mhurhangee/patent-ind-claim-en huggingface dataset:
A pin joint assembly , comprising: a first lug and a second lug ; a pin extending through the first and second lugs; a U-shaped bushing between the first lug and the pin, wherein the U-shaped bushing comprises a first end flange and a second end flange that extend radially outwards and retain the U-shaped bushing to the first lug; characterised in that the U-shaped bushing comprises a bearing surface between the first and second end flanges on which the first lug is slidable in a direction parallel to the pin axis . a first lug and a second lug ; a pin extending through the first and second lugs; a U-shaped bushing between the first lug and the pin, wherein the U-shaped bushing comprises a first end flange and a second end flange that extend radially outwards and retain the U-shaped bushing to the first lug; characterised in that the U-shaped bushing comprises a bearing surface between the first and second end flanges on which the first lug is slidable in a direction parallel to the pin axis .
Tool machine or tool holder with at least one sensor/actuator unit , the sensor/actuator unit comprising: a sensor element configured to measure a physical measured quantity acting on the sensor/actuator unit ; or sensor element configured to measure a physical measured quantity acting on the sensor/actuator unit in combination with an actuator element ; wherein the physical measured quantity, measured by the sensor element , allows conclusions on a movement of the sensor/actuator unit or a force acting on the sensor/actuator unit from the movement ; wherein the sensor element comprises a force sensor, an acceleration sensor, a pressure sensor, a vibration sensor, an ultrasound sensor, and/or an optical sensor; a radio element configured to transfer a determined sensor value of the sensor element in a wireless manner; a vibrating element comprising a readjustment , wherein the radio element receives a clock signal from the vibrating element, wherein the readjustment is configured to compensate the clock signal of the vibrating element in dependence on the movement of the sensor/actuator unit . a sensor element configured to measure a physical measured quantity acting on the sensor/actuator unit ; or sensor element configured to measure a physical measured quantity acting on the sensor/actuator unit in combination with an actuator element ; wherein the physical measured quantity, measured by the sensor element , allows conclusions on a movement of the sensor/actuator unit or a force acting on the sensor/actuator unit from the movement ; wherein the sensor element comprises a force sensor, an acceleration sensor, a pressure sensor, a vibration sensor, an ultrasound sensor, and/or an optical sensor; a radio element configured to transfer a determined sensor value of the sensor element in a wireless manner; a vibrating element comprising a readjustment , wherein the radio element receives a clock signal from the vibrating element, wherein the readjustment is configured to compensate the clock signal of the vibrating element in dependence on the movement of the sensor/actuator unit .
An induction heating device, comprising: a working coil ; a power supply unit to supply power to drive the working coil ; a fuse connected between the power supply unit and an external power source , wherein the fuse is broken when a breaking temperature (TA) is reached; a temperature sensor to measure a temperature of a vessel placed on the working coil ; and a controller configured to determine whether or not the vessel is an empty vessel based on a vessel determination time which is a time required for the temperature of the vessel measured by the temperature sensor to reach a second reference temperature (T2) from a first reference temperature (T1), and to cut off power supply to the working coil performed by the power supply unit when it is determined that the vessel is an empty vessel, wherein the second reference temperature (T2) is set so that the temperature of the vessel, rising due to the heat energy remaining in the vessel after a heating operation for the vessel is stopped, does not reach the breaking temperature (TA). a working coil ; a power supply unit to supply power to drive the working coil ; a fuse connected between the power supply unit and an external power source , wherein the fuse is broken when a breaking temperature (TA) is reached; a temperature sensor to measure a temperature of a vessel placed on the working coil ; and a controller configured to determine whether or not the vessel is an empty vessel based on a vessel determination time which is a time required for the temperature of the vessel measured by the temperature sensor to reach a second reference temperature (T2) from a first reference temperature (T1), and to cut off power supply to the working coil performed by the power supply unit when it is determined that the vessel is an empty vessel, wherein the second reference temperature (T2) is set so that the temperature of the vessel, rising due to the heat energy remaining in the vessel after a heating operation for the vessel is stopped, does not reach the breaking temperature (TA).
Buggy or stroller comprising an upper sliding frame, a lower sliding frame on which the front wheels are mounted, said upper sliding frame and lower sliding frame being approximately aligned with one another in the assembled travel position of the buggy in side view, and a rear frame on which the rear wheels are mounted which is aligned in the travel position in side view at an angle to the sliding frame in each case, the buggy being collapsible about hinges from the travel position into a transport position in which the upper sliding frame, lower sliding frame and rear frame lie comparatively flat on one other, wherein hinge units are provided on which the respective end of a strut of the upper sliding frame facing said hinge units, on the one hand, and the respective end of a strut of the rear frame facing said hinge units, on the other hand, are pivotably mounted about mutually parallel hinge axes, wherein the end of the strut of the upper sliding frame facing the hinge unit and the end of the strut of the rear frame facing the hinge unit are connected to one another via gear means in the region of the hinge unit in such a manner that during a pivoting movement the strut of the upper sliding frame in a first direction of rotation, a pivoting movement of the strut of the rear frame in the opposite direction of rotation results, wherein at least a first gearwheel is provided as the gear means, which gearwheel rotates about the gear axle of the strut of the upper sliding frame, and at least one second gearwheel which rotates about the axis of the strut of the rear frame parallel thereto, characterized in that at least one assembly part, in particular a hook , is provided which, following the release of an engagement with locking elements , facilitates an unlocking of the hinge units and therefore a pivoting of the struts and collapsing of the buggy into the flat transport position and that pins or the like are provided as locking elements on gearwheel units which interact with pawls and/or annular grooves as stop elements on at least one base plate of the hinge unit.
An ophthalmological apparatus for inspecting an eye, the apparatus comprising: a light source ; a mask arranged to selectively block transmission of light from the light source to form a mask pattern that is projectable onto a subject's eye , wherein the mask is adjustable based on a digital control signal to alter the mask pattern; and an imaging device for viewing the mask pattern on the subject's eye, characterised in that the light source comprises a light-emitting portion from which light is projected out of the apparatus, and wherein a relative position of the light-emitting portion and the mask is controllable to permit adjustment of an angle of incidence of the mask pattern projectable onto the subject's eye . a light source ; a mask arranged to selectively block transmission of light from the light source to form a mask pattern that is projectable onto a subject's eye , wherein the mask is adjustable based on a digital control signal to alter the mask pattern; and an imaging device for viewing the mask pattern on the subject's eye, characterised in that the light source comprises a light-emitting portion from which light is projected out of the apparatus, and wherein a relative position of the light-emitting portion and the mask is controllable to permit adjustment of an angle of incidence of the mask pattern projectable onto the subject's eye .
An immunogenic composition comprising a NT067 non-typeable H. influenzae antigen for use in a method of raising a protective immune response against H. influenzae infection in a mammal, wherein said NT067 antigen is a polypeptide that comprises an amino acid sequence having 95% or more identity to SEQ ID NO: 5.
An inductor assembly having a thermal management system, comprising: an inductor , the thermal management system comprising a housing around and in thermal communication with the inductor, the housing defining a wall; and characterized by a conductor having a greater heat transfer rate than the wall and being positioned within a groove formed in the wall, wherein the wall of the housing includes an outer wall and an inner wall forming an interior of the housing containing the inductor , wherein at least one of the outer wall or the inner wall defines an inner surface (104a, 106a; 204a, 206a), wherein the inner surface includes the groove defined therein. an inductor , the thermal management system comprising a housing around and in thermal communication with the inductor, the housing defining a wall; and characterized by a conductor having a greater heat transfer rate than the wall and being positioned within a groove formed in the wall, wherein the wall of the housing includes an outer wall and an inner wall forming an interior of the housing containing the inductor , wherein at least one of the outer wall or the inner wall defines an inner surface (104a, 106a; 204a, 206a), wherein the inner surface includes the groove defined therein.
A pipetting apparatus comprising a pressure generating source, an impedance measurement unit and a pipette tube with an upper section , a lower section and an intermediate section , the intermediate section being located between the upper section and the lower section , the upper section having an upper opening for being operationally connected to the pressure generating source, and the lower section having a lower opening for aspirating and/or dispensing a sample liquid , wherein a porous filter is arranged within the entire intermediate section , characterised in that a first electrode is arranged at the upper section and a second electrode is arranged at the lower section , the first and second electrodes forming a measurement capacitor , wherein the filter forms at least part of a dielectric of the measurement capacitor , and wherein the first and second electrodes are operationally connected to the impedance measurement unit adapted to determine an impedance, in particular a capacitance and/or a resistance, of the measurement capacitor , and to detect whether the filter is wetted or soaked with a liquid , in particular a portion of the sample liquid or a portion of a system liquid used for transferring pressure from the pressure generating source to the pipette tube , based on the impedance, in particular a change of the impedance, more particularly an increase of the capacitance, in particular due to an increase in permittivity of the dielectric , and/or a decrease of the resistance, of the measurement capacitor caused by a presence of the liquid within the filter .
A smart watch, comprising a watch strap and a flexible display panel , wherein the first end of the flexible display panel is attached to the watch strap , the second end of the flexible display panel is a free end, the flexible display panel has a bent state and a flattened state, when the flexible display panel is in the bent state, the flexible display panel and the watch strap are bent together and the flexible display panel is located on and in contact with an outer surface of the watch strap , when the flexible display panel is in the flattened state, the second end of the flexible display panel is out of contact with the outer surface of the watch strap and the flexible display panel is flattened in the same plane; the watch strap is provided with a first engaging member , the flexible display panel is provided with a second engaging member corresponding to the first engaging member , the second engaging member is provided at the second end of the flexible display panel , when the flexible display panel is in the bent state, the first engaging member and the second engaging member are engaged with each other; the flexible display panel comprises a first display area and a second display area , when the flexible display panel is in the bent state, only the first display area is turned on and the second display area is turned off, when the flexible display panel is in the flattened state, the first display area and the second display area are simultaneously used for full screen display. the watch strap is provided with a first engaging member , the flexible display panel is provided with a second engaging member corresponding to the first engaging member , the second engaging member is provided at the second end of the flexible display panel , when the flexible display panel is in the bent state, the first engaging member and the second engaging member are engaged with each other; the flexible display panel comprises a first display area and a second display area , when the flexible display panel is in the bent state, only the first display area is turned on and the second display area is turned off, when the flexible display panel is in the flattened state, the first display area and the second display area are simultaneously used for full screen display.
A computer- implemented method for transporting bidirectional multicast traffic over a virtual port channel, VPC, comprising: determining a first set of metrics for a first VPC switch; determining a second set of metrics for a second VPC switch; sending the first set of metrics from the first VPC switch to the second VPC switch; receiving , at the first VPC switch, the second set of metrics for the second VPC switch; and determining , at the first VPC switch, whether to instantiate a designated forwarder, DF, operation based on the first set of metrics and the second set of metrics by comparing the first set of metrics with the second set of metrics to determine if the first VPC switch provides a more efficient network route to a rendezvous point, RP, than the second VPC switch, wherein the first set of metrics and the second set of metrics comprise unicast metrics. determining a first set of metrics for a first VPC switch; determining a second set of metrics for a second VPC switch; sending the first set of metrics from the first VPC switch to the second VPC switch; receiving , at the first VPC switch, the second set of metrics for the second VPC switch; and determining , at the first VPC switch, whether to instantiate a designated forwarder, DF, operation based on the first set of metrics and the second set of metrics by comparing the first set of metrics with the second set of metrics to determine if the first VPC switch provides a more efficient network route to a rendezvous point, RP, than the second VPC switch, wherein the first set of metrics and the second set of metrics comprise unicast metrics.
A method for manufacturing a multilayer foil security element for security papers , value documents and other data carriers, in which - a foil carrier is provided and furnished with a colored motif print , - the printed foil carrier is furnished with an embossing lacquer layer , and the embossing lacquer layer is furnished with an embossing structure , - a soluble washable ink is applied to the embossing lacquer layer in complementary register with the motif print, - the embossing lacquer layer having the applied washable ink is coated with a metalization coating , and - the coated embossing lacquer layer is subjected to a washing step, in which the washable ink, together with at least a portion of the layer regions that are arranged over the washable ink, is washed off by a solvent. - a foil carrier is provided and furnished with a colored motif print , - the printed foil carrier is furnished with an embossing lacquer layer , and the embossing lacquer layer is furnished with an embossing structure , - a soluble washable ink is applied to the embossing lacquer layer in complementary register with the motif print, - the embossing lacquer layer having the applied washable ink is coated with a metalization coating , and - the coated embossing lacquer layer is subjected to a washing step, in which the washable ink, together with at least a portion of the layer regions that are arranged over the washable ink, is washed off by a solvent.
A process for forming an image on a substrate, comprising depositing ink compositions of at least two colours onto the substrate to form the image, and fixing the image to the substrate, wherein the ink is deposited using an electrostatic printhead, which ejects chargeable marking particles dispersed in a carrier fluid by using an applied electric field to first concentrate and then eject the marking particles, and wherein all of the ink compositions are deposited onto the substrate before the image is fixed; wherein the fixing is by coating the ink compositions with a varnish, and then curing the varnish, or by pre-coating the surface of the substrate with an uncured or partially-cured basecoat material before all ink compositions are deposited, and then fixing the ink compositions by curing the basecoat after all the ink compositions have been deposited.
A method for controlling the movement of transparent media during final curing of an image expressed onto the surface of said transparent media via an inkjet print head to minimize inkjet print head degradation, comprising the steps of: a. applying an image to the exterior of said transparent media while said media is rotated; b. using a UV lamp to partially cure said image into a gelled state such that said applied image is held in place on said exterior of said media during rotation thereof; c. moving said media laterally along its rotational axis into proximity to a UV curing lamp and exposing said expressed image to UV light from said curing lamp to achieve final curing of said image on said media; and, d. wherein UV radiation applied to the exterior of said media by said final curing lamp is modulated during said lateral movement step so that reflections of UV light from said media toward said inkjet print head are reduced to avoid causing fouling of said inkjet print head. a. applying an image to the exterior of said transparent media while said media is rotated; b. using a UV lamp to partially cure said image into a gelled state such that said applied image is held in place on said exterior of said media during rotation thereof; c. moving said media laterally along its rotational axis into proximity to a UV curing lamp and exposing said expressed image to UV light from said curing lamp to achieve final curing of said image on said media; and, d. wherein UV radiation applied to the exterior of said media by said final curing lamp is modulated during said lateral movement step so that reflections of UV light from said media toward said inkjet print head are reduced to avoid causing fouling of said inkjet print head.
A roller screw mechanism comprising: - a screw provided with an external thread; - a nut coaxially surrounding the screw and provided with an internal thread; and - rollers , each of which is provided with an external thread, each roller being interposed between the screw and the nut so that the threads of the rollers mesh with the threads of the screw and of the nut; said roller screw mechanism being characterized in that : the threads of the rollers are complementary to the threads of the screw and of the nut so that, at zero load, the threads of the rollers co-operate on both of their flanks with the threads of the screw and of the nut in a contact geometry having curvilinear segments (SD; SC) ; and the rollers come into contact respectively with the screw and with the nut along contact segments (SD; SC) lying in planes that are offset angularly relative to a midplane of the mechanism that contains a longitudinal axis of the screw and a longitudinal axis of the roller in question. - a screw provided with an external thread; - a nut coaxially surrounding the screw and provided with an internal thread; and - rollers , each of which is provided with an external thread, each roller being interposed between the screw and the nut so that the threads of the rollers mesh with the threads of the screw and of the nut; the threads of the rollers are complementary to the threads of the screw and of the nut so that, at zero load, the threads of the rollers co-operate on both of their flanks with the threads of the screw and of the nut in a contact geometry having curvilinear segments (SD; SC) ; and the rollers come into contact respectively with the screw and with the nut along contact segments (SD; SC) lying in planes that are offset angularly relative to a midplane of the mechanism that contains a longitudinal axis of the screw and a longitudinal axis of the roller in question.
A resin composition comprising: a thermoplastic resin having a melting point of 280°C or higher or a glass transition temperature of 220°C or higher; and nanodiamond particles, wherein the nanodiamond particles comprise surface hydroxy groups, and wherein the nanodiamond particles have a proportion of hydroxy-bonded carbon of 16.8% or more of the totality of carbon in the nanodiamond particles. a thermoplastic resin having a melting point of 280°C or higher or a glass transition temperature of 220°C or higher; and nanodiamond particles, wherein the nanodiamond particles comprise surface hydroxy groups, and wherein the nanodiamond particles have a proportion of hydroxy-bonded carbon of 16.8% or more of the totality of carbon in the nanodiamond particles.