mhurhangee/ep-ind-claims huggingface dataset:
Hand-held power tool comprising a tool holder, a drive (5, 6) for driving the tool holder and a housing in which the drive (5, 6) is arranged, wherein a stationary component of the drive is connected to at least one element consisting of either the housing or another stationary component of the drive (5, 6) by means of at least one releasable clamped connection, characterised in that the clamped connection includes a cylindrical pocket in the one stationary component, a sleeve made of plastic inserted into the cylindrical pocket and a screw screwed into the sleeve.
A mesh network comprising at least two dynamic mesh nodes (210, 220, 230), wherein the two dynamic mesh nodes (210, 220, 230) comprise each a multiple radio access technology architecture, the multiple radio access technology architecture comprising: at least two radio access technologies for providing access to a core network, and an abstraction layer communicatively coupled to the at least two radio access technologies for receiving and converting data into protocol agnostic data, wherein the first and second dynamic mesh nodes (210, 220, 230) are configured to: in response to a query regarding environmental conditions from a computing cloud component, send an environmental condition to the computing cloud component, receive an instruction from the computing cloud component in response to the computing cloud component having processed the environmental condition, and change an operational parameter in response to the received instruction. at least two radio access technologies for providing access to a core network, and an abstraction layer communicatively coupled to the at least two radio access technologies for receiving and converting data into protocol agnostic data, in response to a query regarding environmental conditions from a computing cloud component, send an environmental condition to the computing cloud component, receive an instruction from the computing cloud component in response to the computing cloud component having processed the environmental condition, and change an operational parameter in response to the received instruction.
A motor vehicle comprising a first longitudinal chassis rail and a second longitudinal chassis rail and a mounting device mounted to the longitudinal chassis rails for supporting a loading crane or a loading crane on the first longitudinal chassis rail and the second longitudinal chassis rail, characterised in that the mounting device has a carrier plate on which the support or the loading crane can be arranged and which in the mounted condition is connected to the first longitudinal chassis rail and the second longitudinal chassis, wherein the carrier plate of the mounting device adjoins the top sides of the longitudinal chassis rails (2, 3) in substantially flush relationship.
A fluidic die (100, 500), comprising: at least one cross-die recirculation channel (105, 325, 415, 515, 825) formed into the die (100, 500), the cross-die recirculation channel (105, 325, 415, 515, 825) including a first-sized inlet port (110, 420) and a first-sized outlet port (115, 425) formed on a first side of the die (100, 500); at least one chamber recirculation channel (120, 310, 430, 810) formed into the die (100, 500), the chamber recirculation channel (120, 310, 430, 810) including a second-sized inlet port (125, 435) and a second-sized outlet port (130, 440) and wherein the second-sized inlet port (125, 435) and the second-sized outlet port (130, 440) are fluidically coupled to a portion of the cross-die recirculation channel (105, 325, 415, 515, 825); and at least one pump (135, 335, 450, 835) formed within the chamber recirculation channel (120, 310, 430, 810). at least one cross-die recirculation channel (105, 325, 415, 515, 825) formed into the die (100, 500), the cross-die recirculation channel (105, 325, 415, 515, 825) including a first-sized inlet port (110, 420) and a first-sized outlet port (115, 425) formed on a first side of the die (100, 500); at least one chamber recirculation channel (120, 310, 430, 810) formed into the die (100, 500), the chamber recirculation channel (120, 310, 430, 810) including a second-sized inlet port (125, 435) and a second-sized outlet port (130, 440) and wherein the second-sized inlet port (125, 435) and the second-sized outlet port (130, 440) are fluidically coupled to a portion of the cross-die recirculation channel (105, 325, 415, 515, 825); and at least one pump (135, 335, 450, 835) formed within the chamber recirculation channel (120, 310, 430, 810).
An apparatus for pasting two or more plies for providing tissue-type products, comprising at least one first embossing roller which cooperates with at least one second embossing roller, characterized in that said first embossing roller comprises a plurality of tips alternated with a plurality of continuous protrusions, said second roller comprising a plurality of tips alternated with a plurality of continuous protrusions, the arrangement of the tips and of the continuous protrusions of said first roller being reproduced identically and mirror-symmetrically on said second roller.
A door comprising two vertical guideways, and at least one flexible shutter able to be folded into the upper part of the guideways, having at least one stiffening crossbar, characterized in that a guide device is engaged in the extension of at least one stiffening bar guiding the shutter in at least one of the guideways in a plane that is offset relative to the plane of the shutter, the shutter pressing against a surface of the guideway.
A method for determining, on a protein, a binding site for a binding partner, comprising: (i) contacting the protein with a plurality of monomers, and polymerising the monomers to create a protein:polymer complex; (ii) digesting the protein in the complex to produce a peptide:polymer complex, wherein the digestion is a partial proteolysis reaction, such that the parts of the protein that are not bound to the polymer are separated from the complex with the polymer; and (iii) isolating the peptide:polymer complex; and optionally (iv) sequencing the peptide; wherein the peptide corresponds to a binding site for a binding partner. (i) contacting the protein with a plurality of monomers, and polymerising the monomers to create a protein:polymer complex; (ii) digesting the protein in the complex to produce a peptide:polymer complex, wherein the digestion is a partial proteolysis reaction, such that the parts of the protein that are not bound to the polymer are separated from the complex with the polymer; and (iii) isolating the peptide:polymer complex; and optionally (iv) sequencing the peptide;
An evaporation cell for vacuum evaporation chamber, the evaporation cell comprising a crucible, the crucible being adapted to receive a solid or liquid material to be sublimated or evaporated, heating means to heat the material in the crucible, a nozzle placed at an open end of the crucible, the nozzle comprising a frustoconical portion having an opening adapted for the passage of a flow of evaporated or sublimated material towards the vacuum evaporation chamber, and a cover placed on the nozzle, the cover having an opening arranged about the frustoconical portion of the nozzle, characterized in that the cover has at least one frustoconical portion (71, 72, 73) arranged about the frustoconical portion of the nozzle, the cover forming a thermal barrier between the crucible and the vacuum evaporation chamber, the nozzle includes a cylindrical wall and two bottom plates (62, 64), the cylindrical wall connecting the two bottom plates (62, 64) to the frustoconical portion of the nozzle, the cylindrical wall including openings directed radially and the two bottom plates (62, 64) each comprising at least one opening (63, 65), said at least one opening (63, 65) of the two bottom plates (62, 64) being arranged in zig zag and the heating means divided in two parts comprising a first heating area arranged about a lower portion of the crucible and a second heating area arranged about the nozzle, the first heating area and the second heating area being adapted to adjust independently the heating temperature in the bottom of the crucible and about the nozzle.
A method for managing instruction execution based on machine state, the method comprising the steps of: receiving at least one instruction; decoding the at least one instruction; determining, in response to the step of decoding, the current machine state as an addressing mode or a millimode, slowmode or emulation active state; organizing, based on the current machine state that has been determined and in an instruction decode unit with an instruction shortening unit as part of a processor core, the at least one instruction into a set of unit of operations for a fixed size queue to meet a given cycle time requirement by reducing at least one of execution steps and execution pipes; and executing the set of unit of operations. receiving at least one instruction; decoding the at least one instruction; determining, in response to the step of decoding, the current machine state as an addressing mode or a millimode, slowmode or emulation active state; organizing, based on the current machine state that has been determined and in an instruction decode unit with an instruction shortening unit as part of a processor core, the at least one instruction into a set of unit of operations for a fixed size queue to meet a given cycle time requirement by reducing at least one of execution steps and execution pipes; and executing the set of unit of operations.
A device for converting a flat pouch into a tetrahedral pouch, the device suitable to be installed in a rotary packaging machine, the rotary packaging machine comprising: grippers each having gripper jaws for clamping a pouch and gripper rollers for actuating the gripper jaws; a rotary shaft; and a barrel cam combined with the rotary shaft such that the barrel cam can reciprocate for a duration as long as one process of the grippers, the barrel cam provided with a cam portion on an upper part thereof to control a space between the gripper jaws; the device comprising: an arm unit adapted to be combined with the rotary shaft of the rotary packaging machine and adapted to performe repeated reciprocation for a duration as long as one process of the rotary packaging machine; a rotary unit mounted to the arm unit; and a pouch clamping unit combined with the rotary unit such that the pouch clamping unit can be rotated by the rotary unit, the pouch clamping unit adapted to clamp opposite sides of a mouth of the pouch supplied thereto while opening the mouth of the pouch from the inside. an arm unit adapted to be combined with the rotary shaft of the rotary packaging machine and adapted to performe repeated reciprocation for a duration as long as one process of the rotary packaging machine; a rotary unit mounted to the arm unit; and a pouch clamping unit combined with the rotary unit such that the pouch clamping unit can be rotated by the rotary unit, the pouch clamping unit adapted to clamp opposite sides of a mouth of the pouch supplied thereto while opening the mouth of the pouch from the inside.
A method of texturing a silicon surface to reduce reflectivity, comprising: positioning a substrate with a silicon surface in a vessel, wherein the silicon surface comprises a plurality of copper particles; filling the vessel with a volume of an etching solution that covers the silicon surface of the substrate, wherein the etching solution comprises an oxidant-etchant solution that comprises an etching agent and a silicon oxidizing agent; and etching the silicon surface by agitating the etching solution in the vessel, whereby the reflectivity of the silicon surface is reduced to less than about 10 percent; characterized in that the ratio of copper particle size to spacing on the silicon surface is about 3 to 5.
A mobile communication system including mobile terminals each for transmitting and receiving data according to an OFDM, Orthogonal Frequency Division Multiplexing method as a downlink access method, and according to an SC-FDMA, Single Career Frequency Division Multiple Access method as an uplink access method, a base station disposed in a CSG, Closed Subscriber Group, cell and adapted to operate in a closed access mode in which a specified one of the mobile terminals is adapted to access the CSG cell, and a base station disposed in a non-CSG cell and adapted to operate in an open access mode in which an unspecified one of said mobile terminals is adapted to access the non-CGS cell, wherein each cell is adapted to broadcast a CSG indicator indicating whether the cell is a CSG cell or not, characterized in that the mobile communication system includes a cell disposed in a hybrid access mode cell and is adapted to operate in a hybrid mode which supports the closed access mode and the open access mode simultaneously; and in that the hybrid cell is adapted to have the CSG indicator set to indicate that the cell is not the CSG cell and is adapted to broadcast a CSG-ID which is a specific identification number; and in that the mobile terminals are adapted to receive the CSG indicator and the CSG-ID transmitted on broadcast information; and wherein said cell disposed in a hybrid access mode cell belongs to a tracking area, TA for the non-CGS cell and the CSG-ID is used to determine whether or not the cell is a CSG cell.
A method of operation of a mobile device (102, 1100, 1206, 1206a - 1206d) to reduce link setup time, the method comprising: initiating a link setup procedure with a first access point (104, 1204a), wherein the link setup procedure includes receiving dynamic host configuration protocol, DHCP, information via the first access point (104, 1204a); communicating with the first access point (104, 1204a) using the DHCP information; after communicating with the first access point (104, 1204a), initiating communication with a second access point (106, 1204b); and receiving an indication from the second access point (106, 1204b) identifying whether the mobile device (102, 1100, 1206, 1206a - 1206d) is able to communicate with the second access point (106, 1204b) using the DHCP information, wherein a value of the indication identifies whether the mobile device (102, 1100, 1206, 1206a - 1206d) is able to reduce link setup time with the second access point (106, 1204b) by avoiding DHCP reconfiguration with the second access point (106, 1204b); and wherein the indication includes a same network flag. initiating a link setup procedure with a first access point (104, 1204a), wherein the link setup procedure includes receiving dynamic host configuration protocol, DHCP, information via the first access point (104, 1204a); communicating with the first access point (104, 1204a) using the DHCP information; after communicating with the first access point (104, 1204a), initiating communication with a second access point (106, 1204b); and receiving an indication from the second access point (106, 1204b) identifying whether the mobile device (102, 1100, 1206, 1206a - 1206d) is able to communicate with the second access point (106, 1204b) using the DHCP information, wherein a value of the indication identifies whether the mobile device (102, 1100, 1206, 1206a - 1206d) is able to reduce link setup time with the second access point (106, 1204b) by avoiding DHCP reconfiguration with the second access point (106, 1204b); and wherein the indication includes a same network flag.
A composite assembly, comprising: a first composite structure, the first composite structure including a composite first understructure and a composite first laminate skin bonded to the first understructure, the composite first laminate skin having a first set of pre-selected interlaminar fracture toughnesses; and at least one second composite structure, the second composite structure including a composite second understructure and a composite second laminate skin bonded to the second understructure, the composite second laminate skin having a second set of pre-selected interlaminar fracture toughnesses, wherein the first understructure comprises: a plurality of longitudinally extending composite spars (70, 72, 74), and a plurality of Z-shaped composite stiffeners extending between and bonded to the spars, and plurality of longitudinally extending, composite stringers passing through the Z-shaped composite stiffeners and bonded to at least one of the first and second skins. a first composite structure, the first composite structure including a composite first understructure and a composite first laminate skin bonded to the first understructure, the composite first laminate skin having a first set of pre-selected interlaminar fracture toughnesses; and at least one second composite structure, the second composite structure including a composite second understructure and a composite second laminate skin bonded to the second understructure, the composite second laminate skin having a second set of pre-selected interlaminar fracture toughnesses, wherein the first understructure comprises: a plurality of longitudinally extending composite spars (70, 72, 74), and a plurality of Z-shaped composite stiffeners extending between and bonded to the spars, and plurality of longitudinally extending, composite stringers passing through the Z-shaped composite stiffeners and bonded to at least one of the first and second skins. a plurality of longitudinally extending composite spars (70, 72, 74), and a plurality of Z-shaped composite stiffeners extending between and bonded to the spars, and plurality of longitudinally extending, composite stringers passing through the Z-shaped composite stiffeners and bonded to at least one of the first and second skins.
A burner of a turbomachine, particularly a gas turbine engine, comprising - an upstream burner section for providing a first fuel and an oxygen containing fluid to an upstream end of a burner interior and - at least one intermediate burner section having an annular wall surrounding a respective section of a burner interior and - a downstream burner section for providing a second fuel to a downstream end of the burner interior or to a combustion chamber; the annular wall including: - an annular inner surface delimiting the burner interior, characterized in that the annular wall further includes: - a plurality of dampening cavities for the dampening of thermo-acoustic vibrations in the burner interior, each dampening cavity being connected to the annular inner surface through at least a dampening hole and to an annular outer surface of the annular wall through at least a purging hole. - an upstream burner section for providing a first fuel and an oxygen containing fluid to an upstream end of a burner interior and - at least one intermediate burner section having an annular wall surrounding a respective section of a burner interior and - a downstream burner section for providing a second fuel to a downstream end of the burner interior or to a combustion chamber; - an annular inner surface delimiting the burner interior, characterized in that the annular wall further includes: - a plurality of dampening cavities for the dampening of thermo-acoustic vibrations in the burner interior, each dampening cavity being connected to the annular inner surface through at least a dampening hole and to an annular outer surface of the annular wall through at least a purging hole.
Method for torque and/or thrust protection of at least one propeller (10, 15) of a hybrid helicopter, said hybrid helicopter comprising a lift rotor and at least one propeller (10, 15), said hybrid helicopter comprising a control system connected to blades (11, 16) of said at least one propeller (10, 15), said hybrid helicopter having a thrust control configured to generate an order for modifying a pitch of said blades (11, 16) transmitted to the control system, said blades (11, 16) of said at least one propeller (10, 15) being driven in rotation by a mechanical transmission system of said hybrid helicopter, said method comprising the following step: - the control system keep said pitch of said blades (11, 16) of said at least one propeller (10, 15) within at least one control envelope relating to a characteristic of said at least one propeller (10, 15) and defined by limits of said characteristic, said characteristic being a thrust generated by said at least one propeller (10, 15) or a torque exerted in said mechanical transmission system, characterised in that said at least one control envelope is bounded by an upper limit and a lower limit of said characteristic in a control diagram presenting the pitch of said blades (11, 16) of a propeller (10, 15) along the abscissa axis and said characteristic of said propeller (10, 15) up the ordinate axis, said control diagram comprising a set of curves for different forward speeds of said hybrid helicopter, and said step of having the control system keep said pitch within said control envelope comprises the following steps at each iteration: - keeping said pitch of said blades (11,16) below said upper limit as a function of said forward speed of said hybrid helicopter, and - keeping said pitch of said blades (11,16) above said lower limit as a function of said forward speed of said hybrid helicopter. - the control system keep said pitch of said blades (11, 16) of said at least one propeller (10, 15) within at least one control envelope relating to a characteristic of said at least one propeller (10, 15) and defined by limits of said characteristic, said characteristic being a thrust generated by said at least one propeller (10, 15) or a torque exerted in said mechanical transmission system, - keeping said pitch of said blades (11,16) below said upper limit as a function of said forward speed of said hybrid helicopter, and - keeping said pitch of said blades (11,16) above said lower limit as a function of said forward speed of said hybrid helicopter.
A robot cleaner comprising: a cleaner body including a control unit for controlling autonomous driving; a first sensing unit protruding from an upper surface of the cleaner body and configured to irradiate a laser to surroundings of the cleaner body so as to detect obstacles located at the surroundings of the cleaner body; a second sensing unit disposed on an upper edge portion of the cleaner body to be inclined with respect to a side surface and an upper surface of the cleaner body, and configured to capture an image in a lateral direction and an upward direction of the cleaner body; a third sensing unit disposed on the front surface of the cleaner body and configured to detect obstacles located at surroundings in front of the cleaner body using ultrasonic waves reflected after being emitted to the surroundings in front of the cleaner body; and a fourth sensing unit disposed on the front surface of the cleaner body and configured to capture an image in front of the cleaner body; wherein the second sensing unit includes a window disposed to cover the second sensing unit, and the window includes a filter through which an infrared region is selectively transmitted. a cleaner body including a control unit for controlling autonomous driving; a first sensing unit protruding from an upper surface of the cleaner body and configured to irradiate a laser to surroundings of the cleaner body so as to detect obstacles located at the surroundings of the cleaner body; a second sensing unit disposed on an upper edge portion of the cleaner body to be inclined with respect to a side surface and an upper surface of the cleaner body, and configured to capture an image in a lateral direction and an upward direction of the cleaner body; a third sensing unit disposed on the front surface of the cleaner body and configured to detect obstacles located at surroundings in front of the cleaner body using ultrasonic waves reflected after being emitted to the surroundings in front of the cleaner body; and a fourth sensing unit disposed on the front surface of the cleaner body and configured to capture an image in front of the cleaner body; wherein the second sensing unit includes a window disposed to cover the second sensing unit, and the window includes a filter through which an infrared region is selectively transmitted.