mhurhangee/patent-ind-claim-en huggingface dataset:
A network interface device , said network interface device comprising: a data transmission path configured to receive data for transmission, said data for transmission to be sent over a network by said network interface device ; and a monitor configured to monitor said data transmission path to determine if an underrun condition is associated with said data transmission path, wherein in response to determination of said underrun condition, said monitor is configured to cause an indication to be provided in a packet which is to be transmitted, said packet comprising at least some of said data for transmission, characterized by said indication indicating that said packet has been deliberately corrupted. a data transmission path configured to receive data for transmission, said data for transmission to be sent over a network by said network interface device ; and a monitor configured to monitor said data transmission path to determine if an underrun condition is associated with said data transmission path, wherein in response to determination of said underrun condition, said monitor is configured to cause an indication to be provided in a packet which is to be transmitted, said packet comprising at least some of said data for transmission, characterized by said indication indicating that said packet has been deliberately corrupted.
A method comprising: storing a spatial matrix in a memory, the spatial matrix including information for a plurality of voxels in a mesh of a scan space; obtaining three-dimensional data from an object within the scan space using a scanner; identifying at least one of the plurality of voxels in the mesh that is unoccupied at some time during the scan; storing an indication in the spatial matrix for a modified processing of data from the at least one of the plurality of voxels, thereby identifying a prohibited volume within the scan space; and processing a portion of the three-dimensional data that is not in the prohibited volume according to an unmodified processing and processing a second portion of the three-dimensional data that is in the prohibited volume according to the modified processing, wherein the modified processing comprises temporarily displaying the data in the prohibited volume with a decay time. storing a spatial matrix in a memory, the spatial matrix including information for a plurality of voxels in a mesh of a scan space; obtaining three-dimensional data from an object within the scan space using a scanner; identifying at least one of the plurality of voxels in the mesh that is unoccupied at some time during the scan; storing an indication in the spatial matrix for a modified processing of data from the at least one of the plurality of voxels, thereby identifying a prohibited volume within the scan space; and processing a portion of the three-dimensional data that is not in the prohibited volume according to an unmodified processing and processing a second portion of the three-dimensional data that is in the prohibited volume according to the modified processing, wherein the modified processing comprises temporarily displaying the data in the prohibited volume with a decay time.
A method performed within a communication system comprising a 5G core network and an IP Multimedia Subsystem, IMS, network, where the 5G core network can be configured to implement a plurality of virtual core network slices each having a slice identifier, the method comprising: assigning one of said virtual core network slices to a User Equipment, UE, at or following registration of said UE with the IMS network; sending from the 5G core network, to the IMS network, the slice identifier of the network slice assigned to the UE; receiving the slice identifier within the IMS network; storing in the IMS network a mapping between the UE and the received network slice identifier; and using the slice identifier within the IMS network to provision services to the UE. assigning one of said virtual core network slices to a User Equipment, UE, at or following registration of said UE with the IMS network; sending from the 5G core network, to the IMS network, the slice identifier of the network slice assigned to the UE; receiving the slice identifier within the IMS network; storing in the IMS network a mapping between the UE and the received network slice identifier; and using the slice identifier within the IMS network to provision services to the UE.
Method for producing a variable-length steering shaft , comprising a hollow shaft with an internal toothing in which a toothed shaft which engages in positively locking fashion is arranged so as to be telescopable in an axial direction, which toothed shaft comprises a toothing region with teeth arranged on the outer circumference and extending in the axial direction, wherein, in the toothing region , a shaft core is, in the injection molding process, overmolded with a sliding coating composed of thermoplastic material, having the steps: - positioning the shaft core within a mold cavity of an injection molding tool coaxially with respect to a mold surface that delimits the toothing region , - injecting molten plastic into the mold cavity between the shaft core and the mold surface of the mold cavity , - removing the toothed shaft from the injection molding tool after the plastic has solidified, - providing the hollow shaft and axially inserting the toothing region into the internal toothing, characterized in that the injection of the molten plastic is performed from one axial end region of the mold cavity through at least one gate point in an end wall of the mold cavity , which end wall is situated opposite the free end of the toothed shaft . - positioning the shaft core within a mold cavity of an injection molding tool coaxially with respect to a mold surface that delimits the toothing region , - injecting molten plastic into the mold cavity between the shaft core and the mold surface of the mold cavity , - removing the toothed shaft from the injection molding tool after the plastic has solidified, - providing the hollow shaft and axially inserting the toothing region into the internal toothing, characterized in that the injection of the molten plastic is performed from one axial end region of the mold cavity through at least one gate point in an end wall of the mold cavity , which end wall is situated opposite the free end of the toothed shaft .
A quasi-isotropic reinforced sheet material (T') that is formed by integrating a plurality of chopped semi prepreg sheet materials (C) including a reinforced fiber material and a thermoplastic resin material set in an unimpregnated state, wherein in an unimpregnated state the thermoplastic resin material partially infiltrates the reinforced fiber material, the chopped semi prepreg sheet materials (C) each having the average number of fibers in a thickness direction set in a range from two to ten and also a thickness "t" set, relative to the thickness (t p ) in an impregnated state, in a range of t p < t ≤ 2×t p , the thermoplastic resin material is partially infiltrated between the reinforced fiber materials such that the reinforced fiber material is partially exposed on both surfaces of the chopped semi prepreg sheet material (C), the quasi-isotropic reinforced sheet material (T') comprising a layered body obtained by bonding and integrating the plurality of chopped semi prepreg sheet materials (C) in a state where fiber directions of the reinforced fiber materials are oriented randomly in a two-dimensional direction and also the plurality of chopped semi prepreg sheet materials (C) is overlapped with each other such that the average number of the chopped semi prepreg sheet materials (C) in the thickness direction is set in a range from two to ten, wherein the chopped semi prepreg sheet materials (C) are bonded to each other by the partially melted thermoplastic resin materials included in the chopped semi prepreg sheet materials (C), and the chopped semi prepreg sheet materials (C) have the form of sheet before bonding and that form of sheet is maintained after bonding.
A device for the treatment of contaminated water, wherein - the device comprises an upper disc structure and a lower disc structure , - the upper disc structure and the lower disc structure can be rotated relative to each other, - the upper disc structure and the lower disc structure have mold surfaces with an engaging surface structure which is realised such that a continuous liquid channel is formed between the first disc and the second disc so that the liquid channel connects a water inlet with a water outlet , - the distance between mold surfaces facing one another of the disc structures , in particular the height of the liquid channel , varies along the radial extension of the discs , - the mold surfaces of the disc structures have grooves and ridges , wherein the ridges of the upper disc structure engage in grooves of the lower disc structure and wherein the ridges of the lower disc structure engage in grooves of the upper disc structure , - and the grooves and ridges are designed as concentric circular structures, characterized - in that the grooves and ridges have an apex region in the form of a circular segment in their cross section, - and in that the liquid channel comprises expansion zones and compression zones , wherein the expansion zones and the compression zones are formed in the region of the vertices of opposing grooves and ridges of the disc structures and wherein the normal distance of the vertices of opposing grooves and ridges in the expansion zones is greater than in the compression zones . - the device comprises an upper disc structure and a lower disc structure , - the upper disc structure and the lower disc structure can be rotated relative to each other, - the upper disc structure and the lower disc structure have mold surfaces with an engaging surface structure which is realised such that a continuous liquid channel is formed between the first disc and the second disc so that the liquid channel connects a water inlet with a water outlet , - the distance between mold surfaces facing one another of the disc structures , in particular the height of the liquid channel , varies along the radial extension of the discs , - the mold surfaces of the disc structures have grooves and ridges , wherein the ridges of the upper disc structure engage in grooves of the lower disc structure and wherein the ridges of the lower disc structure engage in grooves of the upper disc structure , - and the grooves and ridges are designed as concentric circular structures, characterized - in that the grooves and ridges have an apex region in the form of a circular segment in their cross section, - and in that the liquid channel comprises expansion zones and compression zones , wherein the expansion zones and the compression zones are formed in the region of the vertices of opposing grooves and ridges of the disc structures and wherein the normal distance of the vertices of opposing grooves and ridges in the expansion zones is greater than in the compression zones .
A high-pressure fuel supply pump including a pump housing formed with a pressurizing chamber configured to pressurize fuel and a valve mechanism provided on a discharge side of the pressurizing chamber , wherein the valve mechanism includes: a seat member with a seat surface (8a3), a valve having a spherical shape and configured to contact the seat surface (8a3), and a valve housing configured to accommodate the seat member and the valve , wherein the valve mechanism is configured to be assembled as a discharge valve unit by assembling the valve housing and the seat member , and the discharge valve unit is press-fitted into a recess of the pump housing , wherein the valve housing has a restriction portion (8c1) for restricting displacement of the valve in a crossing direction crossing an opening and closing direction of the valve and a load reception portion (8a2) for receiving a load when the discharge valve unit is press-fitted to the pump housing , and characterized in that the valve housing has a valve holding portion slidably enclosing the outer circumference of the valve . a seat member with a seat surface (8a3), a valve having a spherical shape and configured to contact the seat surface (8a3), and a valve housing configured to accommodate the seat member and the valve , wherein the valve mechanism is configured to be assembled as a discharge valve unit by assembling the valve housing and the seat member , and the discharge valve unit is press-fitted into a recess of the pump housing , wherein the valve housing has a restriction portion (8c1) for restricting displacement of the valve in a crossing direction crossing an opening and closing direction of the valve and a load reception portion (8a2) for receiving a load when the discharge valve unit is press-fitted to the pump housing , and characterized in that the valve housing has a valve holding portion slidably enclosing the outer circumference of the valve . wherein the valve housing has a restriction portion (8c1) for restricting displacement of the valve in a crossing direction crossing an opening and closing direction of the valve and a load reception portion (8a2) for receiving a load when the discharge valve unit is press-fitted to the pump housing , and characterized in that the valve housing has a valve holding portion slidably enclosing the outer circumference of the valve .
A composition for use in preventing or treating diseases caused by a decrease in telomerase activity or telomere length, or symptoms caused by cell loss and senescence, by increasing telomerase activity or extending a telomere length, wherein the composition comprises a pharmaceutically effective amount of one or more selected from the group consisting of a peptide comprising an amino acid sequence of SEQ ID NO: 1, a peptide having at least 80% sequence homology with SEQ ID NO: 1 or a fragment thereof, wherein the peptide having at least 80% sequence homology with SEQ ID NO:1 or a fragment thereof is effective in preventing and treating diseases induced by an abnormal decrease in telomerase activity or reduction and loss of a telomere length in cells, or a symptom caused by cellular senescence, and wherein the diseases or symptoms are one or more selected from a degenerative disease of the skeletal system, a degenerative disease of the muscular system, Bloom syndrome, Werner syndrome, and anemia. wherein the composition comprises a pharmaceutically effective amount of one or more selected from the group consisting of a peptide comprising an amino acid sequence of SEQ ID NO: 1, a peptide having at least 80% sequence homology with SEQ ID NO: 1 or a fragment thereof, wherein the peptide having at least 80% sequence homology with SEQ ID NO:1 or a fragment thereof is effective in preventing and treating diseases induced by an abnormal decrease in telomerase activity or reduction and loss of a telomere length in cells, or a symptom caused by cellular senescence, and wherein the diseases or symptoms are one or more selected from a degenerative disease of the skeletal system, a degenerative disease of the muscular system, Bloom syndrome, Werner syndrome, and anemia.
An agricultural machine comprising: a seeding system comprising: a metering system configured to meter seed ; and a transport mechanism configured to transport the metered seeds along a delivery route from a first location where the seeds are received from the metering system to a second location where the seeds are released from the transport mechanism ; a motor configured to drive movement of the transport mechanism to transport the seeds along the delivery route; a sensor configured to sense a characteristic of the transport mechanism at a sensor location along the delivery route and to generate a sensor signal indicative of the characteristic; a skip detector component configured to detect a seed skip in the transport mechanism based on the sensor signal; a processing system configured to generate an operating parameter based on the detected seed skip; characterised in that the system further comprises a motor controller configured to operate the motor to control movement of the transport mechanism based on the operating parameter. a seeding system comprising: a metering system configured to meter seed ; and a transport mechanism configured to transport the metered seeds along a delivery route from a first location where the seeds are received from the metering system to a second location where the seeds are released from the transport mechanism ; a metering system configured to meter seed ; and a transport mechanism configured to transport the metered seeds along a delivery route from a first location where the seeds are received from the metering system to a second location where the seeds are released from the transport mechanism ; a motor configured to drive movement of the transport mechanism to transport the seeds along the delivery route; a sensor configured to sense a characteristic of the transport mechanism at a sensor location along the delivery route and to generate a sensor signal indicative of the characteristic; a skip detector component configured to detect a seed skip in the transport mechanism based on the sensor signal; a processing system configured to generate an operating parameter based on the detected seed skip; characterised in that the system further comprises a motor controller configured to operate the motor to control movement of the transport mechanism based on the operating parameter.
A tensioning device for a traction drive, comprising: a base body , a tensioning arm which is pivotably mounted about a pivot axis (A) relative to the base body by a radial bearing , wherein one of the base body and tensioning arm has an annular carrier portion which is axially supported relative to the other one of the two parts tensioning arm and base body by a first axial bearing in a first direction and by a second axial bearing in a second direction, a first sealing element connected to said carrier portion for sealing said first axial bearing , a second sealing element connected to said carrier portion for sealing said second axial bearing , wherein the first and second axial bearings are made of a different material than the first and second sealing elements , a tensioning roller which is rotatably mounted on the tensioning arm and serves to tension the traction means , characterised in that the tensioning device further comprises spring means via which the tensioning arm is supported in the circumferential direction against the base body , and that the first sealing element and the second sealing element are connected to one another by a plurality of connecting webs that extend through bores in the carrier portion . a base body , a tensioning arm which is pivotably mounted about a pivot axis (A) relative to the base body by a radial bearing , wherein one of the base body and tensioning arm has an annular carrier portion which is axially supported relative to the other one of the two parts tensioning arm and base body by a first axial bearing in a first direction and by a second axial bearing in a second direction, a first sealing element connected to said carrier portion for sealing said first axial bearing , a second sealing element connected to said carrier portion for sealing said second axial bearing , wherein the first and second axial bearings are made of a different material than the first and second sealing elements , a tensioning roller which is rotatably mounted on the tensioning arm and serves to tension the traction means , characterised in that the tensioning device further comprises spring means via which the tensioning arm is supported in the circumferential direction against the base body , and that the first sealing element and the second sealing element are connected to one another by a plurality of connecting webs that extend through bores in the carrier portion .
A MEMS inclinometer comprising: - a substrate ; - a first mobile mass (23; 307; 360) suspended over the substrate and subject, in use, to an acceleration that depends upon the inclination of the inclinometer; and - a first sensing unit (22,28A-28D,32A-32D,24A-24D,27A-27B,29A-29B; 100; 351); and wherein the first sensing unit comprises: - a second mobile mass (22; 352A), suspended over the substrate; - a number of elastic elements (28A-28D; 305A, 305B; 356), each of which is mechanically interposed between the second mobile mass and the substrate, is compliant in a direction parallel to a first axis (Y), and is rigid in a direction parallel to a second axis (Z) and in a direction parallel to a third axis (X); - a number of elastic structures (32A-32D; 232A-232D; 310A, 310B; 365A-365D), each of which is mechanically interposed between the first and second mobile masses, is compliant in a direction parallel to the first axis (Y) and to the second axis (Z), and is rigid in a direction parallel to the third axis (X); - at least one first fixed electrode (29A; 410A) fixed with respect to the substrate; - at least one first mobile electrode (27A; Pl1) fixed with respect to the second mobile mass and configured to form a first variable capacitor (31A; 405A) with said first fixed electrode; and wherein each elastic structure comprises at least one respective elongated structure (32A-32D; 240, 242), which, in resting conditions, extends in a direction parallel to the third axis (X) and, in a plane parallel to a plane (ZY) containing the first axis (Y) and the second axis (Z), has main axes of inertia (I 1 , I 2 ), which are transverse with respect to the first and second axes (Y, Z), so that movements of the first mobile mass in a direction parallel to the second axis (Z), caused by said acceleration, cause corresponding movements of the second mobile mass in a direction parallel to the first axis (Y). - a substrate ; - a first mobile mass (23; 307; 360) suspended over the substrate and subject, in use, to an acceleration that depends upon the inclination of the inclinometer; and - a first sensing unit (22,28A-28D,32A-32D,24A-24D,27A-27B,29A-29B; 100; 351); - a second mobile mass (22; 352A), suspended over the substrate; - a number of elastic elements (28A-28D; 305A, 305B; 356), each of which is mechanically interposed between the second mobile mass and the substrate, is compliant in a direction parallel to a first axis (Y), and is rigid in a direction parallel to a second axis (Z) and in a direction parallel to a third axis (X); - a number of elastic structures (32A-32D; 232A-232D; 310A, 310B; 365A-365D), each of which is mechanically interposed between the first and second mobile masses, is compliant in a direction parallel to the first axis (Y) and to the second axis (Z), and is rigid in a direction parallel to the third axis (X); - at least one first fixed electrode (29A; 410A) fixed with respect to the substrate; - at least one first mobile electrode (27A; Pl1) fixed with respect to the second mobile mass and configured to form a first variable capacitor (31A; 405A) with said first fixed electrode;