mhurhangee/ep-ind-claims huggingface dataset:
An aqueous adhesive for a tennis ball, the aqueous adhesive comprising rubber latex and a sulfenamide-based vulcanization accelerator, wherein the rubber latex is natural rubber latex and/or synthetic rubber latex, the synthetic rubber in the synthetic rubber latex being styrene-butadiene rubber, acrylonitrile-butadiene rubber, chloroprene rubber, butadiene rubber, isoprene rubber, isobutylene-isoprene rubber, ethylene-propylene rubber, or modified products thereof, and wherein the aqueous adhesive further comprises an inorganic filler in an amount of not less than 10% by weight in terms of a solid content. the rubber latex is natural rubber latex and/or synthetic rubber latex, the synthetic rubber in the synthetic rubber latex being styrene-butadiene rubber, acrylonitrile-butadiene rubber, chloroprene rubber, butadiene rubber, isoprene rubber, isobutylene-isoprene rubber, ethylene-propylene rubber, or modified products thereof, and wherein the aqueous adhesive further comprises an inorganic filler in an amount of not less than 10% by weight in terms of a solid content.
A non-transitory computer-readable medium (46, 48) comprising instructions that, when executed by processing circuitry, cause the processing circuitry to: receive, from an edge device of an industrial automation system (10, 100), data indicative of a type of one or more devices in the industrial automation system, one or more types of data generated by the one or more devices, one or more components included in the one or more devices, firmware of the one or more devices, or any combination thereof; identify, based on the received data, a container from a container repository, wherein the container is implementable on the edge device; and cause a container image for the container to be sent to the edge device. receive, from an edge device of an industrial automation system (10, 100), data indicative of a type of one or more devices in the industrial automation system, one or more types of data generated by the one or more devices, one or more components included in the one or more devices, firmware of the one or more devices, or any combination thereof; identify, based on the received data, a container from a container repository, wherein the container is implementable on the edge device; and cause a container image for the container to be sent to the edge device.
A method of osmotically shocking bacterial cells, the method comprising: providing a first solution comprising cells; providing a second solution; wherein the osmolarity of said first solution is higher than the osmolarity of said second solution; generating a first fluid stream comprising said first solution; generating a second fluid stream comprising said second solution; wherein the flow rate of the second fluid stream is greater than the flow rate of the first fluid stream; continuously combining said first and second fluid streams into a third fluid stream through the use of a T-joint connected to a static mixer; and separating the cells from the third fluid stream which comprises the released periplasmic protein, wherein separation uses a device for the separation of contents of a fluid based upon size or density. providing a first solution comprising cells; providing a second solution; wherein the osmolarity of said first solution is higher than the osmolarity of said second solution; generating a first fluid stream comprising said first solution; generating a second fluid stream comprising said second solution; wherein the flow rate of the second fluid stream is greater than the flow rate of the first fluid stream; continuously combining said first and second fluid streams into a third fluid stream through the use of a T-joint connected to a static mixer; and separating the cells from the third fluid stream which comprises the released periplasmic protein, wherein separation uses a device for the separation of contents of a fluid based upon size or density.
A process for the preparation of an industrial butter comprising or consisting of the following steps: (i) separating raw milk into a skimmed milk fraction and a cream fraction; (ii) while adding water, separating the cream fraction of step (i) into a milk phase and an aqueous protein-lactose phase, which contains more than 90% by weight of the proteins contained in the cream and the lactose; (iii) adding anhydrous milk fat or other hard milk fat to the milk phase of step (ii) in an amount of 2 to 25% by weight and subsequent homogenisation; (iv) cooling the homogenised mass while shearing subjecting the homogenised mass of step (iii) to cooling within at least two serially connected scraped surface heat exchangers; (v) shaping the hardened industrial butter thus obtained. (i) separating raw milk into a skimmed milk fraction and a cream fraction; (ii) while adding water, separating the cream fraction of step (i) into a milk phase and an aqueous protein-lactose phase, which contains more than 90% by weight of the proteins contained in the cream and the lactose; (iii) adding anhydrous milk fat or other hard milk fat to the milk phase of step (ii) in an amount of 2 to 25% by weight and subsequent homogenisation; (iv) cooling the homogenised mass while shearing subjecting the homogenised mass of step (iii) to cooling within at least two serially connected scraped surface heat exchangers; (v) shaping the hardened industrial butter thus obtained.
A device for ablating tissue, the device comprising: a radio frequency generator configured to apply a first radio frequency current to a target tissue, and apply a second radio frequency current that is different from the frequency of the first radio frequency current to the target tissue such that the second radio frequency current interferes with the first radio frequency current to generate an interferential ablation current within the target tissue, wherein the first radio frequency current is applied through a first set of electrodes, and the second radio frequency current is applied through a second set of electrodes spaced from the first set of electrodes and wherein the generated interferential ablation current includes a frequency in the range of 50 kHz to 1 MHz, characterized in that the first radio frequency current has a frequency in the range of 2MHz to 20 MHz, and the second radio frequency current has a frequency in the range of 2MHz to 20MHz.
A propulsive aircraft gas turbine engine comprising: a turbine (208, 209) disposed in a gas turbine engine core flow; a recuperator heat exchanger disposed downstream of the turbine (208, 209) in gas turbine engine core flow and installed adjacent a radially inner wall of a gas turbine core exhaust nozzle, the recuperator heat exchanger being configured to transfer heat from the gas turbine engine core flow to gas turbine engine fuel; wherein the recuperator heat exchanger is configured to accommodate a portion of the gas turbine engine core flow therethrough, the remainder being bypassed around the recuperator heat exchanger; and wherein the engine exhaust nozzle comprises a generally radially inner recuperator flow and a generally radially outer core bypass flow, the recuperator being provided within a core centre body of the gas turbine engine, aft of the turbine (208, 209); characterised in that: the gas turbine engine comprises an axially translating turbine centre body (606a, 606b) configured to vary an outlet area of the recuperator. a turbine (208, 209) disposed in a gas turbine engine core flow; a recuperator heat exchanger disposed downstream of the turbine (208, 209) in gas turbine engine core flow and installed adjacent a radially inner wall of a gas turbine core exhaust nozzle, the recuperator heat exchanger being configured to transfer heat from the gas turbine engine core flow to gas turbine engine fuel; wherein the recuperator heat exchanger is configured to accommodate a portion of the gas turbine engine core flow therethrough, the remainder being bypassed around the recuperator heat exchanger; and wherein the engine exhaust nozzle comprises a generally radially inner recuperator flow and a generally radially outer core bypass flow, the recuperator being provided within a core centre body of the gas turbine engine, aft of the turbine (208, 209); characterised in that: the gas turbine engine comprises an axially translating turbine centre body (606a, 606b) configured to vary an outlet area of the recuperator.
A panel for a lightweight construction, comprising: - a frame intended to be positioned horizontally, - an apron formed by a plurality of slats filling the frame with parallel longitudinal axes, - motor means (10, 11) for driving the rotation of each slat around its longitudinal axis (XX'), called pivot axis, to move the slats between an open position, in which the mid-plane of the slats extends orthogonally to the plane of the frame, and a closed position in which the mid-plane of the slats extends substantially parallel to the plane of the frame, - motor means (6, 7) for driving the sliding movement of each slat along a direction substantially parallel to one side, called longitudinal, of the frame between a retracted position of the apron, in which the longitudinal pivot axes (XX') of the slats in the open position are brought closer to one another along a transverse side of the frame, and a deployed position of the apron in which the longitudinal pivot axes (XX') of the slats are separated from one another, and noting that each longitudinal side of the frame is a hollow body defining a cavity inside which the means (10, 11; 6, 7) for driving the rotation and sliding movement of each slat are at least partially housed. - a frame intended to be positioned horizontally, - an apron formed by a plurality of slats filling the frame with parallel longitudinal axes, - motor means (10, 11) for driving the rotation of each slat around its longitudinal axis (XX'), called pivot axis, to move the slats between an open position, in which the mid-plane of the slats extends orthogonally to the plane of the frame, and a closed position in which the mid-plane of the slats extends substantially parallel to the plane of the frame, - motor means (6, 7) for driving the sliding movement of each slat along a direction substantially parallel to one side, called longitudinal, of the frame between a retracted position of the apron, in which the longitudinal pivot axes (XX') of the slats in the open position are brought closer to one another along a transverse side of the frame, and a deployed position of the apron in which the longitudinal pivot axes (XX') of the slats are separated from one another,
A system for controlling the display of information to a user, comprising: a display; a first processor configured to operate a first application, and configured to be in communication with said display for generating first information to be displayed on said display; a second processor configured to operate a second application, and configured to be in communication with said display for generating second information to be displayed on said display; a video controller configured to be controlled by said first processor that is interfaced with both of said processors and configured to control the displaying of said first information and second information on said display; and said first processor further configured to control said display so that the presentation of said second information on said display can be modified depending on the operation of said first application wherein when said first information is of a higher priority than said second information, said first processor is configured to interrupt the presentation of said second information to display said first information. a display; a first processor configured to operate a first application, and configured to be in communication with said display for generating first information to be displayed on said display; a second processor configured to operate a second application, and configured to be in communication with said display for generating second information to be displayed on said display; a video controller configured to be controlled by said first processor that is interfaced with both of said processors and configured to control the displaying of said first information and second information on said display; and said first processor further configured to control said display so that the presentation of said second information on said display can be modified depending on the operation of said first application wherein when said first information is of a higher priority than said second information, said first processor is configured to interrupt the presentation of said second information to display said first information.
A photonic particle configured to emit light when energetically excited, the particle comprising: a gain medium including one or more inorganic materials; an optical cavity having a refractive index greater than 2, wherein the gain medium is situated in the optical cavity; and a coating covering all of the optical cavity, the coating including one or more organic materials, wherein the particle is configured to be placed for suspension in a biological sample for emission of coherent light inside the biological sample when the particle is energetically excited, and the particle is a stand-alone particle having a three-dimensional shape that is not greater than 3 micrometers along its longest axis. a gain medium including one or more inorganic materials; an optical cavity having a refractive index greater than 2, wherein the gain medium is situated in the optical cavity; and a coating covering all of the optical cavity, the coating including one or more organic materials, wherein the particle is configured to be placed for suspension in a biological sample for emission of coherent light inside the biological sample when the particle is energetically excited, and the particle is a stand-alone particle having a three-dimensional shape that is not greater than 3 micrometers along its longest axis.
A flange assistant for connecting adjacent tower sections, whereby each tower section comprises a tower section shell, a tower section flange (21_int, 21_ext), and a radius transition between the tower section shell and the tower section flange (21_int, 21_ext); characterised in that the flange assistant comprises an extension formed to complement, in use, the radius transition such that the flange assistant extends into a transition zone of a tower section.
An arrangement for generating white light, having - support element, - a first LED arranged on the support element for generating a red light, - a second LED arranged on the support element for generating a blue and/or ultraviolet light, - a light-influencing element, which is designed and arranged in such a manner that it converts at least a portion of the light generated by the second LED into a green light, in particular into a mint green and/or greenish white light, - a third LED arranged on the support element for generating a blue and/or ultraviolet light, - a second light-influencing element, which is designed and arranged in such a manner that it converts at least a portion of the light generated by the third LED into a light of a second different color, specifically into a further green light, which differs in its color from the first-mentioned green light, wherein the light-influencing element has phosphorus particles, characterized in that the second light-influencing element has second phosphorus particles, which differ in their optical properties from the phosphorus particles of the first-mentioned light-influencing element. - support element, - a first LED arranged on the support element for generating a red light, - a second LED arranged on the support element for generating a blue and/or ultraviolet light, - a light-influencing element, which is designed and arranged in such a manner that it converts at least a portion of the light generated by the second LED into a green light, in particular into a mint green and/or greenish white light, - a third LED arranged on the support element for generating a blue and/or ultraviolet light, - a second light-influencing element, which is designed and arranged in such a manner that it converts at least a portion of the light generated by the third LED into a light of a second different color, specifically into a further green light, which differs in its color from the first-mentioned green light,
A method for preparing a polysilicon rod in a deposition reactor by using a metallic core means, comprising installing a core means in an inner space of a deposition reactor used for preparing a silicon rod, wherein the core means is constituted by forming one or a plurality of separation layer(s) on the surface of a metallic core element and is connected to an electrode means, in an inner space of the deposition reactor, which is heated by supplying electricity through an electrode means connected to the metallic core means, and by supplying a reaction gas into the inner space for forming a deposition output in an outward direction on the surface of the core means, wherein a barrier component constituting each layer of the separation layer(s) is selected from the group consisting of silicon nitride, silicon oxide, silicon carbide, silicon oxynitride and a mixture thereof, or from a nitride, an oxide, a silicide, a carbide, an oxynitride or an oxysilicide comprising at least one metal element selected from the group consisting of tungsten, rhenium (Re), osmium (Os), tantalum (Ta), molybdenum (Mo), niobium (Nb), iridium (Ir), ruthenium (Ru), technetium (Tc), hafnium (Hf), rhodium (Rh), vanadium, chromium (Cr), zirconium (Zr), platinum (Pt), thorium (Th), lanthanum (La), titanium (Ti), lutetium (Lu), yttrium, and a mixture thereof, with the proviso that the said installing is not an installing of a first core means made of a resistive material together with a second core means made of a silicon material in an inner space of a deposition reactor.
A computer-readable storage medium (104, 108, or 110) storing computer-executable instructions which, when executed by a computer, cause the computer to perform a method comprising: receiving a query and re-writing the query to contain data parallel operations that include partitioning and merging, wherein the query identifies an input data source; partitioning the data source into a partitioned data source that includes a plurality of disjoint partitions; performing a parallel execution of the query with a plurality of producers using the partitioned data source, thereby producing output data, wherein each producer receives a different one of the partitions, and wherein each producer processes the received partition based on the query; consuming the output data with at least one consumer, a consumer being a processor or a thread; monitoring the at least one consumer; determining whether to stop producing output data by at least one of the producers prior to completion of the execution of the query based on the monitoring (314 or 318); and placing at least one of the producers in a quiescent state when the monitoring indicates that the at least one consumer has stopped consuming output data for more than a threshold period of time, thereby causing the at least one producers to be placed in the quiescent state to stop producing output data, wherein a producer in a quiescent state is an object stored on a heap representing an in-progress, resumable computation. receiving a query and re-writing the query to contain data parallel operations that include partitioning and merging, wherein the query identifies an input data source; partitioning the data source into a partitioned data source that includes a plurality of disjoint partitions; performing a parallel execution of the query with a plurality of producers using the partitioned data source, thereby producing output data, wherein each producer receives a different one of the partitions, and wherein each producer processes the received partition based on the query; consuming the output data with at least one consumer, a consumer being a processor or a thread; monitoring the at least one consumer; determining whether to stop producing output data by at least one of the producers prior to completion of the execution of the query based on the monitoring (314 or 318); and placing at least one of the producers in a quiescent state when the monitoring indicates that the at least one consumer has stopped consuming output data for more than a threshold period of time, thereby causing the at least one producers to be placed in the quiescent state to stop producing output data, wherein a producer in a quiescent state is an object stored on a heap representing an in-progress, resumable computation.
Metering device for metered introduction of a bulk cleaning agent into a processing chamber of a program-controlled cleaning appliance, in particular a dishwasher, comprising a storage container intended for accommodating the cleaning agent and a supporting unit which is mounted so as to be rotatable in a motorised manner and exchangeably receives the storage container, the storage container comprising a storage chamber and a metering chamber that opens into a metering opening, the metering chamber being provided by a metering element, characterised in that the metering element is arranged so as to be movable inside the storage container and is transferable from a non-metering position into a metering position, in which cleaning agent can flow over from the storage chamber into the metering chamber, it being possible for cleaning agent dispensed from the storage chamber to flow through the metering chamber and to be dispensed via the metering opening towards the processing chamber of the cleaning appliance.
Method for selecting a prosthesis (16; 20) intended to be fitted to a patient, comprising the following steps: (a) obtaining, in digital form, of a radiological image of the area of the body of the patient intended to receive the prosthesis (16; 20), the image comprising the representation of a reference radio-opaque object arranged in proximity to said area; (b) superimposition, on the radiological image, of a digital overlay representing the prosthesis or an element (16; 20) of said prosthesis for the positioning thereof; characterized in that in the step (b), the overlay (14; 22) comprises a register mark (18; 24) intended to be superimposed on the representation of the reference object by moving the overlay, the size of said overlay being varied such that the size of the register mark (18; 24) corresponds to that of the representation of the reference object, so as to match the respective scales of the radiological image and of the overlay (14; 22). (a) obtaining, in digital form, of a radiological image of the area of the body of the patient intended to receive the prosthesis (16; 20), the image comprising the representation of a reference radio-opaque object arranged in proximity to said area; (b) superimposition, on the radiological image, of a digital overlay representing the prosthesis or an element (16; 20) of said prosthesis for the positioning thereof;