mhurhangee/patent-ind-claim-en huggingface dataset:
An excavator tool attaching mechanism comprising: a housing comprising a pair of housing walls ; a first fixed engaging means for engaging with a first retaining element of an excavator tool; a second moveable engaging means for engaging with a second retaining element of the excavator tool; a safety mechanism moveable between a locked and an unlocked configuration; wherein the second engaging means comprises an engaging element moveable between a first position for releasing an excavator tool and a second position for engagement with the second retaining element of the excavator tool; and wherein the engaging element is further moveable to a third position, between the second and the first positions, by means of a tool engageable with the second engaging means and the safety mechanism; and wherein a retaining means is configured to hold the engaging element in the third position to prevent the engaging element moving between the first and the second positions; such that the safety mechanism is configured to automatically move from the unlocked to the locked configuration by movement of the engaging element from the first to the second position, preventing movement of the engaging element between the second and first position; and wherein the engaging element is moveable to the second position when the second engaging means engages with the second retaining element of an excavator tool. a housing comprising a pair of housing walls ; a first fixed engaging means for engaging with a first retaining element of an excavator tool; a second moveable engaging means for engaging with a second retaining element of the excavator tool; a safety mechanism moveable between a locked and an unlocked configuration; wherein the second engaging means comprises an engaging element moveable between a first position for releasing an excavator tool and a second position for engagement with the second retaining element of the excavator tool; and wherein the engaging element is further moveable to a third position, between the second and the first positions, by means of a tool engageable with the second engaging means and the safety mechanism; and wherein a retaining means is configured to hold the engaging element in the third position to prevent the engaging element moving between the first and the second positions; such that the safety mechanism is configured to automatically move from the unlocked to the locked configuration by movement of the engaging element from the first to the second position, preventing movement of the engaging element between the second and first position; and wherein the engaging element is moveable to the second position when the second engaging means engages with the second retaining element of an excavator tool.
An ink composition comprising: a resin-coated pigment in which at least a part of pigments is coated with a cross-linked resin; a betaine compound represented by Formula ; and water, in Formula , R 1 represents an alkyl group having 6 to 20 carbon atoms, R 7 and R 3 each independently represent a chain hydrocarbon group having 1 to 5 carbon atoms, L 1 represents a single bond or a divalent linking group, L 2 represents a divalent linking group, and A - represents a -SO 3 - group. a resin-coated pigment in which at least a part of pigments is coated with a cross-linked resin; a betaine compound represented by Formula ; and water, in Formula , R 1 represents an alkyl group having 6 to 20 carbon atoms, R 7 and R 3 each independently represent a chain hydrocarbon group having 1 to 5 carbon atoms, L 1 represents a single bond or a divalent linking group, L 2 represents a divalent linking group, and A - represents a -SO 3 - group.
An apparatus comprising: a connector housing having an electrical contact assembly (504, 506; 520, 522) fixed within the connector housing, the electrical contact assembly to provide an electrical input/output (I/O) interface; characterized by : a floatable lens moveably disposed within the connector housing, the floatable lens having alignment notches for engagement with a lens at a receptacle side, the floatable lens to provide an optical I/O interface, wherein the floatable lens is arranged to be pushed back by alignment bumps at the receptacle side, wherein a motion of the connector housing is isolated from the floatable lens when the floatable lens is pushed back. a connector housing having an electrical contact assembly (504, 506; 520, 522) fixed within the connector housing, the electrical contact assembly to provide an electrical input/output (I/O) interface; characterized by : a floatable lens moveably disposed within the connector housing, the floatable lens having alignment notches for engagement with a lens at a receptacle side, the floatable lens to provide an optical I/O interface, wherein the floatable lens is arranged to be pushed back by alignment bumps at the receptacle side, wherein a motion of the connector housing is isolated from the floatable lens when the floatable lens is pushed back.
A terminal crimping machine for crimping a terminal to a wire , the terminal crimping machine comprising: a crimp tooling defining a crimping zone that receives the terminal and the wire, the crimp tooling being actuated during a crimp stroke to form a crimped segment between the terminal and the wire; an actuator operably coupled to the crimp tooling and driving the crimp tooling during the crimp stroke; and an electrical crimp consolidation circuit electrically connected to the crimped segment and operated during the crimp stroke to provide an electrical pulse to at least one of the wire and the terminal of the crimped segment before completion of the crimp stroke, the electrical crimp consolidation circuit including a trigger for controlling a pulse start time of the electrical pulse during the crimp stroke, characterized in that the trigger comprises a sensor monitoring a position of the actuator to activate the electrical pulse during the crimp stroke. a crimp tooling defining a crimping zone that receives the terminal and the wire, the crimp tooling being actuated during a crimp stroke to form a crimped segment between the terminal and the wire; an actuator operably coupled to the crimp tooling and driving the crimp tooling during the crimp stroke; and an electrical crimp consolidation circuit electrically connected to the crimped segment and operated during the crimp stroke to provide an electrical pulse to at least one of the wire and the terminal of the crimped segment before completion of the crimp stroke, the electrical crimp consolidation circuit including a trigger for controlling a pulse start time of the electrical pulse during the crimp stroke, characterized in that the trigger comprises a sensor monitoring a position of the actuator to activate the electrical pulse during the crimp stroke.
A method for preparing a wellbore for insertion of a barrier , and inserting the barrier , characterized in that the method comprises: modifying an internal surface of a section of downhole tubing within the wellbore by removing material from the tubing using a downhole tool so that it is shaped with a pattern of indents such that a region adjacent the modified internal surface is filled with barrier material and the barrier material fills the indents in the modified internal surface and solidifies to interlock with and be anchored by the modified internal surface .
A feed and cutting unit for selectively cutting and dispensing individual material segments from a common strip of material, comprising: a feed assembly that includes a drive roller operatively connected to a motor and a follower roller that cooperates with the drive roller to frictionally engage first and second surfaces of a strip of material to selectively move the strip of material to a cutter member wherein the strip of material comprises individual segments of material disposed on a common backing material by adhesive; at least one sensor operatively connected to a controller, wherein the at least one sensor measures a predetermined amount of segmented material on the strip of material as the feed assembly moves the strip of material past the sensor ; and wherein the cutter member is operatively connected to the controller, wherein the controller actuates the cutter member to separate the predetermined amount of segmented material from the strip of material by cutting at least a portion of the backing material disposed between adjacent segments of material during the cutting operation, characterized in that the cutter member is mounted to a bracket for non-rotational movement; the material segments are weight material segments which are each separated by a gap; and the sensor is an optical sensor configured to count the gaps between adjacent weight segments on the strip .
A rocker beam assembly, comprising a rocker beam and a reinforcement plate , wherein the rocker beam is an extruded member, which comprises a side wall defining an accommodating cavity, and two open ends ; characterized in that the reinforcement plate is inserted into the accommodating cavity of the rocker beam from either of the two open ends; the reinforcement plate comprises a first connecting face connected to an inner side of the side wall of the rocker beam, and a second connecting face used for connecting to a further component; and nuts are mounted on the second connecting face, and the side wall of the rocker beam is provided with a plurality of apertures positioned corresponding to the nuts of the reinforcement plate. wherein the rocker beam is an extruded member, which comprises a side wall defining an accommodating cavity, and two open ends ; characterized in that the reinforcement plate is inserted into the accommodating cavity of the rocker beam from either of the two open ends; the reinforcement plate comprises a first connecting face connected to an inner side of the side wall of the rocker beam, and a second connecting face used for connecting to a further component; and nuts are mounted on the second connecting face, and the side wall of the rocker beam is provided with a plurality of apertures positioned corresponding to the nuts of the reinforcement plate.
Assembly forming a casing for electrical equipment, said assembly comprising: - a first casing for receiving at least a first electronic component of the electrical equipment; - a second casing for receiving at least a second electronic component of the electrical equipment; a first wall known as the first interface wall of the first casing and a second wall known as the first interface wall of the second casing , said walls arranged to press against one another to form the assembly ; assembly wherein: - the first and the second casings each comprise at least a side wall respectively known as the first and second side walls, which extend respectively from the first interface wall and the second interface wall in an opposite direction relative to the other casing; and - the second side wall has an opening, known as the connection opening , for receiving an electrical connector; the assembly being characterised in that the second side wall comprises a portion surrounding the opening, known as the connection portion , for receiving a sealing part of the electrical connector, with said first and second side walls being arranged such that the connection portion extends towards the first casing so as to face one external surface of the first side wall . - a first casing for receiving at least a first electronic component of the electrical equipment; - a second casing for receiving at least a second electronic component of the electrical equipment; - the first and the second casings each comprise at least a side wall respectively known as the first and second side walls, which extend respectively from the first interface wall and the second interface wall in an opposite direction relative to the other casing; and - the second side wall has an opening, known as the connection opening , for receiving an electrical connector;
A walk-behind electric gardening device (10; 10'), comprising: a base unit (12; 12') arranged to move on a surface; a handle assembly (14; 14') connected to the base unit (12; 12'); a tool (112; 112'; 112") connected to the base unit (12; 12') for performing gardening operation; a first drive unit operable to propel the base unit (12; 12'); a second drive unit operable to drive the tool (112; 112'; 112"); and a switch assembly (108; 108'; 108") is operable by a user to selectively activate and deactivate the first drive unit, wherein the base unit (12; 12') includes a deck supported by two or more wheels (114; 114"; 106; 106'; 106"), and at least two of the wheels (106; 106'; 106") are connected with the first drive unit, characterized in that the first drive unit comprises one or more modular motor and gearbox unit each connected with a respective wheel (106; 106'; 106"), the modular motor and gearbox unit is arranged at least partly, and preferably entirely, outside a footprint of the deck . a base unit (12; 12') arranged to move on a surface; a handle assembly (14; 14') connected to the base unit (12; 12'); a tool (112; 112'; 112") connected to the base unit (12; 12') for performing gardening operation; a first drive unit operable to propel the base unit (12; 12'); a second drive unit operable to drive the tool (112; 112'; 112"); and a switch assembly (108; 108'; 108") is operable by a user to selectively activate and deactivate the first drive unit, wherein the base unit (12; 12') includes a deck supported by two or more wheels (114; 114"; 106; 106'; 106"), and at least two of the wheels (106; 106'; 106") are connected with the first drive unit, characterized in that the first drive unit comprises one or more modular motor and gearbox unit each connected with a respective wheel (106; 106'; 106"), the modular motor and gearbox unit is arranged at least partly, and preferably entirely, outside a footprint of the deck .
A range information encoding method, comprising: acquiring a new base range, wherein the new base range is used for decomposing range information of an entry to be stored in a ternary content addressable memory, TCAM ; characterised in that the method is further comprising : performing an expansion operation on the new base range based on a plurality of pre-stored base ranges to obtain an expansion result, wherein each of the pre-stored base ranges has respective encoded information ; and determining, according to the expansion result, encoded information corresponding to the new base range . acquiring a new base range, wherein the new base range is used for decomposing range information of an entry to be stored in a ternary content addressable memory, TCAM ; characterised in that the method is further comprising : performing an expansion operation on the new base range based on a plurality of pre-stored base ranges to obtain an expansion result, wherein each of the pre-stored base ranges has respective encoded information ; and determining, according to the expansion result, encoded information corresponding to the new base range . performing an expansion operation on the new base range based on a plurality of pre-stored base ranges to obtain an expansion result, wherein each of the pre-stored base ranges has respective encoded information ; and determining, according to the expansion result, encoded information corresponding to the new base range .
A method for cooling a heating element of an electric heater in a thermal process cycle, comprising the step of: cooling the heating element at a first cooling rate from a first temperature to a second temperature; characterized in that the method further comprises the step of cooling the heating element at a second cooling rate from the second temperature to a third temperature, wherein the second cooling rate is faster than the first cooling rate. cooling the heating element at a first cooling rate from a first temperature to a second temperature; characterized in that the method further comprises the step of cooling the heating element at a second cooling rate from the second temperature to a third temperature, wherein the second cooling rate is faster than the first cooling rate.
A method for session offloading, characterized by comprising: determining (S202), by a primary base station, a session aggregation maximum bit rate, AMBR, of an offloaded protocol data unit, PDU, session at a secondary base station, wherein the offloaded PDU session comprises part of quality of service, QoS, flows of a PDU session of a user equipment, UE, that are offloaded to the secondary base station; and sending (S204), by the primary base station, the session AMBR at the secondary base station to the secondary base station. determining (S202), by a primary base station, a session aggregation maximum bit rate, AMBR, of an offloaded protocol data unit, PDU, session at a secondary base station, wherein the offloaded PDU session comprises part of quality of service, QoS, flows of a PDU session of a user equipment, UE, that are offloaded to the secondary base station; and sending (S204), by the primary base station, the session AMBR at the secondary base station to the secondary base station.
A manufacturing method of a nitride semiconductor ultraviolet light-emitting element having a peak emission wavelength of 285 nm or shorter comprising: a first step of forming an n-type semiconductor layer composed of an n-type Al X Ga 1-X N-based semiconductor (1 ≥ X ≥ 0.5) on an upper surface of an underlying portion including a sapphire substrate ; a second step of forming, above the n-type semiconductor layer , an active layer that includes a light-emitting layer composed of an Al Y Ga 1-Y N-based semiconductor (X > Y > 0) and that is composed of an AlGaN-based semiconductor as a whole; and a third step of forming a p-type semiconductor layer composed of a p-type Al Z Ga 1-Z N-based semiconductor (1 ≥ Z > Y) above the active layer , characterised in that a growth temperature at the second step is higher than 1200°C and equal to or higher than a growth temperature at the first step. a first step of forming an n-type semiconductor layer composed of an n-type Al X Ga 1-X N-based semiconductor (1 ≥ X ≥ 0.5) on an upper surface of an underlying portion including a sapphire substrate ; a second step of forming, above the n-type semiconductor layer , an active layer that includes a light-emitting layer composed of an Al Y Ga 1-Y N-based semiconductor (X > Y > 0) and that is composed of an AlGaN-based semiconductor as a whole; and a third step of forming a p-type semiconductor layer composed of a p-type Al Z Ga 1-Z N-based semiconductor (1 ≥ Z > Y) above the active layer , characterised in that a growth temperature at the second step is higher than 1200°C and equal to or higher than a growth temperature at the first step.
An injection valve for an analysis apparatus comprising an analysis column, the injection valve comprising a compressive element and a rotative body compressed against a base by the compressive element , the rotative body comprising a lower surface in contact with the base and at least one recess on the lower surface configured to receive a fluid sample, wherein the base comprises a vaporization chamber which comprises an injection conduit having an upper end and a lower end , the vaporization chamber further comprising a carrier phase inlet in fluid communication with the injection conduit, wherein the injection conduit is configured for being in fluid communication with the analysis column of the analysis apparatus via the lower end when the injection valve is mounted on the analysis apparatus, and wherein, in an injection configuration of the rotative body , the recess is in fluid communication only with the injection conduit, via the upper end thereof.
A power supply integrated circuit comprising: a plurality of power regulator modules , each power regulator module configured to control one or more characteristics of a corresponding power signal; a communication interface module configured to receive power control information over a data bus from a source external to the power supply integrated circuit , wherein the power control information comprises information related to at least one characteristic of the one or more characteristics; and a regulator control module configured to: receive the power control information from the communication interface module , determine a power regulator module of the plurality of power regulator modules to which the received power control information relates, process the received power control information for generating one or more regulator control signals, communicate the one or more regulator control signals to the determined power regulator module for causing the corresponding power signal of the determined power regulator module to have the at least one characteristic, and cause the determined power regulator module to output the corresponding power signal having the at least one characteristic. a plurality of power regulator modules , each power regulator module configured to control one or more characteristics of a corresponding power signal; a communication interface module configured to receive power control information over a data bus from a source external to the power supply integrated circuit , wherein the power control information comprises information related to at least one characteristic of the one or more characteristics; and a regulator control module configured to: receive the power control information from the communication interface module , determine a power regulator module of the plurality of power regulator modules to which the received power control information relates, process the received power control information for generating one or more regulator control signals, communicate the one or more regulator control signals to the determined power regulator module for causing the corresponding power signal of the determined power regulator module to have the at least one characteristic, and cause the determined power regulator module to output the corresponding power signal having the at least one characteristic. receive the power control information from the communication interface module , determine a power regulator module of the plurality of power regulator modules to which the received power control information relates, process the received power control information for generating one or more regulator control signals, communicate the one or more regulator control signals to the determined power regulator module for causing the corresponding power signal of the determined power regulator module to have the at least one characteristic, and cause the determined power regulator module to output the corresponding power signal having the at least one characteristic.
A tip fairing for a horizontal airfoil of an aircraft, comprising stiffening elements and a skin covering the stiffening elements , the stiffening elements comprising a central web and two flanges located at the tips of the web, contact between the skin and the stiffening elements being made through the flanges of the stiffening elements , wherein - the tip fairing is manufactured from a composite material; - the tip fairing is manufactured as a single part, and - the planes defining the webs of any pair of stiffening elements taken in twos form an angle less than 30°, characterized in that the tip fairing further comprises two attachment areas each intended for receiving an attachment spar for attaching the fairing to the torsion box of a horizontal airfoil, at least one stiffening element being located between the two attachment areas and at least one stiffening element being located between the trailing edge of the fairing and the attachment area that is closest to said trailing edge, and the tip fairing further has a plurality of holes in the attachment areas suitable for fixing an attachment spar. - the tip fairing is manufactured from a composite material; - the tip fairing is manufactured as a single part, and - the planes defining the webs of any pair of stiffening elements taken in twos form an angle less than 30°, characterized in that