mhurhangee/patent-ind-claim-en huggingface dataset:
A dual wheel tyre inflation pressure control system comprising: a first vehicle wheel having a wheel rim carrying a tyre providing a first fluid chamber ; a second vehicle wheel coupled adjacent to the first and having a wheel rim carrying a tyre providing a second fluid chamber ; a first valve arrangement installed remote from the wheels and connectable to a pressurised fluid source ; a second valve arrangement installed on one or both of the wheels, the second valve arrangement being connected to the first valve arrangement by means of a first fluid connection , wherein the second valve arrangement is controllably operable to connect the first fluid connection to said first fluid chamber and said second fluid chamber on the vehicle wheels; characterised in that the second valve arrangement is further connected with the first valve arrangement by a second fluid connection , wherein controlled variation of fluid pressure in the second fluid connection and first fluid connection is provided by the first valve arrangement to control said second valve arrangement for operating said tyre pressure control system in at least two operational modes: - a first mode, in which the second fluid chamber is connected to first valve arrangement ; and - a second mode, in which the first fluid chamber is connected to the second fluid chamber . a first vehicle wheel having a wheel rim carrying a tyre providing a first fluid chamber ; a second vehicle wheel coupled adjacent to the first and having a wheel rim carrying a tyre providing a second fluid chamber ; a first valve arrangement installed remote from the wheels and connectable to a pressurised fluid source ; a second valve arrangement installed on one or both of the wheels, the second valve arrangement being connected to the first valve arrangement by means of a first fluid connection , wherein the second valve arrangement is controllably operable to connect the first fluid connection to said first fluid chamber and said second fluid chamber on the vehicle wheels; characterised in that the second valve arrangement is further connected with the first valve arrangement by a second fluid connection , wherein controlled variation of fluid pressure in the second fluid connection and first fluid connection is provided by the first valve arrangement to control said second valve arrangement for operating said tyre pressure control system in at least two operational modes: - a first mode, in which the second fluid chamber is connected to first valve arrangement ; and - a second mode, in which the first fluid chamber is connected to the second fluid chamber . - a first mode, in which the second fluid chamber is connected to first valve arrangement ; and - a second mode, in which the first fluid chamber is connected to the second fluid chamber .
A method performed by a network entity corresponding to a central unit, CU, of a secondary node, SN, in a wireless communication system, the method being characterized by comprising: transmitting, to a network entity corresponding to a distributed unit, DU, of the SN, a request message for requesting a context setup of a user equipment, UE, the request message including first identification information of at least one candidate primary secondary cell, PSCell, and second identification information of at least one secondary cell, SCell, to be setup; and receiving, from the network entity corresponding to the DU, a response message for confirming the context setup of the UE, the response message including third identification information of at least one SCell failed to setup in response to the second identification information of the request message. transmitting, to a network entity corresponding to a distributed unit, DU, of the SN, a request message for requesting a context setup of a user equipment, UE, the request message including first identification information of at least one candidate primary secondary cell, PSCell, and second identification information of at least one secondary cell, SCell, to be setup; and receiving, from the network entity corresponding to the DU, a response message for confirming the context setup of the UE, the response message including third identification information of at least one SCell failed to setup in response to the second identification information of the request message.
An optical waveguide device comprising: a substrate ; an optical waveguide formed on the substrate; two electrodes disposed at positions sandwiching the optical waveguide from both sides in a plane of the substrate; and a dielectric layer (160, 160-1) covering a top of the optical waveguide, wherein the dielectric layer extends to an extent including edges of the two electrodes, facing the optical waveguide, in a width direction of the optical waveguide, and is disposed to partially cover the upper part of each of the two electrodes, characterized in that : the two electrodes are configured to be stepped thick as a distance from the optical waveguide increases; the dielectric layer (160, 160-1) extends to an extent including an edge of a first stage (144a-144d) of each of the two electrodes closest to the optical waveguide, in the width direction of the optical waveguide, and is disposed to partially cover the upper part (W14, W15) of the first stage of each of the two electrodes. a substrate ; an optical waveguide formed on the substrate; two electrodes disposed at positions sandwiching the optical waveguide from both sides in a plane of the substrate; and a dielectric layer (160, 160-1) covering a top of the optical waveguide, wherein the dielectric layer extends to an extent including edges of the two electrodes, facing the optical waveguide, in a width direction of the optical waveguide, and is disposed to partially cover the upper part of each of the two electrodes, characterized in that : the two electrodes are configured to be stepped thick as a distance from the optical waveguide increases; the dielectric layer (160, 160-1) extends to an extent including an edge of a first stage (144a-144d) of each of the two electrodes closest to the optical waveguide, in the width direction of the optical waveguide, and is disposed to partially cover the upper part (W14, W15) of the first stage of each of the two electrodes.
Subassembly for a dental care or surgical handpiece, comprising: - a push button comprising a contact surface adapted to receive a manual pressure able to actuate the push button slidably in a sliding direction, and - a piece for retaining the push button , characterized in that it comprises a bayonet device which is able to keep assembled the push button and the retaining piece and wherein: - the push button comprises a plurality of engagement portions angularly offset with respect to one another about an axis (X-X') parallel to the direction of sliding, and - the retaining piece comprises a plurality of limit stops able to retain the engagement portions with respect to the outside, as well as a plurality of laterally open passages which pass between the limit stops , which run beyond these limit stops , and the engagement portions are able to follow so as to come behind the limit stops . - a push button comprising a contact surface adapted to receive a manual pressure able to actuate the push button slidably in a sliding direction, and - a piece for retaining the push button , - the push button comprises a plurality of engagement portions angularly offset with respect to one another about an axis (X-X') parallel to the direction of sliding, and - the retaining piece comprises a plurality of limit stops able to retain the engagement portions with respect to the outside, as well as a plurality of laterally open passages which pass between the limit stops , which run beyond these limit stops , and the engagement portions are able to follow so as to come behind the limit stops .
A blade for a propeller comprising: a blade composite structure ; an Extrinsic Fabry-Perot Interferometric (EFPI) sensor embedded in the blade composite structure, the sensor configured to: receive a signal from a controller operatively connected to the EFPI sensor; and transmit a signal, responsive to the received signal, to a processor operatively connected to the sensor, wherein the signal response is indicative of a stress measurement indicating a structural characteristic of the blade composite structure; wherein the signal response provides information to determine, based on the signal response, whether the structural characteristic of the blade composite structure is within a predetermined limits indicative of structural integrity of the blade composite structure; wherein the blade composite structure includes a spar and one or more fiber wrap layers applied to the spar, the EFPI sensor embedded between the spar and the one or more fiber wrap layers. a blade composite structure ; an Extrinsic Fabry-Perot Interferometric (EFPI) sensor embedded in the blade composite structure, the sensor configured to: receive a signal from a controller operatively connected to the EFPI sensor; and transmit a signal, responsive to the received signal, to a processor operatively connected to the sensor, wherein the signal response is indicative of a stress measurement indicating a structural characteristic of the blade composite structure; wherein the signal response provides information to determine, based on the signal response, whether the structural characteristic of the blade composite structure is within a predetermined limits indicative of structural integrity of the blade composite structure; wherein the blade composite structure includes a spar and one or more fiber wrap layers applied to the spar, the EFPI sensor embedded between the spar and the one or more fiber wrap layers. receive a signal from a controller operatively connected to the EFPI sensor; and transmit a signal, responsive to the received signal, to a processor operatively connected to the sensor, wherein the signal response is indicative of a stress measurement indicating a structural characteristic of the blade composite structure; wherein the signal response provides information to determine, based on the signal response, whether the structural characteristic of the blade composite structure is within a predetermined limits indicative of structural integrity of the blade composite structure; wherein the blade composite structure includes a spar and one or more fiber wrap layers applied to the spar, the EFPI sensor embedded between the spar and the one or more fiber wrap layers.
Support for a product packaged in unit doses, suitable for being handled by an automated management systems, comprising a plastic support card having a flap folded over and fastened to a main portion thereof, in which a main opening is made, from which a portion of a pack of a unit dose product (P, S) appears, at least part of a peripheral edge of said pack being enclosed between the flap and the main portion of the support card , a secondary opening being made in the flap to allow the unit dose product to be removed from its pack, the flap being fastened to the main portion only along part or all of a peripheral edge zone of the flap , by welding with no added material, the peripheral edge being, at least in part, wider than the main opening such that it remains positioned between the main portion and the flap superimposed thereon and fastened thereto.
A method for making a refrigerant blend composition, wherein the refrigerant blend composition comprises HFC-1234yf, and at least one compound selected from the group consisting of: HFC-1234ye, HFC-1243zf, HFC-32, HFC-125, HFC-134a, HFC-143a, HFC-152a, HFC-161, HFC-227ea, HFC-236ea, HFC-236fa, HFC-245fa, and HFC-365mfc, the method comprising (i) reclaiming a volume of one or more components of the refrigerant composition from at least one refrigerant container, (ii) removing impurities sufficiently to enable reuse of the one or more of the reclaimed components, (iii) and optionally, combining all or part of the reclaimed volume of components with at least one additional refrigerant composition or component.
A system for exchanging data between a first programmable logic controller and a data consumer in an automation environment , comprising: the first programmable logic controller ; and a queue block implemented for the first programmable logic controller , wherein the queue block exists in the runtime of the first programmable logic controller , the queue block being an interchangeable data type in the first programmable logic controller to replace a data block type; wherein program instructions executable by the first programmable logic controller are implemented within a first function block within the first programmable logic controller , the function block being configured to use the queue block instead of a data block ; wherein the first function block is allocated to the first programmable logic controller via the queue block at runtime and the queue block is configured to dynamically exchange data between the first function block and the data consumer during runtime; and wherein the data consumer is an application hosted in a computer system, and the queue block is configured to dynamically exchange data between the first programmable logic controller and the application ; or wherein the data consumer is a second programmable logic controller having a second function block containing program instructions, the program instructions executable by the second programmable logic controller , and the queue block is configured to dynamically exchange data between the first programmable logic controller and the second programmable logic controller by exchanging the data between the first function block and the second function block . the first programmable logic controller ; and a queue block implemented for the first programmable logic controller , wherein the queue block exists in the runtime of the first programmable logic controller , the queue block being an interchangeable data type in the first programmable logic controller to replace a data block type; wherein program instructions executable by the first programmable logic controller are implemented within a first function block within the first programmable logic controller , the function block being configured to use the queue block instead of a data block ; wherein the first function block is allocated to the first programmable logic controller via the queue block at runtime and the queue block is configured to dynamically exchange data between the first function block and the data consumer during runtime; and wherein the data consumer is an application hosted in a computer system, and the queue block is configured to dynamically exchange data between the first programmable logic controller and the application ; or wherein the data consumer is a second programmable logic controller having a second function block containing program instructions, the program instructions executable by the second programmable logic controller , and the queue block is configured to dynamically exchange data between the first programmable logic controller and the second programmable logic controller by exchanging the data between the first function block and the second function block .
A conveyor chain for a pallet belt of a moving walkway , comprising: multiple elongate chain links that are arranged behind one another at a chain pitch (T1) in a longitudinal direction of the conveyor chain , wherein chain links lying adjacent to one another in the longitudinal direction can be respectively subjected to a tensile load in a joint region by means of a link pin and are coupled to one another so as to be pivotable about a longitudinal center axis of the link pin transverse to the longitudinal direction , characterized in that the conveyor chain comprises multiple elongate connecting elements , which are arranged behind one another in the longitudinal direction , wherein two connecting elements lying adjacent to one another in the longitudinal direction respectively can be coupled to one another by means of a link pin , which couples the chain links to one another, and pivoted about the longitudinal center axis of the link pin transverse to the longitudinal direction ; wherein each of the connecting elements is coupled to an associated first link pin with a front end and coupled to an associated second link pin with a rear end , wherein a connecting element pitch (T2) between the first and second link pin amounts to an integral multiple of the chain pitch (T1), and wherein each of the connecting elements has a fastening region for connecting a pallet . multiple elongate chain links that are arranged behind one another at a chain pitch (T1) in a longitudinal direction of the conveyor chain , wherein chain links lying adjacent to one another in the longitudinal direction can be respectively subjected to a tensile load in a joint region by means of a link pin and are coupled to one another so as to be pivotable about a longitudinal center axis of the link pin transverse to the longitudinal direction , characterized in that the conveyor chain comprises multiple elongate connecting elements , which are arranged behind one another in the longitudinal direction , wherein two connecting elements lying adjacent to one another in the longitudinal direction respectively can be coupled to one another by means of a link pin , which couples the chain links to one another, and pivoted about the longitudinal center axis of the link pin transverse to the longitudinal direction ; wherein each of the connecting elements is coupled to an associated first link pin with a front end and coupled to an associated second link pin with a rear end , wherein a connecting element pitch (T2) between the first and second link pin amounts to an integral multiple of the chain pitch (T1), and wherein each of the connecting elements has a fastening region for connecting a pallet .
A computer-implemented method, comprising identifying a graphical user interface including a container having a first child element and a second child element , wherein the first child element and the second child element have different shapes; providing for display the container on the graphical user interface in a first state, the first state including display of the first child element , but not the second child element ; applying a transition to the container to effectuate a state change of the container from the first state to a second state as the container moves within the graphical user interface , the second state including display of the second child element , but not the first child element , applying the transition including applying a crossfade to the container to graphically fade the first child element to the second child element as the container moves within the graphical user interface ; and after applying the transition, providing the container for display within the graphical user interface in the second state. identifying a graphical user interface including a container having a first child element and a second child element , wherein the first child element and the second child element have different shapes; providing for display the container on the graphical user interface in a first state, the first state including display of the first child element , but not the second child element ; applying a transition to the container to effectuate a state change of the container from the first state to a second state as the container moves within the graphical user interface , the second state including display of the second child element , but not the first child element , applying the transition including applying a crossfade to the container to graphically fade the first child element to the second child element as the container moves within the graphical user interface ; and after applying the transition, providing the container for display within the graphical user interface in the second state.
A daytime running lamp (DRL) component for a vehicle headlamp comprising: a support having a front side and a back side; at least one first LED mounted to the front side of the support, said at least one first LED configured and arranged, to output daytime running light under daylight conditions when the vehicle's engine is turned on; a clear lens mounted above the at least one first LED; at least one second LED mounted to the back side of the support, said at least one second LED configured and arranged to output low beam head light when the low beam is turned on by the vehicle operator via a first vehicle switch; characterized in that the daytime running lamp comprises: a three-contact power connector comprising a low beam contact , a high beam contact , and a ground; and a control circuit for operating the DRL component, said control circuit comprising a pulse width modulation (PWM) detection circuit configured to continuously monitor input voltage, to activate the at least one first LED when a PWM signal is detected on the low beam contact , and to activate the at least one second LED when a steady state voltage is detected on the low beam contact or the high beam contact . a support having a front side and a back side; at least one first LED mounted to the front side of the support, said at least one first LED configured and arranged, to output daytime running light under daylight conditions when the vehicle's engine is turned on; a clear lens mounted above the at least one first LED; at least one second LED mounted to the back side of the support, said at least one second LED configured and arranged to output low beam head light when the low beam is turned on by the vehicle operator via a first vehicle switch; characterized in that the daytime running lamp comprises: a three-contact power connector comprising a low beam contact , a high beam contact , and a ground; and a control circuit for operating the DRL component, said control circuit comprising a pulse width modulation (PWM) detection circuit configured to continuously monitor input voltage, to activate the at least one first LED when a PWM signal is detected on the low beam contact , and to activate the at least one second LED when a steady state voltage is detected on the low beam contact or the high beam contact . a three-contact power connector comprising a low beam contact , a high beam contact , and a ground; and a control circuit for operating the DRL component, said control circuit comprising a pulse width modulation (PWM) detection circuit configured to continuously monitor input voltage, to activate the at least one first LED when a PWM signal is detected on the low beam contact , and to activate the at least one second LED when a steady state voltage is detected on the low beam contact or the high beam contact .
Soil-working disk , in particular for agricultural machines, such as soil-working and/or sowing machines, which is preferably mounted so as to be freely rotatable on disk holders by means of rotary bearings and has a circular and/or toothed outer circumference , the continuous outer edge region and/or lateral edge region of the disk being provided with a wear-resistant material at least on the side which is most intensely subjected to wear and/or on the continuous outer circumference of the disk , the soil-working disk having a main body which is softer than the wear-resistant material, on the main body the wear-resistant material being applied to the outer disk region in the form of a wear-protection ring which extends to the outer circumference of the disk, characterized in that the wear-protection material is applied to the disk by PTA application welding, laser application methods, flame spraying methods.