mhurhangee/patent-ind-claim-en huggingface dataset:
Suction nozzle for a vacuum cleaner, with a suction nozzle housing , which embodies a flow channel to connect the flow of a suction mouth to a suction fan , wherein the cross section of the flow channel narrows starting from the suction mouth in the shape of a funnel in a frontal view, wherein the longitudinal extent of the cross section of the flow channel which narrows in the shape of a funnel has regions of differing direction of curvature in the suction nozzle housing in a lateral view, in such a way that the longitudinal extent first runs in a curved manner starting from the suction mouth in a first curved section about a first transverse axis situated beneath the flow channel and subsequently in a second curved section about a second transverse axis situated above the flow channel, wherein the first curved section extends over an angle of 95° or more; characterised by a wheel arrangement which does not projects upwardly over the suction nozzle housing , wherein the rotational axis of the wheel arrangement is arranged beneath the flow channel of the suction nozzle .
An electronic device comprising: a communication interface configured to transmit and receive signals over a plurality of cellular networks; and a processor configured to: connect to a packet switching, PS, service network through the communication interface , characterised in that the processor configured to : receive information of an incoming call on a circuit switching, CS, service network, while connected to the PS service network, obtain caller identification information of the incoming call on the CS service network based on the information of the incoming call, while connected to the PS service network, and determine whether to connect the incoming call based on the caller identification information while transmitting or receiving data over the PS service network. a communication interface configured to transmit and receive signals over a plurality of cellular networks; and a processor configured to: connect to a packet switching, PS, service network through the communication interface , characterised in that the processor configured to : receive information of an incoming call on a circuit switching, CS, service network, while connected to the PS service network, obtain caller identification information of the incoming call on the CS service network based on the information of the incoming call, while connected to the PS service network, and determine whether to connect the incoming call based on the caller identification information while transmitting or receiving data over the PS service network.
Vehicle tyre having a tread with profile blocks , a carcass ply , a tyre belt , sidewalls and a tyre inner side , wherein a tyre sensor for measuring profile abrasion is arranged in the vehicle tyre, a tyre sensor is arranged in at least one profile block of the tread , wherein the tyre sensor comprises an embedding material in the form of a pin with at least one transponder , wherein the transponders are embedded in the embedding material at a predetermined distance from the tread side , wherein, when there is profile abrasion of the vehicle tyre, the number of transponders is reduced and the profile abrasion can be determined by an evaluation of the number of transponders in the embedding material , characterized in that the tyre sensor takes the form of a cylinder, wherein the height dimension of the cylinder is greater than the diameter of the cylinder. wherein a tyre sensor for measuring profile abrasion is arranged in the vehicle tyre, a tyre sensor is arranged in at least one profile block of the tread , wherein the tyre sensor comprises an embedding material in the form of a pin with at least one transponder , wherein the transponders are embedded in the embedding material at a predetermined distance from the tread side , wherein, when there is profile abrasion of the vehicle tyre, the number of transponders is reduced and the profile abrasion can be determined by an evaluation of the number of transponders in the embedding material , characterized in that the tyre sensor takes the form of a cylinder, wherein the height dimension of the cylinder is greater than the diameter of the cylinder.
An LTE in band relay method, wherein the method comprises: receiving , by a first relay node, allocation information that is sent by a donor eNodeB, wherein the allocation information is used to indicate a first radio bearer resource that is to be occupied by a first backhaul link in a scheduling period, and the first backhaul link is a link between the first relay node and the donor eNodeB; and communicating , by the first relay node, with first user equipment in the scheduling period by using a second radio bearer resource, wherein the first user equipment is user equipment to which the first relay node provides a service, and the second radio bearer resource is a radio bearer resource that is in a preset frequency band and that is different from the first radio bearer resource; wherein the receiving, by a first relay node, allocation information that is sent by a donor eNodeB comprises: receiving , by the first relay node by using a relay physical downlink control channel, the allocation information that is sent by the donor eNodeB, wherein a radio bearer resource occupied by the relay physical downlink control channel is at least one radio bearer resource of radio bearer resources in the preset frequency band, wherein the relay physical downlink control channel occupies radio bearer resources that are at two ends of the preset frequency band. receiving , by a first relay node, allocation information that is sent by a donor eNodeB, wherein the allocation information is used to indicate a first radio bearer resource that is to be occupied by a first backhaul link in a scheduling period, and the first backhaul link is a link between the first relay node and the donor eNodeB; and communicating , by the first relay node, with first user equipment in the scheduling period by using a second radio bearer resource, wherein the first user equipment is user equipment to which the first relay node provides a service, and the second radio bearer resource is a radio bearer resource that is in a preset frequency band and that is different from the first radio bearer resource; wherein the receiving, by a first relay node, allocation information that is sent by a donor eNodeB comprises: receiving , by the first relay node by using a relay physical downlink control channel, the allocation information that is sent by the donor eNodeB, wherein a radio bearer resource occupied by the relay physical downlink control channel is at least one radio bearer resource of radio bearer resources in the preset frequency band, wherein the relay physical downlink control channel occupies radio bearer resources that are at two ends of the preset frequency band.
Module assembly with a base module and at least one sub-module , wherein the base module comprises at least two connection modules and wherein the sub-module is contactable with a connection module selectably at one of the connection modules of the base module, characterised in that the sub-module can be brought into different rotational positions at the based module, that detecting means for detection of the rotational position of the sub-module mounted on the base module are provided in the base module and that the module assembly forms a safety system, wherein the base module is formed by a retaining module or an expansion module associated with the retaining module , wherein the retaining module has a receptacle for a grip module , wherein in two different rotational settings of the retaining module the grip module is connectible in an orientation selectably on the lefthand side or righthand side with respect thereto.
Method for manufacturing a component or coupon , which component or coupon is used in a thermal machine under extreme thermal and mechanical conditions, whereby said component or coupon is made of a superalloy material with a controllable grain size (d), and is in service subjected to an expected temperature and/or stress and/or strain distribution (T(X,Y,Z); σ(X,Y,Z); ε(X,Y,Z)), which varies with the geometrical coordinates (X,Y,Z) of the component or coupon , said method comprising the steps of a) generating 1 D or 2D or 3D parameter distribution data of one or more grain-size-relevant and lifetime-determining parameters (T, σ, ε etc.) for said component/coupon being under operating conditions, said distribution data comprising a temperature distribution (T(X,Y,Z)) and a stress (σ(X,Y,Z)) distribution or/and a strain (ε(X,Y,Z)) distribution; said temperature and stress or/and strain distribution being computed with respect to the service conditions for maximizing the lifetime of the component/coupon; b) deriving an optimal grain size distribution (d(X,Y,Z)) from said temperature (T(X,Y,Z)) and stress and/or strain distribution (σ(X,Y,Z); ε(X,Y,Z)) such that the lifetime of the component is improved with respect to a similar component with a substantially uniform grain size; c) manufacturing said component/coupon by an additive manufacturing process, especially selective laser melting (SLM); d) controlling during manufacturing of said component/coupon the grain size distribution (d(X,Y,Z)) within said component/coupon in order to maximize the lifetime of said component/coupon , wherein the desired lifetime-maximizing grain size distribution (d(X,Y,Z)) is directly generated during said additive manufacturing process. a) generating 1 D or 2D or 3D parameter distribution data of one or more grain-size-relevant and lifetime-determining parameters (T, σ, ε etc.) for said component/coupon being under operating conditions, said distribution data comprising a temperature distribution (T(X,Y,Z)) and a stress (σ(X,Y,Z)) distribution or/and a strain (ε(X,Y,Z)) distribution; said temperature and stress or/and strain distribution being computed with respect to the service conditions for maximizing the lifetime of the component/coupon; b) deriving an optimal grain size distribution (d(X,Y,Z)) from said temperature (T(X,Y,Z)) and stress and/or strain distribution (σ(X,Y,Z); ε(X,Y,Z)) such that the lifetime of the component is improved with respect to a similar component with a substantially uniform grain size; c) manufacturing said component/coupon by an additive manufacturing process, especially selective laser melting (SLM); d) controlling during manufacturing of said component/coupon the grain size distribution (d(X,Y,Z)) within said component/coupon in order to maximize the lifetime of said component/coupon , wherein the desired lifetime-maximizing grain size distribution (d(X,Y,Z)) is directly generated during said additive manufacturing process.
A position estimation program causing a computer to execute a process, the process comprising: acquiring (S22) a captured image of an optical signal pattern including identification information pertaining to a mobile terminal ; extracting (S23) the identification information from the captured image ; estimating (S24) a position of the mobile terminal by estimating a position of the image of the optical signal pattern in the captured image ; and transmitting (S26) notification information corresponding to the estimated position, wherein the transmitting (S26) includes identifying the mobile terminal of a destination based on the identification information and transmitting the notification information to the identified mobile terminal . acquiring (S22) a captured image of an optical signal pattern including identification information pertaining to a mobile terminal ; extracting (S23) the identification information from the captured image ; estimating (S24) a position of the mobile terminal by estimating a position of the image of the optical signal pattern in the captured image ; and transmitting (S26) notification information corresponding to the estimated position, wherein the transmitting (S26) includes identifying the mobile terminal of a destination based on the identification information and transmitting the notification information to the identified mobile terminal .
A facade for a building, made up of composite elements , the composite elements respectively having an inner cover layer , a polymer foam layer as the core and an outer metallic cover layer and being fastened to a supporting structure , each composite element having at least two fastening regions , wherein all the fastening regions lie in a line, in one fastening region the composite elements being immovably connected to the supporting structure and in the other fastening regions the composite elements being displaceably connected to the supporting structure , or the composite elements resting with the ground-facing side on a mounting and in all fastening regions being displaceably connected to the supporting structure .
A biopsy system comprising: (a) a biopsy device including a body, a needle extending distally from the body, and a cutter movable relative to the needle , wherein the needle includes an outer cannula , a tissue piercing tip secured to a distal end of the outer cannula , and a cutter lumen configured to receive the cutter, wherein the tissue piercing tip defines a marker lumen in communication with the exterior of the cutter and the cutter lumen ; (b) a marker delivery device including an elongate cannula having a distal end with a marker exit disposed in the distal end; and (c) a biopsy site marker, wherein the marker delivery device is configured to expel the biopsy site marker through the marker exit and out of the needle through the marker lumen defined by the tissue piercing tip , characterized in that the elongate cannula of the marker delivery device is configured for insertion into the cutter of the biopsy device. (a) a biopsy device including a body, a needle extending distally from the body, and a cutter movable relative to the needle , wherein the needle includes an outer cannula , a tissue piercing tip secured to a distal end of the outer cannula , and a cutter lumen configured to receive the cutter, wherein the tissue piercing tip defines a marker lumen in communication with the exterior of the cutter and the cutter lumen ; (b) a marker delivery device including an elongate cannula having a distal end with a marker exit disposed in the distal end; and (c) a biopsy site marker, wherein the marker delivery device is configured to expel the biopsy site marker through the marker exit and out of the needle through the marker lumen defined by the tissue piercing tip ,
Hydraulic cylinder comprised of a cylinder housing , with at least one cylindrical inner space, and in this at least one movably arranged first piston which partitions the hydraulic cylinder into at least one first chamber and at least one second chamber , said first piston comprised of at least one piston head and at least one piston rod , said piston rod , in the piston rod's axial direction, being provided with at least one inner space in which at least one second piston runs, and that the hydraulic cylinder is comprised of at least one third piston which is movably arranged in the inner space in the piston rod which partitions the inner space in at least one first chamber and at least one second chamber wherein the hydraulic cylinder is comprised of at least one second inner space in which an end of the second piston is suitable to be inserted and that the second piston in the inserted position seals against at least one seal whereby the second inner space is separated from the first chamber by the seal and that at least one conduit which may be closed and opened by at least one valve connects the first chamber and the second inner space , wherein the movable second piston makes it possible that the hydraulic cylinder may be controlled to not have, or essentially not have, dampening properties when the end of the second piston is inserted in the second inner space and to have dampening properties when the end of the second piston is not inserted in the second inner space .
Conveyor weighing device with a framework , which carries at least one weighing belt and a feeding belt for transporting items to be weighed, wherein the weighing belt is coupled to a weighing cell arranged underneath the weighing belt, wherein the conveyor weighing device comprises, following the weighing belt in the conveying direction, at least one further conveying belt and at least one processing device for the items, wherein at least one of the at least one processing devices performs processing steps that relate to the value of the weight of the items determined by the weighing cell, wherein the conveyor weighing device comprises an access control device , which in the conveying direction at least partially covers the conveying belt following the weighing belt , characterized in that the conveyor weighing device comprises at least one labelling device with a top labeller , wherein the access control device has an opening in an upper covering in the region in which the top labeller accesses the items in order to apply a label to the items.
A Pacific prao-type amphidromic multihull vessel , comprising a hull producing a first displacement according to its draft and a float parallel to the hull producing a second displacement according to its draft, the float and the hull being linked by a beam and separated from each other by a distance y , the hull carrying a Flettner-type rotary rigging capable of producing a thrust perpendicular to both its axis of rotation and a wind direction , the float comprising ballasts and means for filling and emptying said ballasts, wherein the hull comprises a submerged hydro-turbine capable of producing electricity by the movement of the vessel and the float comprises a storage battery capable of storing the electricity produced by said tidal turbine, characterized in that said storage battery is removably connected to the float into a housing by locking means so that it can be loaded and unloaded.
Light-emitting diode with a stack-shaped structure, comprising a carrier layer , an n-doped lower casing layer , an active layer generating electromagnetic radiation, wherein the active layer has a quantum well structure, a p-doped upper casing layer , an n-doped current distributor layer , wherein the layers are arranged in the stated sequence, a tunnel diode is arranged between the upper casing layer and the current distributor layer , wherein the current distributor layer comprises an n-doped Ga-containing layer with a Ga content greater than 1%, a reflecting layer is arranged between the carrier layer and the n-doped lower casing layer , an n-doped contact layer is formed below the n-doped lower casing layer , and the tunnel diode comprises an n-doped layer (22.2) with a doping substance concentration greater than 3 x 10 18 N/cm 3 and a p-doped layer (22.1) with a doping substance concentration greater than 1 x 10 19 N/cm 3 , characterised in that the current distributor layer has a recess and the recess has an upper-side edge surface , a side surface and a base surface , wherein the current distributor layer is completely removed at the base surface and the base surface is covered with a filler material which is different relative to the first semiconductor material, and the contact resistance between the filler material and the base surface is greater than the contact resistance between the filler material and the current distributor layer and the tunnel diode has an As-containing layer and/or a P-containing layer, wherein the As containing layer is doped with carbon and/or the P-containing layer Is doped with tellurium.
A method performed by a User Equipment, UE, in a communications network , for detecting that the UE has received a fraudulent missed call, wherein the method comprises: receiving a missed call which is ended before a user of the UE has answered the incoming call, determining , the duration of the missed call, determining , based on the duration of the missed call, that the missed call is potentially fraudulent, wherein the missed call is determined to be potentially fraudulent when the duration of the missed call is below or equal to a predetermined threshold, indicating the duration of the missed call, characterised by transmitting , to a network node , information that the missed call is potentially fraudulent, which information comprises a number corresponding to the missed call and the duration of the missed call. receiving a missed call which is ended before a user of the UE has answered the incoming call, determining , the duration of the missed call, determining , based on the duration of the missed call, that the missed call is potentially fraudulent, wherein the missed call is determined to be potentially fraudulent when the duration of the missed call is below or equal to a predetermined threshold, indicating the duration of the missed call, characterised by transmitting , to a network node , information that the missed call is potentially fraudulent, which information comprises a number corresponding to the missed call and the duration of the missed call.
A method for operating an articulating header of a combine harvester in a failsafe mode, the articulating header comprising a center section and two lateral sections joined for articulation thereto, the lateral sections being configured to adapt to an uneven soil contour by means of said articulation, the method comprising: monitoring the articulating header ; alerting a user when a fault condition is detected in the articulating header ; and characterized in that the method further comprises: converting the articulating header to a non-articulating header in response to the fault condition. monitoring the articulating header ; alerting a user when a fault condition is detected in the articulating header ; and characterized in that the method further comprises: converting the articulating header to a non-articulating header in response to the fault condition.
A nozzle for cleaning the interior of a pipe, comprising a forward end, a rear end, a centre axis (A) extending between the front and rear ends, a rinsing fluid inlet and a plurality of rinsing fluid discharges , wherein the rinsing fluid inlet is arranged for introducing rinsing fluid into the nozzle in a forward direction and wherein each of the rinsing fluid discharges is arranged for discharging fluid in a direction at least partially being in a rearward direction, wherein the nozzle further comprises a plurality of rinsing fluid outlets for discharging rinsing fluid in a direction at least partially being in the rearward direction, wherein each of the rinsing fluid outlets is enclosed by a tube forming a passage between the tube and the rinsing fluid outlet , and wherein each tube is connected to a material suction inlet and comprises a tube outlet for discharging material and rinsing fluid, wherein the tubes comprise a first tube section and a second tube section , wherein the rinsing fluid outlet is arranged inside the first tube section to form a chamber inside the first tube section for material and rinsing fluid, wherein the second tube section ends with the tube outlet , characterised in that the first tube section is wider than the second tube section . wherein the nozzle further comprises a plurality of rinsing fluid outlets for discharging rinsing fluid in a direction at least partially being in the rearward direction, wherein each of the rinsing fluid outlets is enclosed by a tube forming a passage between the tube and the rinsing fluid outlet , and wherein each tube is connected to a material suction inlet and comprises a tube outlet for discharging material and rinsing fluid, wherein the tubes comprise a first tube section and a second tube section , wherein the rinsing fluid outlet is arranged inside the first tube section to form a chamber inside the first tube section for material and rinsing fluid, wherein the second tube section ends with the tube outlet , characterised in that the first tube section is wider than the second tube section .