mhurhangee/ep-ind-claims huggingface dataset:
An introducer for providing access to the heart, comprising: a valve having a closed state in the absence of an instrument inside the valve and an open state in the presence of the instrument inside the valve, the valve having a first end and a second end and a length of 1,27 cm (0,5 inch), wherein the valve includes a hollow member, and at the first end a shoulder for abutting the apex of the heart; a shaft having a first end and a second end; with a piercing element at the first end of the shaft; the shaft being removably positionable inside the valve in an assembled condition so that the piercing element extends beyond the second end of the valve, and the valve being dimensioned to receive the instrument therein upon removal of the shaft from the valve. a valve having a closed state in the absence of an instrument inside the valve and an open state in the presence of the instrument inside the valve, the valve having a first end and a second end and a length of 1,27 cm (0,5 inch), wherein the valve includes a hollow member, and at the first end a shoulder for abutting the apex of the heart; a shaft having a first end and a second end; with a piercing element at the first end of the shaft; the shaft being removably positionable inside the valve in an assembled condition so that the piercing element extends beyond the second end of the valve, and the valve being dimensioned to receive the instrument therein upon removal of the shaft from the valve.
A misting fan (100, 200, 300, 400), comprising: a host comprising a fan assembly and a nozzle, wherein the fan assembly comprises a fan blade and a motor configured to drive the fan blade, and the nozzle is located on the fan assembly and configured to spray water mist; and a rack configured to support the fan assembly; wherein the rack comprises an extending portion configured to be placed and extending in a plane parallel to a placement plane of the external environment; and the misting fan is provided with a moving wheel for walking, wherein the moving wheel is provided in the extending portion and a battery compartment configured to accommodate a power supply assembly to power the motor, wherein the battery compartment is arranged at an end of the rack away from the moving wheel; wherein an extending direction of the battery compartment and the extending portion obliquely intersect and form a included angle (α), characterized in that the included angle is greater than or equal to 10° and less than or equal to 75°. a host comprising a fan assembly and a nozzle, wherein the fan assembly comprises a fan blade and a motor configured to drive the fan blade, and the nozzle is located on the fan assembly and configured to spray water mist; and a rack configured to support the fan assembly; wherein the rack comprises an extending portion configured to be placed and extending in a plane parallel to a placement plane of the external environment; and the misting fan is provided with a moving wheel for walking, wherein the moving wheel is provided in the extending portion and a battery compartment configured to accommodate a power supply assembly to power the motor, wherein the battery compartment is arranged at an end of the rack away from the moving wheel; wherein an extending direction of the battery compartment and the extending portion obliquely intersect and form a included angle (α), characterized in that the included angle is greater than or equal to 10° and less than or equal to 75°.
A pharmaceutical composition for ocular use comprising an active agent that is: 5-(1,2-dithiolan-3-yl)pentanoic acid; 6,8-dimercaptooctanoic acid; dihydrolipoate; 5-(1,2-thiaselenolan-5-yl)pentanoic acid; 5-(1,2-thiaselenolan-3-yl)pentanoic acid; or a salt or ester thereof, in an amount of 10 μM to 250 μM and at least one pharmaceutically acceptable carrier. 5-(1,2-dithiolan-3-yl)pentanoic acid; 6,8-dimercaptooctanoic acid; dihydrolipoate; 5-(1,2-thiaselenolan-5-yl)pentanoic acid; 5-(1,2-thiaselenolan-3-yl)pentanoic acid; or a salt or ester thereof, in an amount of 10 μM to 250 μM and at least one pharmaceutically acceptable carrier.
A method performed by a card computing device, comprising: hosting on the card computing device a virtualized execution environment comprising an application layer and a platform layer, wherein the virtualized execution environment is configured to host execution of applications written in a platform-independent object-oriented language at the application layer, and to provide device-level functionality at the platform layer to support the execution of the applications; providing on the card computing device a non-secure memory area and a cryptographically secure memory area for the virtualized execution environment, wherein the non-secure memory is accessible via the application layer, and the secure memory area is not directly accessible from the application layer; providing initial data from an application to a key derivation module within the platform layer of the virtualized execution environment; deriving, by the key derivation module using key derivation functionality implemented as part of hardware of the card computer device, a cryptographic key, based on a master key and random data from a random number generator in the platform layer which is initialized using the initial data from the application, wherein the secure memory area represents a security domain "SD" of the card computing device and the master key is stored within this SD; storing the derived key in the cryptographically secure memory area without storing, even temporarily, any portion of the derived key in the non-secure memory; and returning a key reference for the derived key from the key derivation module to the application. hosting on the card computing device a virtualized execution environment comprising an application layer and a platform layer, wherein the virtualized execution environment is configured to host execution of applications written in a platform-independent object-oriented language at the application layer, and to provide device-level functionality at the platform layer to support the execution of the applications; providing on the card computing device a non-secure memory area and a cryptographically secure memory area for the virtualized execution environment, wherein the non-secure memory is accessible via the application layer, and the secure memory area is not directly accessible from the application layer; providing initial data from an application to a key derivation module within the platform layer of the virtualized execution environment; deriving, by the key derivation module using key derivation functionality implemented as part of hardware of the card computer device, a cryptographic key, based on a master key and random data from a random number generator in the platform layer which is initialized using the initial data from the application, wherein the secure memory area represents a security domain "SD" of the card computing device and the master key is stored within this SD; storing the derived key in the cryptographically secure memory area without storing, even temporarily, any portion of the derived key in the non-secure memory; and returning a key reference for the derived key from the key derivation module to the application.
Connector for two workpieces, in particular made of wood, with a first and a second fitting (4, 5), which can be mounted with their one sides (6, 7) on a respective one of the workpieces (2, 3) and can be anchored to one another with their other sides (10, 11) and each have a circumferential edge (12, 13) between the one and the other sides (6, 7, 10, 11), wherein both fittings (4, 5) have an identical shape or are mirror-symmetrical to one another, wherein both fittings (4, 5) each have a projection with an undercut on their other sides (10, 11) and a slot starting from their edges (12, 13) and corresponding to the undercut for anchoring the projection, characterized in that both fittings (4, 5) each have a protrusion running transversely to the direction of the slot on their other sides (10, 11) for resting of the edge (12, 13) of the respective other fitting (4, 5) when the projection is in its position anchored in the slot.
The use in a method of separating a first liquid from an emulsion of a coalescer device comprising: a container, a draft tube, and a means for causing a vertical flow of fluid (vertical flow causing means) comprising a helical impeller which is rotatable and comprises a first helical element, the first helical element having spaced-apart leading and trailing edges; a longitudinal axis; a length (L e) along its longitudinal axis; an angle of twist (T e) of from 90 degrees (°) to 360° about its longitudinal axis; a diameter (D e) perpendicular to its longitudinal axis; and being dimensioned so as to establish a configuration of the first helical element characterizable by a mathematical relationship between each L e and D e of D e ≤ L e ≤ 2D e, wherein an emulsion is contained in the container, the emulsion comprising a first liquid in a dispersed phase and a second liquid in a continuous phase, the first and second liquids being immiscible in each other; the emulsion having an initial content of the second liquid and being in need of separation; and wherein the draft tube is disposed inside the container and is oriented essentially vertically in the emulsion; and the helical impeller is disposed inside the draft tube and operable for causing a vertical flow of fluid therethrough, the coalescer device being operable for coalescing a first liquid from an emulsion when the emulsion is disposed in the container in operative contact with the draft tube and vertical flow causing means; wherein the method comprises: rotating the helical impeller disposed within the draft tube at a rotation rate of 30 to 120 revolutions per minute and causing a vertically-directed flow of the emulsion through the draft tube; and thereby coalescing together of at least some of the first liquid from the emulsion so as to form a coalesced first liquid layer having a reduced content of the second liquid, the reduced content of the second liquid of the coalesced first liquid layer being lower than the initial content of the second liquid of the emulsion. a container, a draft tube, and a means for causing a vertical flow of fluid (vertical flow causing means) comprising a helical impeller which is rotatable and comprises a first helical element, the first helical element having spaced-apart leading and trailing edges; a longitudinal axis; a length (L e) along its longitudinal axis; an angle of twist (T e) of from 90 degrees (°) to 360° about its longitudinal axis; a diameter (D e) perpendicular to its longitudinal axis; and being dimensioned so as to establish a configuration of the first helical element characterizable by a mathematical relationship between each L e and D e of D e ≤ L e ≤ 2D e, rotating the helical impeller disposed within the draft tube at a rotation rate of 30 to 120 revolutions per minute and causing a vertically-directed flow of the emulsion through the draft tube;
Device for handling tyres, having a vertical column, a vertical guide, a vertical drive and a pivoting drive as well as a fork, which is displaceable in the vertical direction on the vertical guide with the aid of the vertical drive and is pivotable in the horizontal direction with the aid of the pivoting drive, characterized in that the fork has a holder, which is displaceably mounted in the vertical direction on the vertical guide, in that the holder of the fork is additionally mounted pivotably in the horizontal direction on the vertical guide and in that the fork has on its upper side a support for a tyre, on which a tyre can be taken up.
Method for determining the filling level of shirred casing sticks in a shirred casing stick storage in the sausage production, where, for separating said shirred casing sticks, in said shirred casing sticks storage a row R 1 with a first number of consecutively disposed shirred casing sticks is pushed by a pusher during a first stroke cycle along a sloped plane over a separation edge, and once the last shirred casing stick of said row R 1 has been pushed over said separation edge 20, said pusher moves back along said sloped plane and a row R 2 with a second number of consecutively disposed shirred casing sticks is taken by said pusher and pushed in a further stroke cycle in the direction towards said separation edge, characterized in that a control device determines the filling level of shirred casing sticks in said shirred casing stick storage from the number of shirred casing sticks pushed over said separation edge, wherein the filling level of shirred casing sticks in said shirred casing stick storage is determined in dependence of the number of shirred casing sticks of a row R 1 which are pushed over said separation edge in a stroke cycle before said pusher again moves back i. in said shirred casing sticks storage a row R 1 with a first number of consecutively disposed shirred casing sticks is pushed by a pusher during a first stroke cycle along a sloped plane over a separation edge, and once the last shirred casing stick of said row R 1 has been pushed over said separation edge 20, said pusher moves back along said sloped plane and a row R 2 with a second number of consecutively disposed shirred casing sticks is taken by said pusher and pushed in a further stroke cycle in the direction towards said separation edge, characterized in that a control device determines the filling level of shirred casing sticks in said shirred casing stick storage from the number of shirred casing sticks pushed over said separation edge, wherein the filling level of shirred casing sticks in said shirred casing stick storage is determined in dependence of the number of shirred casing sticks of a row R 1 which are pushed over said separation edge in a stroke cycle before said pusher again moves back i.
An interference filter comprising: a first reflecting film, and a second reflecting film disposed to face the first reflecting film with a gap therebetween; characterized in that: the first and second reflecting films (56, 57) respectively include first and second alloy films, each of which is a Ag-Sm-Cu alloy film or a Ag-Bi-Nd alloy film; and the first and second alloy films have a thickness of 30-80 nm. a first reflecting film, and a second reflecting film disposed to face the first reflecting film with a gap therebetween; characterized in that: the first and second reflecting films (56, 57) respectively include first and second alloy films, each of which is a Ag-Sm-Cu alloy film or a Ag-Bi-Nd alloy film; and the first and second alloy films have a thickness of 30-80 nm. the first and second reflecting films (56, 57) respectively include first and second alloy films, each of which is a Ag-Sm-Cu alloy film or a Ag-Bi-Nd alloy film; and the first and second alloy films have a thickness of 30-80 nm.
Method for determining an effective area of an emergency stop button in an operating area inside an industrial installation, consisting of individual installation parts (B1... B4, B12... B18) which are operatively connected to one another and are distributed in a space, using a first three-dimensional model for the space comprising the installation, and using a second three-dimensional model for the outer boundaries for each installation part taking into account the visibility of the respective installation part (B1... B4, B12... B18), and information relating to the spatial orientation of the installation parts in the model of the space, having the following steps of: a) determining a first possible viewpoint inside the operating area, b) determining the installation parts visible from this viewpoint on the basis of the first model of the space and the second model of the installation parts and the information relating to the orientation of the installation parts with the aid of a ray tracing algorithm, c) determining whether a sufficient number of viewpoints inside the operating area has been taken into account and continuing with step e) or determining a further possible viewpoint, d) carrying out step b) for the further viewpoint, e) determining the installation parts visible from the operating area by evaluating the results from step b), and f) implementing the results from step e) by adding calls of suitable safety functions to emergency button activation. a) determining a first possible viewpoint inside the operating area, b) determining the installation parts visible from this viewpoint on the basis of the first model of the space and the second model of the installation parts and the information relating to the orientation of the installation parts with the aid of a ray tracing algorithm, c) determining whether a sufficient number of viewpoints inside the operating area has been taken into account and continuing with step e) or determining a further possible viewpoint, d) carrying out step b) for the further viewpoint, e) determining the installation parts visible from the operating area by evaluating the results from step b), and f) implementing the results from step e) by adding calls of suitable safety functions to emergency button activation.
A multilayer textile sleeve (10; 110), comprising: a textile wall (12; 112) having opposite edges (14, 16; 114, 116) extending lengthwise along a longitudinal axis of the sleeve between opposite ends (18, 20; 118, 120), said opposite edges overlapping one another along the length of the sleeve to bound a central cavity (22; 122) of the sleeve, said wall having an inner layer (24; 124) with opposite inner and outer faces (28, 30; 128, 130) and an outer layer (26; 126) with opposite inner and outer faces (32, 34; 132, 134), wherein at least one of said inner and outer layers (24, 26; 124, 126) includes heat-settable weft yarns (35, 39) oriented to bias said wall (12; 112) into a self-wrapped tubular configuration, and wherein said inner and outer layers (24, 26; 124, 126) overlap one another and are constructed of interlinked yarn; characterized in that: said inner and outer layers (24, 26; 124, 126) are integrally connected to one another across interlinked portions extending along the width of the textile wall (12; 112) at least adjacent each of said opposite edges (14, 16; 114, 116), said interlinked portions having said inner and outer layers overlapping one another in radially aligned fashion with one another and being connected to one another by displacement of at least some of the yarns (35, 39) of one or both layers (24, 26; 124, 126) into the path of at least some of the yarns (37, 41) of the other layer so as to be interlinked therewith by yarn common to each of said inner and outer layers. a textile wall (12; 112) having opposite edges (14, 16; 114, 116) extending lengthwise along a longitudinal axis of the sleeve between opposite ends (18, 20; 118, 120), said opposite edges overlapping one another along the length of the sleeve to bound a central cavity (22; 122) of the sleeve, said wall having an inner layer (24; 124) with opposite inner and outer faces (28, 30; 128, 130) and an outer layer (26; 126) with opposite inner and outer faces (32, 34; 132, 134), wherein at least one of said inner and outer layers (24, 26; 124, 126) includes heat-settable weft yarns (35, 39) oriented to bias said wall (12; 112) into a self-wrapped tubular configuration, and wherein said inner and outer layers (24, 26; 124, 126) overlap one another and are constructed of interlinked yarn; said inner and outer layers (24, 26; 124, 126) are integrally connected to one another across interlinked portions extending along the width of the textile wall (12; 112) at least adjacent each of said opposite edges (14, 16; 114, 116), said interlinked portions having said inner and outer layers overlapping one another in radially aligned fashion with one another and being connected to one another by displacement of at least some of the yarns (35, 39) of one or both layers (24, 26; 124, 126) into the path of at least some of the yarns (37, 41) of the other layer so as to be interlinked therewith by yarn common to each of said inner and outer layers.
Device for forming the gable surfaces of packages with an oblique gable, comprising: - a conveyor device with cells fastened thereto for receiving the packages, - at least one gable folder to fold a fin seam in the gable region of the packages and - at least two lug folders (26A, 26B) to fold lugs in the gable region of the packages, - wherein both the gable folder and the lug folders (26A, 26B) are mounted so as to be movable relative to the conveyor device and the packages transported thereby, characterised in that the gable folder is mounted so as to be movable in one plane and has at least two-dimensional mobility. - a conveyor device with cells fastened thereto for receiving the packages, - at least one gable folder to fold a fin seam in the gable region of the packages and - at least two lug folders (26A, 26B) to fold lugs in the gable region of the packages, - wherein both the gable folder and the lug folders (26A, 26B) are mounted so as to be movable relative to the conveyor device and the packages transported thereby, characterised in that the gable folder is mounted so as to be movable in one plane and has at least two-dimensional mobility.
A method for controlling vibrations in parts, the parts being susceptible to bending deformation when machined, characterized in that it comprises the steps of: - selecting a system comprising displacement means, actuation means and fixing means; - displacing the system to the part using the displacement means; - fixing the actuation means firmly to the part using the fixing means; and - applying a force against the part using the actuation means in order to actively dampen vibrations when machining the part. - selecting a system comprising displacement means, actuation means and fixing means; - displacing the system to the part using the displacement means; - fixing the actuation means firmly to the part using the fixing means; and - applying a force against the part using the actuation means in order to actively dampen vibrations when machining the part.
Apparatus for transporting a cover (K 1, K 2, K 3), comprising: a cover inlet transport; a cover turning unit for redirecting and turning the cover (K 1, K 2, K 3); and a cover outlet transport; wherein the cover turning unit, the cover inlet transport and the cover outlet transport are arranged such that at least the cover inlet transport or the cover outlet transport transport the cover (K 1, K 2, K 3) moving through the cover turning unit, wherein the cover inlet transport is configured to effect transport of the cover (K 1, K 2, K 3) in a first transport direction (T 1), wherein the cover outlet transport is configured to effect transport of the cover (K 1, K 2, K 3) in a second transport direction (T 2) differing from the first transport direction (T 1), wherein the cover turning unit is arranged at an angle to the first transport direction (T 1) and the second transport direction (T 2), characterized in that the cover turning unit includes two spaced-apart passive guides for redirecting and turning the cover (K 1, K 2, K 3). a cover inlet transport; a cover turning unit for redirecting and turning the cover (K 1, K 2, K 3); and a cover outlet transport; wherein the cover turning unit, the cover inlet transport and the cover outlet transport are arranged such that at least the cover inlet transport or the cover outlet transport transport the cover (K 1, K 2, K 3) moving through the cover turning unit, wherein the cover inlet transport is configured to effect transport of the cover (K 1, K 2, K 3) in a first transport direction (T 1), wherein the cover outlet transport is configured to effect transport of the cover (K 1, K 2, K 3) in a second transport direction (T 2) differing from the first transport direction (T 1), wherein the cover turning unit is arranged at an angle to the first transport direction (T 1) and the second transport direction (T 2), characterized in that the cover turning unit includes two spaced-apart passive guides for redirecting and turning the cover (K 1, K 2, K 3).