mhurhangee/ep-ind-claims huggingface dataset:
A method for the production of ball-shaped crystals of ammonium perchlorate within a discontinuous crystallization unit comprising - a crystallizer that consists of a metallic cylindrical vessel with its inner surface of a material, having a hardness of at least 120 HB, preferably at least 200 HB, wherein the cylindrical vessel has an oval or circular cross-section with a conical or vaulted bottom, fitted along its length with a double jacket for cooling of the solution and/or suspension of the solution and crystals and a high-speed agitator of a material, having a hardness of at least 120 HB, preferably at least 200 HB, wherein the high-speed agitator has a drive enabling speed control and thus the rate of the impact of the mechanical action of the agitator on roundness of crystals inside the vessel together with the inner surface of the vessel containing at least 2 baffles of a material, having a hardness of at least 120 HB, preferably at least 200 HB, - a circulation circuit; and - an interconnection pipeline which is connected to the bottom of the crystallizer and to at least one branch of a circulation circuit; wherein the vessel comprises at least 1 orifice at the top which is fitted with at least 1 independent branch of a circulation circuit, said circulation circuit being connected to said orifice from the outside by means of at least 1 circulation pump and through at least 1 heat exchanger for the inlet of a heated solution and/or heated suspension of the solution and crystals for ensuring, together with the cooling double jacket controlled periodic changes of temperatures of the crystal suspension around the cooling curve. - a crystallizer that consists of a metallic cylindrical vessel with its inner surface of a material, having a hardness of at least 120 HB, preferably at least 200 HB, wherein the cylindrical vessel has an oval or circular cross-section with a conical or vaulted bottom, fitted along its length with a double jacket for cooling of the solution and/or suspension of the solution and crystals and a high-speed agitator of a material, having a hardness of at least 120 HB, preferably at least 200 HB, wherein the high-speed agitator has a drive enabling speed control and thus the rate of the impact of the mechanical action of the agitator on roundness of crystals inside the vessel together with the inner surface of the vessel containing at least 2 baffles of a material, having a hardness of at least 120 HB, preferably at least 200 HB, - a circulation circuit; and - an interconnection pipeline which is connected to the bottom of the crystallizer and to at least one branch of a circulation circuit;
A medical implant comprising: - a framework which comprises at least one receptacle for an X-ray marker, the framework comprising a first metal, and - at least one monolithic X-ray marker arranged in the receptacle, the X-ray marker comprising a second metal, wherein an electrically insulating coating is applied to the X-ray marker in order to prevent corrosion-promoting contact between the X-ray marker and the framework, characterised in that the coating is swellable, in such a way that it experiences an increase in volume in the event that it comes into contact with a water-containing medium. - a framework which comprises at least one receptacle for an X-ray marker, the framework comprising a first metal, and - at least one monolithic X-ray marker arranged in the receptacle, the X-ray marker comprising a second metal,
An assembly comprising an enclosure containing a gaseous medium and a device for exciting the gaseous medium contained in the enclosure, said device being coupled to said enclosure and disposed outside said enclosure and comprising an applicator able to generate, on at least a portion of said enclosure, a lateral excitation inside said enclosure, characterised in that the enclosure is a hollow-core optical fibre, the core of which has a diameter of less than 300 μm, and in that the applicator is of the microwave type and makes it possible to generate a surface wave able to create and confine a microplasma from the gaseous medium contained in the enclosure.
A binding system comprising a ski jumping boot to be inserted therein, consisting of a shaft with a sole and an adjustable calf spoiler, wherein the calf spoiler attached to the ski jumping boot is movable in two planes; a front holding device for the protruding area of the sole of the ski jumping boot and a heel holding device which can be lifted off the ski and which connects the jumping ski to the ski jumping boot and allows the boot's heel to be lifted up to a predetermined height, wherein the heel holding device comprises a connecting piece which can be connected to the heel of the ski jumping boot and which is embraced by two tension members connected to the jumping ski on opposite sides, the tension members being arranged in parallel to one another and each having a device for limiting the height of the connecting piece, characterised in that the sole, starting from the ball region, is set at an angle a from the outside to the inside of the ski jumping boot in the front region.
A method for establishing a Wi-Fi connection (fig.2), the method comprising: in response to detecting a workstation, determining a Bluetooth binding relationship with the workstation; in response to determining that the Bluetooth binding relationship has already been established with the workstation via Bluetooth, sending a session request to the workstation to request to start a session, wherein the session request comprises binding information; in response to determining that the session has started successfully, requesting Wi-Fi connection parameter information from the workstation via Bluetooth; and in response to receiving the Wi-Fi connection parameter information, establishing the Wi-Fi connection with the work station using the Wi-Fi connection parameter information, wherein the Wi-Fi connection parameter information is encrypted based on the binding information. in response to detecting a workstation, determining a Bluetooth binding relationship with the workstation; in response to determining that the Bluetooth binding relationship has already been established with the workstation via Bluetooth, sending a session request to the workstation to request to start a session, wherein the session request comprises binding information; in response to determining that the session has started successfully, requesting Wi-Fi connection parameter information from the workstation via Bluetooth; and in response to receiving the Wi-Fi connection parameter information, establishing the Wi-Fi connection with the work station using the Wi-Fi connection parameter information, wherein the Wi-Fi connection parameter information is encrypted based on the binding information.
A retaining pin comprising: a body section having an aperture therein; an actuation mechanism arranged at a first end of the body section; a pin, connected at a first end to the actuation mechanism and extending therefrom, through the aperture of the body section; wherein an outer sleeve is arranged around the pin and in contact therewith; and wherein the outer sleeve comprises an expandable section that, upon operation of the actuation means, can be expanded from a first dimension to a second dimension; characterised in that said body section is provided with a suction cup. a body section having an aperture therein; an actuation mechanism arranged at a first end of the body section; a pin, connected at a first end to the actuation mechanism and extending therefrom, through the aperture of the body section; wherein an outer sleeve is arranged around the pin and in contact therewith; and wherein the outer sleeve comprises an expandable section that, upon operation of the actuation means, can be expanded from a first dimension to a second dimension; characterised in that said body section is provided with a suction cup.
Method for layer-wise additive manufacturing of a shaped body made up of slices of processed layers, said method comprising the steps: creating a layer of a slurry, said slurry including binder, a dispersing medium and a particulate filler material, the particulate filler material being a ceramic or glass-ceramic powder, solidifying the slurry layer, directing electromagnetic radiation to the solidified layer for processing it by debinding and/or sintering, and repeating the above-mentioned steps to successively build the shaped body, characterized in that said creating a slurry layer is performed by a laser induced forward transfer (LIFT) process utilizing a laser to direct laser beam pulses to act on a coating of slurry on a carrier to transfer droplets of slurry to a receptor surface to create the slurry layer which is then processed further by above-mentioned steps of solidifying, and debinding and/or sintering. creating a layer of a slurry, said slurry including binder, a dispersing medium and a particulate filler material, the particulate filler material being a ceramic or glass-ceramic powder, solidifying the slurry layer, directing electromagnetic radiation to the solidified layer for processing it by debinding and/or sintering, and repeating the above-mentioned steps to successively build the shaped body, characterized in that said creating a slurry layer is performed by a laser induced forward transfer (LIFT) process utilizing a laser to direct laser beam pulses to act on a coating of slurry on a carrier to transfer droplets of slurry to a receptor surface to create the slurry layer which is then processed further by above-mentioned steps of solidifying, and debinding and/or sintering.
A method for resource allocation management, the method comprising: identifying a first key identifier associated with a first virtual machine, VM, a second key identifier associated with a second VM, and an address of a memory page (126-n) allocated to the first VM; allocating the memory page to the second VM, comprising: invalidating a first mapping of the memory page to the first VM; generating a second mapping of the memory page to the second VM; generating a message authentication code for each cache line comprising the memory page based on the second key identifier and initializing the MAC for each cache line of the memory page with a non-temporal write; the non-temporal write comprising a write to the cache line without reading the cache line from the memory page; wherein if a processing core locates an evaluation address in snoop filter hardware, then the processing core invalidates the corresponding cache line in the cache hierarchy; wherein the evaluation address is invalidated in a last level cache, LLC, by sending invalidation messages for each cache line in the page to the LLC slices where the cache line maps to. identifying a first key identifier associated with a first virtual machine, VM, a second key identifier associated with a second VM, and an address of a memory page (126-n) allocated to the first VM; allocating the memory page to the second VM, comprising: invalidating a first mapping of the memory page to the first VM; generating a second mapping of the memory page to the second VM; generating a message authentication code for each cache line comprising the memory page based on the second key identifier and initializing the MAC for each cache line of the memory page with a non-temporal write; the non-temporal write comprising a write to the cache line without reading the cache line from the memory page; wherein if a processing core locates an evaluation address in snoop filter hardware, then the processing core invalidates the corresponding cache line in the cache hierarchy; wherein the evaluation address is invalidated in a last level cache, LLC, by sending invalidation messages for each cache line in the page to the LLC slices where the cache line maps to. invalidating a first mapping of the memory page to the first VM; generating a second mapping of the memory page to the second VM; generating a message authentication code for each cache line comprising the memory page based on the second key identifier and initializing the MAC for each cache line of the memory page with a non-temporal write; the non-temporal write comprising a write to the cache line without reading the cache line from the memory page; wherein if a processing core locates an evaluation address in snoop filter hardware, then the processing core invalidates the corresponding cache line in the cache hierarchy; wherein the evaluation address is invalidated in a last level cache, LLC, by sending invalidation messages for each cache line in the page to the LLC slices where the cache line maps to.
A vacuum coating apparatus that deposits a coating on a substrate, the vacuum coating apparatus comprising: a vacuum chamber; a vacuum exhaust unit that performs a vacuum exhaust operation inside the vacuum chamber; a plurality of rotation holding units that have a plurality of rotation axes set so as to be parallel to one another and hold the substrate as a coating subject while rotating about the respective rotation axes; and a revolution mechanism that revolves the plurality of rotation holding units about a revolution axis parallel to the rotation axes of the respective rotation holding units, wherein the plurality of rotation holding units are divided into a plurality of groups so that power is supplied to the respective rotation holding units in a manner that the rotation holding units of the respective groups have different potentials, wherein the vacuum coating apparatus is used to generate a plasma in a gas supplied into the vacuum chamber by a voltage applied to the rotation holding units, and alternately repeats a state where the rotation holding units of each group (18, 19, A, B) have a negative potential causing the rotation holding units to serve as a working electrode that plays primary role to generate a glow discharge plasma and a state where the rotation holding units of each group (18, 19, A, B) serve as a counter electrode of the working electrode, as the power supplied to the respective rotation holding units is changed for each group (18, 19, A, B). a vacuum chamber; a vacuum exhaust unit that performs a vacuum exhaust operation inside the vacuum chamber; a plurality of rotation holding units that have a plurality of rotation axes set so as to be parallel to one another and hold the substrate as a coating subject while rotating about the respective rotation axes; and a revolution mechanism that revolves the plurality of rotation holding units about a revolution axis parallel to the rotation axes of the respective rotation holding units,
A tire having a tread that comprises a rubber composition based on at least a diene elastomer, a reinforcing filler, a plasticizing agent comprising a polar liquid plasticizer, and a diacetal represented by the formula: wherein R 1 and R 2 are the same or different and each represent a hydrogen atom, a C 1 to C 4 alkyl group, a C 1 to C 4 alkoxy group, a C 1 to C 4 alkoxycarbonyl group or a halogen atom; a and b are each an integer of 1 to 5; c is 0 or 1; when a is 2, the two R 1 groups taken together with the benzene ring to which they are linked may form a tetralin ring; and when b is 2, the two R 2 groups taken together with the benzene ring to which they are linked may form a tetralin ring.
Production machine for plastics processing comprising a plurality of machine components and a machine controller for controlling the plastics processing machine comprising a control program with an interactive user interface designed as a visualization device, preferably a touch-sensitive screen, wherein the control program is designed to visualize on the visualization device at least one, preferably all, of the machine components in their function during production in a display for each of these machine components and to provide corresponding switching fields for inputting process parameters with respect to the respective visualized machine component, characterized in that the display comprises at least one parameter-time diagram with movement curves of one or more components of the respective machine component, wherein at least one of the movement curves is subdivided into different suitably visualized movement sections (53a, 53b, 53c), for which in each case the process-determining process parameter for this movement section (53a, 53b, 53c) is visualized, which can be varied via the provided switching fields, the display is preferably embodied as a multiple display which, in addition to the parameter-time diagram, comprises an image, correlated to the movement curves, of the components of this machine component.
A liner assembly and axle bracket combination for an axle coupling assembly, comprising: an axle bracket comprising a body having a central portion and at least two depending flanges (84,86) connected to the central portion; a liner assembly having a body comprising an elongated base, two side walls (50,52) extending from the elongated base so as to be disposed adjacent the respective depending flanges (84,86) of the axle bracket; the liner assembly comprising at least one extension member (20,30) comprising a connector (22,32), and the axle bracket comprising at least one connector receiver configured to receive the at least one connector (22,32) of the at least one extension member (20,30) of the liner assembly, and characterized in that the two side walls (50,52) of the liner assembly comprise distal portions (54,56) that extend beyond the depending flanges (84,86) of the axle bracket and are flared outward relative to the side walls to provide an entry to an axle-receiving space between the side walls. an axle bracket comprising a body having a central portion and at least two depending flanges (84,86) connected to the central portion; a liner assembly having a body comprising an elongated base, two side walls (50,52) extending from the elongated base so as to be disposed adjacent the respective depending flanges (84,86) of the axle bracket; the liner assembly comprising at least one extension member (20,30) comprising a connector (22,32), and the axle bracket comprising at least one connector receiver configured to receive the at least one connector (22,32) of the at least one extension member (20,30) of the liner assembly, and characterized in that the two side walls (50,52) of the liner assembly comprise distal portions (54,56) that extend beyond the depending flanges (84,86) of the axle bracket and are flared outward relative to the side walls to provide an entry to an axle-receiving space between the side walls.
A system for dispensing sterile covers for a stethoscope or other medical device, comprising: a container i (148, 148') including at least two elongated members positioned in the container and terminating at tips proximate one end of the container; one or more collapsed pouches (206, 242, 306) positioned inside the container, each pouch having an open end and a closed end and a support structure positioned proximate the open end, the support structure having a pair of first retainers, each first retainer adapted to receive a corresponding elongated member of the at least two elongated members, the one or more collapsed pouches being supported on the elongated members, each pouch comprising a first tab positioned proximate the open end the first tab being arranged and disposed such that in response to the first tab of a corresponding pouch positioned nearest the tips of the at least two elongated members being grasped and pulled in a direction downwards and away from the at least two elongated members, the open end forming a first open position defined by the pair of first retainers and the first tab for receiving a head of the stethoscope or other medical device inside the pouch while the first retainers remain engaged with the at least two elongated members, the system further comprising a further tab positioned proximate the closed end of the pouch, wherein the two elongated members are arranged non-parallel to one another, wherein the tips of the elongated members extending exterior of the container. a container i (148, 148') including at least two elongated members positioned in the container and terminating at tips proximate one end of the container; one or more collapsed pouches (206, 242, 306) positioned inside the container, each pouch having an open end and a closed end and a support structure positioned proximate the open end, the support structure having a pair of first retainers, each first retainer adapted to receive a corresponding elongated member of the at least two elongated members, the one or more collapsed pouches being supported on the elongated members, each pouch comprising a first tab positioned proximate the open end the first tab being arranged and disposed such that in response to the first tab of a corresponding pouch positioned nearest the tips of the at least two elongated members being grasped and pulled in a direction downwards and away from the at least two elongated members, the open end forming a first open position defined by the pair of first retainers and the first tab for receiving a head of the stethoscope or other medical device inside the pouch while the first retainers remain engaged with the at least two elongated members, the system further comprising a further tab positioned proximate the closed end of the pouch, wherein the two elongated members are arranged non-parallel to one another, wherein the tips of the elongated members extending exterior of the container.
Turbocompressor with a compressor housing and a compressor wheel with blades, wherein the compressor wheel is mounted rotatably relative to the compressor housing and is spaced apart by a head gap between cover-free blade upper edges of the blades and a compressor wall of the compressor housing facing the blade upper edges, wherein both the blade upper edges of the blades and the housing wall each have at least one recess (11, 13) and at least one elevation (10, 14) over their respective meridian contour, which interact locally, so that the head gap in the area of the recesses (11, 13) and the elevations (10, 14) defines a Z-shaped course when viewed in a meridian plane, wherein the housing wall and the blades each have stop surfaces (9, 9') directed towards one another for a flow through the head gap, wherein the stop surfaces (9, 9') run parallel at an angle α=±15° with respect to a perpendicular to a tangent of the meridian course of the housing wall and/or the blade upper edges of the compressor wheel.