mhurhangee/ep-ind-claims huggingface dataset:
Phase separator for application in the HVAC-technology with corresponding typical multi-phase mixture velocities, the phase separator comprising a housing with a main inlet and a main outlet and one or more secondary outlets (5,6), the main inlet arranged for allowing the multi-phase mixture to enter the phase separator and the main outlet arranged for allowing the treated multi-phase mixture to leave the phase separator, i.e. after separation of phase entities from the multi-phase mixture, the phase separator between the main inlet and the main outlet being provided of a flow-through passage comprising a path for the main stream of the multi-phase mixture, the one or more secondary outlets (5,6) arranged for allowing the separated phase entities to leave the phase separator, characterized in that the phase separator further comprises compartmentalization means configured as at least two partition walls providing in the space enclosed by the said housing different zones respectively, an inlet zone in which said main inlet gives out, at least one intermediate zone between two of said at least two walls, in which intermediate zone said one or more secondary outlets (5,6) give out, and an outlet zone in which said main outlet gives out, whereby each of said partition walls is provided with at least one opening with circumferential edge which for at least 75% of its total length is positioned at a distance from the circumferential edge of the wall through which these openings extend, whereby each of said partition walls is provided with exactly one circular and centrally positioned opening resulting in an undivided flow-through passage between the main inlet and the main outlet, the openings being arranged for providing one or a series of quiet flow compartments along the path of the flow-through passage, where in a quiet flow compartment phase entities to be separated from the multi-phase mixture are given an improved environment to settle or rise.
A sole for an article of footwear, the sole comprising: a first continuous dispensed component forming a first layer and a second layer; wherein the first layer is disposed directly on top of the second layer, wherein the first continuous dispensed component forms a perimeter of the sole, the perimeter of the sole forming a medial sidewall and a lateral sidewall, wherein the first layer comprises a starting point where the first continuous dispensed component is first dispensed, wherein the first layer is a top layer of both the medial sidewall and the lateral sidewall and extends entirely around the perimeter of the sole, and wherein the first continuous dispensed component continuously transitions from the first layer to the second layer at the starting point; a second dispensed component disposed within the perimeter of the sole and following along the entire interior side of the first continuous dispensed component; and a third dispensed component disposed within the second dispensed component and in a forefoot of the sole. a first continuous dispensed component forming a first layer and a second layer; wherein the first layer is disposed directly on top of the second layer, wherein the first continuous dispensed component forms a perimeter of the sole, the perimeter of the sole forming a medial sidewall and a lateral sidewall, wherein the first layer comprises a starting point where the first continuous dispensed component is first dispensed, wherein the first layer is a top layer of both the medial sidewall and the lateral sidewall and extends entirely around the perimeter of the sole, and wherein the first continuous dispensed component continuously transitions from the first layer to the second layer at the starting point; a second dispensed component disposed within the perimeter of the sole and following along the entire interior side of the first continuous dispensed component; and a third dispensed component disposed within the second dispensed component and in a forefoot of the sole.
Device for transferring flat folded and upright standing package sleeves to a further processing unit, in particular a filling machine for liquid or pasty products, wherein a certain number of package sleeves are provided in an outer package and wherein the outer packages of the package sleeves are opened and removed, having at least one gripping element located on a robot arm for transporting an outer package to a cutting and unpacking station, elements for cutting and unpacking the package sleeves, at least one suction device is provided for sucking off the cutting dust produced during cutting, and a gripping device for gripping the upright standing package sleeves freed from the outer package and for transferring them to the further processing unit, characterised in that the gripping device comprises at least one longitudinal side guide and that for supporting the end faces of the upright standing package sleeves, one end face of the gripping device is provided with a fixed support and a further variable support is arranged on the opposite side in order to compress the package sleeves.
Shelter for aquatic biodiversity, and mainly for fish life, featuring a chamber defining an inner space and including an inlet defined by sides delineating a perimeter of a width, characterised in that said inlet features columns (4f, 4b) parallel to one another and each extending from a first side of the perimeter of the inlet to a free end of each column, and distributed on an outer row and an inner row, substantially parallel to one another and arranged in a staggered distribution over the entire width of the inlet, in that each column has a length such that that the free end is at a distance (h), ranging from 30 to 100 mm, of a side opposite the first side, and in that each column, arranged on the outer row is separated from the closest columns arranged on the inner row by a distance (d min) ranging from 10 to 200 mm.
A valve device for controlling an oil pump, the device comprising: a valve unit having a holder and a spool disposed in the holder, where the valve unit is configured for controlling flow of fluid; and a solenoid unit configured for controlling the spool, wherein the spool includes: a rod-shaped spool body; a ring-shaped first land disposed on a top portion of the spool body, wherein the first land has an open top; a ring-shaped second land disposed on a middle portion of the spool body; a ring-shaped third land disposed on a lower portion of the spool body; a vent hole defined in the spool body and disposed between the second land and the third land; a spool fluid channel defined in the spool body to communicate the vent hole and the open top of the first land with each other; characterized by a spool notch partially defined in a lateral portion of the third land for communicating an inner space of the solenoid unit with the vent hole. a valve unit having a holder and a spool disposed in the holder, where the valve unit is configured for controlling flow of fluid; and a solenoid unit configured for controlling the spool, wherein the spool includes: a rod-shaped spool body; a ring-shaped first land disposed on a top portion of the spool body, wherein the first land has an open top; a ring-shaped second land disposed on a middle portion of the spool body; a ring-shaped third land disposed on a lower portion of the spool body; a vent hole defined in the spool body and disposed between the second land and the third land; a spool fluid channel defined in the spool body to communicate the vent hole and the open top of the first land with each other; characterized by a spool notch partially defined in a lateral portion of the third land for communicating an inner space of the solenoid unit with the vent hole. a rod-shaped spool body; a ring-shaped first land disposed on a top portion of the spool body, wherein the first land has an open top; a ring-shaped second land disposed on a middle portion of the spool body; a ring-shaped third land disposed on a lower portion of the spool body; a vent hole defined in the spool body and disposed between the second land and the third land; a spool fluid channel defined in the spool body to communicate the vent hole and the open top of the first land with each other; characterized by a spool notch partially defined in a lateral portion of the third land for communicating an inner space of the solenoid unit with the vent hole.
A transportation system for semiconductor module base plates comprises a frame; and a plurality of spacer elements, wherein each of the plurality of spacer elements comprises a distance holding element, a first pin on a first side of the distance holding element, and a second pin on a second side of the distance holding element, and wherein each of the plurality of spacer elements is configured to be arranged between two of a plurality of semiconductor module base plates, each of the first pin and second pin is configured to engage with a corresponding counterpart of one of the base plates when the corresponding transportation system is arranged between two semiconductor module base plates, two or more spacer elements are interconnected by the frame, the transportation system is configured to transport either unequipped semiconductor module base plates configured to have at least one semiconductor substrate or semiconductor body mounted thereon, or assembled semiconductor module base plates having at least one semiconductor substrate or semiconductor body mounted thereon, and the frame is configured to not directly contact the base plates when the spacer elements are engaged with the base plates. a frame; and a plurality of spacer elements, wherein each of the plurality of spacer elements comprises a distance holding element, a first pin on a first side of the distance holding element, and a second pin on a second side of the distance holding element, and wherein each of the plurality of spacer elements is configured to be arranged between two of a plurality of semiconductor module base plates, each of the first pin and second pin is configured to engage with a corresponding counterpart of one of the base plates when the corresponding transportation system is arranged between two semiconductor module base plates, two or more spacer elements are interconnected by the frame, the transportation system is configured to transport either unequipped semiconductor module base plates configured to have at least one semiconductor substrate or semiconductor body mounted thereon, or assembled semiconductor module base plates having at least one semiconductor substrate or semiconductor body mounted thereon, and the frame is configured to not directly contact the base plates when the spacer elements are engaged with the base plates.
A slidable rubber material, which has an amino-modified interfacial modification layer, comprising: a rubber part containing a rubber component selected from the group consisting of butyl rubber, halogenated butyl rubber and polychloroprene rubber, a filler, a vulcanization agent and a vulcanizing auxiliary agent; an interfacial modification layer which coats the rubber part and in which an amino-modified silicone compound as amino-modified silicone oil is incorporated and/or reacted with surface molecules of the rubber part; and a coating layer which coats the interfacial modification layer and contains solid fine particles having an average particle size of 0.01-30 μm by laser diffraction-type particle distribution measurement, an addition-type and/or condensation-type silicone rubber in which the solid fine particles are dispersed, and a curing catalyst for the silicone rubber, and a thickness of the coating layer is 5-30 μm. a rubber part containing a rubber component selected from the group consisting of butyl rubber, halogenated butyl rubber and polychloroprene rubber, a filler, a vulcanization agent and a vulcanizing auxiliary agent; an interfacial modification layer which coats the rubber part and in which an amino-modified silicone compound as amino-modified silicone oil is incorporated and/or reacted with surface molecules of the rubber part; and a coating layer which coats the interfacial modification layer and contains solid fine particles having an average particle size of 0.01-30 μm by laser diffraction-type particle distribution measurement, an addition-type and/or condensation-type silicone rubber in which the solid fine particles are dispersed, and a curing catalyst for the silicone rubber, and a thickness of the coating layer is 5-30 μm.
A production method of an electrode comprising activated carbon, characterized by comprising the following steps: - mixing 5-90% by weight of activated carbon granules with a 5-90% by weight of a thermoplastic powder; - adding 3-10% by weight of water to the said mixture; - heating the aqueous mixture to 135-145°C; - stirring the heated mixture at the said temperature for a predetermined period of time; - pouring the hot mixture into a mold and pressing it at a pressure of 500-2000 bar so as to produce an electrode; - removing the produced electrode from the mold so as to allow it to cool down. - mixing 5-90% by weight of activated carbon granules with a 5-90% by weight of a thermoplastic powder; - adding 3-10% by weight of water to the said mixture; - heating the aqueous mixture to 135-145°C; - stirring the heated mixture at the said temperature for a predetermined period of time; - pouring the hot mixture into a mold and pressing it at a pressure of 500-2000 bar so as to produce an electrode; - removing the produced electrode from the mold so as to allow it to cool down.
Method for producing a metal powder, which comprises the following steps of: - melting at least one metal, in particular from the group Al, Zn, Sn, Fe, Mg, Zr, W, Sb, Ni, Cu, Ag, Au, in a tundish; - pouring a melt from the tundish via at least one nozzle onto a rotating turntable, causing the melt to be atomized into droplets by striking the rotating turntable; - cooling the atomized droplets, causing the droplets to solidify into metal powder particles, characterized in that a specific region of the rotating turntable, in which the melt strikes the rotating turntable, is adjusted either by the tundish and/or the at least one nozzle for pouring out the melt by movement in a radial direction with respect to the turntable in order to adjust the size and/or the shape of the metal powder particles. - melting at least one metal, in particular from the group Al, Zn, Sn, Fe, Mg, Zr, W, Sb, Ni, Cu, Ag, Au, in a tundish; - pouring a melt from the tundish via at least one nozzle onto a rotating turntable, causing the melt to be atomized into droplets by striking the rotating turntable; - cooling the atomized droplets, causing the droplets to solidify into metal powder particles, characterized in that a specific region of the rotating turntable, in which the melt strikes the rotating turntable, is adjusted either by the tundish and/or the at least one nozzle for pouring out the melt by movement in a radial direction with respect to the turntable in order to adjust the size and/or the shape of the metal powder particles.
A method, comprising: determining that user input received on a first device satisfies a first condition, the first condition for the user input being associated with selecting content for output, and the user input being independent of initiating output of the content, wherein a machine learning model is used to determine whether the user input received on the first device satisfies the first condition, wherein the first condition comprises a likelihood of a user selecting the content, and wherein the machine learning model has been trained with user interaction data associated with a set of users; determining that a positioning of the first device relative to a second device satisfies a second condition comprising the first device being within a predefined distance of the second device; and providing, based on determining that the first and second conditions have been satisfied, an interface element on the first device for initiating output of the content on the second device. determining that user input received on a first device satisfies a first condition, the first condition for the user input being associated with selecting content for output, and the user input being independent of initiating output of the content, wherein a machine learning model is used to determine whether the user input received on the first device satisfies the first condition, wherein the first condition comprises a likelihood of a user selecting the content, and wherein the machine learning model has been trained with user interaction data associated with a set of users; determining that a positioning of the first device relative to a second device satisfies a second condition comprising the first device being within a predefined distance of the second device; and providing, based on determining that the first and second conditions have been satisfied, an interface element on the first device for initiating output of the content on the second device.
A method of forming a fibre incorporating a nanowire, the method comprising the step of: forming a preform structure comprising a central portion supported by a support structure (12, 14), and an outer portion surrounding the central portion and the support structure (12,14), characterised in that the method comprises the further step of drawing the preform structure until the central portion is a nanowire, wherein after drawing the fibre has an outer width of 100-200microns and a core size ranging from the order of nanometres up to hundreds of nanometres. forming a preform structure comprising a central portion supported by a support structure (12, 14), and an outer portion surrounding the central portion and the support structure (12,14), characterised in that the method comprises the further step of drawing the preform structure until the central portion is a nanowire, wherein after drawing the fibre has an outer width of 100-200microns and a core size ranging from the order of nanometres up to hundreds of nanometres.
A method for providing access to operation information relating to a digital television signal, the operation information comprising at least one of: a location and type of access unit; timing information; and video decoding information, the method comprising: receiving an encoded digital television signal, encoded in accordance with a layered encoding scheme, in a plurality of layers comprising a first layer comprising an elementary video stream and a second layer comprising a transport stream, wherein the elementary video stream is encapsulated in the transport stream; duplicating operation information from the elementary video stream; and recording a copy of the duplicated operation information in a private data section of an adaptation field in the transport stream, wherein the duplicated operation information: is recorded in the transport stream when the duplicated operation information changes relative to an earlier version of the duplicated operation information and is suitable for performing a trick mode operation on the first layer. a location and type of access unit; timing information; and video decoding information, receiving an encoded digital television signal, encoded in accordance with a layered encoding scheme, in a plurality of layers comprising a first layer comprising an elementary video stream and a second layer comprising a transport stream, wherein the elementary video stream is encapsulated in the transport stream; duplicating operation information from the elementary video stream; and recording a copy of the duplicated operation information in a private data section of an adaptation field in the transport stream, wherein the duplicated operation information: is recorded in the transport stream when the duplicated operation information changes relative to an earlier version of the duplicated operation information and is suitable for performing a trick mode operation on the first layer. is recorded in the transport stream when the duplicated operation information changes relative to an earlier version of the duplicated operation information and is suitable for performing a trick mode operation on the first layer.
A method for producing a chewing gum product having a gum shell and a center fill material, the method comprising: sealing an end of the chewing gum product when a temperature of the center fill is greater than a temperature of the gum shell. sealing an end of the chewing gum product when a temperature of the center fill is greater than a temperature of the gum shell.
A vehicle structure, preferably a vehicle chassis which in its longitudinal direction is of structurally and preferably functionally modular construction, having a front-axle module and a rear-axle module, wherein at least two functional modules (3, 4) are disposed between the front-axle module and the rear-axle module, and the functional modules (3, 4) have in each case a supporting structure (T3, T4) having longitudinal member segments (3.1-3.4, 4.1-4.4) which are mutually spaced apart in the transverse direction of the vehicle structure, wherein the longitudinal member segments (3.1-3.4, 4.1-4.4) of the supporting structures (T3, T4) form longitudinal chassis member structures which are mutually spaced apart in the transverse direction of the vehicle structure, characterized in that - the respective supporting structure (T3, T4) has individual and/or separate connection nodes (K3, K4), - the front-axle module has individual and/or separate connection nodes, and/or - the rear-axle module has individual and/or separate connection nodes, wherein the connection nodes (K3, K4) of the respective supporting structure (T3, T4) serve for the releasable and repeatedly fastenable connection to in each case one longitudinal member segment (3.1-3.4, 4.1-4.4), one cross member segment (3.5-3.8, 4.5-4.8) and one vertical member segment (3.9-3.12, 4.9-4.12) of the respective supporting structure (T3, T4); and wherein the respective supporting structure (T3, T4) has four front connection nodes (K3, K4) and four rear connection nodes (K3, K4), and the four front connection nodes (K3, K4) and the four rear connection nodes (K3, K4) form corner points of the respective supporting structure (T3, T4). - the respective supporting structure (T3, T4) has individual and/or separate connection nodes (K3, K4), - the front-axle module has individual and/or separate connection nodes, and/or - the rear-axle module has individual and/or separate connection nodes, the connection nodes (K3, K4) of the respective supporting structure (T3, T4) serve for the releasable and repeatedly fastenable connection to in each case one longitudinal member segment (3.1-3.4, 4.1-4.4), one cross member segment (3.5-3.8, 4.5-4.8) and one vertical member segment (3.9-3.12, 4.9-4.12) of the respective supporting structure (T3, T4); and wherein the respective supporting structure (T3, T4) has four front connection nodes (K3, K4) and four rear connection nodes (K3, K4), and the four front connection nodes (K3, K4) and the four rear connection nodes (K3, K4) form corner points of the respective supporting structure (T3, T4).