mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a brake installation of a motor vehicle having a primary brake system (10, 20; 110) having • a first electrically controllable pressure provision device for providing a brake pressure for actuating hydraulically actuatable wheel brakes , • a first electronic open-loop and closed-loop control unit , and • a first pressure detection device , which measures a brake pressure provided by the primary brake system, and having a secondary brake system having • a second electrically controllable pressure provision device for providing a brake pressure for actuating at least a part of the hydraulically actuatable wheel brakes , • a second electronic open-loop and closed-loop control unit , and • at least one second pressure detection device , the signals of which are processed in the second electronic open-loop and closed-loop control unit, wherein the secondary brake system is arranged hydraulically between the primary brake system (10, 20; 110) and the part of the wheel brakes , characterized in that the secondary brake system monitors the primary brake system (10, 20; 110) on the basis of the signals of the second pressure detection device and on the basis of a predefined brake pressure demand (Psoll) with regard to the functional capability of the primary brake system to build up a brake pressure corresponding to the predefined brake pressure demand. • a first electrically controllable pressure provision device for providing a brake pressure for actuating hydraulically actuatable wheel brakes , • a first electronic open-loop and closed-loop control unit , and • a first pressure detection device , which measures a brake pressure provided by the primary brake system, • a second electrically controllable pressure provision device for providing a brake pressure for actuating at least a part of the hydraulically actuatable wheel brakes , • a second electronic open-loop and closed-loop control unit , and • at least one second pressure detection device , the signals of which are processed in the second electronic open-loop and closed-loop control unit,
A centrifugal pump comprising: a housing ; an impeller rotatably disposed in said housing such that fluid (F) introduced thereto is centrifugally discharged therefrom to experience a first increase in energy; a diffuser rotatably disposed in said housing and placed in fluid communication with said impeller such that upon passage through said diffuser , said discharged fluid experiences a second increase in energy; a variable speed drive transmission ; and at least one motor cooperative with said variable speed drive transmission to impart torque independently to each of said impeller and said diffuser ; characterised by a controller cooperative with said pump , said variable speed drive transmission and said at least one motor to receive data corresponding to operation of said pump and to regulate operation thereof by calculating a combination of speeds to be imparted to said impeller and said diffuser from said variable speed drive transmission based on an operating state of at least one of (a) the pump and (b) the at least one motor in relation to an optimum condition. a housing ; an impeller rotatably disposed in said housing such that fluid (F) introduced thereto is centrifugally discharged therefrom to experience a first increase in energy; a diffuser rotatably disposed in said housing and placed in fluid communication with said impeller such that upon passage through said diffuser , said discharged fluid experiences a second increase in energy; a variable speed drive transmission ; and at least one motor cooperative with said variable speed drive transmission to impart torque independently to each of said impeller and said diffuser ; characterised by a controller cooperative with said pump , said variable speed drive transmission and said at least one motor to receive data corresponding to operation of said pump and to regulate operation thereof by calculating a combination of speeds to be imparted to said impeller and said diffuser from said variable speed drive transmission based on an operating state of at least one of (a) the pump and (b) the at least one motor in relation to an optimum condition.
Process for the preparation of a compound (A) which either corresponds to the general formula RGaCl 2 or is a mixture of RGaCl 2 with R 2 GaCl, comprising the reaction steps a1) reacting gallium with an alkyl donor in the presence of an activator to form compound (A); a2) and optionally isolating compound (A) from the reaction mixture, wherein R is a branched or unbranched alkyl radical having 1 to 4 carbon atoms and the addition of the alkyl donor is carried out at a predetermined constant pressure of 1.1 to 1.5 bar, the alkyl donor having the general formula RCI wherein R is as defined above and is preferably present in gaseous form in step a1) and wherein the activator is a compound or a mixture of compounds having the general formula: R a Ga b Cl c , wherein a is a number selected from 0, 1, 2 and 3 and b is a number selected from 1 and 2 and c is a number selected from 0, 1, 2 and 3, where a and c are not simultaneously 0, and wherein a + b + c = 4 or a multiple of 4 and wherein R is as defined above and wherein the sum of a and c is 3 when b is 1 or wherein the sum of a and c is 6 when b is 2. RGaCl 2 or is a mixture of RGaCl 2 with R 2 GaCl, comprising the reaction steps a1) reacting gallium with an alkyl donor in the presence of an activator to form compound (A); a2) and optionally isolating compound (A) from the reaction mixture, a1) reacting gallium with an alkyl donor in the presence of an activator to form compound (A); a2) and optionally isolating compound (A) from the reaction mixture, wherein R is a branched or unbranched alkyl radical having 1 to 4 carbon atoms and the addition of the alkyl donor is carried out at a predetermined constant pressure of 1.1 to 1.5 bar, the alkyl donor having the general formula RCI wherein R is as defined above and is preferably present in gaseous form in step a1) and wherein the activator is a compound or a mixture of compounds having the general formula: R a Ga b Cl c , wherein a is a number selected from 0, 1, 2 and 3 and b is a number selected from 1 and 2 and c is a number selected from 0, 1, 2 and 3, where a and c are not simultaneously 0, and wherein a + b + c = 4 or a multiple of 4 and wherein R is as defined above and wherein the sum of a and c is 3 when b is 1 or wherein the sum of a and c is 6 when b is 2.
A radio frequency identification, RFID, transponder , comprising: a substrate disposed with a housing ; an antenna arranged on the substrate to receive a radio frequency interrogation signal; a capacitor coupled with the substrate; characterized by a structure detachably configured to be coupled with the housing; a conductor positioned between the structure and the capacitor; wherein the structure is configured to be secured to an attachment surface , by an adhesive member ; wherein the capacitor is periodically probed to measure a capacitance of the capacitor; wherein, in response to the structure being decoupled to the housing , the conductor moves away from the capacitor resulting in a capacitance change, wherein the transponder is disabled when the capacitance change exceeds a predetermined threshold. a substrate disposed with a housing ; an antenna arranged on the substrate to receive a radio frequency interrogation signal; a capacitor coupled with the substrate; characterized by a structure detachably configured to be coupled with the housing; a conductor positioned between the structure and the capacitor; wherein the structure is configured to be secured to an attachment surface , by an adhesive member ; wherein the capacitor is periodically probed to measure a capacitance of the capacitor; wherein, in response to the structure being decoupled to the housing , the conductor moves away from the capacitor resulting in a capacitance change, wherein the transponder is disabled when the capacitance change exceeds a predetermined threshold. a capacitor coupled with the substrate; characterized by a structure detachably configured to be coupled with the housing; a conductor positioned between the structure and the capacitor; wherein the structure is configured to be secured to an attachment surface , by an adhesive member ; wherein the capacitor is periodically probed to measure a capacitance of the capacitor; wherein, in response to the structure being decoupled to the housing , the conductor moves away from the capacitor resulting in a capacitance change, wherein the transponder is disabled when the capacitance change exceeds a predetermined threshold.
A system of mateable connectors , the system comprising: a connector comprising connector quadrants comprising electrical contacts; and a mating connector configured to be detachably secured to the connector, the mating connector comprising mating quadrants and electrical contacts, the mating connector configured to provide electrical coupling to the connector detachably secured thereto; wherein the electrical contacts of a first quadrant of the connector quadrants have a first predetermined pin-out and the electrical contacts of a second quadrant of the connector quadrants have a second predetermined pin-out, the first quadrant and the second quadrant being nonadjacent, characterized by the first predetermined pin-out being electrically different than the second predetermined pin-out, and wherein the electrical contacts of each quadrant of a first pair of adjacent mating quadrants have the first predetermined pin-out and the electrical contacts of each quadrant of a second pair of adjacent mating quadrants have the second predetermined pin-out. a connector comprising connector quadrants comprising electrical contacts; and a mating connector configured to be detachably secured to the connector, the mating connector comprising mating quadrants and electrical contacts, the mating connector configured to provide electrical coupling to the connector detachably secured thereto; wherein the electrical contacts of a first quadrant of the connector quadrants have a first predetermined pin-out and the electrical contacts of a second quadrant of the connector quadrants have a second predetermined pin-out, the first quadrant and the second quadrant being nonadjacent, characterized by the first predetermined pin-out being electrically different than the second predetermined pin-out, and wherein the electrical contacts of each quadrant of a first pair of adjacent mating quadrants have the first predetermined pin-out and the electrical contacts of each quadrant of a second pair of adjacent mating quadrants have the second predetermined pin-out.
A method for protecting a vehicle or a shipping container, the method comprising: receiving , by a first receiver, vibration sensor data provided by a vibration sensor disposed in a side panel, a door, or a roof panel of the vehicle or shipping container, indicating an attack on the vehicle or the shipping container; determining , by a processor, from the received data, a type of attack upon the vehicle or the shipping container indicated by the received data, wherein determining a type of attack comprises comparing data received with known vibration signatures indicative of a type of attack, wherein the determined type of attack comprises: cutting through a side panel, a roof panel or a door of the vehicle or the shipping container; or peeling open a door, a side panel or a roof panel of the vehicle or the shipping container; transmitting , by a transmitter, a data packet to a second receiver, the data packet comprising metadata describing the determined type of attack. receiving , by a first receiver, vibration sensor data provided by a vibration sensor disposed in a side panel, a door, or a roof panel of the vehicle or shipping container, indicating an attack on the vehicle or the shipping container; determining , by a processor, from the received data, a type of attack upon the vehicle or the shipping container indicated by the received data, wherein determining a type of attack comprises comparing data received with known vibration signatures indicative of a type of attack, wherein the determined type of attack comprises: cutting through a side panel, a roof panel or a door of the vehicle or the shipping container; or peeling open a door, a side panel or a roof panel of the vehicle or the shipping container; cutting through a side panel, a roof panel or a door of the vehicle or the shipping container; or peeling open a door, a side panel or a roof panel of the vehicle or the shipping container; transmitting , by a transmitter, a data packet to a second receiver, the data packet comprising metadata describing the determined type of attack.
A baling machine including a rotary drive-transferring driveline comprising a rotary input shaft that is connected to provide rotary drive as an input to a transmission ; a flywheel shaft supporting a flywheel that is rotatably driven as an output of the transmission , the flywheel shaft being free of clutches and connecting directly or indirectly to a plunger of the baling machine ; and the transmission being drive-transferringly interposed between the input shaft and the flywheel shaft , characterized in that the transmission includes one or more clutches for selectively drivingly connecting the input shaft and the flywheel shaft one to the other inside the transmission .
A nozzle turning apparatus comprising a nozzle unit , said nozzle unit comprising a nozzle for sending out a wire from a tip end thereof and a nozzle holder for holding said nozzle, said nozzle unit rotatably supporting said nozzle holder, and a nozzle-holder drive member integrally provided with said nozzle unit and being movable in said nozzle unit to rotate said nozzle holder, said nozzle-holder drive member being driveable to turn said nozzle from a winding state to a wire processing state after a winding operation is finished, said nozzle unit further comprising inner unit-drive means integrally provided with said nozzle unit in said nozzle unit, for moving said nozzle-holder drive member ; the nozzle turning apparatus further comprising outer unit-drive means independently provided from said nozzle unit outside said nozzle unit, for driving said inner unit-drive means so as to move said nozzle-holder drivemember ; characterized in that said inner unit-drive means comprises a rotation member rotatably supported by said nozzle unit, for moving said nozzle-holder drive member, and a projected portion integrally provided with said rotation member, for rotating said rotation member; and wherein said outer unit-drive means comprises an outer movement member having a concave portion that engages with said projected portion, for moving to rotate said rotation member, and a drive mechanism for moving said outer movement member. outer unit-drive means independently provided from said nozzle unit outside said nozzle unit, for driving said inner unit-drive means so as to move said nozzle-holder drivemember ; characterized in that said inner unit-drive means comprises a rotation member rotatably supported by said nozzle unit, for moving said nozzle-holder drive member, and a projected portion integrally provided with said rotation member, for rotating said rotation member; and wherein said outer unit-drive means comprises an outer movement member having a concave portion that engages with said projected portion, for moving to rotate said rotation member, and a drive mechanism for moving said outer movement member.
Light source converter having an LLC resonant circuit, from the secondary side of which light sources (LEDs) such as, for example, an LED string can be supplied. wherein the LLC resonant circuit has: - a half-bridge circuit (HB) with two switches (S1, S2) connected in series, - a control circuit (SE), - a resonant circuit (RK) supplied starting from a center point (M1) of the two switches (S1, S2), and - a transformer (T1) fed with AC voltage from an output of the resonant circuit (RK), on the secondary side of which transformer (T1) is respectively provided one current path (SP1, SP2) for each of the two polarities of the AC voltage, wherein a detection circuit (ES) is provided which is designed to detect a signal (VI, V2) which represents currents (ISPI, ISP2) in the two current paths (SP1, SP2), and wherein the control circuit (SE) is designed to set the timing of the two switches (S1, S2) of the half-bridge circuit (HB) as a function of the signal (VI, V2) detected by the detection circuit (ES), wherein the detection circuit (ES) has at least one detection branch (EZ1) which is designed to detect the signal representing the current through the current path (SP1), characterized in that the at least one detection branch (EZ1) is further formed by a series circuit of a third switch (S3), a resistor (RH1), and a capacitor (CH1), and wherein the first detection branch (EZ 1 ) is arranged between a rectifier and a filter circuit, wherein the third switch (S3) is further clocked synchronously with one of the switches (S1) of the half-bridge circuit (HB). - a half-bridge circuit (HB) with two switches (S1, S2) connected in series, - a control circuit (SE), - a resonant circuit (RK) supplied starting from a center point (M1) of the two switches (S1, S2), and - a transformer (T1) fed with AC voltage from an output of the resonant circuit (RK), on the secondary side of which transformer (T1) is respectively provided one current path (SP1, SP2) for each of the two polarities of the AC voltage,
A unitary valve trim assembly that can be easily installed in and removed from a valve body of a process control valve , the valve trim assembly comprising: a valve cage having a first projection that extends in a first direction that is perpendicular to a longitudinal axis of the valve cage ; and a valve seat having a second projection that extends in a second direction, opposite the first direction, that is perpendicular to the longitudinal axis , the second projection arranged to engage the first projection to removably couple the valve seat to the valve cage , wherein when the second projection engages the first projection to removably couple the valve seat to the valve cage , characterized in that the valve seat is movable relative to the valve cage in an axial direction along the longitudinal axis of the valve cage without moving the valve seat or the valve cage in a radial direction perpendicular to the axial direction, wherein the first projection is a single first thread that extends radially outward from the valve cage in the first direction, and wherein the second projection is a single second thread that extends radially inward from the valve seat in the second direction. a valve cage having a first projection that extends in a first direction that is perpendicular to a longitudinal axis of the valve cage ; and a valve seat having a second projection that extends in a second direction, opposite the first direction, that is perpendicular to the longitudinal axis , the second projection arranged to engage the first projection to removably couple the valve seat to the valve cage , wherein when the second projection engages the first projection to removably couple the valve seat to the valve cage , characterized in that the valve seat is movable relative to the valve cage in an axial direction along the longitudinal axis of the valve cage without moving the valve seat or the valve cage in a radial direction perpendicular to the axial direction, wherein the first projection is a single first thread that extends radially outward from the valve cage in the first direction, and wherein the second projection is a single second thread that extends radially inward from the valve seat in the second direction.
A method for transmitting a-priori information, the method comprising: generating, by circuitry of a transmission apparatus, a chirp signal that represents the a-priori information based on a sampling frequency and a channel bandwidth of a signal to be transmitted, the chirp signal including at least one burst with a chirp rate equal to the sampling frequency and with a maximum frequency equal to the channel bandwidth; appending, by the circuitry, the chirp signal that represents the a-priori information to a data signal; and transmitting, by the circuitry, the data signal including the appended chirp signal that represents the a-priori information to a reception apparatus. generating, by circuitry of a transmission apparatus, a chirp signal that represents the a-priori information based on a sampling frequency and a channel bandwidth of a signal to be transmitted, the chirp signal including at least one burst with a chirp rate equal to the sampling frequency and with a maximum frequency equal to the channel bandwidth; appending, by the circuitry, the chirp signal that represents the a-priori information to a data signal; and transmitting, by the circuitry, the data signal including the appended chirp signal that represents the a-priori information to a reception apparatus.
Device in particular soft-forming device, for attaching edging strips to the narrow side of a plate-shaped workpiece of wood or wood substitutes, wherein the device comprises the following: a machine control unit; a supply device which is configured to supply an edging strip into an edging strip application device which is governed by the machine control unit; at least two edging strip application devices which are each configured to activate an edging strip supplied by the supply device by means of applying adhesive or glue to the joining side or by smelting on the joining side, and then pressing it against the narrow side of the workpiece in particular by means of at least one pressing roller and a movement device which is configured to move workpieces in at least one direction (X) relative to the edging strip application devices , characterised in that the device comprises an edging strip magazine for stocking and/or supplying a plurality of edging strips , from which the supply device removes edging strips , and the supply device comprises a branching means and edging strip supply paths arranged between the branching means and each edging strip application device , wherein the branching means is designed to guide an edging strip , which comes from the edging strip magazine and is supplied to the supply device , to an edging strip supply path which is predetermined by the machine control unit. a machine control unit; a supply device which is configured to supply an edging strip into an edging strip application device which is governed by the machine control unit; at least two edging strip application devices which are each configured to activate an edging strip supplied by the supply device by means of applying adhesive or glue to the joining side or by smelting on the joining side, and then pressing it against the narrow side of the workpiece in particular by means of at least one pressing roller and a movement device which is configured to move workpieces in at least one direction (X) relative to the edging strip application devices , characterised in that the device comprises an edging strip magazine for stocking and/or supplying a plurality of edging strips , from which the supply device removes edging strips , and the supply device comprises a branching means and edging strip supply paths arranged between the branching means and each edging strip application device , wherein the branching means is designed to guide an edging strip , which comes from the edging strip magazine and is supplied to the supply device , to an edging strip supply path which is predetermined by the machine control unit.