mhurhangee/patent-ind-claim-en huggingface dataset:
A plug suitable for attachment to a socket , the plug comprising a passageway extending through a body of the plug, the body incorporating a spigot suitable for insertion into a receiving aperture of the socket , the spigot communicating with the passageway of the plug , a latch member being provided on the body comprising a catch suitable for engaging a portion of the socket to retain the plug within the socket , the catch being displaceable between an operative position, wherein the catch may engage said portion of the socket to retain the plug within the socket, and a retracted position, to permit removal of the plug from the socket , biasing means engaging the latch member to bias the catch towards its operative position, the latch member including an operating button operable to displace the catch to its retracted position against the action of the biasing means , wherein the latch member comprises a one piece component extending through the body of the plug in a direction transverse to the axis of said passageway , whereby said catch is located at one end of the latch member on a lower side of the plug while said button is located at an opposite end of the latch member on an upper side of the plug such that the latch member is moveable in a vertical axis extending transverse to the passageway to displace the catch between its operative and retracted positions, wherein the plug incorporates electrical connectors adapted to cooperate with electrical connectors of the socket for supplying electrical current via a coupling assembly between the socket and the plug , wherein the plug is formed from two parts , a front part comprising a front face of the plug , having the spigot integrally formed thereon and having the electrical connectors mounted therein, and a rear part , the latch member being located within one or more guide channels defined between said two parts , the spigot extending from the front face , characterized in that the electrical connectors are provided on the front face .
Linear flux switching permanent magnet (FSPM) motor comprising a longitudinal linear stator with stator teeth facing an air gap (a) and a mover comprising at least one armature , said armature consisting of several U-shaped armature profiles , each U-shaped armature profile consisting of a profile base extending parallel to the air gap (a) and of two parallel profile members extending perpendicular to the profile base , wherein the U-shaped armature profiles are positioned successively and adjacent to each other in the direction parallel to the air gap (a), only spaced apart by permanent magnets positioned in-between, wherein the profile members of two adjacent armature profiles form an armature tooth protruding from the armature in the direction of the air gap (a), wherein a slot is formed between the profile members of each armature profile to accommodate an armature winding , wherein the permanent magnets consist of a first permanent magnet and a second permanent magnet , wherein the first permanent magnet is located on the top of the second permanent magnet in the area of a tooth tip , wherein the first permanent magnet has a larger base area and width than the second permanent magnet and is aligned with its upper surface with the tip of the armature tooth facing the air gap (a), and wherein the second permanent magnet is embedded over most of a length (I) of the armature tooth , and wherein the profile members comprise an increasing width portion , so that the tooth width increases towards the air gap (a), so that the width increase of the armature teeth towards the air gap (a) is formed of the increasing width portions of two profile members embedding the permanent magnets as well as from the width increase of the first permanent magnet relative to the second permanent magnet .
A communication processing method in a device connected to a network , the method comprising: a step of determining (S102) whether or not a destination device is able to exchange encrypted packets in response to a packet transmission request based on an IP address of the destination device; a step of generating (S104) a first encrypted packet directed to the destination device according to the packet transmission request if the destination device is able to exchange encrypted packets; a step of transmitting (S106) the first encrypted packet to the destination device by P2P; a step of generating (S114) a second encrypted packet including a packet directed to the destination device according to the packet transmission request if the destination device is not able to exchange encrypted packets; and a step of transmitting (S106) the second encrypted packet to a device serving as a proxy server for the destination device by P2P. a step of determining (S102) whether or not a destination device is able to exchange encrypted packets in response to a packet transmission request based on an IP address of the destination device; a step of generating (S104) a first encrypted packet directed to the destination device according to the packet transmission request if the destination device is able to exchange encrypted packets; a step of transmitting (S106) the first encrypted packet to the destination device by P2P; a step of generating (S114) a second encrypted packet including a packet directed to the destination device according to the packet transmission request if the destination device is not able to exchange encrypted packets; and a step of transmitting (S106) the second encrypted packet to a device serving as a proxy server for the destination device by P2P.
A wrapping system for an agricultural baler , comprising: a material roll configured to hold a roll of wrapping material; and a knife assembly comprising a movable knife that is configured to cut wrapping material that comes off the material roll ; a sensor associated with the material roll and configured to output a drawn material signal that is indicative of wrapping material being drawn from the material roll ; and a controller operatively coupled to the knife assembly and the sensor , characterised in that the controller is configured to: receive the drawn material signal; determine a length of wrapping material that is drawn from the material roll ; output a cut signal to the knife assembly when the drawn length of wrapping material reaches a defined length; determine a length of wrapping material that is drawn from the material roll after outputting the cut signal; and output an excessive wrap signal when the length of wrapping material drawn after outputting the cut signal exceeds a threshold length. a material roll configured to hold a roll of wrapping material; and a knife assembly comprising a movable knife that is configured to cut wrapping material that comes off the material roll ; a sensor associated with the material roll and configured to output a drawn material signal that is indicative of wrapping material being drawn from the material roll ; and a controller operatively coupled to the knife assembly and the sensor , characterised in that the controller is configured to: receive the drawn material signal; determine a length of wrapping material that is drawn from the material roll ; output a cut signal to the knife assembly when the drawn length of wrapping material reaches a defined length; determine a length of wrapping material that is drawn from the material roll after outputting the cut signal; and output an excessive wrap signal when the length of wrapping material drawn after outputting the cut signal exceeds a threshold length. receive the drawn material signal; determine a length of wrapping material that is drawn from the material roll ; output a cut signal to the knife assembly when the drawn length of wrapping material reaches a defined length; determine a length of wrapping material that is drawn from the material roll after outputting the cut signal; and output an excessive wrap signal when the length of wrapping material drawn after outputting the cut signal exceeds a threshold length.
An electrochemical machining electrode device for realizing a cooling slot in a surface of a body , preferably a blade, to be cooled of a gas turbine assembly; the device being a sandwich body comprising: - two outer electrically non-conducting plates ; - two inner electrically conducting plates in direct contact with the two outer non-conducting plates ; the two inner electrically conducting plates being separated for forming a central gap used to provide flow of fresh electrolyte to the surface to be machined; wherein the inner electrically conducting plates serve as a cathode providing current from an electrical current source to the surface to be machined, which is used as anode and also connected to the electrical current source; - a plurality of bridge bodies connecting the two inner electrically conducting plates ; characterized in that the device is comb-shaped comprising a base and a plurality of tubes connected to the base ; the base being open and the tubes are hollow each comprising of an outer electrically non-conducting tube in direct contact with an inner electrically conducting tube for forming a plurality of passing channels allowing the electrolyte to enter the device by the base and to leave the device by the tubes ; each inner electrically conducting tube additionally serves as a cathode providing current via the inner electrically conducting plates from an electrical current source to the surface to be machined, which is used as anode and also connected to the electrical current source. - two outer electrically non-conducting plates ; - two inner electrically conducting plates in direct contact with the two outer non-conducting plates ; the two inner electrically conducting plates being separated for forming a central gap used to provide flow of fresh electrolyte to the surface to be machined; wherein the inner electrically conducting plates serve as a cathode providing current from an electrical current source to the surface to be machined, which is used as anode and also connected to the electrical current source; - a plurality of bridge bodies connecting the two inner electrically conducting plates ;
A laundry treatment apparatus comprising: a drawer ; a cabinet that is configured to receive the drawer; a tub that is accommodated in the drawer and configured to store water; an introduction port that is located in an upper surface of the drawer; a drum that is located in the tub, that is configured to communicate with the introduction port, and that defines a laundry receiving space; a driving shaft that is located at a bottom surface of the drum; a driving unit that is configured to rotate the driving shaft; a controller that is configured to control the driving unit; and an attachment and detachment unit that is configured to fix the drawer to the cabinet in response to a control signal from the controller, characterized in that : the attachment and detachment unit is provided to fix each side surface of the drawer to a corresponding side surface of the cabinet. a drawer ; a cabinet that is configured to receive the drawer; a tub that is accommodated in the drawer and configured to store water; an introduction port that is located in an upper surface of the drawer; a drum that is located in the tub, that is configured to communicate with the introduction port, and that defines a laundry receiving space; a driving shaft that is located at a bottom surface of the drum; a driving unit that is configured to rotate the driving shaft; a controller that is configured to control the driving unit; and an attachment and detachment unit that is configured to fix the drawer to the cabinet in response to a control signal from the controller, characterized in that : the attachment and detachment unit is provided to fix each side surface of the drawer to a corresponding side surface of the cabinet.
An active heat-dissipation system for a base station of a communication system, comprising: a measuring module , configured to detect a temperature sensing signal of the base station; a controller , configured to receive the temperature sensing signal detected by the measuring module to set a preset temperature signal, to generate a difference between the temperature sensing signal and the preset temperature signal and a time derivative of the difference, and to output a control signal according to the difference and the time derivative of the difference based on a control program; and a power module , configured to receive the control signal and output an electrical signal to a heat-dissipation module according to the control signal, such that the heat-dissipation module performs a heat-dissipation process for the base station according to the electrical signal; wherein the control program is an adaptive fuzzy control algorithm for determining the difference between the temperature sensing signal, the preset temperature signal and the time derivative of the difference according to a time-variant temperature measured by the measuring module . a measuring module , configured to detect a temperature sensing signal of the base station; a controller , configured to receive the temperature sensing signal detected by the measuring module to set a preset temperature signal, to generate a difference between the temperature sensing signal and the preset temperature signal and a time derivative of the difference, and to output a control signal according to the difference and the time derivative of the difference based on a control program; and a power module , configured to receive the control signal and output an electrical signal to a heat-dissipation module according to the control signal, such that the heat-dissipation module performs a heat-dissipation process for the base station according to the electrical signal; wherein the control program is an adaptive fuzzy control algorithm for determining the difference between the temperature sensing signal, the preset temperature signal and the time derivative of the difference according to a time-variant temperature measured by the measuring module .
A vehicle , comprising: an engine which has a plurality of cylinders (31a to 31d) and a crankshaft connected to the plurality of cylinders (31a to 31d) and is configured to cause the cylinders (31a to 31d) to perform a combustion stroke at a first interval (P1) where the crankshaft rotates through a first angle, at a second interval (P2) where the crankshaft rotates through a second angle which is smaller than the first angle, and at a third interval (P3) where the crankshaft rotates through a third angle which is smaller than the second angle, respectively; a catalyst configured to purify gas emitted from the plurality of cylinders (31a to 31d); and a controller configured to perform a normal mode (S104) which causes the plurality of cylinders (31a to 31d) to sequentially perform the combustion stroke so that the combustion stroke occurs at the first interval (P1), at the second interval (P2), and at the third interval (P3), and a pause mode (S103) which causes one cylinder , which would perform an explosion at a boundary between the second interval (P2) and the third interval (P3) that are successive in the normal mode (S104) out of the plurality of cylinders (31a to 31d), to pause the combustion stroke while causing the other cylinders (31a to 31c) to perform the combustion stroke, wherein before the normal mode (S104), the controller performs a warm-up operation to increase a temperature of the catalyst by the pause mode (S103). an engine which has a plurality of cylinders (31a to 31d) and a crankshaft connected to the plurality of cylinders (31a to 31d) and is configured to cause the cylinders (31a to 31d) to perform a combustion stroke at a first interval (P1) where the crankshaft rotates through a first angle, at a second interval (P2) where the crankshaft rotates through a second angle which is smaller than the first angle, and at a third interval (P3) where the crankshaft rotates through a third angle which is smaller than the second angle, respectively; a catalyst configured to purify gas emitted from the plurality of cylinders (31a to 31d); and a controller configured to perform a normal mode (S104) which causes the plurality of cylinders (31a to 31d) to sequentially perform the combustion stroke so that the combustion stroke occurs at the first interval (P1), at the second interval (P2), and at the third interval (P3), and a pause mode (S103) which causes one cylinder , which would perform an explosion at a boundary between the second interval (P2) and the third interval (P3) that are successive in the normal mode (S104) out of the plurality of cylinders (31a to 31d), to pause the combustion stroke while causing the other cylinders (31a to 31c) to perform the combustion stroke, wherein before the normal mode (S104), the controller performs a warm-up operation to increase a temperature of the catalyst by the pause mode (S103).
A surgical end effector for use with a surgical instrument that includes an elongate shaft assembly that includes a rotary output drive shaft, said surgical end effector comprising: an elongate channel configured for operable attachment to the elongate shaft assembly of the surgical instrument, said elongate channel configured to operably support a surgical staple cartridge therein; an anvil frame comprising a proximal end and a distal end and being selectively movable between open and closed position relative to said elongate channel upon application of opening and closing motions thereto from the elongate shaft assembly; a firing member supported for movable travel within said surgical end effector being characterized by means supported within said anvil frame and extending a length thereof for driving said firing member through said end effector from a starting position to an ending position upon an application of a first rotary motion to said means for driving and wherein said means for driving being configured to drive said firing member from said ending position to said starting position upon application of a second rotary motion to said means for driving. an elongate channel configured for operable attachment to the elongate shaft assembly of the surgical instrument, said elongate channel configured to operably support a surgical staple cartridge therein; an anvil frame comprising a proximal end and a distal end and being selectively movable between open and closed position relative to said elongate channel upon application of opening and closing motions thereto from the elongate shaft assembly; a firing member supported for movable travel within said surgical end effector being characterized by means supported within said anvil frame and extending a length thereof for driving said firing member through said end effector from a starting position to an ending position upon an application of a first rotary motion to said means for driving and wherein said means for driving being configured to drive said firing member from said ending position to said starting position upon application of a second rotary motion to said means for driving.
A handheld electronic pipette , comprising a linear actuator including a motor for driving a piston to aspirate and dispense fluid into and from a pipette tip , a control circuit for the pipette including a user controllable microprocessor and memory, a display electrically connected to the microprocessor, and a user operable controller connected to the microprocessor; wherein the microprocessor is programmed to present a user interface to a user on the display and to control the motor in response to a programmed sequence or instructions from the user; characterized in that the controller is operable by the user to navigate and select at least one option in the user interface; the controller is further operable to direct the operation of the pipette in driving the piston ; the controller is a two-axis joystick-style controller capable of outputting a continuous range of output values representative of its horizontal and vertical position and comprising a home position or a center position; and the two-axis joystick-style controller is configured to receive a user input representative of a position along two axes. characterized in that the controller is operable by the user to navigate and select at least one option in the user interface; the controller is further operable to direct the operation of the pipette in driving the piston ; the controller is a two-axis joystick-style controller capable of outputting a continuous range of output values representative of its horizontal and vertical position and comprising a home position or a center position; and the two-axis joystick-style controller is configured to receive a user input representative of a position along two axes.
A laser sensor module , comprising: a first laser source configured to emit first modulated laser light a circuitry configured to drive the first laser source with a first modulated driving current to cause the first laser source to emit first modulated laser light, and a detector configured to detect said first modulated laser light which induces a photocurrent with variations resulting from the modulation of said first modulated laser light, wherein the laser sensor module further comprises a second laser source configured to emit second modulated light wherein the circuitry is configured to drive the second laser source with a second modulated driving current to cause the second laser source to emit second modulated light, and the detector is configured to detect said second modulated light wherein the circuitry is configured to adapt the amplitude of the second modulated driving current to induce a contribution to the photocurrent which compensates for the variations of the photocurrent induced by the laser light of the first laser source . a first laser source configured to emit first modulated laser light a circuitry configured to drive the first laser source with a first modulated driving current to cause the first laser source to emit first modulated laser light, and a detector configured to detect said first modulated laser light which induces a photocurrent with variations resulting from the modulation of said first modulated laser light, wherein the laser sensor module further comprises a second laser source configured to emit second modulated light wherein the circuitry is configured to drive the second laser source with a second modulated driving current to cause the second laser source to emit second modulated light, and the detector is configured to detect said second modulated light wherein the circuitry is configured to adapt the amplitude of the second modulated driving current to induce a contribution to the photocurrent which compensates for the variations of the photocurrent induced by the laser light of the first laser source .