mhurhangee/ep-ind-claims huggingface dataset:
A toner cartridge detachably mountable in a developing device, the developing device comprising a developing-device side drive-force input unit configured to receive a drive force from the toner cartridge and a toner-circulating member (43, 44) configured to circulate toner, the toner cartridge comprising: a casing defining a toner containing portion that contains toner; a drive-force input unit (61c, 61 d) which is provided on the casing and which is configured to receive a drive force from an outside of the casing; and a drive-force output unit that is provided on the casing and that is configured to receive the drive force from the drive-force input unit and to output the drive force to the developing-device side drive-force input unit of the developing device, wherein the drive-force input unit (61c, 61d) is located on an outer surface of the casing at a first side thereof, and the drive-force output unit is located on the outer surface of the casing at a second side thereof that is opposite to the first side, wherein the drive-force output unit of the toner cartridge is configured to output a drive force to the developing-device side drive-force input unit of the developing device, thereby enabling the toner-circulating member (43,44) of the developing device to be driven by the drive force outputted from the drive-force output unit of the toner cartridge when the toner cartridge is mounted in the developing device. a casing defining a toner containing portion that contains toner; a drive-force input unit (61c, 61 d) which is provided on the casing and which is configured to receive a drive force from an outside of the casing; and a drive-force output unit that is provided on the casing and that is configured to receive the drive force from the drive-force input unit and to output the drive force to the developing-device side drive-force input unit of the developing device, wherein the drive-force input unit (61c, 61d) is located on an outer surface of the casing at a first side thereof, and the drive-force output unit is located on the outer surface of the casing at a second side thereof that is opposite to the first side, wherein the drive-force output unit of the toner cartridge is configured to output a drive force to the developing-device side drive-force input unit of the developing device, thereby enabling the toner-circulating member (43,44) of the developing device to be driven by the drive force outputted from the drive-force output unit of the toner cartridge when the toner cartridge is mounted in the developing device.
A spinal fixation construct comprising: a first spinal rod; a second spinal rod generally parallel to the first rod; a cephalad arm connecting the first and second rods and integrally formed with the first and second rods; a caudal arm connecting the first and second rods and integrally formed with the first and second rods; and a rod connector with a rod seat sized and configured to receive a portion of a third spinal rod; characterized in that the rod connector is integral to the spinal rod fixation construct. a first spinal rod; a second spinal rod generally parallel to the first rod; a cephalad arm connecting the first and second rods and integrally formed with the first and second rods; a caudal arm connecting the first and second rods and integrally formed with the first and second rods; and a rod connector with a rod seat sized and configured to receive a portion of a third spinal rod; characterized in that the rod connector is integral to the spinal rod fixation construct.
A polyisocyanurate-based syntactic coating, obtainable by reacting a polyisocyanate compound with a compound containing isocyanate-reactive hydrogen atoms in the presence of a trimerisation catalyst and hollow objects, characterised in that the amount of the polyisocyanate compound and of the compound containing isocyanate-reactive hydrogen atoms is such that an isocyanate index of at least 2050 is achieved.
A method of processing video data, the method comprising: determining to extract a motion constrained tile sets, MCTS, sub-bitstream from an original bitstream based at least in part on information of an MCTS extraction information set, MCTS-EIS, supplemental enhancement information, SEI, message; and in response to determining to extract the MCTS sub-bitstream, omitting all SEI network abstraction layer, NAL, units that contain non-MCTS-nested SEI messages from inclusion in the extracted MCTS sub-bitstream, regardless of a value of a NAL unit header layer identifier value for the non-MCTS-nested SEI messages. determining to extract a motion constrained tile sets, MCTS, sub-bitstream from an original bitstream based at least in part on information of an MCTS extraction information set, MCTS-EIS, supplemental enhancement information, SEI, message; and in response to determining to extract the MCTS sub-bitstream, omitting all SEI network abstraction layer, NAL, units that contain non-MCTS-nested SEI messages from inclusion in the extracted MCTS sub-bitstream, regardless of a value of a NAL unit header layer identifier value for the non-MCTS-nested SEI messages.
A malware-analysing system comprising: one or more processors; and programming instructions configured to be executed by the one or more processors to perform operations including: receiving an expression as a search query, the expression including a rule statement with one or more logical operators; interpreting the expression into one or more search terms; searching (504, 506) an inverted index for byte sequences of a fixed length that are comprised in the one or more search terms to form results, wherein the inverted index specifies byte sequences of the fixed length and, for each specified byte sequence the inverted index specifies file identifiers of files that include the specified byte sequence; constructing a syntax tree from the one or more logical operators; evaluating the results of the searching using the syntax tree to determine a search result; and returning the search result to the search query based on the evaluating to support a malware scanning tool. one or more processors; and programming instructions configured to be executed by the one or more processors to perform operations including: receiving an expression as a search query, the expression including a rule statement with one or more logical operators; interpreting the expression into one or more search terms; searching (504, 506) an inverted index for byte sequences of a fixed length that are comprised in the one or more search terms to form results, wherein the inverted index specifies byte sequences of the fixed length and, for each specified byte sequence the inverted index specifies file identifiers of files that include the specified byte sequence; constructing a syntax tree from the one or more logical operators; evaluating the results of the searching using the syntax tree to determine a search result; and returning the search result to the search query based on the evaluating to support a malware scanning tool. receiving an expression as a search query, the expression including a rule statement with one or more logical operators; interpreting the expression into one or more search terms; searching (504, 506) an inverted index for byte sequences of a fixed length that are comprised in the one or more search terms to form results, wherein the inverted index specifies byte sequences of the fixed length and, for each specified byte sequence the inverted index specifies file identifiers of files that include the specified byte sequence; constructing a syntax tree from the one or more logical operators; evaluating the results of the searching using the syntax tree to determine a search result; and returning the search result to the search query based on the evaluating to support a malware scanning tool.
Clamping beam (1; 101) for clamping a bending tool, comprising a vertical receiving space (2; 102) receiving the tool, an actuated member (50, 53; 150, 153) which is pneumatically, hydraulically or electrically driven, and an engaging member (4; 104) to be brought into contact with the tool, characterized in that: a transmission is placed between the actuated member (50, 53; 150, 153) and the engaging member (4; 104), the transmission comprising at least one wedge-shaped member (13; 15; 17; 44; 113), the wedge-shaped member (13; 15; 17; 44; 113) and the engaging member (4; 104) having co-acting contact surfaces (14, 43; 16; 19; 14A, 14B, 45A, 45B; 114A, 114B, 145A, 145B), at least one of which has an at least partially straight or an at least partially curved progression, and the contact surfaces (14, 43; 16; 19; 14A, 14B, 45A, 45B; 114A, 114B, 145A, 145B) of the wedge-shaped member (13; 15; 17; 44; 113) and the engaging member (4; 104) being formed such that they are self-braking; and the engaging member (4; 104) is displaceable in a first direction between a rest position clear of the tool and a clamping position engaging the tool, and the actuated member (50, 53; 150, 153) is displaceable in a second direction which encloses an angle with the first direction.
A decoding method comprising: extracting a down-mix signal and additional information from an input signal; extracting spatial information and a compensation parameter from the additional information when a flag regarding the compensation parameter is not set to a zero value; generating a multi-channel audio signal based on the down-mix signal and the spatial information; and compensating for the signal distortion at a predetermined frequency of the multi-channel audio signal based on the compensation parameter, wherein the compensation parameter is calculated by comparing the level of the down-mix signal and the level of a multichannel audio signal that is used to generate the down-mix signal. extracting a down-mix signal and additional information from an input signal; extracting spatial information and a compensation parameter from the additional information when a flag regarding the compensation parameter is not set to a zero value; generating a multi-channel audio signal based on the down-mix signal and the spatial information; and compensating for the signal distortion at a predetermined frequency of the multi-channel audio signal based on the compensation parameter, wherein the compensation parameter is calculated by comparing the level of the down-mix signal and the level of a multichannel audio signal that is used to generate the down-mix signal.
Rotorcraft provided with a system for controlling the yaw movement of a shrouded rotor, said system comprising a shroud and a rotor provided with blades, the blades being disposed in the shroud and being free to rotate about an axis of rotation (AXROT) of the rotor, said shroud comprising a cover delimiting an air duct around the axis of rotation (AXROT), said air duct extending in a direction of circulation of the air within the shroud from an inlet section towards an outlet section, wherein the rotorcraft comprises a frost guard for said system, said frost guard comprising at least one grid (51, 52) arranged upstream of the air duct in said air circulation direction, said grid (51, 52) being opposite said inlet section and the cover parallel to the axis of rotation (AXROT), with no grid being opposite at least one unprotected section of the inlet section in a direction parallel to the axis of rotation (AXROT).
A method for elevated temperature processing of a film, comprising: providing a film comprising a polymeric substrate having a glass transition temperature under 200 °C, and further comprising at least one layer of metal oxide and at least one layer of coated polymer; clamping the film so as to place the clamped film under tension in at least two orthogonal directions; and holding the clamped film flat while subjecting the clamped film to elevated temperature processing comprising heating the clamped film above the glass transition temperature of the polymeric substrate in a zero strain condition. providing a film comprising a polymeric substrate having a glass transition temperature under 200 °C, and further comprising at least one layer of metal oxide and at least one layer of coated polymer; clamping the film so as to place the clamped film under tension in at least two orthogonal directions; and holding the clamped film flat while subjecting the clamped film to elevated temperature processing comprising heating the clamped film above the glass transition temperature of the polymeric substrate in a zero strain condition.
Device for an automatic connection of a high speed spindle to a numerically controlled machine, comprising a first connecting element configured to be fastened to a tool-holder spindle of a numerically controlled machine, and a second connecting element configured to be connected to the first connecting element and be fastened to the high-speed spindle comprising a tool and an electric motor for actuating the tool, wherein: - the first connecting element comprises at least one first electric contact element to electrically supply the high-speed spindle and a first duct for passing pressurized air, connected to a supply network of pressurized air; - the second connecting element comprises at least one second electric contact element configured to establish an electric contact with said first electric contact element and electrically supply the high-speed spindle, and a second duct for passing pressurized air coming from the first duct, said first and/or the second connecting elements (11, 31) comprise sealing means to sealing connect the first connecting element and the second connecting element in order to prevent the air flow, by flowing between the first and the second connecting element (11, 31), from going outside and in order to allow a passage of the air flow from the first to the second connecting elements (11, 31) through their respective ducts (12, 32) to send it to the spindle characterized in that said second connecting element comprises a pin inserted inside the second duct to prevent the air flow between the second duct and the spindle when the first and second connecting elements (11, 31) are not sealing connected, said first duct comprising a pressing element inserted therein and configured to contact the pin when the electric contact elements (14, 34) are not in contact allowing the air flow coming from the first duct crosses the space between the first connecting element and the second connecting element that are not sealing connected and goes outside. - the first connecting element comprises at least one first electric contact element to electrically supply the high-speed spindle and a first duct for passing pressurized air, connected to a supply network of pressurized air; - the second connecting element comprises at least one second electric contact element configured to establish an electric contact with said first electric contact element and electrically supply the high-speed spindle, and a second duct for passing pressurized air coming from the first duct,
A wireless detonator assembly for use in connection with a blasting machine that transmits at least one wireless command signal to the wireless detonator assembly, the wireless detonator assembly comprising: a detonator comprising a shell and a base charge for actuation; command signal receiving and processing module for receiving and processing said at least one wireless command signal from said blasting machine; at least one state sensor to sense at least one environmental condition in an immediate vicinity of the wireless detonator assembly; an activation / deactivation module to render the wireless detonator assembly capable of actuation in response to a command signal to FIRE when said at least one state sensor senses that the at least one environmental condition falls within pre-determined parameters suitable for blasting, the wireless detonator assembly otherwise maintaining a safe mode incapable of receiving and / or responding to a command signal to FIRE; and a firing circuit associated with the base charge, characterized in that the firing circuit includes a charge storage device such that, upon receipt by the command signal receiving and processing module of a command signal to FIRE, the charge storage device can discharge a current in the firing circuit, the current being sufficient to actuate the base charge; and in that the activation / deactivation module comprises discharge means to selectively bleed charge away from the charge storage device to render the wireless detonation assembly incapable of actuation when the at least one state sensor senses environmental conditions that fall outside said pre-determined parameters suitable for blasting. a detonator comprising a shell and a base charge for actuation; command signal receiving and processing module for receiving and processing said at least one wireless command signal from said blasting machine; at least one state sensor to sense at least one environmental condition in an immediate vicinity of the wireless detonator assembly; an activation / deactivation module to render the wireless detonator assembly capable of actuation in response to a command signal to FIRE when said at least one state sensor senses that the at least one environmental condition falls within pre-determined parameters suitable for blasting, the wireless detonator assembly otherwise maintaining a safe mode incapable of receiving and / or responding to a command signal to FIRE; and a firing circuit associated with the base charge, characterized in that the firing circuit includes a charge storage device such that, upon receipt by the command signal receiving and processing module of a command signal to FIRE, the charge storage device can discharge a current in the firing circuit, the current being sufficient to actuate the base charge; and in that the activation / deactivation module comprises discharge means to selectively bleed charge away from the charge storage device to render the wireless detonation assembly incapable of actuation when the at least one state sensor senses environmental conditions that fall outside said pre-determined parameters suitable for blasting.
A chromogenic copolymer, comprising at least two monomeric units, of general formula I: wherein at least one of the R1-R5 groups is an NH 2 group or contains an aromatic ring with an NH 2 group, and wherein at least one of the R6-R10 groups is an aromatic ring activating group, and in which the proportion of any of the monomeric units represents at least 0.1% of the total number of monomer units.
Attachment head for a system for creating superstructures, having an upper end and a lower end, wherein a median longitudinal axis of the attachment head extends between the upper and the lower end, and at least one attachment flange (28, 30, 32, 34) arranged between the upper and the lower end with an abutment surface for abutting a support (14, 16), wherein the attachment flange (28, 30, 32, 34) and the abutment surface are laterally offset in relation to a plane that is oriented radially to the median longitudinal axis and the abutment surface is arranged parallel in relation to the radial plane, and wherein the abutment surface of the attachment flange (28, 30, 32, 34) is laterally offset by the half width of the connection end of a support (14, 16), characterized in that a total of four attachment flanges (28, 30, 32, 34) are provided, with the abutment surfaces thereof arranged mutually offset by in each case 90 degrees and each laterally offset in relation to a plane that is oriented radially to the median longitudinal axis, and in that the attachment head has a bottom plate and a cover plate arranged in parallel to one another and the four attachment flanges (28, 30, 32, 34) are arranged between said plates.
A Platelet Rich Plasma PRP separator-concentrator comprising: a housing; a PRP separation assembly including a separation chamber including a blood inlet, a top plate, a sloped floor, an outer wall to which the sloped floor is secured, the outer wall having an inner wall surface lined with a depth filter having pores and passageways that are sized to receive and entrap erythrocytes during centrifuging, and a balanced distribution of separator plates attached to the outer wall and sloped floor of the separation chamber, the separator plates lying in a plane that is parallel to a central axis of the PRP separation assembly, the separator plates extending from the outer wall radially inward to a distance beyond the surface of the depth filter and from the floor to a position spaced from the top plate, the PRP separation chamber being balanced for substantially vibration-free rotation about the central axis; and a PRP concentration assembly 11) having a PRP concentration sump; an axially concentric rigid stationary outlet tube secured to the housing and extending through the PRP separation assembly to the PRP concentration sump; wherein the PRP separation assembly is attached to and positioned above the PRP concentration assembly to form a combined separator-concentrator assemblage that is rotatable about the outlet tube. a housing; a PRP separation assembly including a separation chamber including a blood inlet, a top plate, a sloped floor, an outer wall to which the sloped floor is secured, the outer wall having an inner wall surface lined with a depth filter having pores and passageways that are sized to receive and entrap erythrocytes during centrifuging, and a balanced distribution of separator plates attached to the outer wall and sloped floor of the separation chamber, the separator plates lying in a plane that is parallel to a central axis of the PRP separation assembly, the separator plates extending from the outer wall radially inward to a distance beyond the surface of the depth filter and from the floor to a position spaced from the top plate, the PRP separation chamber being balanced for substantially vibration-free rotation about the central axis; and a PRP concentration assembly 11) having a PRP concentration sump; an axially concentric rigid stationary outlet tube secured to the housing and extending through the PRP separation assembly to the PRP concentration sump; wherein the PRP separation assembly is attached to and positioned above the PRP concentration assembly to form a combined separator-concentrator assemblage that is rotatable about the outlet tube.
Dishwashing machine comprising a washing unit, a rinsing unit and a heat pump circuit in which a working fluid flows, wherein a washing chamber and a rinsing chamber are defined in said washing unit and in said rinsing unit, respectively, said heat pump circuit exchanging heat with a vapour flow from said rinsing unit and/or from said washing unit, wherein said dishwashing machine further comprises a secondary heating circuit heating water in at least one of the washing unit and the rinsing unit for treating dishware in said dishwashing machine by means of a secondary fluid circulating in said secondary heating circuit, said secondary heating circuit comprising a secondary heat exchange unit thermally coupled with said heat pump circuit for heating said secondary fluid.
A walk behind garden tool chassis, which chassis comprises a first chassis part; and a second chassis part; the first chassis part is arranged to receive an engine of the garden tool, and to receive a first wheel assembly of the garden tool; in that the second chassis part is arranged to receive a handle assembly of the garden tool, and to receive a second wheel assembly of the garden tool; characterized in that the first and second chassis parts (11, 12) are interconnected by means of vibration damping means.