an apical base part, provided with profiled sections and with a through bore, a rotationally symmetrical transition portion which coronally borders on the apical base part and an occlusal portion coronally bordering on the transition portion, with which the transition portion blends, characterized in that the apical base part substantially has the form of a cylinder or a truncated cone, and in that the profiled sections are formed as planar surfaces in the surface area of the apical base part, where each planar surface of the profiled section is located on a plane defined by the two generatrices of the apical base part which limit the planar surface in the axial direction of the abutment, and in that the apical base part of the abutment is adapted for accommodation in the dental implant.