mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal apparatus comprising: a reception unit configured to receive downlink signals from a base station apparatus and receive first information which indicates multiple pieces of random access configuration information, RA CI, for random access preamble, RAP, transmission; a higher layer operation unit configured to select one piece of RA CI from said multiple pieces of RA CI, based on a measurement of the downlink signals; a transmission unit configured to transmit a RAP based on the selected one piece of RA CI by applying different terminal transmit beams in each of multiple time sections of the RAP; and a monitoring unit configured to monitor second information corresponding to the RAP, wherein the second information is received from the base station apparatus and includes information which identifies an OFDM symbol number, which symbol number indicates one of the multiple time sections which the base station apparatus used to receive the RAP. a reception unit configured to receive downlink signals from a base station apparatus and receive first information which indicates multiple pieces of random access configuration information, RA CI, for random access preamble, RAP, transmission; a higher layer operation unit configured to select one piece of RA CI from said multiple pieces of RA CI, based on a measurement of the downlink signals; a transmission unit configured to transmit a RAP based on the selected one piece of RA CI by applying different terminal transmit beams in each of multiple time sections of the RAP; and a monitoring unit configured to monitor second information corresponding to the RAP, wherein the second information is received from the base station apparatus and includes information which identifies an OFDM symbol number, which symbol number indicates one of the multiple time sections which the base station apparatus used to receive the RAP.
Machine for packaging products in respective packages or casings, comprising at least one central control unit and a plurality of functional groups suitable to operate synergistically and in synchronism so as to obtain the desired product packaging result, said functional groups comprising at least one product feeding group , at least one feeding and/or forming group of the packages in which the products are to be inserted, at least one insertion group of the products in the respective packages, at least one outlet group of the packages containing the respective products, each of said groups comprising respective operating stations each suitable to carry out a specific operation on the products, on the packages or on the combination thereof, so as to obtain a specific result in terms of product packaging, said central control unit comprising means for the identification of at least one malfunctioning or faulty operating station , and first deactivation means of said malfunctioning or faulty operating station , said central control unit comprising means for increasing the production speed of the functional group comprising said malfunctioning or faulty operating station , so as to bring it into operating synchronism with the other functional groups and to compensate, within the production flow, the deactivation of said malfunctioning or faulty operating station , characterized in that said increasing means are suitable to increase the nominal production speed of the functional group , comprising said malfunctioning or faulty operating station , of a factor exactly constituted by the ratio between the total number of operating stations provided in said functional group and the number of operating stations which, within said functional group , actually operate in a normal way without faults or malfunctions.
An industrial truck with a jaw coupling that comprises a coupling body and a coupling pin , comprising a control unit , at least one locking sensor and a locking actuator that are coupled by communication technology to each other, wherein the locking sensor is configured to detect whether a coupling eye of a drawbar of a trailer is located in or close to a locking position within the coupling body , wherein in the locking position, the opening in the coupling eye is flush with the coupling pin so that, to couple the trailer , the coupling pin can be shoved through the coupling eye , and wherein the control unit is configured to receive and evaluate signals from the locking sensor and, in an instance in which the locking sensor recognizes that the coupling eye is located in or near the locking position, the control unit is configured to control the locking actuator so that it actuates the coupling pin such that the coupling pin is shoved through the coupling eye , wherein in particular, the locking sensor is a contactless sensor, further in particular an optical sensor, wherein the industrial truck comprises a proximity sensor that is configured to detect the presence of the coupling eye within a sensor area , wherein the proximity sensor is coupled by communication technology to the control unit , and the control unit is configured to receive and evaluate signals from the proximity sensor and, in an instance in which the proximity sensor recognizes that the coupling eye is located in a sensor area , to control a traction drive of the industrial truck such that a driving speed of the industrial truck does not exceed a limit value for a provided approach speed.
A micro-electro-mechanical component, preferably an inertial sensor, more preferably a rotation rate sensor for measuring a rotation of the rotation rate sensor , comprising: a coupling device for coupling a plurality of vibration systems , which are mounted above a substrate in such a manner that said systems can vibrate along a first direction (x) and are offset with respect to one another in a second direction (y) perpendicular to the first direction (x), wherein the coupling device has a bending beam spring which can bend in the first direction (x) and is connected to the vibration systems , and connections of the bending beam spring to the vibration systems are arranged between two connection points of the bending beam spring to the substrate in such a manner that a deflection of the bending beam spring which is caused by movements of the vibration systems results in a vibration of the bending beam spring with vibration antinodes in the area of the connections of the bending beam spring to the vibration systems ; and the plurality of vibration systems , wherein the number of vibration systems is N, and wherein a length of the bending beam spring between two connection points to the substrate is L, characterized in that there are no further connection points to the substrate between said two connection points ; and the vibration system n (n=1, ...,N) is connected to the bending beam spring at (2n-1)·L/2N. a coupling device for coupling a plurality of vibration systems , which are mounted above a substrate in such a manner that said systems can vibrate along a first direction (x) and are offset with respect to one another in a second direction (y) perpendicular to the first direction (x), wherein the coupling device has a bending beam spring which can bend in the first direction (x) and is connected to the vibration systems , and connections of the bending beam spring to the vibration systems are arranged between two connection points of the bending beam spring to the substrate in such a manner that a deflection of the bending beam spring which is caused by movements of the vibration systems results in a vibration of the bending beam spring with vibration antinodes in the area of the connections of the bending beam spring to the vibration systems ; and the plurality of vibration systems , wherein the number of vibration systems is N, and wherein a length of the bending beam spring between two connection points to the substrate is L, characterized in that there are no further connection points to the substrate between said two connection points ; and the vibration system n (n=1, ...,N) is connected to the bending beam spring at (2n-1)·L/2N.
A method of transferring implement weight, comprising: drawing an implement across a field, the implement comprising a center section having a hitch actuator , a left wing section (310-1) having a left wing flex actuator (312-1), a right wing section (301-2) having a right wing flex actuator (312-2); and determining an estimated load (Fc) on a wheel of said implement based on a sum of estimated actuator forces; comparing said estimated load (Fc) to a desired center section wheel load (F C,D ); and modifying a valve pressure to bring said estimated load (F C ) closer to said desired center section wheel load (F C,D ); wherein said sum of estimated actuator forces is determined by a process comprising: determining a sum of applied row unit downforce (F R ) applied to each row unit in a center section of said implement; determining a left wing vertical force (F W1 ) applied to said center section by a left wing flex actuator (312-1); determining a right wing vertical force (F W2 ) applied to said center section by a right wing flex actuator (312-2); and determining a hitch vertical force (F H ) applied to said center section by a hitch actuator . drawing an implement across a field, the implement comprising a center section having a hitch actuator , a left wing section (310-1) having a left wing flex actuator (312-1), a right wing section (301-2) having a right wing flex actuator (312-2); and determining an estimated load (Fc) on a wheel of said implement based on a sum of estimated actuator forces; comparing said estimated load (Fc) to a desired center section wheel load (F C,D ); and modifying a valve pressure to bring said estimated load (F C ) closer to said desired center section wheel load (F C,D ); wherein said sum of estimated actuator forces is determined by a process comprising: determining a sum of applied row unit downforce (F R ) applied to each row unit in a center section of said implement; determining a left wing vertical force (F W1 ) applied to said center section by a left wing flex actuator (312-1); determining a right wing vertical force (F W2 ) applied to said center section by a right wing flex actuator (312-2); and determining a hitch vertical force (F H ) applied to said center section by a hitch actuator . determining a sum of applied row unit downforce (F R ) applied to each row unit in a center section of said implement; determining a left wing vertical force (F W1 ) applied to said center section by a left wing flex actuator (312-1); determining a right wing vertical force (F W2 ) applied to said center section by a right wing flex actuator (312-2); and determining a hitch vertical force (F H ) applied to said center section by a hitch actuator .
A method, performed by an access and mobility management function, AMF, for checking UE capability match, comprising: determining to send a UE capability match request to a base station during a registration procedure initiated by the UE; sending a request for setting up a UE's access stratum, AS, security context to the base station, and sending the UE capability match request to the base station after it is determined that the base station completes setup of the AS security context; and receiving a UE capability match acknowledgement returned from the base station; wherein the UE capability match acknowledgement is generated by the base station according to UE capability information, and the UE capability information is acquired from the UE by the base station after the setup of the AS security context is completed. determining to send a UE capability match request to a base station during a registration procedure initiated by the UE; sending a request for setting up a UE's access stratum, AS, security context to the base station, and sending the UE capability match request to the base station after it is determined that the base station completes setup of the AS security context; and receiving a UE capability match acknowledgement returned from the base station; wherein the UE capability match acknowledgement is generated by the base station according to UE capability information, and the UE capability information is acquired from the UE by the base station after the setup of the AS security context is completed.
Liquid crystal display device, the display device comprising: two facing transparent substrates designated respectively front substrate and rear substrate, the front substrate being same disposed on the observer side, the front and rear substrates being provided on the inner faces thereof with transparent structured electrodes whereof the superposition defines shape pixels switchable between two optical states, the electrodes being connected to a voltage source via a control circuit, forming a cell closed by a sealing frame for receiving in the spaced delimited by the substrates and the sealing frame a liquid crystal composition; and a decorative pattern in direct contact with the front substrate and/or the rear substrate, characterised in that the decorative pattern comprises elements aligned with the structured electrodes, such that the shape pixels cover one or more elements of the decorative pattern, and in that the decorative pattern is applied either by a digital printing process by ink jet or laser printing, or by applying and structuring a photosensitive resin, or by physical or chemic vapour deposition of a thin metal and/or dielectric layer and structuring the thin layer deposited, or by a combination of these methods. two facing transparent substrates designated respectively front substrate and rear substrate, the front substrate being same disposed on the observer side, the front and rear substrates being provided on the inner faces thereof with transparent structured electrodes whereof the superposition defines shape pixels switchable between two optical states, the electrodes being connected to a voltage source via a control circuit, forming a cell closed by a sealing frame for receiving in the spaced delimited by the substrates and the sealing frame a liquid crystal composition; and a decorative pattern in direct contact with the front substrate and/or the rear substrate, characterised in that the decorative pattern comprises elements aligned with the structured electrodes, such that the shape pixels cover one or more elements of the decorative pattern, and in that the decorative pattern is applied either by a digital printing process by ink jet or laser printing, or by applying and structuring a photosensitive resin, or by physical or chemic vapour deposition of a thin metal and/or dielectric layer and structuring the thin layer deposited, or by a combination of these methods.
A quick connector (1; 101) comprising a sleeving component (6; 106) and a sliding lock (8; 108); wherein the sleeving component (6; 106) comprises a main body (30; 130) defining a receiving hole (26; 126), wherein the receiving hole (26; 126) is used for receiving a fluid pipeline (4; 104) inserted therein an axial direction and having an annular groove (28; 128); the sliding lock (8; 108) extends in an inner recess in the main body (30; 130) of the sleeving component (6; 106) in a transverse direction (T), and the sliding lock (8; 108) is configured to radially elastically deform towards the outside of the sleeving component (6; 106) by means of mechanical interference with an end (58; 158) of the fluid pipeline (4; 104) during the insertion of the fluid pipeline (4; 104) into the sleeving component (6; 106), and tend to automatically move towards the interior of the sleeving component (6; 106) in the transverse direction (T) in response to the radial elastic deformation; the sliding lock (8; 108) further comprises at least one locking hook , wherein the locking hook matches a locking catch provided in the main body (30; 130) of the sleeving component (6; 106), and when the fluid pipeline (4; 104) is completely pushed into the main body (30; 130) of the sleeving component (6; 106), the locking hook moves around the locking catch and finally surrounds the locking catch , characterized in that the sleeving component (6; 106) further comprises a stop component configured to radially elastically deform towards the outside of the sleeving component (6; 106) by means of mechanical interference with the end (58; 158) of the fluid pipeline (4; 104) so as to stop the automatic movement of the sliding lock (8; 108) towards the interior of the sleeving component (6; 106) in the transverse direction (T) during the insertion of the fluid pipeline (4; 104) into the sleeving component (6; 106), and to release the mechanical interference with the end (58; 158) of the fluid pipeline (4; 104) so as to release the stopping of the sliding lock (8; 108) under the action of an elastic restoring force when the fluid pipeline (4; 104) is completely pushed into the main body (30; 130) of the sleeving component (6; 106).
System for multicast communication from an Application Server to at least two User Equipments , the system being configured for an LTE cellular network and comprising an Evolved Packet Core having a first interface (SGi) for receiving unicast user messages (UU) and a second interface (S1-u) for outputting unicast user messages (UU); a Broadcast Multicast Service Center and a Multimedia Broadcast Multicast Service Gateway for multicast communication; at least one eNodeB for communicating with the User Equipments via an LTE air interface , the eNodeB being connected to the second interface (S1-u) of the Evolved Packet Core for receiving unicast user messages (UU) and having an M1 interface for receiving multicast user messages (MU) ; a multicast server connected to the first interface (SGi) of the Evolved Packet Core and having an interface (MB2) for receiving messages (M), which are to be sent to the at least two User Equipments , from the Application Server ; and a proxy User Equipment connected to the M1 interface of the eNodeB , the proxy User Equipment being registered with the Evolved Packet Core ; wherein the multicast server hosts the Broadcast Multicast Service Center and the Multimedia Broadcast Multicast Service Gateway and is configured to generate multicast user messages (MU) from the messages (M) received from the Application Server by means of the Broadcast Multicast Service Center and the Multimedia Broadcast Multicast Service Gateway , to wrap the generated multicast user messages (MU) in at least one unicast user message (UU), to establish a bearer with the proxy User Equipment via the Evolved Packet Core , and to communicate the unicast user messages (UU) to the proxy User Equipment via said bearer; wherein the proxy User Equipment is configured to extract the multicast user messages (MU) from the unicast user messages (UU) received via said bearer and to output the generated multicast user messages (MU) to the M1 interface of the eNodeB ; and wherein the eNodeB is further configured to transmit the multicast user messages (MU) received from the proxy User Equipment to at least two User Equipments via the LTE air interface .
A method of evaluating a reliable lifespan of an encapsulant film comprising a base resin and a moisture absorbent, and satisfying the following General Equations 1 to 3, wherein the measured haze value is used to evaluate a reliable lifespan of the film, and the reliable lifespan of the film is evaluated to be higher when the measured haze value of the encapsulant film is higher: D = k / Hz D = − α × Hz + β Hz ≥ 30 ⁢ % where, in General Equations 1 to 3, Hz represents a haze value (%) of the film that is measured using a haze meter within one hour from a time point at which the film is taken out of a water-resistant sealed envelope under conditions of relative humidity of 50% at 25 °C, D represents a water penetration distance (mm) of the film that is measured after the film of which haze is measured is laminated between two glass substrates and maintained under conditions of a temperature of 85 °C and a relative humidity of 85% for 0 to 1500 hours, and k is a value equal to or greater than one, α is 0.01 or more, and β is 1.0 or more and is greater than D, and the base resin being a styrene-based resin, a polyolefin-based resin, a polyoxyalkylene-based resin, a polyester-based resin, a polyvinylchloride-based resin, a polycarbonate-based resin, a polyphenylene-sulfide-based resin, mixtures of hydrocarbons, a polyamide-based resin, an acrylate-based resin, an epoxy-based resin, a silicone-based resin, a fluorine-based resin, or mixtures thereof, the water reactive adsorbent comprising a metal oxide, a metal salt, or phosphorus pentoxide, and the moisture absorbent being included in an amount of 1 to 200 parts by weight with respect to 100 parts by weight of the base resin. Hz represents a haze value (%) of the film that is measured using a haze meter within one hour from a time point at which the film is taken out of a water-resistant sealed envelope under conditions of relative humidity of 50% at 25 °C, D represents a water penetration distance (mm) of the film that is measured after the film of which haze is measured is laminated between two glass substrates and maintained under conditions of a temperature of 85 °C and a relative humidity of 85% for 0 to 1500 hours, and k is a value equal to or greater than one, α is 0.01 or more, and β is 1.0 or more and is greater than D, and the base resin being a styrene-based resin, a polyolefin-based resin, a polyoxyalkylene-based resin, a polyester-based resin, a polyvinylchloride-based resin, a polycarbonate-based resin, a polyphenylene-sulfide-based resin, mixtures of hydrocarbons, a polyamide-based resin, an acrylate-based resin, an epoxy-based resin, a silicone-based resin, a fluorine-based resin, or mixtures thereof,
An apparatus, comprising: a cylinder head defining an exhaust gas recirculation crossover tube integrally formed in the cylinder head, the exhaust gas recirculation crossover tube comprising: a first end fluidly coupled to an exhaust port of an engine ; a second end fluidly coupled to an intake port of the engine ; a Venturi tube configuration positioned between the first and the second ends; a first sensor port extending through the cylinder head to the exhaust gas recirculation crossover tube, the first sensor port positioned at a restriction of the Venturi tube configuration ; a second sensor port extending through the cylinder head to the exhaust gas recirculation crossover tube, the second sensor port positioned proximate the first end ; and a differential pressure sensor comprising a first pressure sensor positioned in the first sensor port and a second pressure sensor positioned in the second sensor port , a flow rate of exhaust gas through the exhaust gas recirculation crossover tube is determined from pressure measurements from the differential pressure sensor . a cylinder head defining an exhaust gas recirculation crossover tube integrally formed in the cylinder head, the exhaust gas recirculation crossover tube comprising: a first end fluidly coupled to an exhaust port of an engine ; a second end fluidly coupled to an intake port of the engine ; a Venturi tube configuration positioned between the first and the second ends; a first end fluidly coupled to an exhaust port of an engine ; a second end fluidly coupled to an intake port of the engine ; a Venturi tube configuration positioned between the first and the second ends; a first sensor port extending through the cylinder head to the exhaust gas recirculation crossover tube, the first sensor port positioned at a restriction of the Venturi tube configuration ; a second sensor port extending through the cylinder head to the exhaust gas recirculation crossover tube, the second sensor port positioned proximate the first end ; and a differential pressure sensor comprising a first pressure sensor positioned in the first sensor port and a second pressure sensor positioned in the second sensor port , a flow rate of exhaust gas through the exhaust gas recirculation crossover tube is determined from pressure measurements from the differential pressure sensor .