mhurhangee/patent-ind-claim-en huggingface dataset:
A twist-lock type element for locking and weighting containers, comprising: a stem having at a first end with an arrow shaped head of a twist-lock type; a load cell comprising: - a longitudinal body having a first end coaxially fixed to a second end of the stem opposed to the arrow shaped head , configured for withstanding a maximum nominal traction force and for elastically stretching itself in a greater measure than said stem , - at least a strain gauge fixed on a wall of said longitudinal body so as to sense an axial traction force of the element for locking and weighting; a locking tail suitable for a spreader for lifting containers, fixed at a second end of said longitudinal body opposite to said first end. a stem having at a first end with an arrow shaped head of a twist-lock type; a load cell comprising: - a longitudinal body having a first end coaxially fixed to a second end of the stem opposed to the arrow shaped head , configured for withstanding a maximum nominal traction force and for elastically stretching itself in a greater measure than said stem , - at least a strain gauge fixed on a wall of said longitudinal body so as to sense an axial traction force of the element for locking and weighting; - a longitudinal body having a first end coaxially fixed to a second end of the stem opposed to the arrow shaped head , configured for withstanding a maximum nominal traction force and for elastically stretching itself in a greater measure than said stem , - at least a strain gauge fixed on a wall of said longitudinal body so as to sense an axial traction force of the element for locking and weighting; a locking tail suitable for a spreader for lifting containers, fixed at a second end of said longitudinal body opposite to said first end.
A stylus comprising: a housing ; a tip configured to be movable with respect to the housing ; a resilient element fixed to the tip , wherein the resilient element includes magnetic material; a substrate fixed to the housing , wherein a surface of the substrate is positioned to face the resilient element and wherein the resilient element is configured to press against the surface in response to the tip receding toward the housing ; a coil mounted or patterned on the substrate ; and a controller configured to induce haptic feedback via the tip based on applying a signal to the coil , wherein the signal applied is configured to induce a magnetic driving force on the resilient element . a housing ; a tip configured to be movable with respect to the housing ; a resilient element fixed to the tip , wherein the resilient element includes magnetic material; a substrate fixed to the housing , wherein a surface of the substrate is positioned to face the resilient element and wherein the resilient element is configured to press against the surface in response to the tip receding toward the housing ; a coil mounted or patterned on the substrate ; and a controller configured to induce haptic feedback via the tip based on applying a signal to the coil , wherein the signal applied is configured to induce a magnetic driving force on the resilient element .
A temperature correction circuit configured to maintain a transistor of a power amplifier in a linear operating region of said transistor, the temperature correction circuit comprising: a first current source circuit operable to provide a first correction current (I ptat ) proportional to an absolute, static temperature (T die ) of a semiconductor die including said transistor; a second current source circuit operable to provide a second correction current (I ptdt ) proportional to the difference between the temperature (T PA ) of a part of said semiconductor die in which the transistor is located during operation of the transistor and the static temperature (T die ) of the semiconductor die; a third current source circuit operable to provide a gain selection current (I 0 ) selected in accordance with a required gain level of the power amplifier; circuitry for producing a reference current (Iref) from a linear contribution of said first and second correction currents and said gain selection current; and an output for providing said reference current to said transistor. a first current source circuit operable to provide a first correction current (I ptat ) proportional to an absolute, static temperature (T die ) of a semiconductor die including said transistor; a second current source circuit operable to provide a second correction current (I ptdt ) proportional to the difference between the temperature (T PA ) of a part of said semiconductor die in which the transistor is located during operation of the transistor and the static temperature (T die ) of the semiconductor die; a third current source circuit operable to provide a gain selection current (I 0 ) selected in accordance with a required gain level of the power amplifier; circuitry for producing a reference current (Iref) from a linear contribution of said first and second correction currents and said gain selection current; and an output for providing said reference current to said transistor.
An electric circuit arrangement for the functional testing of a first residual current device installed in a power supply system and having a reset motor device (M) via an external snubber circuit of the first residual current device , characterized by a reset terminal (K R ), a test terminal (K T ) and a voltage terminal (K N ), a reset switching contact (R) disposed between the reset terminal (K R ) and the test terminal (K T ) and controllable via a reset-contact control signal , a series connection disposed between the test terminal (K T ) and the voltage terminal (K N ) and having a test switching contact (T) controllable via a test-contact control signal and having a test-current limiter , a voltage measuring device for identifying a line voltage of the power supply system , the voltage measuring device having a first voltage measuring input connected to the test terminal (K T ), the voltage measuring device having a second voltage measuring input connected to the voltage terminal (K N ) and the voltage measuring device having a voltage measuring output , an interlocking device , which is connected to the voltage measuring-signal output , for electrically interlocking the test-contact control signal . a reset terminal (K R ), a test terminal (K T ) and a voltage terminal (K N ), a reset switching contact (R) disposed between the reset terminal (K R ) and the test terminal (K T ) and controllable via a reset-contact control signal , a series connection disposed between the test terminal (K T ) and the voltage terminal (K N ) and having a test switching contact (T) controllable via a test-contact control signal and having a test-current limiter , a voltage measuring device for identifying a line voltage of the power supply system , the voltage measuring device having a first voltage measuring input connected to the test terminal (K T ), the voltage measuring device having a second voltage measuring input connected to the voltage terminal (K N ) and the voltage measuring device having a voltage measuring output , an interlocking device , which is connected to the voltage measuring-signal output , for electrically interlocking the test-contact control signal .
A method for controlling a carrier by a controller , the carrier comprising at least a first hydraulic cylinder (12-1) and a second hydraulic cylinder (12-2) both having each a piston and a piston position sensor , wherein the carrier is arranged to carry a tool through the use of the hydraulic cylinders (12-1, 12-2), characterized in that the method comprises: receiving control information for controlling the first or the second hydraulic cylinder (12-1, 12-2) to move the tool in a direction along a working line (WL); receiving position information for the first cylinder (12-1); receiving position information for the second cylinder (12-2); determining if the working line (WL) for the tool is maintained, and if the working line is not maintained then adapting for the movement of the first cylinder (12-1) by providing control of the second cylinder (12-2) to maintain the working line for the tool and thereby feeding the tool along the working line (WL). receiving control information for controlling the first or the second hydraulic cylinder (12-1, 12-2) to move the tool in a direction along a working line (WL); receiving position information for the first cylinder (12-1); receiving position information for the second cylinder (12-2); determining if the working line (WL) for the tool is maintained, and if the working line is not maintained then adapting for the movement of the first cylinder (12-1) by providing control of the second cylinder (12-2) to maintain the working line for the tool and thereby feeding the tool along the working line (WL).
A redox flow cell, comprising: - an electrode module , which comprises an electrode frame having a seal extending around its inner circumference, wherein the seal has at least one holding frame and a first resilient sealing lip ; wherein an at least partially circumferential snap-action catch for receiving an electrode is formed on the inner circumference of the holding frame ; wherein the first resilient sealing lip is arranged within the inner circumference of the holding frame and is designed for sealing and supporting the electrode ; and wherein the electrode module further comprises the electrode , the outer circumference of which is snapped behind the snap-action catch of the first resilient sealing lip , so that the electrode is pressed against the first resilient sealing lip ; and - a membrane module connected to the electrode module , which comprises a membrane frame and a membrane , wherein the membrane is firmly seated in the membrane frame ; wherein the electrode is clamped between circumferentially arranged pressing elements of the membrane frame and the first resilient sealing lip of the seal of the electrode frame . - an electrode module , which comprises an electrode frame having a seal extending around its inner circumference, wherein the seal has at least one holding frame and a first resilient sealing lip ; wherein an at least partially circumferential snap-action catch for receiving an electrode is formed on the inner circumference of the holding frame ; wherein the first resilient sealing lip is arranged within the inner circumference of the holding frame and is designed for sealing and supporting the electrode ; and wherein the electrode module further comprises the electrode , the outer circumference of which is snapped behind the snap-action catch of the first resilient sealing lip , so that the electrode is pressed against the first resilient sealing lip ; and - a membrane module connected to the electrode module , which comprises a membrane frame and a membrane , wherein the membrane is firmly seated in the membrane frame ;
Filter cartridge for cleaning an air stream (L N ), having a bottom , having a cover which is provided with a central cutout , and having at least one pleated filter element which is arranged between the cover and the bottom , wherein the at least one filter element encloses an inner space , and wherein the cover has a Venturi nozzle and the Venturi nozzle engages into the pleated filter element , characterized in that the Venturi nozzle is fanned out in a comb-like manner in the region of its end which engages into the filter element , and in that the Venturi nozzle has a multiplicity of radial fins in the region of its end which engages into the filter element , said radial fins being fanned out in their inlet-side region and being connected to one another in their outlet-side region, wherein one respective radial fin is arranged radially around the inner space and engages between two folds of the pleated filter element .
A computer-implemented method comprising: receiving, at a network device , a first set of rules from a security controller of an enterprise network , the first set of rules being different from a second set of rules provided to a firewall by the security controller; implementing, at the network device, the first set of rules received from the security controller; generating, at the network device, a first log including metadata based on the first set of rules, the first log being generated on a per flow basis; notifying, at the network device, a flow-based hardware-assisted logging mechanism of the first log including the metadata of the first set of rules; and providing, from the network device, the first log to a cloud-log store by the logging mechanism of the network device, the cloud-log store receiving the first log from the network device and a second log from the firewall. receiving, at a network device , a first set of rules from a security controller of an enterprise network , the first set of rules being different from a second set of rules provided to a firewall by the security controller; implementing, at the network device, the first set of rules received from the security controller; generating, at the network device, a first log including metadata based on the first set of rules, the first log being generated on a per flow basis; notifying, at the network device, a flow-based hardware-assisted logging mechanism of the first log including the metadata of the first set of rules; and providing, from the network device, the first log to a cloud-log store by the logging mechanism of the network device, the cloud-log store receiving the first log from the network device and a second log from the firewall.
Protein preparation produced from dehulled sunflower kernels with a residual kernel content of ≤ 5 wt.%, which have initially undergone a mechanical partial deoiling by pressing until a fat or oil content of the dehulled sunflower kernels is in the range between 10 and 35 wt.%, and is obtained following the further performance of one or more extraction steps with at least one solvent, with a - protein content of at least 50% and less than 90% relative to the dry mass, and - a fat content below 5% relative to the dry mass, determined by the Büchi method according to Caviezel, - wherein the protein preparation has a lightness L* of at least 80 determined in accordance with CIE-L*a*b* colour measurement, values for a* and b* in accordance with CIE-L*a*b* colour measurement in the range -5 < a* < +5, -5 < b* < +20, and at least water binding, oil binding and emulsifying functional properties, - wherein the water binding of the protein preparation determined according to method 56-20 of the AACC determination procedure, is at least 2 ml/g dry mass, - the emulsifying capacity determined in accordance with the conductivity measurement method according to Wäsche et al. cited in the description is at least 400 ml oil per gram, and - the oil binding determined in accordance with the fat binding determination method from Ludwig et al. cited in the description is at least 1 ml/g, - and wherein the protein preparation exhibits a protein solubility which is between 30% and 60% as determined in accordance with the method according to Morr cited in the description. - protein content of at least 50% and less than 90% relative to the dry mass, and - a fat content below 5% relative to the dry mass, determined by the Büchi method according to Caviezel, - wherein the protein preparation has a lightness L* of at least 80 determined in accordance with CIE-L*a*b* colour measurement, values for a* and b* in accordance with CIE-L*a*b* colour measurement in the range -5 < a* < +5, -5 < b* < +20, and at least water binding, oil binding and emulsifying functional properties, - wherein the water binding of the protein preparation determined according to method 56-20 of the AACC determination procedure, is at least 2 ml/g dry mass, - the emulsifying capacity determined in accordance with the conductivity measurement method according to Wäsche et al. cited in the description is at least 400 ml oil per gram, and - the oil binding determined in accordance with the fat binding determination method from Ludwig et al. cited in the description is at least 1 ml/g, - and wherein the protein preparation exhibits a protein solubility which is between 30% and 60% as determined in accordance with the method according to Morr cited in the description.
An ultrasonic motor, comprising - an ultrasonic actuator in the form of a rectangular plate with a length L, a width B and a thickness D formed from piezoelectric material with two main faces , two longer lateral faces and two shorter lateral faces which define end faces ; - an element to be activated; and - an electrical excitation device ; wherein at least one frictional element pressed onto the element to be actuated is disposed on the ultrasonic actuator , characterized in that the ultrasonic actuator comprises two generators G1, G2 in order to excite acoustic standing waves therein, wherein each of the generators G1, G2 is formed by the corresponding portion of the piezoelectric material of the ultrasonic actuator and general electrodes and excitation electrodes in the form of strips disposed alternately thereon, wherein the ultrasonic actuator has a plane of symmetry S which extends perpendicularly to its longer lateral face and parallel to its end face , wherein the electrodes in the form of strips are disposed on one of the main faces parallel to the plane of symmetry S, the two generators G1, G2 are disposed symmetrically with respect to the plane of symmetry S and border each other along it and, at least in a plane of the main face on which the electrodes are disposed, the polarisation directions of the piezoelectric material which is disposed between two adjacent electrodes extend perpendicularly to the plane of symmetry S. - an ultrasonic actuator in the form of a rectangular plate with a length L, a width B and a thickness D formed from piezoelectric material with two main faces , two longer lateral faces and two shorter lateral faces which define end faces ; - an element to be activated; and - an electrical excitation device ;
A method for controlling an industrial robot during lead-through programming, characterized in that the method comprises generating a virtual orientation in space, and the method comprises during lead-through programming of the robot: - comparing a robot orientation with the virtual orientation , and - actively controlling the motions of the robot in relation to the virtual orientation when the difference between the robot orientation and the virtual orientation is less than an offset value (Ao). - comparing a robot orientation with the virtual orientation , and - actively controlling the motions of the robot in relation to the virtual orientation when the difference between the robot orientation and the virtual orientation is less than an offset value (Ao).
A brake dust collector assembly comprising: a brake dust collector, a pad module including a pair of brake pads that are respectively disposed on both sides of a disc (D) rotating together with a wheel and are in close contact with or separated from the disc (D) according to a forward and backward movement of a piston ; a housing provided to cover a part of the disc (D) by forming a pad module seat provided between a leading portion and a trailing portion and to which the pad module is coupled, and filter module seats at inner sides of the leading portion and the trailing portion , respectively; and characterised by a filter module fixed to each of the filter module seats by a fastening member that penetrates and fastens from one side to the other side of the housing . a pad module including a pair of brake pads that are respectively disposed on both sides of a disc (D) rotating together with a wheel and are in close contact with or separated from the disc (D) according to a forward and backward movement of a piston ; a housing provided to cover a part of the disc (D) by forming a pad module seat provided between a leading portion and a trailing portion and to which the pad module is coupled, and filter module seats at inner sides of the leading portion and the trailing portion , respectively; and characterised by a filter module fixed to each of the filter module seats by a fastening member that penetrates and fastens from one side to the other side of the housing .
A method for provisioning a user account, the method comprising: receiving , at a server computer of a first transaction processing network , a first token provisioning request message from a token requestor, the first token provisioning request message including an account identifier identifying a user account associated with the first transaction processing network and a second transaction processing network , such that transactions initiated using the account identifier are processed by one of the first transaction processing network or the second transaction processing network ; determining, by the server computer, the second transaction processing network associated with the account identifier; performing, by the server computer, an authentication process with a user; generating, by the server computer, a first token associated with the account identifier; and sending , by the server computer, the first token and a result of the authentication process to the token requestor, wherein the token requestor sends a second token provisioning request message including the account identifier and the result of the authentication process, performed by the server computer of the first transaction processing network , to the second transaction processing network to request a second token for the account identifier, wherein the second transaction processing network generates the second token based on the result of the authentication process, wherein the first and second tokens are associated with the user account and provisioned on a user device of the user. receiving , at a server computer of a first transaction processing network , a first token provisioning request message from a token requestor, the first token provisioning request message including an account identifier identifying a user account associated with the first transaction processing network and a second transaction processing network , such that transactions initiated using the account identifier are processed by one of the first transaction processing network or the second transaction processing network ; determining, by the server computer, the second transaction processing network associated with the account identifier; performing, by the server computer, an authentication process with a user; generating, by the server computer, a first token associated with the account identifier; and sending , by the server computer, the first token and a result of the authentication process to the token requestor, wherein the token requestor sends a second token provisioning request message including the account identifier and the result of the authentication process, performed by the server computer of the first transaction processing network , to the second transaction processing network to request a second token for the account identifier, wherein the second transaction processing network generates the second token based on the result of the authentication process, wherein the first and second tokens are associated with the user account and provisioned on a user device of the user.