mhurhangee/patent-ind-claim-en huggingface dataset:
Electrically controlled brake assembly for a vehicle train composed of a tractor vehicle and at least one trailer vehicle , wherein the brake assembly (1; 1') has a brake pedal device (5; 5') by means of which a brake request signal can be generated, in reply to which at least a first brake on the tractor vehicle for braking this tractor vehicle can be activated, and at least a second brake on the trailer vehicle for braking this trailer vehicle can be activated, wherein the brake assembly also has an anti-jackknife braking function which acts on the second brake of the trailer vehicle , characterized in that the anti-jackknife braking function can be activated by means of the brake pedal device (5; 5'), and in that the brake system (1; 1') has an electric operator control element (31; 31'; 31"; 31"'; 31""; 31""') by means of which an anti-jackknife braking control signal can be generated for such a controller of the anti-jackknife braking function, in that in reply to which the braking of the tractor vehicle by means of the first brake can be entirely or partially suppressed when the brake pedal device (5; 5') is activated.
A method for automatic astigmatism correction of a lens system of an electron microscope, comprising, providing a first image of a view at an under-focus or over-focus at a first stigmator setting of a lens, based on the first image at the first stigmator setting , calculating a first Fourier spectrum image , describing a distribution of intensities in the first image by calculating, based on the first Fourier spectrum image, a first vector , representing a main direction of intensities in said image which main direction is the direction with the longest elongation with bright pixels, the first vector having a length representing the elongation of the bright pixels portion of the first image in said main direction and a second vector representing an orthogonal direction of intensities in said image, that is orthogonal to said main direction, and an extent of bright pixels in the orthogonal direction the second vector having a length representing the elongation of the bright pixels portion of the first image in the orthogonal direction, calculating a first ratio as a ratio between the length of the first vector and the length of the second vector, changing the lens from the first stigmator setting to a second stigmator setting to provide a second image of the view at the under-focus or over-focus, the second image at the second stigmator setting being of the same view as the first image of the view at the first stigmator setting, based on the second image and the second stigmator setting , calculating a second Fourier spectrum image describing a distribution of intensities in the second image by calculating, based on the second Fourier spectrum image, a third vector representing a main direction of intensities in said image which main direction is the direction with the longest elongation with bright pixels, the third vector having a length representing the elongation of the bright pixels portion of the second image in said main direction; and a fourth vector representing the orthogonal direction of intensities in said image and an extent of bright pixels in the orthogonal direction the fourth vector having a length representing the elongation of the bright pixels portion of the second image in the orthogonal direction, calculating a second ratio as a ratio between the length of the third vector and the length of the fourth vector, when the first ratio is closer to 1 than the second ratio selecting the first image of the view at the first stigmator setting , and when the second ratio is closer to 1 than the first ratio selecting the second image of the view at the second stigmator setting .
A composition for competitive inhibition of pathogens present in, but not limited to bacterial vaginosis, aerobic vaginitis, vaginal yeast and fungal pathogenic infections without the need of prior diagnosis thereof and restoration of microbial ecological balance comprising: (a) Bacillus coagulans; (b) Bacillus subtilis; (c) citric acid; and (d) gallic acid. (a) Bacillus coagulans; (b) Bacillus subtilis; (c) citric acid; and (d) gallic acid.
Equipment for carrying a very young child in a vehicle, comprising a base intended to be secured to a seat of said vehicle and a bassinet for accommodating said child in a lying-down position in the longitudinal direction of the bassinet , and able to be secured to said base , said bassinet and said base comprising guidance elements of complementary shapes for achieving translational guidance between said bassinet and said base , in a direction substantially parallel to the longitudinal direction of the bassinet , said equipment comprising means for locking and unlocking said bassinet with respect to said base , in at least one position of use, characterised in that said locking and unlocking means comprise at least one hook able to move between an unlocked position and a locked position, mounted on said base , and at least one rod mounted on said bassinet parallel to the longitudinal direction of said bassinet , cooperating with said hook or hooks .
A method of operating a network device (100; 300) for selectively enabling periodic transmission of reference signals in a wireless communication network, wherein the method comprises: - obtaining (S1) information of user activity in one or more beams, cells or sectors wherein information about active user(s) is communicated between network nodes and updated in a user activity database in response to at least one of a mobility event and an event when a user arrives to or leaves the wireless communication network; and - performing (S2) at least one of activating and deactivating, for at least one beam, cell or sector, periodic transmission of reference signals based on the obtained information. - obtaining (S1) information of user activity in one or more beams, cells or sectors wherein information about active user(s) is communicated between network nodes and updated in a user activity database in response to at least one of a mobility event and an event when a user arrives to or leaves the wireless communication network; and - performing (S2) at least one of activating and deactivating, for at least one beam, cell or sector, periodic transmission of reference signals based on the obtained information.
A method of controlling one or more output devices by an intelligent building system , the method comprising: receiving, by the intelligent building system comprising a processor coupled to a memory , one or more elevator calls initiated by one or more passengers, each elevator call comprising a passenger identification corresponding to a passenger initiating the elevator call ; procuring, by the intelligent building system in response to each of the one or more elevator calls, passenger preference information based on each passenger identification ; grouping the one or more passengers with respect to the passenger preference information to produce one or more passenger groups ; procuring, by the intelligent building system, content with respect to the passenger preference information ; and controlling one or more elevators of the intelligent building system to collect the one or more passenger groups in conjunction with controlling, by the intelligent building system, the one or more output devices to provide the content . receiving, by the intelligent building system comprising a processor coupled to a memory , one or more elevator calls initiated by one or more passengers, each elevator call comprising a passenger identification corresponding to a passenger initiating the elevator call ; procuring, by the intelligent building system in response to each of the one or more elevator calls, passenger preference information based on each passenger identification ; grouping the one or more passengers with respect to the passenger preference information to produce one or more passenger groups ; procuring, by the intelligent building system, content with respect to the passenger preference information ; and controlling one or more elevators of the intelligent building system to collect the one or more passenger groups in conjunction with controlling, by the intelligent building system, the one or more output devices to provide the content .
An aqueous dipping composition for coating a textile reinforcing material, comprising 4% to 50% by dry weight of at least one rubber latex, 0.1% to 10% by dry weight of at least one blocked isocyanate, 0.3% to 30% by dry weight of at least one wax, 0% to 6% by dry weight of at least one epoxy group-containing compound, and 0% to 15% by dry weight of at least one polymer with carboxylic acid functional groups, wherein the amounts in % by dry weight are based on the total weight of the aqueous dipping composition, wherein the weight ratio of rubber latex to the sum of blocked isocyanate, epoxy group-containing compound and polymer with carboxylic acid functional groups is at least 2, and wherein the composition is essentially free of resorcinol, resorcinol precondensates, formaldehyde and formaldehyde-releasing substances. 4% to 50% by dry weight of at least one rubber latex, 0.1% to 10% by dry weight of at least one blocked isocyanate, 0.3% to 30% by dry weight of at least one wax, 0% to 6% by dry weight of at least one epoxy group-containing compound, and 0% to 15% by dry weight of at least one polymer with carboxylic acid functional groups, wherein the amounts in % by dry weight are based on the total weight of the aqueous dipping composition, wherein the weight ratio of rubber latex to the sum of blocked isocyanate, epoxy group-containing compound and polymer with carboxylic acid functional groups is at least 2, and wherein the composition is essentially free of resorcinol, resorcinol precondensates, formaldehyde and formaldehyde-releasing substances.
An arrangement of an optical fiber , a photonic integrated circuit comprising an optical transceiver and a first substrate layer, an optical coupler for coupling the optical fiber to the photonic integrated circuit , and a second substrate layer , the optical coupler comprising: a spacer being connected between the photonic integrated circuit and the optical fiber , wherein the spacer is located between the first substrate layer and the second substrate layer , and the spacer has a predefined height and is made of a transparent material; a first curved mirror included in the first substrate layer of the photonic integrated circuit and placed at a first predefined lateral distance from said optical transceiver of the photonic integrated circuit ; a second curved mirror included in the second substrate layer and placed at a second predefined lateral distance from the optical fiber ; wherein the first curved mirror and the second curved mirror are collimating mirrors which are placed at opposite directions to each other and their respective centers are located where the main propagation axis intersects each mirror (140;150); a tilted flat mirror included in the second substrate layer and adjoined to the optical fiber, wherein the tilted flat mirror is tilted in a predefined angle, the angle being respective of the optical path between the optical fiber and the first curved mirror . a spacer being connected between the photonic integrated circuit and the optical fiber , wherein the spacer is located between the first substrate layer and the second substrate layer , and the spacer has a predefined height and is made of a transparent material; a first curved mirror included in the first substrate layer of the photonic integrated circuit and placed at a first predefined lateral distance from said optical transceiver of the photonic integrated circuit ; a second curved mirror included in the second substrate layer and placed at a second predefined lateral distance from the optical fiber ; wherein the first curved mirror and the second curved mirror are collimating mirrors which are placed at opposite directions to each other and their respective centers are located where the main propagation axis intersects each mirror (140;150); a tilted flat mirror included in the second substrate layer and adjoined to the optical fiber, wherein the tilted flat mirror is tilted in a predefined angle, the angle being respective of the optical path between the optical fiber and the first curved mirror .
A device for picking slitting tools , wherein the device comprises a robot arranged movable between a first place and a second place, and a gripping unit mounted on the robot and adapted to pick a slitting tool at the first place and to leave the slitting tool at the second place, wherein the robot is arranged to move the gripping unit holding the slitting tool to the second place and to move the empty gripping tool back to the first place, and wherein the gripping unit includes an electromagnet having a coil arranged to generate a magnetic field, and a current supply unit configured to feed the coil with a magnetizing pulse (MP) to generate a magnetic field for attracting the slitting tool during picking of the slitting tool and to generate a first variable magnetic field for demagnetizing the slitting tool and the electromagnet when the slitting tool is attached to the electromagnet, characterized in that the current supply unit is configured to feed the coil with a first train of current pulses (CP1, CP2, CPn) with changing polarity and generally gradually decreasing amplitude to generate the first variable magnetic field for demagnetizing the slitting tool and the electromagnet, wherein a first current pulse (CP1) in the first train has a polarity opposite to the polarity of the magnetizing pulse (MP), and the current supply unit is configured to feed the coil with a second train of current pulses with changing polarity and generally gradually decreasing amplitude to generate a second variable magnetic field for demagnetization of the electromagnet after the slitting tool has been removed from the gripping unit and left at the second place, and while the robot is moving the empty gripping unit back to the first place.
Method for determining a route for a floor cleaning machine in an overall area , wherein the floor cleaning machine comprises a cleaning element that is able to be activated for an action on a floor surface, wherein, in a first step , a transport path is determined, wherein the overall area contains the transport path , wherein the transport path extends between a first and a second starting/end area , wherein the cleaning element is deactivated while the floor cleaning machine moves along the transport path , wherein, in a second step , a working area is determined, wherein the overall area contains the working area , wherein the working area contains at least one of the starting/end areas , wherein the cleaning element is at least temporarily activated while the floor cleaning machine moves within the working area along a working path , wherein the route contains the transport path , wherein, in the first step , at least one further transport path is determined, wherein the overall area contains each of the further transport paths , wherein each of the further transport paths extends in each case between a first further and a second further starting/end area , wherein the cleaning element is deactivated while the floor cleaning machine moves along each of the further transport paths , wherein, in the second step , at least one further working area is determined, wherein the overall area contains each of the further working areas , wherein each of the further working areas contains at least one of the further starting/end areas , wherein the cleaning element is at least temporarily activated while the floor cleaning machine moves within each of the further working areas along a respective further working path , wherein the route contains each of the further transport paths , wherein the working area contains another of the further starting/end areas .
Method of operating at least two electric motors (M1, M2), wherein a first electric motor (M1) is assigned a first actuator (S1) and a second electric motor (M2) is assigned a second actuator (S2), wherein the two actuators (S1, S2) are each activated with a pulse and pause duration (t ON , T OFF ) relative to a clock period (t p ) in a predefined duty cycle (d c ) and with mutually phase-shifted clock periods (t P ), wherein the load currents (I R2 , I R4 ) of the electric motors (M1, M2) are each adjusted by means of the actuator (S1, S2) assigned thereto, wherein the method is characterised in that the load currents (I R2 , I R4 ) of the two electric motors (M1, M2) are each measured within the respective pause duration (T OFF ) of a clock period (t p ) assigned thereto, and wherein the load currents (I R2 , I R4 ) of the two electric motors (M1, M2) are measured in a current signal (summation current signal) (I R5 ) common to the two load currents (I R2 , I R4 ) and corresponding to the sum thereof.
A method for pelletizing base material comprising: pre-pelletizing the base material by mixing an additive package with the material and by extruding the mixture to generate base material pellets; conducting quality testing simultaneously with pre-pelletizing by providing a mold having cavities of different thicknesses and injection molding a resin formed from the pellets in the mold cavities employing a cycle time and temperature profile comparable to conditions employed during generation of semi-finished lenses to simultaneously produce a product color chipper plate having a thickness of X and resin stabilization chipper plate having a thickness of Y that is smaller than X and testing for the quality of an optical property on the chipper plates; adjusting the additive package based on said testing to modify optical properties; and completing the pelletizing to generate a production lot in response to confirming that minimum requirements are met. pre-pelletizing the base material by mixing an additive package with the material and by extruding the mixture to generate base material pellets; conducting quality testing simultaneously with pre-pelletizing by providing a mold having cavities of different thicknesses and injection molding a resin formed from the pellets in the mold cavities employing a cycle time and temperature profile comparable to conditions employed during generation of semi-finished lenses to simultaneously produce a product color chipper plate having a thickness of X and resin stabilization chipper plate having a thickness of Y that is smaller than X and testing for the quality of an optical property on the chipper plates; adjusting the additive package based on said testing to modify optical properties; and completing the pelletizing to generate a production lot in response to confirming that minimum requirements are met.
A system for locking door (leaf) latches comprising a control core-rod and two handles , wherein said control core-rod is the case of an easily blocking control mechanism and has a cylindrical section in the place of contact with a latch , wherein the mechanism displaces a bar of the latch by transferring force from turning the handles using balls , which are pushed out radially along the diagonal of a square of the section of the control core-rod within the cylindrical section, while being tightly pressed from underneath by the body of a pin , wherein the pin has a varying cross section for pushing said balls in and out, and the system also features a button located inside the interior handle along the axis of the control core-rod , which transfers motion to the pin , characterized in that the control rod is square, and the pin and button are spring loaded, wherein the required displacement of the pin is controlled by a fixating mechanism, and the spring-loaded button transfers translational reciprocating motion to the spring-loaded pin through the fixating mechanism, while the exterior handle has a narrow opening along the axis of the control square core-rod for unlocking the mechanism and opening the door leaf from outside in case of an emergency by simply pressing with a thin needle. a control core-rod and two handles , wherein said control core-rod is the case of an easily blocking control mechanism and has a cylindrical section in the place of contact with a latch , wherein the mechanism displaces a bar of the latch by transferring force from turning the handles using balls , which are pushed out radially along the diagonal of a square of the section of the control core-rod within the cylindrical section, while being tightly pressed from underneath by the body of a pin , wherein the pin has a varying cross section for pushing said balls in and out, and the system also features a button located inside the interior handle along the axis of the control core-rod , which transfers motion to the pin , characterized in that the control rod is square, and the pin and button are spring loaded, wherein the required displacement of the pin is controlled by a fixating mechanism, and the spring-loaded button transfers translational reciprocating motion to the spring-loaded pin through the fixating mechanism, while the exterior handle has a narrow opening along the axis of the control square core-rod for unlocking the mechanism and opening the door leaf from outside in case of an emergency by simply pressing with a thin needle.
Process for producing an abrasive coating on a substrate , in particular on a blade tip of a rotor blade , wherein two layers for the abrasive coating , namely a bottom layer of a solder layer and an outer, second layer of a coating comprising abrasive particles , are applied, in particular as tapes, to the substrate , and the bottom solder layer is then joined to the substrate by a soldering process, as a result of which the outer, second layer is also bonded-on, where the material of the bottom solder layer has a melting point which is at least 10K lower, in particular at least 20K lower, than that of the material of the substrate , and very particularly also has a melting point which is at least 10K lower, in particular at least 20K lower, than that of the material of the outer, second layer , wherein the outer, second layer comprising abrasive particles comprises NiCoCrAlY as matrix material. in particular on a blade tip of a rotor blade , wherein two layers for the abrasive coating , namely a bottom layer of a solder layer and an outer, second layer of a coating comprising abrasive particles , are applied, in particular as tapes, to the substrate , and the bottom solder layer is then joined to the substrate by a soldering process, as a result of which the outer, second layer is also bonded-on, where the material of the bottom solder layer has a melting point which is at least 10K lower, in particular at least 20K lower, than that of the material of the substrate , and very particularly also has a melting point which is at least 10K lower, in particular at least 20K lower, than that of the material of the outer, second layer , wherein the outer, second layer comprising abrasive particles comprises NiCoCrAlY as matrix material.
A pneumatic tire , comprising a sealant layer located radially inside an innerliner, the sealant layer being formed by continuously and spirally applying a generally string-shaped sealant to the inner periphery of a tire in a tire width direction from one side to the other, characterized in that an attachment start portion of the sealant is located tire-widthwise inward from a tire-widthwise end of the sealant layer.