mhurhangee/ep-ind-claims huggingface dataset:
A dental restoration, comprising a base body consisting of an implant in combination with an abutment, a superstructure which is attachable to the base body, especially by adhesive bonding, and a screw with a screw head, which extends on or at the base body, when the screw connects the two parts of the base body to each other in a rotationally fixed manner, and having an access channel in the superstructure for the screw, the opening of which access channel being located opposite to the extension of the axis of the screw in lingual or palatal direction of the superstructure, characterized in that the diameter of the access channel, which is bent with a constant bending radius and terminates at the lingual or palatal surface of the superstructure, is smaller than the diameter of the screw head of the screw, and the screw is able to be screwed through the access channel, i.e. it is insertable and removable, and in that the abutment forms a support for the screw head of the screw.
Method for crystallizing D,L-methionine from aqueous solutions and/or suspensions containing D,L-methionine and D,L-methionine ammonium salt, having a Met content of 70 - 180 g/kg of solution and/or suspension, preferably 90 - 150 g/kg of solution and/or suspension, an NH 4 + content of 1 - 5 g/kg of solution and/or suspension, in the presence of a crystallization additive, which comprises an anionic surfactant or a mixture of various anionic surfactants, in which the temperature of the solution and/or suspension is lowered directly or stepwise from T 1 = 85 - 110°C to T 2 = 30 - 50°C, so that D,L-methionine precipitates as a solid, characterized in that the anionic surfactant used for the formation of the crystallization additive is one of the compounds depicted in formulae 1 to 3 or a mixture thereof: R 1 -O-SO 3 M (formula 1) R 2 -O- (CH 2) n -SO 3 M (formula 2) R 3 -(OC 2 H 4) n -O-SO 3 M (formula 3) wherein n is an integer from 1 to 10, M is sodium or potassium and R 1, R 2 and R 3 are a linear, branched or cyclic, saturated or unsaturated C 8 - to C 20 -alkyl group or an aryl group.
A repair agent for use in repairing damaged tissue, comprising mesenchymal stem cells cultured in a serum-free medium, wherein the damaged tissue is tissue damage that accompanies chronic renal failure, a chronic kidney disease, cirrhosis, viral hepatitis, alcoholic hepatitis, or non-alcoholic steatohepatitis.
Vehicle comprising a roof and two roof bars (3, 4), which are each fixed to said roof via at least one support piece (8, 9), said two bars (3, 4) being dismountable so as to be able to pass from a first position, for which they are parallel and extend along a longitudinal axis X of the vehicle, to a second position that is inclined with respect to the first position, characterized in that each roof bar (3, 4) comprises, for each support piece (8, 9) on which it is mounted, a fixing mechanism (10, 50, 100) having a control element, an energy source (51, 101) that can be activated by said control element, a rigid transmission rod (53, 103) having two walls facing one another, and a fixing pin (54, 104) passing through the roof bar (3, 4) and the support piece (8, 9) in order to secure said roof bar (3, 4) to said support piece (8, 9), and in that the transmission rod (53, 103) can pass, by means of activation of the energy source (51, 101) by the control element, from a locked position, for which the two walls facing one another tightly enclose the fixing pin (54, 104), to an unlocked position, for which said rod (53, 103) is moved so that said fixing pin (54, 104) is no longer positioned between said two walls.
A carbonate-containing oligomer, characterized in comprising a structure represented by formula: wherein R 1, R 2 and X are each independently an aromatic ring group, and n is an integer from 1 to 5.
A respiratory therapy device for the targeted assistance of a secretion removal from the airways of a patient, having at least one flow apparatus for generating at least one respiratory airflow for an insufflation into the patient and for generating at least one respiratory airflow for an exsufflation out of the patient, wherein the flow apparatus comprises at least one patient interface for connecting the patient to the respiratory therapy device and at least one respiratory air interface for connecting the respiratory therapy device to respiratory air or ambient air, wherein the flow apparatus has at least two flow paths, wherein each flow path comprises at least one gas source (5, 6), each having at least one intake side (15, 16) and at least one delivery side (25, 26), and wherein at least one first gas source is fluidically coupled with its intake side and at least one second gas source is fluidically coupled with its delivery side to at least one switchable valve unit, wherein the gas sources are designed as fans (5, 6) and wherein the respiratory therapy device comprises a control apparatus for actuating the valve unit and the fans (5, 6), wherein the respiratory therapy device comprises a sensor apparatus for monitoring the volume flow rate and/or the pressure of the respiratory gas flow, wherein the control apparatus is designed for setting or respectively regulating the valve unit as a function of the sensor signals and/or for setting or respectively regulating the fans (5, 6) as a function of the captured sensor signals, characterized in that the valve unit is fluidically arranged between the at least two fans (5, 6) and the respiratory air interface.
An optical waveguide fiber, comprising a core region at least in part comprising Er 2 O 3 within the range of from 1300 wt.ppm to 3600 wt.ppm, Al 2 O 3 within the range from 6.0 wt% to 10.0 wt% and GeO 2 within the range of from 9.0 wt% to 20.0 wt%, an inner clad surrounding the core region and an outer clad surrounding the inner clad; wherein a relative refractive index percent is defined by the following formula: Δ % = 100 × n i 2 − n c 2 / n c 2 in which n i is the maximum refractive index of the index profile segment and n c is the refractive index of the outer clad, the relative refractive index percent (Δ%) of the core segment being within the range of from 0.5% to 2.0%, the relative refractive index percent (Δ%) of the inner clad being within the range of 0.05% to 0.4%; the outer radius of the core region is within the range of from 0.7 μm to 2.5 μm, and the outer radius of the inner clad is within the range of from 4.3 μm to 18.8 μm, said outer radius of the inner clad region being defined as the distance from the center line of the fiber to the intersection between the inner clad and the outer clad such as to amplify optical signals in the L-band wavelength range, which extends between 1570 nm and 1605 nm.
A solenoid valve abnormality detection device for detecting an abnormality of a solenoid valve based on a driving current pattern which is associated with solenoid valve opening of the solenoid valve and which is detected by a current sensor, the solenoid valve abnormality detection device comprising: a feature data extraction unit configured to obtain feature data of the driving current pattern associated with the solenoid valve opening of the solenoid valve in a predetermined detection period; a feature data correction unit configured to estimate a solenoid valve temperature of the solenoid valve based on a saturation current value of the solenoid valve, and correct a value of the feature data obtained by the feature data extraction unit to a value at a reference temperature that is based on the estimated solenoid valve temperature; and an opening state estimation unit configured to estimate an opening state of the solenoid valve using an estimation model configured to estimate the opening state of the solenoid valve based on the feature data of the driving current pattern associated with the solenoid valve opening of the solenoid valve and the value of the feature data corrected by the feature data correction unit. a feature data extraction unit configured to obtain feature data of the driving current pattern associated with the solenoid valve opening of the solenoid valve in a predetermined detection period; a feature data correction unit configured to estimate a solenoid valve temperature of the solenoid valve based on a saturation current value of the solenoid valve, and correct a value of the feature data obtained by the feature data extraction unit to a value at a reference temperature that is based on the estimated solenoid valve temperature; and an opening state estimation unit configured to estimate an opening state of the solenoid valve using an estimation model configured to estimate the opening state of the solenoid valve based on the feature data of the driving current pattern associated with the solenoid valve opening of the solenoid valve and the value of the feature data corrected by the feature data correction unit.
A method for sealing a solid wood floor with wax, comprising: providing a solid wood floor, wherein the solid wood floor has two end surfaces (10a, 10b) defining boundaries of a length dimension (x) of the solid wood floor; and spraying at least one of the two end surfaces (10a, 10b) with wax; wherein the method further comprises: forming a paint film (12a, 12b) on the at least one end surface (10a, 10b) before spraying the at least one end surface (10a, 10b) with wax. providing a solid wood floor, wherein the solid wood floor has two end surfaces (10a, 10b) defining boundaries of a length dimension (x) of the solid wood floor; and spraying at least one of the two end surfaces (10a, 10b) with wax; wherein the method further comprises: forming a paint film (12a, 12b) on the at least one end surface (10a, 10b) before spraying the at least one end surface (10a, 10b) with wax.
A metal foil composite comprising a resin layer and a metal foil laminated on one or both surfaces of the resin layer via a adhesion layer, wherein elastic modulus of a total layer including the adhesion layer and the resin layer is 80% to 100% of the elastic modulus of the resin layer.
- A method of forming an Al 2 O 3 /SiO 2 stack comprising successively the steps of: a) providing a substrate into a reaction chamber; b) injecting into the reaction chamber, through an ALD process, at least one silicon containing compound selected from the group consisting of: BDEAS Bis(diethylamino)silane SiH 2 (NEt 2) 2, BDMAS Bis(dimethylamino)silane SiH 2 (NMe 2) 2, BEMAS Bis(ethylmethylamino)silane SiH 2 (NEtMe) 2, DIPAS (Di-isopropylamido)silane SiH 3 (NiPr 2), DTBAS (Di tert-butylamido)silane SiH 3 (NtBu 2); c) injecting into the reaction chamber an oxygen source selected in the list: oxygen, ozone, oxygen plasma, water, CO 2 plasma, N 2 O plasma; d) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the silicon containing compounds and the oxygen source in order to obtain the SiO 2 layer deposited onto the substrate; e) injecting on said silicon oxide film, through an ALD process, at least one aluminum containing compound of formula Al(Me) 2 (OiPr); f) injecting the oxygen source as defined in step c); g) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the aluminium containing compounds and the oxygen source in order to obtain the Al 2 O 3 layer deposited onto the SiO 2 layer issued of step d). a) providing a substrate into a reaction chamber; b) injecting into the reaction chamber, through an ALD process, at least one silicon containing compound selected from the group consisting of: BDEAS Bis(diethylamino)silane SiH 2 (NEt 2) 2, BDMAS Bis(dimethylamino)silane SiH 2 (NMe 2) 2, BEMAS Bis(ethylmethylamino)silane SiH 2 (NEtMe) 2, DIPAS (Di-isopropylamido)silane SiH 3 (NiPr 2), DTBAS (Di tert-butylamido)silane SiH 3 (NtBu 2); c) injecting into the reaction chamber an oxygen source selected in the list: oxygen, ozone, oxygen plasma, water, CO 2 plasma, N 2 O plasma; d) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the silicon containing compounds and the oxygen source in order to obtain the SiO 2 layer deposited onto the substrate; e) injecting on said silicon oxide film, through an ALD process, at least one aluminum containing compound of formula Al(Me) 2 (OiPr); f) injecting the oxygen source as defined in step c); g) reacting at a temperature comprised between 20°C and 400°C, preferably lower or equal to 250°C, into the reaction chamber at least one of the aluminium containing compounds and the oxygen source in order to obtain the Al 2 O 3 layer deposited onto the SiO 2 layer issued of step d).
A blood flow reversal valve comprising: a first member having a first passage and a second passage; a second member having a first passage and a second passage, the first and second members being rotatably fixed relative to one another such that the first passage of the first member is aligned with the first passage of the second member and the second passage of the first member is aligned with the second passage of the second member; and a flow directing element (120, 320) disposed in a cavity formed between the first and second members (102, 104), the flow directing element being moveable relative to the first and second members between a first position in which the first passage of the first member and the first passage of the second member are fluidly connected and the second passage of the first member and the second passage of the second member are fluidly connected, and a second position in which the first passage of the first member and the second passage of the second member are fluidly connected and the second passage of the first member and the first passage of the second member are fluidly connected, the blood flow reversal valve being characterized in that the flow directing element is rotatable about a longitudinal axis of the blood flow reversal valve, wherein the first passages are aligned along an axis that is substantially parallel to the longitudinal axis and the second passages are aligned along an axis that is substantially parallel to the longitudinal axis, and wherein the flow directing element defines a first flow path and a second flow path. a first member having a first passage and a second passage; a second member having a first passage and a second passage, the first and second members being rotatably fixed relative to one another such that the first passage of the first member is aligned with the first passage of the second member and the second passage of the first member is aligned with the second passage of the second member; and a flow directing element (120, 320) disposed in a cavity formed between the first and second members (102, 104), the flow directing element being moveable relative to the first and second members between a first position in which the first passage of the first member and the first passage of the second member are fluidly connected and the second passage of the first member and the second passage of the second member are fluidly connected, and a second position in which the first passage of the first member and the second passage of the second member are fluidly connected and the second passage of the first member and the first passage of the second member are fluidly connected, the blood flow reversal valve being characterized in that the flow directing element is rotatable about a longitudinal axis of the blood flow reversal valve, wherein the first passages are aligned along an axis that is substantially parallel to the longitudinal axis and the second passages are aligned along an axis that is substantially parallel to the longitudinal axis, and wherein the flow directing element defines a first flow path and a second flow path.
A heat exchanger system for thermochemical storage and release, comprising a thermal exchange circuit with a heat exchanger fluid, the circuit further in thermal connection with a thermochemical module, the thermochemical module comprising a thermochemical material that stores and releases heat by a thermochemical exchange process under release or binding of a sorbate, characterised in that the thermochemical module is provided with a granular material that compartments the thermochemical material in granular form so that a granular material comprises a wall structure that is transgressive to the sorbate but retains the thermochemical material, which granular material is arranged to provide, in use, an interspace between the granular material, that provides an exchange of the sorbate via the interspace to the thermochemical material.
A wireless power supply system which is equipped with a power-feeding device that is for installation on a ground side and has a power-feeding coil and a power-receiving device that is for installation on a vehicle and has a power-receiving coil and in which electric power is supplied from the power-feeding device to the power-receiving device without contact, comprising a conductor arrangement structure comprising a conductor having a linear shape arranged between the power-feeding coil and the power-receiving coil so as to extend linearly over a high-potential portion and a low-potential portion of an electric field that is generated when the power-feeding coil is excited, characterised in that one end portion of the conductor is open-circuited and another end portion of the conductor is connected to a ground connection of the wireless power supply system.
A vessel comprising: a hull that includes side walls (20a,20b) of a port side and a starboard side, a bottom, and a plurality of decks including a freeboard deck; a bulkhead (22,23,24,25) that is provided inside the hull to divide an interior of the hull into a plurality of rooms (41,42,43) in a longitudinal direction of the hull; and a flood control watertight compartment (30a,30b;31a,31b,31aa,31bb,32a,32b,32aa,32bb,33a,33b) that is disposed inside at least one of the plurality of rooms (41,42,43), divides a space from a deck below the freeboard deck or the bottom to the freeboard deck, and is in contact with the side walls (20a,20b) and the bulkhead (22,23,24,25), characterized in that the hull is provided with a longitudinal bulkhead (21a,21b) along the side walls (20a,20b) of the port side and the starboard side, on the inner side of each of the side walls (20a,20b) of the port side and the starboard side on a bow side, and the flood control watertight compartment (30a,30b;31a,31b,31aa,31bb,32a,32b,32aa,32bb,33a,33b) is provided on the side walls (20a,20b) of the port side and the starboard side that have no longitudinal bulkhead (21a,21b) on the inner side of the hull. a hull that includes side walls (20a,20b) of a port side and a starboard side, a bottom, and a plurality of decks including a freeboard deck; a bulkhead (22,23,24,25) that is provided inside the hull to divide an interior of the hull into a plurality of rooms (41,42,43) in a longitudinal direction of the hull; and a flood control watertight compartment (30a,30b;31a,31b,31aa,31bb,32a,32b,32aa,32bb,33a,33b) that is disposed inside at least one of the plurality of rooms (41,42,43), divides a space from a deck below the freeboard deck or the bottom to the freeboard deck, and is in contact with the side walls (20a,20b) and the bulkhead (22,23,24,25), characterized in that the hull is provided with a longitudinal bulkhead (21a,21b) along the side walls (20a,20b) of the port side and the starboard side, on the inner side of each of the side walls (20a,20b) of the port side and the starboard side on a bow side, and the flood control watertight compartment (30a,30b;31a,31b,31aa,31bb,32a,32b,32aa,32bb,33a,33b) is provided on the side walls (20a,20b) of the port side and the starboard side that have no longitudinal bulkhead (21a,21b) on the inner side of the hull.
A vehicular back door for opening and closing a door opening formed in a rear side of a vehicle body, the back door comprising: an outer panel and an inner panel provided on a vehicle interior side of the outer panel and integrally assembled with the outer panel to form the back door with an internal space (Sp) defined between the outer and inner panels, the inner panel including a door facing section faced with and extending along the outer panel and a sidewall section extending from the door facing section toward the outer panel; a latch mechanism attached to the sidewall section of the inner panel for interlocking engagement with a striker on the vehicle body to keep the back door in a closed position; and an antitheft structure for preventing illicit unlocking of the latch mechanism, the antitheft structure including: a shield wall disposed to cover at least one side of the latch mechanism in a width direction of the vehicle, the vehicular back door being characterised in that the shield wall is connected with the outer panel and the sidewall section of the inner panel; and that a bead is formed on the door facing section of the inner panel and projecting into the internal space (Sp) of the back door toward the outer panel, the bead being located adjacent to the shield wall. an outer panel and an inner panel provided on a vehicle interior side of the outer panel and integrally assembled with the outer panel to form the back door with an internal space (Sp) defined between the outer and inner panels, the inner panel including a door facing section faced with and extending along the outer panel and a sidewall section extending from the door facing section toward the outer panel; a latch mechanism attached to the sidewall section of the inner panel for interlocking engagement with a striker on the vehicle body to keep the back door in a closed position; and an antitheft structure for preventing illicit unlocking of the latch mechanism, the antitheft structure including: a shield wall disposed to cover at least one side of the latch mechanism in a width direction of the vehicle, the vehicular back door being characterised in that the shield wall is connected with the outer panel and the sidewall section of the inner panel; and that a bead is formed on the door facing section of the inner panel and projecting into the internal space (Sp) of the back door toward the outer panel, the bead being located adjacent to the shield wall. a shield wall disposed to cover at least one side of the latch mechanism in a width direction of the vehicle, the vehicular back door being characterised in that the shield wall is connected with the outer panel and the sidewall section of the inner panel; and that a bead is formed on the door facing section of the inner panel and projecting into the internal space (Sp) of the back door toward the outer panel, the bead being located adjacent to the shield wall.
A method for inhibiting corrosion of an anodized material comprising a metal or metal alloy substrate having an oxide layer, said method comprising: applying to said oxide layer a corrosion inhibiting composition comprising: a liquid carrier; and an electrically conductive nanomaterial dispersed in said carrier, wherein said oxide layer comprises pores and electrically conductive nanomaterial is deposited in said pores during said applying step; and wherein said electrically conductive nanomaterial comprises graphene nanoplatelets. a liquid carrier; and an electrically conductive nanomaterial dispersed in said carrier,