mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing system , comprising: a water tank with walls forming a water storage space; and an image processing device (21; 22; 24; 26; 27) comprising: an image generating unit configured to generate a stereoscopic view image to be displayed on a wall of the water tank toward an inside of the water storage space, wherein: the image processing device further comprises a water level acquiring unit configured to acquire information related to the water level of the water stored in the water tank as a distance from a bottom surface of the water tank to a surface of the water , and the image generating unit is configured to: generate the stereoscopic view image for expressing a depth from the wall according to a point-of-view position in the water storage space, and generate different stereoscopic view images in a lower region below the water surface and an upper region above the water surface . a water tank with walls forming a water storage space; and an image processing device (21; 22; 24; 26; 27) comprising: an image generating unit configured to generate a stereoscopic view image to be displayed on a wall of the water tank toward an inside of the water storage space, wherein: the image processing device further comprises a water level acquiring unit configured to acquire information related to the water level of the water stored in the water tank as a distance from a bottom surface of the water tank to a surface of the water , and the image generating unit is configured to: generate the stereoscopic view image for expressing a depth from the wall according to a point-of-view position in the water storage space, and generate different stereoscopic view images in a lower region below the water surface and an upper region above the water surface . the image processing device further comprises a water level acquiring unit configured to acquire information related to the water level of the water stored in the water tank as a distance from a bottom surface of the water tank to a surface of the water , and the image generating unit is configured to: generate the stereoscopic view image for expressing a depth from the wall according to a point-of-view position in the water storage space, and generate different stereoscopic view images in a lower region below the water surface and an upper region above the water surface . generate the stereoscopic view image for expressing a depth from the wall according to a point-of-view position in the water storage space, and generate different stereoscopic view images in a lower region below the water surface and an upper region above the water surface .
A method for the detection of a main plane of a warehouse, having the following steps: • acquiring image data with a 3D camera which is fastened to an industrial truck so that a viewing direction of the 3D camera has a defined angle to the horizontal, wherein the 3D camera has an image sensor with sensor elements arranged matrix-like and the image data comprise a plurality of pixels, wherein distance information is assigned to each pixel, characterized by • calculating angle information for a plurality of image elements, wherein each image element consists of a plurality of mathematically combined pixels and represents a surface, and the angle information specifies in each case an angle between a surface represented by the image element and a vertical reference plane, • determining a predominant direction based on the frequencies of the calculated angle information, so that the predominant direction corresponds to angle information which has a maximum frequency, • calculating the positions of the acquired pixels along the predominant direction , wherein the positions correspond to clearances of the acquired pixels from an imaginary plane that is perpendicular to the predominant direction, • detecting a main plane of the warehouse based on a frequency distribution of the calculated positions, wherein the main plane is aligned perpendicular to the predominant direction and is arranged at a position, at which the frequency distribution has a maximum. • acquiring image data with a 3D camera which is fastened to an industrial truck so that a viewing direction of the 3D camera has a defined angle to the horizontal, wherein the 3D camera has an image sensor with sensor elements arranged matrix-like and the image data comprise a plurality of pixels, wherein distance information is assigned to each pixel, characterized by • calculating angle information for a plurality of image elements, wherein each image element consists of a plurality of mathematically combined pixels and represents a surface, and the angle information specifies in each case an angle between a surface represented by the image element and a vertical reference plane, • determining a predominant direction based on the frequencies of the calculated angle information, so that the predominant direction corresponds to angle information which has a maximum frequency, • calculating the positions of the acquired pixels along the predominant direction , wherein the positions correspond to clearances of the acquired pixels from an imaginary plane that is perpendicular to the predominant direction, • detecting a main plane of the warehouse based on a frequency distribution of the calculated positions, wherein the main plane is aligned perpendicular to the predominant direction and is arranged at a position, at which the frequency distribution has a maximum.
An analogue system (200;300) for balancing a rechargeable electrical energy storage assembly comprising a plurality of capacitive-effect storage devices (DC 1 , ..., DC n ) connected to one another in series, said system (200;300) comprising, for each storage device (DC i ), a balancing device (202 i ;302 i ) including: - a bypass circuit (204 i ; 304 i ) for said storage device (DC i ), able to be controlled between a closed state and an open state, and - a voltage comparator (106 i ), called first comparator, arranged to control said bypass circuit (204 i ; 304 i ) into an open or closed state depending on the voltage at the terminals of said storage device (DC i ) and on a predetermined voltage, called balancing voltage (V eq ); said system (200;300) being characterized in that it further comprises, for each storage device (DC i ), another voltage comparator (206 i ), called second comparator, designed to control an open or closed state of the bypass circuit (204 i ; 304 i ) for said storage device (DC i ) depending: - on the voltage on the terminals of said storage device (DC i ), and - on a predetermined voltage (V dec ), called switch-off voltage, representative of a closed state of the majority, or of all, of the bypass circuits (204 i ; 304 i ). - a bypass circuit (204 i ; 304 i ) for said storage device (DC i ), able to be controlled between a closed state and an open state, and - a voltage comparator (106 i ), called first comparator, arranged to control said bypass circuit (204 i ; 304 i ) into an open or closed state depending on the voltage at the terminals of said storage device (DC i ) and on a predetermined voltage, called balancing voltage (V eq ); - on the voltage on the terminals of said storage device (DC i ), and - on a predetermined voltage (V dec ), called switch-off voltage, representative of a closed state of the majority, or of all, of the bypass circuits (204 i ; 304 i ).
A saddled vehicle comprising: a step floor between a steering handle and a seat such that a rider can place the legs on the step floor ; and a fuel tank disposed under the step floor , wherein the fuel tank is disposed between a pair of frame members in the width direction, the pair of frame members extending under the step floor in the front-rear direction, the fuel tank has an opening at an upper part to insert a body of a fuel pump , the fuel pump has an upper end fixed to a peripheral part of the opening , the upper end of the fuel pump is located below the upper face of the frame members in side view of a vehicle body, characterized in that , the body of the fuel pump is inclined relative to the vertical direction in side view of the vehicle body, the body of the fuel pump is inclined in side view of the vehicle body so that the lower part of the body is located closer to the front end of the vehicle body than the upper part of the body , the fuel tank includes an upper half body (UC) and a lower half body (DC) that are bonded at a flange face (G), the flange face (G) of the fuel tank is inclined downward toward the rear of the vehicle body in side view of the vehicle body, and the frame members are inclined upward toward the rear of the vehicle body in side view of the vehicle body. a step floor between a steering handle and a seat such that a rider can place the legs on the step floor ; and a fuel tank disposed under the step floor , wherein the fuel tank is disposed between a pair of frame members in the width direction, the pair of frame members extending under the step floor in the front-rear direction, the fuel tank has an opening at an upper part to insert a body of a fuel pump , the fuel pump has an upper end fixed to a peripheral part of the opening , the upper end of the fuel pump is located below the upper face of the frame members in side view of a vehicle body, characterized in that , the body of the fuel pump is inclined relative to the vertical direction in side view of the vehicle body, the body of the fuel pump is inclined in side view of the vehicle body so that the lower part of the body is located closer to the front end of the vehicle body than the upper part of the body , the fuel tank includes an upper half body (UC) and a lower half body (DC) that are bonded at a flange face (G), the flange face (G) of the fuel tank is inclined downward toward the rear of the vehicle body in side view of the vehicle body, and the frame members are inclined upward toward the rear of the vehicle body in side view of the vehicle body.
A user wearable optical article comprising: an optical substrate with a front main face and a rear main face for facing the user when wearing the optical article ; and an interferential coating disposed on at least one of the front main face and rear main face and configured to selectively reflect light of at least one range of wavelengths of an incident light in the near infrared light spectrum, so that a peak reflectance at 850 nm or 940nm measured at a substantially normal to the optical article is at least 70%, and the interferential coating has a mean reflectance of less than 1.5% in a visible light range, the total thickness of the interferential coating being equal to or less than 750 nm, optionally equal to or less than 710 nm, and optionally equal to or less than 650 nm. an optical substrate with a front main face and a rear main face for facing the user when wearing the optical article ; and an interferential coating disposed on at least one of the front main face and rear main face and configured to selectively reflect light of at least one range of wavelengths of an incident light in the near infrared light spectrum, so that a peak reflectance at 850 nm or 940nm measured at a substantially normal to the optical article is at least 70%, and the interferential coating has a mean reflectance of less than 1.5% in a visible light range, the total thickness of the interferential coating being equal to or less than 750 nm, optionally equal to or less than 710 nm, and optionally equal to or less than 650 nm.
System for sorting parcels or packages, comprising a tray sorting conveyor and a unit for loading the packages onto the trays of the conveyor at a rate of one package per tray, characterized in that said loading unit comprises a slat conveyor with slats which extend longitudinally in a direction perpendicular to a lateral loading side of the tray conveyor, in that said loading unit further comprises a plurality of pusher shoes, each of which is mounted so as to slide along a slat of the slat conveyor and which are spaced apart in pairs with uniform spacing, in that each pusher shoe is further guided by a rail that forms a cam under the slats of the slat conveyor and which follows an inclined path so that a package arriving on a first side of the slat conveyor and facing a pusher shoe is pushed transversely on the slat conveyor in order to arrive by an inclined movement at the loading side of the tray conveyor where it is injected onto a moving tray of the tray conveyor, and in that the rail forms a cam comprising two closed guide loops that are interconnected by a switch controlled by a monitoring and control unit (UCC), one of loops following the inclined path and the other loop following a rectilinear path going over the top of a receptacle for reject packages and the monitoring and control unit being arranged to actuate the switch if it detects that a package at the inlet of the loading unit cannot be injected onto a free tray of the tray conveyor, in such a manner as to direct said package toward the receptacle for reject packages.
A method of controlling a compressor system having a variable guide vane position and a variable speed set point, the method comprising: receiving, as first input to a controller, a process set point for a main process variable for a first performance control application; receiving, as second input to the controller, a deviation set point for a surge deviation level for a second performance control application; the method of controlling the compressor system being characterised in that it further comprises the steps of: executing the first performance control application in a first independent primary control loop to control the main process variable at the process set point by manipulating one of the variable guide vane position or the variable speed set point; executing the second performance control application in a second independent primary control loop to control the surge deviation level at the deviation set point by manipulating the other of the variable speed set point or the variable guide vane position, wherein the surge deviation level is calculated by an antisurge control loop; and executing the second performance control application in a limit control loop to limit the main process variable at a limit set point by manipulating the other of the variable speed set point or the variable guide vane position, wherein the limit set point is calculated at the process set point plus a bias value. receiving, as first input to a controller, a process set point for a main process variable for a first performance control application; receiving, as second input to the controller, a deviation set point for a surge deviation level for a second performance control application; the method of controlling the compressor system being characterised in that it further comprises the steps of: executing the first performance control application in a first independent primary control loop to control the main process variable at the process set point by manipulating one of the variable guide vane position or the variable speed set point; executing the second performance control application in a second independent primary control loop to control the surge deviation level at the deviation set point by manipulating the other of the variable speed set point or the variable guide vane position, wherein the surge deviation level is calculated by an antisurge control loop; and executing the second performance control application in a limit control loop to limit the main process variable at a limit set point by manipulating the other of the variable speed set point or the variable guide vane position, wherein the limit set point is calculated at the process set point plus a bias value.
An encoder for encoding an audio signal , wherein the encoder is configured to encode the audio signal in a transform domain or filter-bank domain , wherein the encoder is configured to determine spectral coefficients (106_t0_f1:106_t0_f6; 106_t-1_f1:106_t-1_f6) of the audio signal for a current frame (108_t0) and at least one previous frame (108_t-1), wherein the encoder is configured to selectively apply predictive encoding to a plurality of individual spectral coefficients (106_t0_f2) or groups of spectral coefficients (106_t0_f4,106_t0_f5), wherein the encoder is configured to determine a spacing value, wherein the encoder is configured to select the plurality of individual spectral coefficients (106_t0_f2) or groups of spectral coefficients (106_t0_f4,106_t0_f5) to which predictive encoding is applied based on the spacing value; characterized in that the spacing value is a harmonic spacing value describing a spacing between harmonics of the audio signal .
A method performed by a control plane node for handling a User Equipment, UE, , which roams into a visited network , wherein the control plane node is comprised in the visited network or in a home network , wherein at least the network in which the control plane node is comprised is a Mobile Service Chaining, MSC, network, the method comprising: when the UE roams into the visited network , transmitting a create chain request message to a service chain controller , wherein the create chain request message is a request to create a chain of User Plane Function, UPF, nodes that user plane packets to or from the UE should traverse, and wherein the create chain request message comprises an identity of the UE ; and receiving a create chain response message from the service chain controller , wherein the create chain response message indicates that the requested chain has been created and wherein the create chain response message comprises information which indicates at least one of an address and an identifier of a user plane edge point in the network in which the control plane node is comprised and which the user plane packets should travers in the created chain. when the UE roams into the visited network , transmitting a create chain request message to a service chain controller , wherein the create chain request message is a request to create a chain of User Plane Function, UPF, nodes that user plane packets to or from the UE should traverse, and wherein the create chain request message comprises an identity of the UE ; and receiving a create chain response message from the service chain controller , wherein the create chain response message indicates that the requested chain has been created and wherein the create chain response message comprises information which indicates at least one of an address and an identifier of a user plane edge point in the network in which the control plane node is comprised and which the user plane packets should travers in the created chain.
An amplification fiber comprising: a core configured to generate a laser beam from an excitation beam in a visible region; and a cladding surrounding the core , wherein the core is composed of a core material comprising: 0.01 to 2wt% Dy; 0.1-2wt% Al, 1-10wt% Ge, and 0-6wt% P; and a silica glass, wherein the atomic ratios of the core material are Al/Dy: 5.4 to 12.6 and Ge/Dy: 6.2 to 58.6. a core configured to generate a laser beam from an excitation beam in a visible region; and a cladding surrounding the core , wherein the core is composed of a core material comprising: 0.01 to 2wt% Dy; 0.1-2wt% Al, 1-10wt% Ge, and 0-6wt% P; and a silica glass, wherein 0.01 to 2wt% Dy; 0.1-2wt% Al, 1-10wt% Ge, and 0-6wt% P; and a silica glass, wherein the atomic ratios of the core material are Al/Dy: 5.4 to 12.6 and Ge/Dy: 6.2 to 58.6.
Method for determining a propagation time of wireless transmissions between a first wireless communication device and a second wireless communication device, the method comprising: determining the propagation time based on a roundtrip time ( T round ) of a wireless transmission exchange between the first wireless communication device and the second wireless communication device, based on a reply time ( T reply ) of the wireless transmission exchange, and based on a first time interval ( T 1 ) and a second time interval ( T 2 ), wherein the reply time is a time interval between a receive event (214; 314) at the second wireless communication device and a subsequent transmit event (222; 322) at the second wireless communication device, wherein the first time interval is a time interval between a first transmit event (212; 312) at the first wireless communication device and a second transmit event (232; 332) at the first wireless communication device, and wherein the second time interval is a time interval between a first receive event (214; 314) at the second wireless communication device and a second receive event (234; 334) at the second wireless communication device. the propagation time based on a roundtrip time ( T round ) of a wireless transmission exchange between the first wireless communication device and the second wireless communication device, based on a reply time ( T reply ) of the wireless transmission exchange, and based on a first time interval ( T 1 ) and a second time interval ( T 2 ), wherein the reply time is a time interval between a receive event (214; 314) at the second wireless communication device and a subsequent transmit event (222; 322) at the second wireless communication device, wherein the first time interval is a time interval between a first transmit event (212; 312) at the first wireless communication device and a second transmit event (232; 332) at the first wireless communication device, and wherein the second time interval is a time interval between a first receive event (214; 314) at the second wireless communication device and a second receive event (234; 334) at the second wireless communication device.
A method comprising: at a data plane node having one or more processors, non-transitory memory, and a control interface between a network function module associated with the data plane node and a switch associated with the data plane node, wherein the data plane node is controlled by and communicatively coupled to a session management function, SMF: determining whether an offload capability is available for a data flow received at an ingress network interface of the data plane node, based on at least one of data flow type and a service quality criterion of the data flow; determining whether the data flow satisfies offload criteria in response to determining that the offload capability is available; and providing, by the network function module associated with the data plane node, instructions to offload the flow by bypassing the network function module associated with the data plane node and providing the data flow to at least one of the switch associated with the data plane node or an egress network interface associated with the data plane node in response to determining that the offload capability is available and in response to determining that the offload criteria is satisfied, wherein the instructions are based on security credentials associated with the SMF and the switch. at a data plane node having one or more processors, non-transitory memory, and a control interface between a network function module associated with the data plane node and a switch associated with the data plane node, wherein the data plane node is controlled by and communicatively coupled to a session management function, SMF: determining whether an offload capability is available for a data flow received at an ingress network interface of the data plane node, based on at least one of data flow type and a service quality criterion of the data flow; determining whether the data flow satisfies offload criteria in response to determining that the offload capability is available; and providing, by the network function module associated with the data plane node, instructions to offload the flow by bypassing the network function module associated with the data plane node and providing the data flow to at least one of the switch associated with the data plane node or an egress network interface associated with the data plane node in response to determining that the offload capability is available and in response to determining that the offload criteria is satisfied, wherein the instructions are based on security credentials associated with the SMF and the switch.