mhurhangee/patent-ind-claim-en huggingface dataset:
An on-board secure storage system comprising a storage device that has a controller , a non-volatile memory, and an interface, and an electronic control unit that electronically controls a vehicle , wherein, after determining that unauthorized access or a failure occurs in the non-volatile memory, the controller performs predetermined processing according to a type of the unauthorized access or the failure wherein the controller analyzes a command received from the electronic control unit , and if it is determined as a result of the analysis that the command for the non-volatile memory is unauthorized access, the controller performs predetermined processing corresponding to the unauthorized access, characterised in that a type of the unauthorized access is any one of unauthorized writing, out-of-area write access, and unauthorized access to an area for autonomous driving, wherein the unauthorized access is unauthorized access to an area for autonomous driving, and wherein predetermined processing corresponding to the unauthorized access include invalidating a part or all of the area for autonomous driving, or performing processing of stopping or partially limiting a function of an autonomous driving, and further notifying a host of stoppage of the autonomous driving or partial limitation of the function. a storage device that has a controller , a non-volatile memory, and an interface, and an electronic control unit that electronically controls a vehicle , wherein, after determining that unauthorized access or a failure occurs in the non-volatile memory, the controller performs predetermined processing according to a type of the unauthorized access or the failure wherein the controller analyzes a command received from the electronic control unit , and if it is determined as a result of the analysis that the command for the non-volatile memory is unauthorized access, the controller performs predetermined processing corresponding to the unauthorized access, characterised in that a type of the unauthorized access is any one of unauthorized writing, out-of-area write access, and unauthorized access to an area for autonomous driving, wherein the unauthorized access is unauthorized access to an area for autonomous driving, and wherein predetermined processing corresponding to the unauthorized access include invalidating a part or all of the area for autonomous driving, or performing processing of stopping or partially limiting a function of an autonomous driving, and further notifying a host of stoppage of the autonomous driving or partial limitation of the function.
Sealing gels having a Mooney viscosity (ML1+4, determined by the standard ASTM D1646, 1999) @ 100°C of 100 MU to 170 MU, i) in the form of a mixture comprising diene rubber gel (A), having a Mooney viscosity (ML1+4) @ 100°C of 170 MU to 195 MU, obtainable by emulsion polymerization of at least one conjugated diene in the presence of at least one crosslinker (I) and diene rubber gel (B), having a Mooney viscosity (ML1+4) @ 100°C of 75 MU to 110 MU, obtainable by emulsion polymerization of at least one conjugated diene in the presence of at least one crosslinker (II) or ii) in the form of sealing gel (H), obtainable by emulsion polymerization of at least one conjugated diene in the presence of at least one crosslinker (I) and in the presence of at least one crosslinker (II), where crosslinkers (I) are acrylates and methacrylates of polyhydric C 2 -C 20 alcohols and crosslinkers (II) are compounds having two or more vinyl, allyl or isopropenyl groups or one maleimide unit. i) in the form of a mixture comprising diene rubber gel (A), having a Mooney viscosity (ML1+4) @ 100°C of 170 MU to 195 MU, obtainable by emulsion polymerization of at least one conjugated diene in the presence of at least one crosslinker (I) and diene rubber gel (B), having a Mooney viscosity (ML1+4) @ 100°C of 75 MU to 110 MU, obtainable by emulsion polymerization of at least one conjugated diene in the presence of at least one crosslinker (II) or ii) in the form of sealing gel (H), obtainable by emulsion polymerization of at least one conjugated diene in the presence of at least one crosslinker (I) and in the presence of at least one crosslinker (II),
Mounting pylon for an engine of an aircraft, including a primary structure comprising a box and a rear sub-structure fastened to said box, said box including two opposite lateral panels , each equipped at its rear end with a first linking portion through which passes a first connection orifice that is designed to receive a connection pin of a lateral front wing attachment , characterized in that the rear sub-structure is made in one piece including a rear end corresponding to the rear end of the primary structure , the rear sub-structure including two opposite lateral flanks that are respectively fastened to the two lateral panels of the box by means of fastening elements , each lateral flank having a second linking portion through which passes a second connection orifice that is aligned with said first connection orifice , and is also designed to receive the connection pin of the lateral front wing attachment .
A reflector unit for a bifacial solar module which comprises a module frame and a plurality of bifacial solar cells arranged in the module frame , with a light-reflecting reflector for reflecting light arriving from the front side of the solar module that falls between the solar cells through the solar module onto the reflector back onto the rear side of the solar cells , characterized in that the reflector unit comprises a reflector frame , which supports the reflector and which is attachable to the module frame , with profile elements for a retrofitting attachment of the reflector unit to the rear side of the solar module with a defined clearance of the reflector relative to the solar module , wherein the profile elements of the reflector frame are arranged at least on two opposite sides of the reflector unit , and wherein the reflector frame comprises ventilation slits in at least two profile elements of the reflector frame . the reflector unit comprises a reflector frame , which supports the reflector and which is attachable to the module frame , with profile elements for a retrofitting attachment of the reflector unit to the rear side of the solar module with a defined clearance of the reflector relative to the solar module , wherein the profile elements of the reflector frame are arranged at least on two opposite sides of the reflector unit , and wherein the reflector frame comprises ventilation slits in at least two profile elements of the reflector frame .
Method for operating a valve device (2; 62; 92) for supplying compressed air to compressed air consumer (3; 63), the method comprising the steps of: determination of a first fluid pressure in a first section of a fluid passage of the valve assembly (2; 62; 92), which extends between an inlet port which is provided for a fluidically communicating connection to a fluid source (32; 66) or a fluid sink (33; 68), and a valve element (4, 5, 6, 7; 69; 99), determination of a second fluid pressure in a second section of the fluid passage of the valve assembly (2; 62; 92), which extends between the valve element (4, 5, 6, 7; 69; 99) and an outlet port which is provided for a fluidically communicating connection to a compressed air consumer (3; 63), determination of a flow value for the valve element (4, 5, 6, 7; 69; 99) from the two fluid pressures and of a flow function, relating of the flow value with a presettable volumetric fluid flow rate or mass fluid flow rate for the pressurised fluid, which flow rate is provided for flow through the fluid passage (20 to 27), to a guide value and the determination of a required actuating energy for an actuating device (8, 9, 10, 11; 70, 71; 100, 101) which is designed for an actuation of the valve element (4, 5, 6, 7; 69; 99), provision of the actuating energy to the actuating device (8, 9, 10, 11; 70, 71; 100, 101) for adjusting the presettable volumetric fluid flow rate or mass fluid flow rate, characterised in that the flow value is determined from the flow function set in relation to a quotient of the first fluid pressure and the second fluid pressure.
High-pressure vessel comprising a cylinder as middle part, wherein the cylinder is composed of a multilayer composite plastic comprising a barrier layer , wherein the high-pressure vessel also comprises at least one half-shell at an axial end of the cylinder , wherein the half-shell is composed of a multilayer composite plastic comprising a barrier layer , wherein the half-shell also comprises a substantially rotationally symmetrical insert part , namely a boss, wherein the insert part has a foot part at that end of the insert part which faces the vessel interior, said foot part having a greater diameter than a middle part of the insert part , wherein the foot part substantially forms a hollow cone or hollow cylinder and at least a first groove or recess, filled with the multilayer composite plastic of the half-shell , runs around at least in certain portions on a vertical inner circumference of the foot part , characterized in that the foot part has at least a second groove which is filled with the multilayer composite plastic of the half-shell , wherein, in the vicinity of the vertical inner circumference of the foot part , the second groove runs around at least in certain portions on the base of the foot part , said base facing the vessel interior, wherein the foot part has at least a fourth groove which is filled with the multilayer composite plastic of the half-shell , wherein, in the vicinity of the outer circumference of the foot part , the fourth groove runs around at least in certain portions on the base of the foot part , said base facing the vessel interior.
A monitoring system comprising: a plurality of optical sensors disposed on one or more fiber optic waveguides , each optical sensor spaced apart from other optical sensors of the plurality of optical sensors and disposed at a location along a route defined by a transportation structure that supports a moveable conveyance as the conveyance moves along the transportation structure, the plurality of optical sensors being mechanically coupled to one or both of the transportation structure and the moveable conveyance, each optical sensor providing an optical output signal responsive to vibrational emissions of one or both of the transportation structure and the conveyance; a detector unit configured to convert optical output signals from the optical sensors to electrical signals; characterized by further comprising a data acquisition controller configured to control application of excitation light to the optical sensors in synchrony with the movement of the conveyance and such that only a preselected set of sensors receive excitation light during a particular time window when the conveyance is moving near the selected sensors and to synchronize recordation of the electrical signals with movement of the conveyance, wherein the data acquisition controller is configured to limit recordation of an electrical signal corresponding to a particular optical sensor signal to a time window during which the conveyance is within a predetermined distance from the location of the optical sensor . a plurality of optical sensors disposed on one or more fiber optic waveguides , each optical sensor spaced apart from other optical sensors of the plurality of optical sensors and disposed at a location along a route defined by a transportation structure that supports a moveable conveyance as the conveyance moves along the transportation structure, the plurality of optical sensors being mechanically coupled to one or both of the transportation structure and the moveable conveyance, each optical sensor providing an optical output signal responsive to vibrational emissions of one or both of the transportation structure and the conveyance; a detector unit configured to convert optical output signals from the optical sensors to electrical signals; characterized by further comprising a data acquisition controller configured to control application of excitation light to the optical sensors in synchrony with the movement of the conveyance and such that only a preselected set of sensors receive excitation light during a particular time window when the conveyance is moving near the selected sensors and to synchronize recordation of the electrical signals with movement of the conveyance, wherein the data acquisition controller is configured to limit recordation of an electrical signal corresponding to a particular optical sensor signal to a time window during which the conveyance is within a predetermined distance from the location of the optical sensor .
A pharmaceutical formulation in the form of a tablet comprising a core and an optional coating, the core comprising quetiapine fumarate salt, or a solvate, or a polymorph thereof, characterized in that the core of said formulation comprises a non-gelling ethyl cellulose with an ethoxyl content of 48 - 49.5% and a viscosity of 18 to 24 mPa.s, wherein the proportion by weight of ethyl cellulose to the total weight of formulation is between 20 to 40%, wherein said quetiapine is in the form of its fumarate salt, and wherein the weight ratio of quetiapine to ethyl cellulose is between 0.1 to 10.
Thin flexure joint, a) comprising a first material portion (M 1 ) and a second material portion (M 2 ) which is connected in a monolithic manner thereto by way of a thin point (D), b) wherein the material thickness (X 1 , X 2 ), measured in a thickness direction (X), of the first and/or second material portion (M 1 , M 2 ) decreases in a tapering zone (V 1 , V 2 ) in a longitudinal direction (Y), which is perpendicular to the X direction, as far as the thin point (D) at the thin-point position (Y D ) to a minimum thin-point thickness (X D ), and wherein a pivot axis (W D ) of the thin point (D) extends over the width of the thin point (D) in a width direction (Z) which runs perpendicularly to the X and Y direction, c) and wherein a cross section (Q D ), which is formed in an X-Y plane (E D ) through the thin point (D) and has a section width (B) running in the Z direction, has a cross-sectional area (A D ), and d) wherein at least one aperture (U 1 , U 2 ) is provided in at least one tapering zone (V 1 , V 2 ), characterized in that e) a cross section (Q', Q"...) of a tapering zone (V 1 , V 2 ) having a sectional plane (E', E"...) which runs parallel to the plane (E D ) and is located through the at least one aperture (U 1 , U 2 ) creates a cross-sectional area (A', A"...) with the section width (B), f) wherein the cross-sectional areas (A', A"...) formed along a portion of extent (L u ) running in the Y direction have a strength which, within manufacturing tolerances, corresponds to the strength of the cross-sectional area (A D ) at the thin point (D). a) comprising a first material portion (M 1 ) and a second material portion (M 2 ) which is connected in a monolithic manner thereto by way of a thin point (D), b) wherein the material thickness (X 1 , X 2 ), measured in a thickness direction (X), of the first and/or second material portion (M 1 , M 2 ) decreases in a tapering zone (V 1 , V 2 ) in a longitudinal direction (Y), which is perpendicular to the X direction, as far as the thin point (D) at the thin-point position (Y D ) to a minimum thin-point thickness (X D ), and wherein a pivot axis (W D ) of the thin point (D) extends over the width of the thin point (D) in a width direction (Z) which runs perpendicularly to the X and Y direction, c) and wherein a cross section (Q D ), which is formed in an X-Y plane (E D ) through the thin point (D) and has a section width (B) running in the Z direction, has a cross-sectional area (A D ), and d) wherein at least one aperture (U 1 , U 2 ) is provided in at least one tapering zone (V 1 , V 2 ), characterized in that e) a cross section (Q', Q"...) of a tapering zone (V 1 , V 2 ) having a sectional plane (E', E"...) which runs parallel to the plane (E D ) and is located through the at least one aperture (U 1 , U 2 ) creates a cross-sectional area (A', A"...) with the section width (B), f) wherein the cross-sectional areas (A', A"...) formed along a portion of extent (L u ) running in the Y direction have a strength which, within manufacturing tolerances, corresponds to the strength of the cross-sectional area (A D ) at the thin point (D).
An electrode comprising an electrode active material layer which comprises an electrode active material and a conductive agent, the conductive agent comprising a point-type conductive agent which is carbon black, and carbon nanotube structures in which 2 to 5,000 single-walled carbon nanotube units are bonded to each other side by side, wherein the carbon nanotube structures have an average length of 1 um to 500 μm, the carbon nanotube structures are contained in the electrode active material layer in an amount of 0.01 wt% to 5.0 wt%, and the weight ratio of the carbon black to the carbon nanotube structures is 9:1 to 1:9. a point-type conductive agent which is carbon black, and carbon nanotube structures in which 2 to 5,000 single-walled carbon nanotube units are bonded to each other side by side, wherein the carbon nanotube structures have an average length of 1 um to 500 μm, the carbon nanotube structures are contained in the electrode active material layer in an amount of 0.01 wt% to 5.0 wt%, and the weight ratio of the carbon black to the carbon nanotube structures is 9:1 to 1:9.
A seat suspension system comprising: a system frame having an upper frame ; a substantially L-shaped seat frame having a bottom portion supporting a seat bottom and a rear portion supporting a seat back ; an elongated lever bracket having one end pivotably mounted to said system frame and the opposite end having a seat pivot rod movably connected to the bottom portion of the seat frame ; and a dampening device comprising a spring carrier , at least one coil spring connected at one end to said system frame by the spring carrier and connected at the other end to the said lever bracket , wherein the position of the spring carrier can be adjusted relative to the system frame such that the coil spring can be preloaded to accommodate force applied to said opposite end of the lever bracket , and wherein said other end of the coil spring is attached to the lever bracket between said one end and said opposite end thereof, characterized in that the rear portion of the seat frame is slidably connected to said upper frame of said system frame using rollers for sliding substantially vertically along said system frame, and the bottom portion is substantially vertically supported by only the elongated lever bracket . a system frame having an upper frame ; a substantially L-shaped seat frame having a bottom portion supporting a seat bottom and a rear portion supporting a seat back ; an elongated lever bracket having one end pivotably mounted to said system frame and the opposite end having a seat pivot rod movably connected to the bottom portion of the seat frame ; and a dampening device comprising a spring carrier , at least one coil spring connected at one end to said system frame by the spring carrier and connected at the other end to the said lever bracket , wherein the position of the spring carrier can be adjusted relative to the system frame such that the coil spring can be preloaded to accommodate force applied to said opposite end of the lever bracket , and wherein said other end of the coil spring is attached to the lever bracket between said one end and said opposite end thereof, characterized in that the rear portion of the seat frame is slidably connected to said upper frame of said system frame using rollers for sliding substantially vertically along said system frame, and the bottom portion is substantially vertically supported by only the elongated lever bracket .
A system component of a fluid catalytic reactor system , the system component comprising: a catalyst separation section comprising separation section walls defining an interior region of the catalyst separation section , a gas outlet port , a riser port , a separation device , and a catalyst outlet port ; a riser extending through the riser port of the catalyst separation section , the riser comprising a main interior riser wall segment , a main exterior riser wall segment , and a riser transition wall segment , at least 90% of the main interior riser wall segment positioned within the interior region of the catalyst separation section and connected with at least the riser transition wall segment , and the main exterior riser wall segment positioned at least partially outside of the catalyst separation section ; and a reactor vessel comprising a reactor vessel inlet port , and a reactor vessel outlet port in fluid communication with the main exterior riser wall segment , wherein the main interior riser wall segment and the main exterior riser wall segment are substantially parallel, and the maximum diameter of the main interior riser wall segment is less than the maximum diameter of the main exterior riser wall segment . a catalyst separation section comprising separation section walls defining an interior region of the catalyst separation section , a gas outlet port , a riser port , a separation device , and a catalyst outlet port ; a riser extending through the riser port of the catalyst separation section , the riser comprising a main interior riser wall segment , a main exterior riser wall segment , and a riser transition wall segment , at least 90% of the main interior riser wall segment positioned within the interior region of the catalyst separation section and connected with at least the riser transition wall segment , and the main exterior riser wall segment positioned at least partially outside of the catalyst separation section ; and a reactor vessel comprising a reactor vessel inlet port , and a reactor vessel outlet port in fluid communication with the main exterior riser wall segment ,
A precoding method for open loop spatial multiplexing, characterized by comprising: in transmission resources, a base station precoding N-layer data to be sent by using w a = u a α ⋅ u a , wherein u a is a vector or matrix related to a transmission resource location i; α is a real number or a complex number related to the transmission resource location i and α is a scalar in a following set {1, j ,-1,- j }; and N is an integer less than or equal to a number of base station transmission antennas; wherein, α = g ( i ); g i = { 1 , mod ⌊ i q ⌋ 4 = p 1 j , mod ⌊ i q ⌋ 4 = p 2 − 1 , mod ⌊ i q ⌋ 4 = p 3 − j , mod ⌊ i q ⌋ 4 = p 4 ; wherein, q is an integer, values of p1, p2, p3 and p4 are one of 1, 2, 3 and 4, and are different from each other, and i is a resource index number; or, g i = { 1 , mod ⌊ i q ⌋ 2 = p 1 − 1 , mod ⌊ i q ⌋ 2 = p 3 wherein, q is an integer, values of p1 and p3 are one of 1 and 2, and are different from each other, and i is a resource index number.