mhurhangee/ep-ind-claims huggingface dataset:
Fluidic arrangement for a sanitary fitting, having an outlet piece and a valve and a hose which fluidically connects the outlet piece to the valve, wherein the hose is fluidically connected at a point of the valve facing away from the outlet piece in the position of use of the valve, wherein the hose is composed of two hose pieces (19, 20) which are fluidically connected to one another via a connecting element, wherein the hose has a deflection at a point spaced apart from its two ends (8, 9), wherein the deflection is produced by means of the connecting element fluidically connecting two hose pieces (19, 20), wherein the connecting element has two hose receptacles (22, 23) and a connecting channel connecting them fluidically, wherein the connecting element has a first part and a second part, characterized in that the first part has a shaped portion which engages in the second part to form the connecting channel.
Device (4-4''') for forming three-dimensional objects, comprising: a machining tool for machining workpieces in a preferably ablative manner, a feeding apparatus for feeding an additive material that comprises wood material, such as wood foam, wood flour or sawdust, an application unit (9, 12a-12c) for forming three-dimensional objects from the material supplied by means of the feeding apparatus, wherein the device comprises a storage apparatus for receiving the material and connected to the feeding apparatus, wherein the storage apparatus is designed as a preparation system in which the additive material to be processed by means of the application unit (9, 12a-12c) is prepared for processing and temporarily stored, wherein preparation involves mixing two components, a machining unit, in particular a grinding machine, a milling machine or the like, wherein a suction device is also provided, which receives material that accumulates during machining in the machining unit, which material is fed to the storage apparatus. a machining tool for machining workpieces in a preferably ablative manner, a feeding apparatus for feeding an additive material that comprises wood material, such as wood foam, wood flour or sawdust, an application unit (9, 12a-12c) for forming three-dimensional objects from the material supplied by means of the feeding apparatus, wherein the device comprises a storage apparatus for receiving the material and connected to the feeding apparatus, wherein the storage apparatus is designed as a preparation system in which the additive material to be processed by means of the application unit (9, 12a-12c) is prepared for processing and temporarily stored, wherein preparation involves mixing two components, a machining unit, in particular a grinding machine, a milling machine or the like, wherein a suction device is also provided, which receives material that accumulates during machining in the machining unit, which material is fed to the storage apparatus.
A nozzle assembly, comprising: a nozzle shell; and an insulator positioned within the shell; characterised in that the nozzle assembly comprises a nozzle insert positioned within the insulator, wherein the nozzle insert comprises: a first surface configured to frictionally engage a first type of gas diffuser assembly; and threads formed in a wall of the nozzle insert to engage a second type of gas diffuser assembly wherein the nozzle insert comprises a shoulder formed in the wall between the threads and the first surface, wherein the shoulder is configured to abut a complementary front shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly, and wherein the nozzle insert further includes a rear end configured to abut a rear shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly. a nozzle shell; and an insulator positioned within the shell; characterised in that the nozzle assembly comprises a nozzle insert positioned within the insulator, wherein the nozzle insert comprises: a first surface configured to frictionally engage a first type of gas diffuser assembly; and threads formed in a wall of the nozzle insert to engage a second type of gas diffuser assembly wherein the nozzle insert comprises a shoulder formed in the wall between the threads and the first surface, wherein the shoulder is configured to abut a complementary front shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly, and wherein the nozzle insert further includes a rear end configured to abut a rear shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly. a first surface configured to frictionally engage a first type of gas diffuser assembly; and threads formed in a wall of the nozzle insert to engage a second type of gas diffuser assembly wherein the nozzle insert comprises a shoulder formed in the wall between the threads and the first surface, wherein the shoulder is configured to abut a complementary front shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly, and wherein the nozzle insert further includes a rear end configured to abut a rear shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly.
A suction device for suctioning liquids, comprising a suction element, which is provided with at least one suction opening (12, 13) for receiving the liquid, and a pump which is connected to the suction element and which is equipped to generate a suction vacuum in the suction element, wherein a control device and at least one sensor (5, 11) which is connected to the control device are provided, wherein the control device is arranged to influence the power acting at the suction opening (12, 13) dependent on the signal received from the sensor (5, 11), wherein the sensor (5, 11) is designed as an acoustic wave sensor which is arranged to detect acoustic waves which are generated by the suction element during the operation thereof, the output signal of the acustic wave sensor is fed to a noise gate, which has the function of providing an adjustable delay and of an adjustable response threshold until a response, such that it is possible to establish the acoustic wave intensity and acoustic wave duration starting from which the suction power is to be influenced.
A detector arrangement for an X-ray phase contrast system, the detector arrangement comprising: - a scintillator; - an optical grating; and - a detector; - wherein the optical grating is arranged between the scintillator and the detector and is configured to be electronically adjustable; wherein the scintillator converts X-ray radiation into optical radiation; wherein the optical grating is configured to be an analyzer grating being adapted to a phase-grating of an X-ray phase contrast system and - characterised in that an optical path between the optical grating and the scintillator is free of focussing elements for optical radiation. - a scintillator; - an optical grating; and - a detector; - wherein the optical grating is arranged between the scintillator and the detector and is configured to be electronically adjustable; - characterised in that an optical path between the optical grating and the scintillator is free of focussing elements for optical radiation.
Medical packaging (2, 3) comprising two shells (21, 22, 31, 32), each shell having a border (210, 220) delimiting an opening for access to the inside of the shell, said packaging (2, 3) having at least one configuration, called closed configuration, in which the shells form a substantially closed chamber capable of housing a medical object, such as a medical implant, characterized in that said packaging (2, 3) also comprises a sealing strip that extends, on the outer side of the shells (21, 22, 31, 32), over the entire length of the borders (210, 220) of the shells of the packaging and from one border (210, 220) to the other (220, 210) so as to cover the borders in order to seal the chamber delimited by the two shells, and in that, the two shells (21, 22, 31, 32) of the packaging (2, 3) being connected to each other by a hinge (23, 33), the sealing strip is applied by one of its ends (40, 41) on the hinge (23, 33), extends around the packaging (2, 3) along the borders of the shells (21, 22, 31, 32) and returns to be applied on the hinge (23, 33).
An epoxy composition comprising an epoxy compound having an alkoxysilyl group of the following Formula 1: in Formula 1, a core unit C is independently selected from structures of the following Formulae 2-1 to 2-5, and each core unit C of a plurality of the core units C present in the above Formula 1 may be the same or different, in Formula 2-1, X is -CH 2 -, -C(CH 3) 2 -, -C(CF 3) 2 -, -S- or - SO 2 -, in Formula 2-3, Y is independently selected from the group consisting of H and an alkyl group of C1 to C5, n is an integer from 1 to 10, in the case that n is 1, R has a structure of the following Formula 3a or 3b, in the case that n is at least 2, at least one R of a plurality of R has a structure of the following Formula 3a or 3b, and the remainder thereof are hydrogen atoms, and an epoxy compound containing all core units having the above Formula 2-1 in which X is - C(CH 3) 2 -, and R is the following Formula 3b is excluded from the epoxy compound of the above Formula 1, [Formula 3a] -(CH 2) m -SiR a R b R c [Formula 3b] -CONH(CH 2) m -SiR a R b R c in Formulae 3a and 3b, at least one of R a to R c is an alkoxy group having 1 to 5 carbon atoms, and the remainder thereof are alkyl groups having 1 to 10 carbon atoms, the alkoxy group and the alkyl group may be a linear chain or a branched chain alkoxy group or alkyl group, and m is an integer from 3 to 10; at least one kind of pre-formed filler selected from the group consisting of inorganic particles and a fiber; and a curing agent for the epoxy compound. at least one kind of pre-formed filler selected from the group consisting of inorganic particles and a fiber; and a curing agent for the epoxy compound.
A method of sealing a peelable lid to an inwardly projecting and circumferentially extending flange of a metal can body, the method characterised by: a) inserting an induction coil into the can body; b) passing an alternating current through the coil to heat the flange; c) removing the induction coil from the can body; and d) applying the peelable lid to the flange, whereby residual heat in the flange seals or aids the sealing of the peelable lid to the flange. a) inserting an induction coil into the can body; b) passing an alternating current through the coil to heat the flange; c) removing the induction coil from the can body; and d) applying the peelable lid to the flange,
A fuel assembly for a nuclear reactor comprising: a parallel, spaced array of a plurality of elongated nuclear fuel rods having an axial length; a lower nozzle; an upper nozzle, wherein, the plurality of elongated nuclear fuel rods is supported between the lower nozzle and the upper nozzle; and a plurality of spaced grids arranged in tandem along the axial length of the fuel rods between the upper nozzle and the lower nozzle, the plurality of spaced grids or portions or parts thereof constructed of a composition, comprising: a plurality of sintered layers comprising one or more ternary compounds of the general formula: M n+1 AX n wherein, M is a transition metal, A is an element selected from the group A elements in the Chemical Periodic Table, X is selected from the group consisting of carbon and nitrogen, and n is an integer from 1 to 3, and wherein, a first sintered layer of the plurality of sintered layers comprises a different one or more ternary compounds of the general formula I, as compared to a second sintered layer of the plurality of sintered layers. a parallel, spaced array of a plurality of elongated nuclear fuel rods having an axial length; a lower nozzle; an upper nozzle, wherein, the plurality of elongated nuclear fuel rods is supported between the lower nozzle and the upper nozzle; and a plurality of spaced grids arranged in tandem along the axial length of the fuel rods between the upper nozzle and the lower nozzle, the plurality of spaced grids or portions or parts thereof constructed of a composition, comprising: a plurality of sintered layers comprising one or more ternary compounds of the general formula: M n+1 AX n wherein, M is a transition metal, A is an element selected from the group A elements in the Chemical Periodic Table, X is selected from the group consisting of carbon and nitrogen, and n is an integer from 1 to 3, and wherein, a first sintered layer of the plurality of sintered layers comprises a different one or more ternary compounds of the general formula I, as compared to a second sintered layer of the plurality of sintered layers.
A compound of formula wherein R 1 is -(C 1 -C 6)alkyl substituted with one or more substituents selected from the group consisting of -CO 2 R 2, -SO 2 R 2, -NHC R 2, and -OR 2; R 2 is hydrogen or -(C 1 -C 6)alkyl and pharmaceutically acceptable salts thereof. R 1 is -(C 1 -C 6)alkyl substituted with one or more substituents selected from the group consisting of -CO 2 R 2, -SO 2 R 2, -NHC R 2, and -OR 2; R 2 is hydrogen or -(C 1 -C 6)alkyl and
A beverage foams making device comprising: a base having a shaft rotatably extending therethrough, and a stirring member connected to a first end of the shaft and having multiple holes, the stirring member having at least one protrusion extending therefrom, characterized in that a cup has a connection portion connected to a lower end thereof, the connection portion being connected to said base, the stirring member is located in the cup with the stirring member being a round disk located at the lower portion of the cup, and the protrusions of the stirring member are cylindrical. a base having a shaft rotatably extending therethrough, and a stirring member connected to a first end of the shaft and having multiple holes, the stirring member having at least one protrusion extending therefrom, characterized in that a cup has a connection portion connected to a lower end thereof, the connection portion being connected to said base, the stirring member is located in the cup with the stirring member being a round disk located at the lower portion of the cup, and the protrusions of the stirring member are cylindrical.
Facility for the continuous deep freezing of individual products including: - a fluidised bed deep freezing section, equipped with means (21, 22) for placing a layer of products in dynamic suspension under the lifting effect of a refrigerating air flow at a velocity V1, in order to obtain the freezing of the products at their periphery, - a fixed bed deep freezing section, comprising a support and means (32, 33) for pressing the layer of products against said support under the force of a refrigerating air flow at a velocity V2, that is greater than V1, in order to obtain the total freezing of the products at their core, - conveying means (24, 35) for moving the layer of products forwards through said fluidised bed deep freezing section and said fixed bed deep freezing section, characterised in that the fixed bed deep freezing section has a conveyor for moving the products forwards, said conveyor forming said support against which the layer of products is pressed under the force of the refrigerating air flow at the velocity V2, the refrigerating air flow at the velocity V2 being upward so as to press the products against the lower surface of the belt of the conveyor, under the lifting effect of said flow. - a fluidised bed deep freezing section, equipped with means (21, 22) for placing a layer of products in dynamic suspension under the lifting effect of a refrigerating air flow at a velocity V1, in order to obtain the freezing of the products at their periphery, - a fixed bed deep freezing section, comprising a support and means (32, 33) for pressing the layer of products against said support under the force of a refrigerating air flow at a velocity V2, that is greater than V1, in order to obtain the total freezing of the products at their core, - conveying means (24, 35) for moving the layer of products forwards through said fluidised bed deep freezing section and said fixed bed deep freezing section, characterised in that the fixed bed deep freezing section has a conveyor for moving the products forwards, said conveyor forming said support against which the layer of products is pressed under the force of the refrigerating air flow at the velocity V2, the refrigerating air flow at the velocity V2 being upward so as to press the products against the lower surface of the belt of the conveyor, under the lifting effect of said flow.
Screw press for removing liquid from solid-liquid mixtures, particularly pulp suspensions, with a shell having liquid passages and a screw shaft disposed inside between which an annular gap is formed through which the solid-liquid mixture is pressed, and with a counter-pressure device in the area of the outlet end of the annular gap, where the counter-pressure device has a counter-pressure surface with a decreasing radius in the flow direction of the solid-liquid mixture, where the counter-pressure device can be moved in the axial direction of the screw shaft and is connected to pressure cylinders, and where the screw shaft has a drum, where the drum has an outlet area (12, 12a, 14) at the outlet end of the annular gap for the solid-liquid mixture that has been at least partly freed of liquid, the diameter of which outlet area narrows in flow direction in the area of the counter-pressure device, where the diameter of the outlet area (12, 12a, 14) narrows in flow direction in the shape of a truncated cone in the area of the counter-pressure device, a gap diminishing in size in radial direction, but whose cross-sectional area increases in the direction of flow, is formed between the counter-pressure surface of the counter-pressure device and the truncated cone of the screw shaft, and an axial bearing of the screw shaft is arranged at the outlet end of the screw shaft, where the screw shaft has a drum and at least one screw flight attached to the drum and the axial bearing connects the shell to the screw shaft via an outlet box surrounding the outlet area and with largely the same diameter as the shell in order to transfer axial forces, where the smallest diameter of the counter-pressure surface is smaller than the outer diameter of the drum at the outlet end of the annular gap.
Method for producing at least one deterministic NV - center in a diamond layer, characterized in that in a first step, at least one dopant is implanted in the diamond layer, wherein a donor, namely lithium, oxygen or sulfur, is used as the dopant, and in a second step, at least one nitrogen atom is integrated as a foreign atom to form the NV - center in the diamond layer by means of ion bombardment, wherein the ion bombardment with foreign atoms is performed with an ion fluence of up to 10 10 cm -2. in a first step, at least one dopant is implanted in the diamond layer, wherein a donor, namely lithium, oxygen or sulfur, is used as the dopant, and in a second step, at least one nitrogen atom is integrated as a foreign atom to form the NV - center in the diamond layer by means of ion bombardment, wherein the ion bombardment with foreign atoms is performed with an ion fluence of up to 10 10 cm -2.
Dispensing assembly comprising a container, containing a pressurized beverage, connected to or provided with a dispense assembly, wherein the dispense assembly comprises an outlet channel closable by a valve body and a chamber between the container and the valve body, which chamber is at least partly closed by a movable and/or deformable wall part connected to the valve body or a valve seat, such that pressurized beverage from the container filling the chamber forces the wall part, into a position biasing the valve body and/or the valve seat in a position closing the outlet channel and by pushing the wall part the valve body and/or the valve seat can be forced into a position opening the outlet channel, wherein preferably at least during use there is an open connection between said chamber and a beverage compartment of the container wherein the movable and/or deformable wall part is formed by a flexible membrane.
A shell-and-tube reactor that may be used for fixed-bed catalytic partial oxidation, the reactor being characterized by including at least one reaction zone of a first-step reaction zone for mainly producing unsaturated aldehydes from olefins and a second-step reaction zone for mainly producing unsaturated acids from unsaturated aldehydes, wherein each of the above reaction zones comprises two or more catalytic layers; each of the catalytic layers is packed with a formed product of catalyst that is different in pore density and/or pore size in a catalytically active component; and the pore density and/or pore size is controlled in such a manner that specific surface area of the catalytically active component increases from the inlet of the reactor to the outlet of the reactor, wherein the catalytically active component having a different pore density and/or pore size is obtained by the method comprising the steps of: (a) mixing metal salts forming a metal oxide, as a catalytically active component, to provide an aqueous solution or suspension of catalyst; (b) drying the aqueous solution or suspension of catalyst to provide catalyst powder; and (c) baking the resultant product obtained from the preceding step, the method further comprising a step of adding a sublimable or thermally decomposable material, having a controlled addition amount and/or a controlled particle size, during step (a) or between step (b) and step (c), wherein the sublimable or thermally decomposable material is sublimed or decomposed at 50-200° C and is at least one material selected from the group consisting of urea (NH 2 CONH 2), melamine (C 3 H 6 N 6), ammonium oxalate (C 2 H 8 N 2 O 4), methyl oxalate (C 4 H 6 O 4) and naphthalene (C 10 H 8), wherein the formed product of catalyst is a supported catalyst obtained by supporting the catalytically active component onto an inert carrier. (a) mixing metal salts forming a metal oxide, as a catalytically active component, to provide an aqueous solution or suspension of catalyst; (b) drying the aqueous solution or suspension of catalyst to provide catalyst powder; and (c) baking the resultant product obtained from the preceding step, the method further comprising a step of adding a sublimable or thermally decomposable material, having a controlled addition amount and/or a controlled particle size, during step (a) or between step (b) and step (c), wherein the sublimable or thermally decomposable material is sublimed or decomposed at 50-200° C and is at least one material selected from the group consisting of urea (NH 2 CONH 2), melamine (C 3 H 6 N 6), ammonium oxalate (C 2 H 8 N 2 O 4), methyl oxalate (C 4 H 6 O 4) and naphthalene (C 10 H 8), wherein the formed product of catalyst is a supported catalyst obtained by supporting the catalytically active component onto an inert carrier.