mhurhangee/patent-ind-claim-en huggingface dataset:
A computing device, comprising: an electronic component; a printed circuit board assembly comprising at least two latch receiving spaces; and a latch assembly configured to be connected to the printed circuit board assembly at one of the at least two latch receiving spaces for securing the electronic component, wherein the latch receiving spaces are positioned on the printed circuit board assembly to accommodate various sizes of the electronic component, wherein the latch assembly comprises: a securing element connected to the printed circuit board assembly , wherein the securing element comprises at least two cylindrical elements, wherein the at least two cylindrical elements comprise two different sizes; and a latch mechanism , wherein the latch mechanism is characterized by comprising a connection component configured to secure the latch mechanism to the securing element via at least one cylindrical element of the at least two cylindrical elements, wherein the connection component of the latch mechanism comprises a magnet configured to magnetically connect to the at least one cylindrical element of the securing element , wherein the at least one cylindrical element of the securing element comprises a tapered feature comprising a magnetic metal component. an electronic component; a printed circuit board assembly comprising at least two latch receiving spaces; and a latch assembly configured to be connected to the printed circuit board assembly at one of the at least two latch receiving spaces for securing the electronic component, wherein the latch receiving spaces are positioned on the printed circuit board assembly to accommodate various sizes of the electronic component, wherein the latch assembly comprises: a securing element connected to the printed circuit board assembly , wherein the securing element comprises at least two cylindrical elements, wherein the at least two cylindrical elements comprise two different sizes; and a latch mechanism , wherein the latch mechanism is characterized by comprising a connection component configured to secure the latch mechanism to the securing element via at least one cylindrical element of the at least two cylindrical elements, wherein the connection component of the latch mechanism comprises a magnet configured to magnetically connect to the at least one cylindrical element of the securing element , wherein the at least one cylindrical element of the securing element comprises a tapered feature comprising a magnetic metal component.
Method (C) for converting a data signal (U), comprising processes of - providing an input bit stream (IB) of input bits (IBj), the input bit stream (IB) being representative for the data signal (U) to be converted and - applying to consecutive disjunct partial input bit sequences (IB k ) of a number of k consecutive input bits (IBj) covering said input bit stream (IB), with k being a fixed natural number, a distribution matching process (DM) in order to generate and output a final output bit stream (OB) or a preform thereof, wherein - the distribution matching process (DM) is formed by a quadrant shaping process (QS) and configured in order to map a respective partial input bit sequence (IB k ) to a constellation point of a four-dimensional 2 4·m -QAM constellation, which conveys two distinct polarizations for each of an in-phase and a quadrature component, with m being a fixed natural number, and - k and m fulfill the relations 4·m ≥ k and k = J + I with I being a fixed natural number and with J ≤ 4. - providing an input bit stream (IB) of input bits (IBj), the input bit stream (IB) being representative for the data signal (U) to be converted and - applying to consecutive disjunct partial input bit sequences (IB k ) of a number of k consecutive input bits (IBj) covering said input bit stream (IB), with k being a fixed natural number, a distribution matching process (DM) in order to generate and output a final output bit stream (OB) or a preform thereof, - the distribution matching process (DM) is formed by a quadrant shaping process (QS) and configured in order to map a respective partial input bit sequence (IB k ) to a constellation point of a four-dimensional 2 4·m -QAM constellation, which conveys two distinct polarizations for each of an in-phase and a quadrature component, with m being a fixed natural number, and - k and m fulfill the relations 4·m ≥ k and k = J + I with I being a fixed natural number and with J ≤ 4.
A vehicle body , comprising: a front longitudinal beam ; a first bracket extending in a left-right direction and having an inner end connected to an outer side of the front longitudinal beam ; an upper side beam having a front lower end connected to an outer end of the first bracket , and the front lower end obliquely extending upwards from a front to a rear; a front floor longitudinal beam having a front end connected to a rear end of the front longitudinal beam and having a linear configuration; a rocker panel having a front end connected to a rear end of the front longitudinal beam ; and a rear floor longitudinal beam connected to a rear end of the front floor longitudinal beam and connected to a rear end of the rocker panel to make the front floor longitudinal beam , the rocker panel and the rear floor longitudinal beam forming a closed-loop force transmission structure, characterized in that the first bracket comprises a first bracket plate and a second bracket plate , the first bracket plate is in a shape of U, and the second bracket plate is fixed to an opening of the first bracket plate and seals the opening. a front longitudinal beam ; a first bracket extending in a left-right direction and having an inner end connected to an outer side of the front longitudinal beam ; an upper side beam having a front lower end connected to an outer end of the first bracket , and the front lower end obliquely extending upwards from a front to a rear; a front floor longitudinal beam having a front end connected to a rear end of the front longitudinal beam and having a linear configuration; a rocker panel having a front end connected to a rear end of the front longitudinal beam ; and a rear floor longitudinal beam connected to a rear end of the front floor longitudinal beam and connected to a rear end of the rocker panel to make the front floor longitudinal beam , the rocker panel and the rear floor longitudinal beam forming a closed-loop force transmission structure, characterized in that the first bracket comprises a first bracket plate and a second bracket plate , the first bracket plate is in a shape of U, and the second bracket plate is fixed to an opening of the first bracket plate and seals the opening.
An electrically actuated braking system for an aircraft, comprising: an electro-mechanical brake actuator (EMAbrake) (151-154) proximate a wheel of the aircraft, the EMAbrake including a motor; an electro-mechanical actuator controller (EMAC) (141-144) including a first motor controller for generating a first drive signal for the EMAbrake to decelerate or hold stationary the aircraft, and a second motor controller for generating a second drive signal for the EMAbrake to decelerate or hold stationary the aircraft, characterised in that the first motor controller and the second motor controller are dissimilar, in that dissimilar technologies are used for the motor controllers at control actuator level, so as to provide protection against common mode failure of the first and second motor controllers. an electro-mechanical brake actuator (EMAbrake) (151-154) proximate a wheel of the aircraft, the EMAbrake including a motor; an electro-mechanical actuator controller (EMAC) (141-144) including a first motor controller for generating a first drive signal for the EMAbrake to decelerate or hold stationary the aircraft, and a second motor controller for generating a second drive signal for the EMAbrake to decelerate or hold stationary the aircraft, characterised in that the first motor controller and the second motor controller are dissimilar, in that dissimilar technologies are used for the motor controllers at control actuator level, so as to provide protection against common mode failure of the first and second motor controllers.
Moulding tool (1; 101; 201; 401; 501; 601; 701) for deepdrawing a film (6; 306; 406; 606) to form a container (3; 303; 403; 1200), having a mould chamber part (10; 110; 410; 610) which can be subjected to overpressure, in which the mould chamber part (10; 110; 410; 610) comprises a mould chamber (25; 125; 425; 625) which is enclosed by a mould base (27; 127; 427; 527; 627; 727) and a mould side wall in such a way that the film (6; 306; 406; 606) can be formed into the container (3; 303; 403; 1200) in the mould chamber part (10; 1 10; 410; 610) by means of the overpressure, wherein the moulding tool (1; 101; 201; 401; 501; 601; 701) is configured to produce an annular gap (60; 160; 460; 560; 660) at ambient pressure or overpressure at the mould base (27; 127; 427; 527; 627; 727), into which the film (6; 306; 406; 606) can be moulded, wherein the mould base (27; 127; 427; 527; 627; 727) comprises a base disengaging element (35; 135; 435) which can be displaced into the mould chamber (25; 125; 425; 625), which can produce the annular gap by disengagement into the mould chamber , and which is enclosed by a stationary base ring element , wherein the stationary base ring element is stationary relative to the mould side wall and is formed integrally with the mould side wall , wherein the displaceable base disengaging element (35; 135; 435) is reduced in diameter in relation to the mould base (27; 127; 427; 527; 627; 727) and has a component thickness which is at least as high or higher than an annular gap height of the annular gap to be produced, characterised in that the moulding tool (1; 101; 201; 401; 501; 601; 701) is configured in such a way that the displaceable base disengaging element (35; 135; 435) can be lifted with a hollow base mould lift against the axial main mould direction , so that the circumferential annular gap is formed between the axially ascending mould side wall and the displaceable base disengaging element (35; 135; 435).
Filling and/or support module for a packaging , comprising: a tapering base segment and a tapering top segment connected thereto by at least one transition zone (5A-F); wherein the at least one transition zone (5A-F) connects a relatively narrow end of the base segment to a relatively wide end of the top segment ; wherein the module has a longitudinal axis (L) running through the base segment and top segment and is relatively easily compressible in the direction of the longitudinal axis (L) but is relatively stiff in a direction transversely of the longitudinal axis (L), the base segment and the top segment being relatively stiff in the direction of the longitudinal axis (L), and the at least one transition zone (5A-F) being relatively easily deformable; and wherein the dimensions (h 1 , h 2 ) of the base segment and the top segment substantially correspond in the direction of the longitudinal axis (L); wherein a plurality of transition zones (5A-F) and a plurality of tapering intermediate segments (8A-D) are arranged between the base segment and the top segment , characterized in that the dimensions of the intermediate segments (8A-D) in the direction of the longitudinal axis (L) increase from the base segment in the direction of the top segment . a tapering base segment and a tapering top segment connected thereto by at least one transition zone (5A-F); wherein the at least one transition zone (5A-F) connects a relatively narrow end of the base segment to a relatively wide end of the top segment ; wherein the module has a longitudinal axis (L) running through the base segment and top segment and is relatively easily compressible in the direction of the longitudinal axis (L) but is relatively stiff in a direction transversely of the longitudinal axis (L), the base segment and the top segment being relatively stiff in the direction of the longitudinal axis (L), and the at least one transition zone (5A-F) being relatively easily deformable; and wherein the dimensions (h 1 , h 2 ) of the base segment and the top segment substantially correspond in the direction of the longitudinal axis (L); wherein a plurality of transition zones (5A-F) and a plurality of tapering intermediate segments (8A-D) are arranged between the base segment and the top segment , characterized in that the dimensions of the intermediate segments (8A-D) in the direction of the longitudinal axis (L) increase from the base segment in the direction of the top segment .
An interconnect apparatus configured to communicate data packets through a network, the data packets arranged in a plurality of sub-packets, including an address sub-packet that identifies a target processing core for receiving a data packet, the interconnect apparatus comprising a chip with • a Data Vortex switch on said chip, and • an array of processing cores on said chip wherein the Data Vortex switch receives data from an external source and the array of processing cores receives data from the Data Vortex switch, wherein a data packet sent to the Data Vortex switch is not reassembled in the Data Vortex switch but travels through the Data Vortex switch in wormhole fashion. • a Data Vortex switch on said chip, and • an array of processing cores on said chip wherein the Data Vortex switch receives data from an external source and the array of processing cores receives data from the Data Vortex switch, wherein a data packet sent to the Data Vortex switch is not reassembled in the Data Vortex switch but travels through the Data Vortex switch in wormhole fashion.
Method for determining an ignition advance setpoint (CAA ) of a spark-ignition internal combustion engine comprising the steps of: - determination of a torque setpoint (Cc), - determination of an effective torque (Ce), - determination of a first ignition advance efficiency ( R AAsmi ) as a function of the set torque (Cc) and the effective torque (Ce), in the case of a fuel injection mode without micro-injection, - determination of an activation state or not of a fuel injection mode for which part of this fuel is intended to be injected by micro-injection ( Smi ), characterized in that it further comprises the steps of: - determination of a micro injection yield ( Rmi ), - determination of the ignition advance efficiency with micro-injection ( R AAami ), from the micro-injection efficiency ( Rmi ) and the first ignition advance efficiency ( R AAsmi ), - determination and application of the ignition advance instruction (C AA ) as a function of the ignition advance efficiency with micro-injection ( R AAami ) determined previously. - determination of a torque setpoint (Cc), - determination of an effective torque (Ce), - determination of a first ignition advance efficiency ( R AAsmi ) as a function of the set torque (Cc) and the effective torque (Ce), in the case of a fuel injection mode without micro-injection, - determination of an activation state or not of a fuel injection mode for which part of this fuel is intended to be injected by micro-injection ( Smi ), - determination of a micro injection yield ( Rmi ), - determination of the ignition advance efficiency with micro-injection ( R AAami ), from the micro-injection efficiency ( Rmi ) and the first ignition advance efficiency ( R AAsmi ), - determination and application of the ignition advance instruction (C AA ) as a function of the ignition advance efficiency with micro-injection ( R AAami ) determined previously.
A phthalonitrile resin comprising polymerized units derived from a compound of Formula 1 below, wherein the polymerized units are formed by a reaction of the compound of Formula 1 with a curing agent, a reaction between the compounds of Formula 1, a reaction of the compound of Formula 1 with another phthalonitrile compound, or a reaction of the compound of Formula 1 with a curing agent and another phthalonitrile compound, and wherein the curing agent is an amine compound or a hydroxy compound: wherein, Ar 1 and Ar 2 are each independently an aromatic divalent radical substituted with at least one amino group or hydroxy group, L, L 1 and L 2 are each independently a single bond, an alkylene group, an alkylidene group, an oxygen atom, a sulfur atom or -S(=O) 2 -, and R 1 to R 10 are each independently hydrogen, an alkyl group, an alkoxy group, an aryl group or a cyano group, provided that at least two of R 1 to R 5 are a cyano group and at least two of R 6 to R 10 are a cyano group, wherein the alkyl group, alkoxy group, aryl group, alkylene group or alkylidene group may optionally be substituted with a halogen such as chlorine or fluorine, an epoxy group such as a glycidyl group, an epoxyalkyl group, a glycidoxyalkyl group or an alicyclic epoxy group, an acryloyl group, a methacryloyl group, an isocyanate group, a thiol group, an alkyl group, an alkoxy group or an aryl group, wherein the aryl group includes an aralkyl group or arylalkyl group, and wherein the alkyl group, alkoxy group, alkylene group and alkylidene group may be linear, branched or cyclic. a reaction of the compound of Formula 1 with a curing agent, a reaction between the compounds of Formula 1, a reaction of the compound of Formula 1 with another phthalonitrile compound, or a reaction of the compound of Formula 1 with a curing agent and another phthalonitrile compound, and wherein the curing agent is an amine compound or a hydroxy compound: wherein, Ar 1 and Ar 2 are each independently an aromatic divalent radical substituted with at least one amino group or hydroxy group, L, L 1 and L 2 are each independently a single bond, an alkylene group, an alkylidene group, an oxygen atom, a sulfur atom or -S(=O) 2 -, and R 1 to R 10 are each independently hydrogen, an alkyl group, an alkoxy group, an aryl group or a cyano group, provided that at least two of R 1 to R 5 are a cyano group and at least two of R 6 to R 10 are a cyano group, wherein the alkyl group, alkoxy group, aryl group, alkylene group or alkylidene group may optionally be substituted with a halogen such as chlorine or fluorine, an epoxy group such as a glycidyl group, an epoxyalkyl group, a glycidoxyalkyl group or an alicyclic epoxy group, an acryloyl group, a methacryloyl group, an isocyanate group, a thiol group, an alkyl group, an alkoxy group or an aryl group, wherein the aryl group includes an aralkyl group or arylalkyl group, and wherein the alkyl group, alkoxy group, alkylene group and alkylidene group may be linear, branched or cyclic.
A liftgate structure, comprising: a structural inner panel with an outside surface and an inner surface having a lower perimeter surface area extending across substantially the entire width of the structural inner panel , the structural inner panel including a wiper motor housing recess formed on the inner surface ; characterized in that the structure further comprises: a plurality of brackets connected to the outside surface of the structural inner panel , each of the plurality of brackets having at least one friendly hole ; and a tether having two ends each having at least one overmolded retainer connecting both of the two ends of the tether to a wiper motor housing that is connected to the wiper motor housing recess , wherein the tether is positioned through each of the at least one friendly hole of each of the plurality of brackets . a structural inner panel with an outside surface and an inner surface having a lower perimeter surface area extending across substantially the entire width of the structural inner panel , the structural inner panel including a wiper motor housing recess formed on the inner surface ; a plurality of brackets connected to the outside surface of the structural inner panel , each of the plurality of brackets having at least one friendly hole ; and a tether having two ends each having at least one overmolded retainer connecting both of the two ends of the tether to a wiper motor housing that is connected to the wiper motor housing recess , wherein the tether is positioned through each of the at least one friendly hole of each of the plurality of brackets .
A meter electronics for detecting an orientation and compensating a measurement based on the detected orientation, the meter electronics comprising: an interface configured to communicatively couple to a sensor assembly ; and characterised in that a processing system is configured to detect an orientation of the sensor assembly based on one or more vibration modes as observed in one or more sensor signals provided by the sensor assembly . an interface configured to communicatively couple to a sensor assembly ; and characterised in that a processing system is configured to detect an orientation of the sensor assembly based on one or more vibration modes as observed in one or more sensor signals provided by the sensor assembly .
A system for thermoforming an article, the system comprising: a heating station ; a cooling station ; a carriage ; and a negative pressure generation system , the negative pressure generation system comprising a forming material , a sealing member , and a negative pressure generation device , wherein the negative pressure generation system is adapted to at least partly seal the article inside the forming material by exposing the article to a pressure less than atmospheric pressure, wherein the negative pressure generation system and the heating station are cooperatively adapted to allow the article to be simultaneously exposed to thermal energy, the pressure less than atmospheric pressure while the article is at least partly sealed inside the forming material ; and wherein the negative pressure generation system and the cooling station are cooperatively adapted to allow the article to be exposed to a temperature less than experienced in the heating station while the article is at least partly sealed inside the forming material and exposed to the pressure less than atmospheric pressure, and characterised in that the carriage and the sealing member of the negative pressure generation system are configured to move the article, while at least partly sealed in the forming material , between the heating station and the cooling station .
An ultrasonic probe , comprising: a transducer configured to be rotatably provided: a shaft configured to have the transducer mounted thereto; and a supporting member configured to be rotatably supporting the shaft wherein the supporting member is deformed by an outside impact and returned to an original state when the outside impact is removed, characterized in that the supporting member includes a first supporting unit and a second supporting unit , and the second supporting unit is provided with an insertion hole into which the shaft is inserted and the first supporting unit is mounted to a base frame and provided with a buffer unit in the shape of a hole and positioned below the insertion hole , the buffer unit configured to ease the impact applied to the supporting member and to prevent the shaft from being deformed by the outside impact. a shaft configured to have the transducer mounted thereto; and a supporting member configured to be rotatably supporting the shaft wherein the supporting member is deformed by an outside impact and returned to an original state when the outside impact is removed, characterized in that the supporting member includes a first supporting unit and a second supporting unit , and the second supporting unit is provided with an insertion hole into which the shaft is inserted and the first supporting unit is mounted to a base frame and provided with a buffer unit in the shape of a hole and positioned below the insertion hole , the buffer unit configured to ease the impact applied to the supporting member and to prevent the shaft from being deformed by the outside impact.