mhurhangee/ep-ind-claims huggingface dataset:
Capsule having a rotationally symmetrical capsule body with a side wall and with a base formed in one piece with the latter, and also having a cover, which covers the capsule body and is intended for forming at least one chamber, which contains a substance for the preparation of a liquid food, wherein the cover forms an entry side, and the base forms an exit side, for the passage of a liquid through the chamber, wherein a rupture disc, which can burst under an internal pressure in the chamber, is arranged above the base, the base has a depression and the rupture disc is arranged in the depression, wherein a perforated base or a filter base is arranged above the rupture disc and at a distance therefrom, characterized in that the base has the depression on the side which is directed towards the chamber, and in that the rupture disc has predetermined breaking points or predetermined breaking lines for the exposure of at least one opening when the disc ruptures, wherein the predetermined breaking points or predetermined breaking lines are arranged in the rupture disc in combination with a weakening line such that the portion of the rupture disc which is delimited by the predetermined breaking points can be pivoted downwards, towards the base, about the weakening line when the disc ruptures.
A process for the preparation of a fast-disintegrating tablet containing a medicinal substance, comprising the steps of: - providing a fluid formulation comprising the medicinal substance, - providing a solid element having formed therein at least one cavity, - cooling the solid element to a temperature below a freezing temperature of the formulation, - filling the cavity with the fluid formulation, - solidifying the formulation while present in the cavity to form a solid pellet comprising the medicinal substance without actively shaping the entire surface of the pellet, - taking the pellet out of the cavity, and - drying the pellet in a vacuum to obtain the tablet, characterised in that the volume of the cavity is smaller than 50% of the volume of the pellet. - providing a fluid formulation comprising the medicinal substance, - providing a solid element having formed therein at least one cavity, - cooling the solid element to a temperature below a freezing temperature of the formulation, - filling the cavity with the fluid formulation, - solidifying the formulation while present in the cavity to form a solid pellet comprising the medicinal substance without actively shaping the entire surface of the pellet, - taking the pellet out of the cavity, and - drying the pellet in a vacuum to obtain the tablet, characterised in that the volume of the cavity is smaller than 50% of the volume of the pellet.
An axial eye length measurement apparatus for measuring an eye having a cornea and a second surface, comprising: a light source adapted to produce a beam of partially coherent light; a beam splitter disposed in the beam and adapted to project some of the light into a test arm and some of the light into a reference arm; a first mirror disposed in the reference arm to form a first reference path and adapted to intercept a first portion (B R1)of the light in the reference arm; a second movable mirror disposed in the reference arm to form a second reference path and adapted to intercept a second portion (B R2) of the light in the reference arm; a processor adapted to control at least the second movable mirror such that a corneal interference peak formed using the first portion (B R1) and the light in the test arm and a second interference peak formed using the second portion (B R2) and the light in the test arm have a non-zero separation, wherein the processor is adapted to control at least the second mirror such that the corneal peak and the second peak are separated from one another by a predetermined amount; characterized by at least one variable delay optical element extending across the first portion (B R1) and the second portion to cause a delay between the first portion (B R1) and the second portion (B R2) along the projection axis of the first portion (B R1) and the second portion (B R2), the delay element having a delay signal; a light source adapted to produce a beam of partially coherent light; a beam splitter disposed in the beam and adapted to project some of the light into a test arm and some of the light into a reference arm; a first mirror disposed in the reference arm to form a first reference path and adapted to intercept a first portion (B R1)of the light in the reference arm; a second movable mirror disposed in the reference arm to form a second reference path and adapted to intercept a second portion (B R2) of the light in the reference arm; a processor adapted to control at least the second movable mirror such that a corneal interference peak formed using the first portion (B R1) and the light in the test arm and a second interference peak formed using the second portion (B R2) and the light in the test arm have a non-zero separation, wherein the processor is adapted to control at least the second mirror such that the corneal peak and the second peak are separated from one another by a predetermined amount; characterized by
A leak containment system for a lift, comprising: a mounting bracket having a first rail, a second rail, and a panel extending between the first rail and the second rail, wherein the panel is vertically offset from feet (74,76) formed on the first rail, and wherein a channel is defined by at least the first rail and an underside of the panel; the leak containment system being characterized in that it further includes a tray removably received within the channel formed within the mounting bracket, the tray including a bottom surface surrounded by a plurality of perimeter walls (94,96,98,100) that together define a fluid container, wherein the plurality of perimeter walls (94,96,98,100) includes a front perimeter wall extending upwardly above the other walls (94,96,98) in the plurality of perimeter walls (94,96,98,100); and a locking mechanism coupled to the mounting bracket and configured to selectively engage the front perimeter wall of the tray to restrict movement of the tray outward from the channel. a mounting bracket having a first rail, a second rail, and a panel extending between the first rail and the second rail, wherein the panel is vertically offset from feet (74,76) formed on the first rail, and wherein a channel is defined by at least the first rail and an underside of the panel; the leak containment system being characterized in that it further includes a tray removably received within the channel formed within the mounting bracket, the tray including a bottom surface surrounded by a plurality of perimeter walls (94,96,98,100) that together define a fluid container, wherein the plurality of perimeter walls (94,96,98,100) includes a front perimeter wall extending upwardly above the other walls (94,96,98) in the plurality of perimeter walls (94,96,98,100); and a locking mechanism coupled to the mounting bracket and configured to selectively engage the front perimeter wall of the tray to restrict movement of the tray outward from the channel.
A method for forming a surface relief (12, 13, 14) on a provided surface (11, 21, 23, 31) of a workpiece formed as a compacted sintered component (4, 10), wherein - a forming element for forming the surface relief (12, 13, 14) is moved in a working direction toward the provided surface (11, 21, 23, 31) of the compacted sintered component (4, 10), - the working direction of the forming element runs in a radial direction in relation to the compacted sintered component (4, 10), and - the forming element acts with a forming relief of a contact surface upon the provided surface (11, 21, 23, 31) of the compacted sintered component (4, 10) in the working direction. - a forming element for forming the surface relief (12, 13, 14) is moved in a working direction toward the provided surface (11, 21, 23, 31) of the compacted sintered component (4, 10), - the working direction of the forming element runs in a radial direction in relation to the compacted sintered component (4, 10), and - the forming element acts with a forming relief of a contact surface upon the provided surface (11, 21, 23, 31) of the compacted sintered component (4, 10) in the working direction.
A variable compression device that is configured to change a compression ratio in a combustion chamber of an engine, the variable compression device comprising: a piston rod; a first fluid chamber which is configured to move the piston rod in a direction in which a compression ratio is increased by supplying a pressurized working fluid thereto; a regulation member (7c, 107c, 207c) which is configured to regulate movement of the piston rod in a direction in which a compression ratio is increased; a second fluid chamber which is provided between the piston rod and the regulation member (7c, 107c, 207c); a supply flow path which is configured to guide the working fluid supplied to the second fluid chamber; and a discharge flow path which is configured to guide the working fluid discharged from the second fluid chamber; characterized by a flow rate regulation unit (15b, 16) which is provided in the discharge flow path and is configured to regulate a flow of the working fluid when the piston rod approaches the regulation member (7c, 107c, 207c), and wherein the second fluid chamber is configured to store the working fluid so as to operate as a damper, so that it is possible to prevent the piston rod from colliding with the regulation member (7c, 107c, 207c) with a large force. a piston rod; a first fluid chamber which is configured to move the piston rod in a direction in which a compression ratio is increased by supplying a pressurized working fluid thereto; a regulation member (7c, 107c, 207c) which is configured to regulate movement of the piston rod in a direction in which a compression ratio is increased; a second fluid chamber which is provided between the piston rod and the regulation member (7c, 107c, 207c); a supply flow path which is configured to guide the working fluid supplied to the second fluid chamber; and a discharge flow path which is configured to guide the working fluid discharged from the second fluid chamber; characterized by a flow rate regulation unit (15b, 16) which is provided in the discharge flow path and is configured to regulate a flow of the working fluid when the piston rod approaches the regulation member (7c, 107c, 207c), and wherein the second fluid chamber is configured to store the working fluid so as to operate as a damper, so that it is possible to prevent the piston rod from colliding with the regulation member (7c, 107c, 207c) with a large force.
An actuating device for valves for interrupting the flow of medium in a pipeline in water, waste water, gas, district heating, district cooling and oil transport lines comprising - a rotating drive; - a control device for controlling the rotating drive; - an structure-borne sound sensor which is configured to measure structure-borne sound coming from the valve; and - a processing device for evaluating the signal from the structure-borne sound sensor; characterized in that - the control device is adapted to vary the rotational speed and, as a result, a corresponding drive frequency of the rotating drive such that variable sound of the drive is coupled into the valve; - the actuating device additionally comprises a vibration generator that is configured to couple additional sound into the valve; and - the processing device is configured to perform a frequency analysis of the measured structure-borne sound such that the state of the valve can be deduced through target-actual comparisons. - a rotating drive; - a control device for controlling the rotating drive; - an structure-borne sound sensor which is configured to measure structure-borne sound coming from the valve; and - a processing device for evaluating the signal from the structure-borne sound sensor; - the control device is adapted to vary the rotational speed and, as a result, a corresponding drive frequency of the rotating drive such that variable sound of the drive is coupled into the valve; - the actuating device additionally comprises a vibration generator that is configured to couple additional sound into the valve; and - the processing device is configured to perform a frequency analysis of the measured structure-borne sound such that the state of the valve can be deduced through target-actual comparisons.
A cryogen free cooling apparatus comprising: a vacuum chamber; a heat radiation shield (54, 10) surrounding a working region and located in the vacuum chamber; a cryofree cooling system having a cooling stage coupled to the heat radiation shield; aligned apertures (52, 56, 58) in the heat radiation shield and the vacuum chamber wall; sample loading apparatus having one or more elongate probes and a sample holding device attached to the one or more elongate probes, the one or more elongate probes for inserting the sample holding device through the aligned apertures to the working region; and one or more thermal connectors, whereby the sample holding device is releasably coupled for heat conduction via said one or more thermal connectors to the heat radiation shield (54, 10) so as to pre-cool a sample on or in the sample holding device before the sample holding device is inserted into the working region; characterised in that the one or more thermal connectors comprise(s) one or more thermally conductive springs fixed on the heat radiation shield to make thermal contact between the heat radiation shield and the sample holding device. a vacuum chamber; a heat radiation shield (54, 10) surrounding a working region and located in the vacuum chamber; a cryofree cooling system having a cooling stage coupled to the heat radiation shield; aligned apertures (52, 56, 58) in the heat radiation shield and the vacuum chamber wall; sample loading apparatus having one or more elongate probes and a sample holding device attached to the one or more elongate probes, the one or more elongate probes for inserting the sample holding device through the aligned apertures to the working region; and one or more thermal connectors, whereby the sample holding device is releasably coupled for heat conduction via said one or more thermal connectors to the heat radiation shield (54, 10) so as to pre-cool a sample on or in the sample holding device before the sample holding device is inserted into the working region; characterised in that the one or more thermal connectors comprise(s) one or more thermally conductive springs fixed on the heat radiation shield to make thermal contact between the heat radiation shield and the sample holding device.
A glass comprising: at least 50 mol% SiO 2; 10-20 mol% Na 2 O; 0-5 mol% K 2 O; 9-22 mol% Al 2 O 3; 3-4.5 mol% B 2 O 3; at least 0.1 mol% of MgO and/or ZnO, and optionally, at least one of CaO, BaO and SrO, wherein 0 mol% ≤ CaO(mol%) + SrO(mol%) + BaO(mol%) ≤ 2 mol%, wherein 0 mol% ≤ MgO(mol%) + ZnO(mol%) ≤ 6 mol%, and wherein R 2 O(mol%) + CaO(mol%) + SrO(mol%) + BaO(mol%) - Al 2 O 3 (mol%) - B 2 O 3 (mol%) < 0 mol%. at least 50 mol% SiO 2; 10-20 mol% Na 2 O; 0-5 mol% K 2 O; 9-22 mol% Al 2 O 3; 3-4.5 mol% B 2 O 3; at least 0.1 mol% of MgO and/or ZnO, and optionally, at least one of CaO, BaO and SrO, wherein 0 mol% ≤ CaO(mol%) + SrO(mol%) + BaO(mol%) ≤ 2 mol%, wherein 0 mol% ≤ MgO(mol%) + ZnO(mol%) ≤ 6 mol%, and wherein R 2 O(mol%) + CaO(mol%) + SrO(mol%) + BaO(mol%) - Al 2 O 3 (mol%) - B 2 O 3 (mol%) < 0 mol%.
Stabilization circuit for a vehicle electrical system, wherein the stabilization circuit comprises: - a first connection adapted for connection to a first electrical system branch; - a second connection adapted for connection to a pole of a first energy store of the first electrical system branch; - a third connection adapted for connection to a second electrical system branch; - a fourth connection adapted for connection to a third electrical system branch; and - a grounding connection (I; IV) adapted for connection of the stabilization circuit to ground, - a second energy store and a third energy store; wherein the stabilization circuit further comprises a serial disconnection switch element between the second connection and the grounding connection as well as a decoupling switch element, which connects the first connection to the fourth connection; and wherein the second energy store is connected between the grounding connection (I; IV) and the third connection and the third connection is connected via the third energy store and a first converter to the fourth connection. - a first connection adapted for connection to a first electrical system branch; - a second connection adapted for connection to a pole of a first energy store of the first electrical system branch; - a third connection adapted for connection to a second electrical system branch; - a fourth connection adapted for connection to a third electrical system branch; and - a grounding connection (I; IV) adapted for connection of the stabilization circuit to ground, - a second energy store and a third energy store;
An air filter cartridge comprising: (a) a media pack surrounding an open interior and having first and second, opposite, ends; (b) a first end cap positioned on the first end of the media pack; (i) the first end cap having a central air flow aperture therethrough; (c) a housing seal on the first end cap; (d) a second end cap positioned on the second end of the media pack; (i) the second end cap being a closed end cap; and; (ii) the second end cap including a central projection arrangement thereon projecting in a direction away from the first end cap; characterized in that: the projection arrangement comprises an inner surface and an outer surface and a wall comprising a plurality of radially outwardly directed convex sections alternating with a plurality of radially inwardly directed convex sections; and, the wall surrounds an open and recessed interior surface section that has a smallest dimension thereacross of at least 15 mm. (a) a media pack surrounding an open interior and having first and second, opposite, ends; (b) a first end cap positioned on the first end of the media pack; (i) the first end cap having a central air flow aperture therethrough; (i) the first end cap having a central air flow aperture therethrough; (c) a housing seal on the first end cap; (d) a second end cap positioned on the second end of the media pack; (i) the second end cap being a closed end cap; and; (ii) the second end cap including a central projection arrangement thereon projecting in a direction away from the first end cap; characterized in that: the projection arrangement comprises an inner surface and an outer surface and a wall comprising a plurality of radially outwardly directed convex sections alternating with a plurality of radially inwardly directed convex sections; and, the wall surrounds an open and recessed interior surface section that has a smallest dimension thereacross of at least 15 mm. (i) the second end cap being a closed end cap; and; (ii) the second end cap including a central projection arrangement thereon projecting in a direction away from the first end cap; characterized in that: the projection arrangement comprises an inner surface and an outer surface and a wall comprising a plurality of radially outwardly directed convex sections alternating with a plurality of radially inwardly directed convex sections; and, the wall surrounds an open and recessed interior surface section that has a smallest dimension thereacross of at least 15 mm. the projection arrangement comprises an inner surface and an outer surface and a wall comprising a plurality of radially outwardly directed convex sections alternating with a plurality of radially inwardly directed convex sections; and, the wall surrounds an open and recessed interior surface section that has a smallest dimension thereacross of at least 15 mm.
An adhesive mortar and jointing mortar, comprising at least one polymer dispersion as an organic binding agent and a filler material combination which on the one hand comprises a proportion of coarse filler material with a d50 mean particle size of over 100 μm, determined by means of laser diffraction particle size determination, and on the other hand comprises a proportion of fine filler material with a maximum d50 mean particle size of 100 μm and an average oil absorption value according to DIN EN ISO 787-5 of less than 35 g/100 g.
A slide bearing for supporting a load applied to a shaft member while allowing movement of the shaft member, comprising: a tubular bearing main body into which the shaft member is able to be inserted; and an elastic body which is mounted on the bearing main body and biases the bearing main body radially inward, wherein: the bearing main body comprises: slits (25, 26) which are formed along an axial direction from one end surface toward the other end surface; first elastic body locking parts which are formed on a side of one end of an outer peripheral surface and protrude radially outward; and second elastic body locking parts which are formed on a side of the other end of the outer peripheral surface and protrude radially outward, and the first elastic body locking parts and the second elastic body locking parts are located at positions which do not overlap each other as seen in an imaginary plane perpendicular to an axis of the bearing main body. a tubular bearing main body into which the shaft member is able to be inserted; and an elastic body which is mounted on the bearing main body and biases the bearing main body radially inward, wherein: the bearing main body comprises: slits (25, 26) which are formed along an axial direction from one end surface toward the other end surface; first elastic body locking parts which are formed on a side of one end of an outer peripheral surface and protrude radially outward; and second elastic body locking parts which are formed on a side of the other end of the outer peripheral surface and protrude radially outward, and the first elastic body locking parts and the second elastic body locking parts are located at positions which do not overlap each other as seen in an imaginary plane perpendicular to an axis of the bearing main body. the bearing main body comprises: slits (25, 26) which are formed along an axial direction from one end surface toward the other end surface; first elastic body locking parts which are formed on a side of one end of an outer peripheral surface and protrude radially outward; and second elastic body locking parts which are formed on a side of the other end of the outer peripheral surface and protrude radially outward, and slits (25, 26) which are formed along an axial direction from one end surface toward the other end surface; first elastic body locking parts which are formed on a side of one end of an outer peripheral surface and protrude radially outward; and second elastic body locking parts which are formed on a side of the other end of the outer peripheral surface and protrude radially outward, and the first elastic body locking parts and the second elastic body locking parts are located at positions which do not overlap each other as seen in an imaginary plane perpendicular to an axis of the bearing main body.