mhurhangee/ep-ind-claims huggingface dataset:
A gas-insulated electrical apparatus having an enclosure filled with dielectric gas under pressure, comprising at least one electrical conductor designed to be live that is of longitudinal axis and placed inside the enclosure, and at least one Corona-shield cap (10, 110, 210, 310, 410, 510) surrounding at least one longitudinal fraction of said conductor, characterized in that said Corona-shield cap (10, 110, 210, 310, 410, 510) comprises a hollow electrically conductive body of longitudinal axis that is substantially coaxial with the axis of the enclosure, said body comprising at least one annular depression in its outer surface and at least one orifice (26, 126, 226, 326, 426, 526) passing through said body in order to ensure that the dielectric gas flows between an inside zone and a zone that is outside the Corona-shield cap (10, 110, 210, 310, 410, 510), said orifice being made in a bottom of said annular depression.
A method comprising: reserving a block of memory in a memory of a device via an application running on the device, the application having a memory layout in the memory receiving computer code by the application at the device that enforces a code signing requirement for code it executes; identifying an unsigned just-in-time executable portion of the computer code; randomly selecting a memory region within the block of memory of the device for at least some of the unsigned just-in-time executable portion, the randomly selected memory region having a load address in the memory, wherein the block of memory includes at least a previously selected memory region which is prohibited from being reused by the application for a remaining process lifetime of the application, loading the unsigned just-in-time executable portion of the computer code to the randomly selected memory region via the load address of the memory to randomize the memory layout; exempting the randomly selected memory region from the code signing requirement; and executing the unsigned just-in-time executable portion in the randomly selected memory region. reserving a block of memory in a memory of a device via an application running on the device, the application having a memory layout in the memory receiving computer code by the application at the device that enforces a code signing requirement for code it executes; identifying an unsigned just-in-time executable portion of the computer code; randomly selecting a memory region within the block of memory of the device for at least some of the unsigned just-in-time executable portion, the randomly selected memory region having a load address in the memory, wherein the block of memory includes at least a previously selected memory region which is prohibited from being reused by the application for a remaining process lifetime of the application, loading the unsigned just-in-time executable portion of the computer code to the randomly selected memory region via the load address of the memory to randomize the memory layout; exempting the randomly selected memory region from the code signing requirement; and executing the unsigned just-in-time executable portion in the randomly selected memory region.
A particle detector, comprising: a cathode configured to emit electrons in response to receiving incident particles that represent one or more input signals; a plurality of cascaded dynodes configured to provide a sensed current at an anode that is related to the number of received incident particles; an interposed dynode arranged as part of said plurality of cascaded dynodes to direct received electrons to the remainder of said plurality of cascaded dynodes for further amplification and to further provide a detection current indicative of the magnitude of said one or more input signals; and a control circuit coupled to one or more downstream dynodes within said plurality of cascade dynodes and configured to receive said detection current so as to regulate the voltage gain to said one or more downstream dynodes upon said detection current meeting a predetermined current threshold; characterized in that said interposed dynode comprises a first section defining between 50% and about 95% of the surface area of the interposed dynode and being configured to direct received electrons to the remainder of said plurality of cascaded dynodes for further amplification and a second section defining between about 5% and 50% of the surface area of the interposed dynode and being configured to provide said detection current so as to regulate the voltage gain to said one or more downstream dynodes. a cathode configured to emit electrons in response to receiving incident particles that represent one or more input signals; a plurality of cascaded dynodes configured to provide a sensed current at an anode that is related to the number of received incident particles; an interposed dynode arranged as part of said plurality of cascaded dynodes to direct received electrons to the remainder of said plurality of cascaded dynodes for further amplification and to further provide a detection current indicative of the magnitude of said one or more input signals; and a control circuit coupled to one or more downstream dynodes within said plurality of cascade dynodes and configured to receive said detection current so as to regulate the voltage gain to said one or more downstream dynodes upon said detection current meeting a predetermined current threshold; characterized in that said interposed dynode comprises a first section defining between 50% and about 95% of the surface area of the interposed dynode and being configured to direct received electrons to the remainder of said plurality of cascaded dynodes for further amplification and a second section defining between about 5% and 50% of the surface area of the interposed dynode and being configured to provide said detection current so as to regulate the voltage gain to said one or more downstream dynodes.
A component feeder comprising: a component pick surface on which components are to be distributed, and a component feeder imaging system, the component feeder imaging system comprising: - a transparent presentation surface on which components are to be distributed, wherein the transparent presentation surface forms at least a part of the component pick surface, - a vision system, and - a system processor for processing information received from the vision system and for determining which components on the presentation surface that are correctly oriented, characterized in that the vision system comprises a contact image sensor, CIS, scanner system comprising at least one image sensor located underneath the presentation surface and comprising at least one movable light source located underneath the presentation surface, wherein the CIS scanner system is configured to move across the presentation surface during scanning in such manner that light from the movable light source is reflected by the components and impinges on the image sensor. a component pick surface on which components are to be distributed, and a component feeder imaging system, the component feeder imaging system comprising: - a transparent presentation surface on which components are to be distributed, wherein the transparent presentation surface forms at least a part of the component pick surface, - a vision system, and - a system processor for processing information received from the vision system and for determining which components on the presentation surface that are correctly oriented, - a transparent presentation surface on which components are to be distributed, wherein the transparent presentation surface forms at least a part of the component pick surface, - a vision system, and - a system processor for processing information received from the vision system and for determining which components on the presentation surface that are correctly oriented, characterized in that the vision system comprises a contact image sensor, CIS, scanner system comprising at least one image sensor located underneath the presentation surface and comprising at least one movable light source located underneath the presentation surface, wherein the CIS scanner system is configured to move across the presentation surface during scanning in such manner that light from the movable light source is reflected by the components and impinges on the image sensor.
An electrodeposited copper foil comprising a drum side and a deposited side; wherein both the drum side and the deposited side have a ten-point average roughness Rz lower than or equal to 2 μm, and wherein when the electrodeposited copper foil is subjected to a thermal gravimetric analysis, the electrodeposited copper foil exhibits a primary weight increase of 105 wt% when a primary temperature (T 105wt%) is reached during the TGA, wherein the T 105wt% is in a range of 350 °C to 501 °C, and wherein the TGA comprises heating at a rate of 5 °C/min and an air flow at a rate of 95 mL/min. wherein both the drum side and the deposited side have a ten-point average roughness Rz lower than or equal to 2 μm, and wherein when the electrodeposited copper foil is subjected to a thermal gravimetric analysis, the electrodeposited copper foil exhibits a primary weight increase of 105 wt% when a primary temperature (T 105wt%) is reached during the TGA, wherein the T 105wt% is in a range of 350 °C to 501 °C, and wherein the TGA comprises heating at a rate of 5 °C/min and an air flow at a rate of 95 mL/min.
A polymer composition comprising a polyethylene and a crosslinking agent, characterized in that the polymer composition contains a total amount of vinyl groups which is B vinyl groups per 1000 carbon atoms, and B 1 ≤ B, wherein B 1 is 0.88, when measured prior to crosslinking according to method ASTM D6248-98; and in that the crosslinking agent is present in an amount which is Z wt%, based on the total amount (100 wt%) of the polymer composition, and Z ≤ Z 2, wherein Z 2 is 0.30.
A base station (100, 300) comprising: a transmission section that transmits a downlink signal in a downlink transmission region in a time unit composed of the downlink transmission region, an uplink transmission region, and a gap interval that is a switching point from the downlink transmission region to the uplink transmission region; and a reception section that receives an uplink signal in the uplink transmission region in the time unit, wherein the time unit is any time unit including 14 OFDM symbols regardless of the subcarrier interval the time unit includes the downlink transmission region and the uplink transmission region for each of a plurality of HARQ processes, the uplink transmission region corresponding to at least one of the plurality of HARQ processes is mapped to a position at a timing earlier than the downlink transmission region corresponding to the at least one HARQ process in the time unit, and the time unit includes only one gap interval. a transmission section that transmits a downlink signal in a downlink transmission region in a time unit composed of the downlink transmission region, an uplink transmission region, and a gap interval that is a switching point from the downlink transmission region to the uplink transmission region; and a reception section that receives an uplink signal in the uplink transmission region in the time unit, wherein the time unit is any time unit including 14 OFDM symbols regardless of the subcarrier interval the time unit includes the downlink transmission region and the uplink transmission region for each of a plurality of HARQ processes, the uplink transmission region corresponding to at least one of the plurality of HARQ processes is mapped to a position at a timing earlier than the downlink transmission region corresponding to the at least one HARQ process in the time unit, and the time unit includes only one gap interval.
A multi-electrode stimulator device, comprising: a body for the device; a plurality of electrodes comprising a single first electrode (320, 340) and plurality of second electrodes (322, 340), the single first electrode being coupled to the body of the device, wherein the first electrode is an anode, the plurality of second electrodes being coupled to the body of the device, wherein each of the second electrodes is selectable to act as the cathode when compared to the first electrode; and a single decoupling capacitor positioned in the anode current path of the first electrode, wherein no decoupling capacitor appears in the cathode current paths of the second electrodes, wherein the anode current path is connectable to each of the cathode current paths by a tissue current path extending between the anode and the cathode. a body for the device; a plurality of electrodes comprising a single first electrode (320, 340) and plurality of second electrodes (322, 340), the single first electrode being coupled to the body of the device, wherein the first electrode is an anode, the plurality of second electrodes being coupled to the body of the device, wherein each of the second electrodes is selectable to act as the cathode when compared to the first electrode; and a single decoupling capacitor positioned in the anode current path of the first electrode, wherein no decoupling capacitor appears in the cathode current paths of the second electrodes, wherein the anode current path is connectable to each of the cathode current paths by a tissue current path extending between the anode and the cathode.
A welding device for powder welding, comprising: a welding head for feeding of at least one welding electrode to a welding area; at least a first container for a powder fluxing agent, the first container comprising an outlet with an outlet direction arranged for outflow of the powder and an inlet for refilling of the powder; and a powder transport device for transporting the powder from the outlet of the first container to the welding area, characterized in that the welding device comprises a first member that introduces heated gas into the first container to heat the powder. a welding head for feeding of at least one welding electrode to a welding area; at least a first container for a powder fluxing agent, the first container comprising an outlet with an outlet direction arranged for outflow of the powder and an inlet for refilling of the powder; and a powder transport device for transporting the powder from the outlet of the first container to the welding area, characterized in that the welding device comprises a first member that introduces heated gas into the first container to heat the powder.
Hoist, in particular cable or chain hoist, having a lifting mechanism for lifting and lowering a load, comprising a housing, which receives a motor, which is connected to a gear mechanism driving a shaft, which is rotatably mounted in the housing and on which a reel is arranged, which receives a cable or a chain, which is guided through an opening of the housing and which has a load hook at the end, wherein a measuring device for the continuous detection of the load applied to the load hook is provided in the housing, wherein the measuring device comprises a distance sensor, which is attached to the housing at a distance from a measuring object connected to the shaft or the housing which is defined when the cable or chain is unloaded, characterised in that the distance sensor is connected to a computer module, which is set up to determine the applied load on the basis of the distance transmitted by the distance sensor.
An O/W type emulsion for encapsulating a hardly water-soluble drug, wherein the O/W type emulsion has a volume median diameter of not more than 100 nm and comprises a compound represented by the formula wherein X a and X b are each independently X 1, X 2 or 1,4-piperazinediyl group; s is 1 or 2, R 4 is an alkyl group having 1 - 6 carbon atoms, n a and n b are each independently 0 or 1, R 1a and R 1b are each independently an alkylene group having 1 - 6 carbon atoms, R 2a and R 2b are each independently an alkylene group having 1 - 6 carbon atoms, Y a and Y b are each independently an ester bond, an amide bond, a carbamate bond, an ether bond or a urea bond, and R 3a and R 3b are each independently a sterol residue, a liposoluble vitamin residue or an aliphatic hydrocarbon group having 12 - 23 carbon atoms, and wherein the hardly water-soluble drug has a water/octanol distribution coefficient LogPow of not less than 4. wherein the O/W type emulsion has a volume median diameter of not more than 100 nm and comprises a compound represented by the formula wherein X a and X b are each independently X 1, X 2 or 1,4-piperazinediyl group; s is 1 or 2, R 4 is an alkyl group having 1 - 6 carbon atoms, n a and n b are each independently 0 or 1, R 1a and R 1b are each independently an alkylene group having 1 - 6 carbon atoms, R 2a and R 2b are each independently an alkylene group having 1 - 6 carbon atoms, Y a and Y b are each independently an ester bond, an amide bond, a carbamate bond, an ether bond or a urea bond, and R 3a and R 3b are each independently a sterol residue, a liposoluble vitamin residue or an aliphatic hydrocarbon group having 12 - 23 carbon atoms, and wherein the hardly water-soluble drug has a water/octanol distribution coefficient LogPow of not less than 4.
Method for mechanically and electrically joining electrical conductors made of copper, aluminium, steel or any other electrically conductive material, whereby the method comprises the following steps: - welding the ends of the electrical conductors (16a, 16b) to be joined, so defining a welding area; - pre-shaping of a reinforcement bush, by causing a deformation of a flat sheet of conductive metal until it becomes cylindrical but without closing the edges of the reinforcement bush, leaving an angle α between the edges; - inserting the welded conductors (16a, 16b) between the edges into the pre-shaped reinforcement bush; - fitting the pre-shaped reinforcement bush to surround the welding area; - progressive shaping of the pre-shaped reinforcement bush with the welded conductors placed inside until the final diameter of the reinforcement bush is the same as of the conductor; and - welding of the edges of the reinforcement bush with the welded conductors placed inside. - welding the ends of the electrical conductors (16a, 16b) to be joined, so defining a welding area; - pre-shaping of a reinforcement bush, by causing a deformation of a flat sheet of conductive metal until it becomes cylindrical but without closing the edges of the reinforcement bush, leaving an angle α between the edges; - inserting the welded conductors (16a, 16b) between the edges into the pre-shaped reinforcement bush; - fitting the pre-shaped reinforcement bush to surround the welding area; - progressive shaping of the pre-shaped reinforcement bush with the welded conductors placed inside until the final diameter of the reinforcement bush is the same as of the conductor; and - welding of the edges of the reinforcement bush with the welded conductors placed inside.
An actuation device, in particular for actuating valves that can be connected externally, comprising a housing and a coil body arranged therein and having a coil winding which at least partially encloses a pole tube having a pole core connected at the free end thereof, further comprising an armature that is guided in a longitudinally displaceable manner at least in the pole tube within an armature chamber and interacts with an actuation part for actuating the respective valve part, the actuation part being formed at least partially of an injection mouldable material that is moulded in a connection region to the armature, an anti-adhesion device, in particular in the form of an anti-adhesion disc, being disposed on the front face of the armature facing the pole core, characterised in that the anti-adhesion device at least partially forms a contact surface for the one end of an energy store which is supported by its other end on the pole core, or that an annular support step for engagement of the aforementioned energy store is disposed between the anti-adhesion device and the circumference of the actuation part.
A method for detecting metal particles present in a wall of a glass container for containing food or pharmaceutical products, said method comprising the steps of: - heating the metal particles present in the wall; - inspecting the glass container during or after said step of heating the metal particles present in the wall; characterised in that the step of heating the metal particles present in the wall comprises a step of heating said glass container through induction heating means or through microwave heating means, the step of heating the metal particles comprises a step of increasing the temperature of the metal particles to a greater extent than the remaining glass parts of the wall, and the step of inspecting the glass container comprises a step of inspecting the glass container through detection means for detecting metal particles which are hotter than the remaining glass parts of the wall. - heating the metal particles present in the wall; - inspecting the glass container during or after said step of heating the metal particles present in the wall;
A crop baler that uses twine from generally cylindrical twineballs to bind a bale produced by the baler, having a twineball storage apparatus (28,30) which comprises a plurality of cradles arranged for twineball storage; characterized by the twineball storage apparatus (28,30) being arranged in a plurality of vertically superimposed, horizontal rows and configured for supporting stored generally cylindrical twineballs on their cylindrical sides with twine dispensing portions thereof facing generally horizontally outwardly away from the baler.
A GNSS radio signal comprising a navigation message transmitted as a series of data packets, possibly organized into groups and/or subgroups, each data packet appearing as a sequence of symbols obtained by applying a code to payload data bits, preceded by a synchronization symbol header, the data packets being internally organized into data fields; characterized in that at least some data packets of the series of data packets contain a synchronization bit field translated by applying said code into a synchronization symbol pattern.
A method executed by a mobile communication device with coexisting radios and capable of carrier aggregation, comprising determining an assumed activation status of at least one secondary cell regardless what the activation status is in reality, determining in-device coexistence interference information given said assumed activation status for the at least one secondary cell in a configured set of cells, and reporting the in-device coexistence interference information determined for said assumed activation status to a base station for use in controlling the device only if the determined in-device coexistence interference information is changed compared to a previous occurrence of the in-device coexistence interference information.