mhurhangee/patent-ind-claim-en huggingface dataset:
A system for modifying autonomous flight of an unmanned aerial vehicle, UAV , the system comprising: a first user interface configured to receive a first user input, wherein the first user input provides one or more instructions to effect an autonomous flight of the UAV ; and a second user interface configured to receive a second user input, wherein the second user input provides one or more instructions to modify the autonomous flight of the UAV , wherein the autonomous flight of the UAV comprises an autonomous flight path of the UAV , characterized in that the second user input does not modify the autonomous flight path past a predetermined threshold, wherein the predetermined threshold is a predetermined distance of the UAV from the autonomous flight path, or wherein the predetermined threshold is a predetermined threshold time, wherein, if the UAV's flight path deviates from the autonomous flight path for more than the predetermined threshold time as a result of the second user input, further deviation is prevented. a first user interface configured to receive a first user input, wherein the first user input provides one or more instructions to effect an autonomous flight of the UAV ; and a second user interface configured to receive a second user input, wherein the second user input provides one or more instructions to modify the autonomous flight of the UAV , wherein the autonomous flight of the UAV comprises an autonomous flight path of the UAV , characterized in that the second user input does not modify the autonomous flight path past a predetermined threshold, wherein the predetermined threshold is a predetermined distance of the UAV from the autonomous flight path, or wherein the predetermined threshold is a predetermined threshold time, wherein, if the UAV's flight path deviates from the autonomous flight path for more than the predetermined threshold time as a result of the second user input, further deviation is prevented.
A metal diaphragm damper , comprising: a diaphragm including a deformable portion disposed in a center thereof and an outer circumferential fixation portion formed by an outer circumferential rim of the diaphragm , the metal diaphragm damper being filled with gas inside and formed in a disk shape, wherein the deformable portion includes a third curved portion located at a radially outward side and formed to be bulged out, a first curved portion located radially inward of the third curved portion and formed to be bulged out, and a second curved portion located between the first curved portion and the third curved portion , and the second curved portion includes at least a curved wall part formed to be dented in, characterized in that the curved wall part of the second curved portion is formed so as to have a curvature radius (R23) smaller than a curvature radius (R24) of a curved wall part forming the third curved portion . a diaphragm including a deformable portion disposed in a center thereof and an outer circumferential fixation portion formed by an outer circumferential rim of the diaphragm , the metal diaphragm damper being filled with gas inside and formed in a disk shape, wherein the deformable portion includes a third curved portion located at a radially outward side and formed to be bulged out, a first curved portion located radially inward of the third curved portion and formed to be bulged out, and a second curved portion located between the first curved portion and the third curved portion , and the second curved portion includes at least a curved wall part formed to be dented in, characterized in that the curved wall part of the second curved portion is formed so as to have a curvature radius (R23) smaller than a curvature radius (R24) of a curved wall part forming the third curved portion .
A metal resin composite member for a tire, comprising a metal cord and a resin layer, the resin layer being formed of a resin mixture that includes a thermoplastic resin A, which has a hard segment and a soft segment, and a thermoplastic resin B, which is formed of the same structural units as the hard segment of thermoplastic resin A, and a ratio of the hard segment in the resin mixture being from 60% by mass to less than 75% by mass, wherein the same structural units refers to a case in which thermoplastic resin B consists only of the same structural units as the hard segment of thermoplastic resin A, or a case in which thermoplastic resin B includes the same structural units as the hard segment of thermoplastic resin A in an amount of 80% by mass or more, of the total structural units, characterized in that the thermoplastic resin A is a polyester thermoplastic elastomer (TPC) and the thermoplastic resin B is a polybutylene terephthalate (PBT). the resin layer being formed of a resin mixture that includes a thermoplastic resin A, which has a hard segment and a soft segment, and a thermoplastic resin B, which is formed of the same structural units as the hard segment of thermoplastic resin A, and a ratio of the hard segment in the resin mixture being from 60% by mass to less than 75% by mass, wherein the same structural units refers to a case in which thermoplastic resin B consists only of the same structural units as the hard segment of thermoplastic resin A, or a case in which thermoplastic resin B includes the same structural units as the hard segment of thermoplastic resin A in an amount of 80% by mass or more, of the total structural units, characterized in that the thermoplastic resin A is a polyester thermoplastic elastomer (TPC) and the thermoplastic resin B is a polybutylene terephthalate (PBT).
Pharmaceutical composition comprising virus-like particles (VLPs) of the core antigen of the hepatitis B virus (HBcAg) and VLPs of the surface antigen of the hepatitis B virus (HBsAg), wherein the VLPs of HBcAg comprise messenger ribonucleic acid (mRNA) at a proportion of over 45% of the total amount of ribonucleic acid (RNA) in said VLPs of HBcAg, and the VLPs of HBsAg include phosphatidylserine at a proportion of over 5% of the total amount of phospholipids of said VLPs of HBsAg.
A lighting system comprising a light source , configured to provide light source light , a first reflective element , a lens at a varying distance (d2) from the first reflective element , and a second reflective element in between the first reflective element and the lens , wherein: - the first reflective element tapers from a first end to a second end , wherein the first reflective element comprises a first reflective surface bridging the distance between the first end and the second end , wherein the first reflective surface is diffuse reflective, and wherein the light source is at least partially circumferentially surrounded by the first reflective surface ; - the light source is configured closer to the second end than to the first end , and wherein the light source is configured to direct at least part of the light source light in the direction of the first end ; - the lens is configured to beam shape at least part of the light source light emanating from the reflective element and the light source ; and - the second reflective element is configured to redirect part of the light source light to the lens , characterized in that the second reflective element is configured to specularly reflect at least part of the light source light that reaches the second reflective element , and wherein the second reflective element has different heights (h2) over its length so that over its full length at each location the second reflective element bridges the distance (d2) between the first reflective element and the lens . - the first reflective element tapers from a first end to a second end , wherein the first reflective element comprises a first reflective surface bridging the distance between the first end and the second end , wherein the first reflective surface is diffuse reflective, and wherein the light source is at least partially circumferentially surrounded by the first reflective surface ; - the light source is configured closer to the second end than to the first end , and wherein the light source is configured to direct at least part of the light source light in the direction of the first end ; - the lens is configured to beam shape at least part of the light source light emanating from the reflective element and the light source ; and - the second reflective element is configured to redirect part of the light source light to the lens , characterized in that the second reflective element is configured to specularly reflect at least part of the light source light that reaches the second reflective element , and wherein the second reflective element has different heights (h2) over its length so that over its full length at each location the second reflective element bridges the distance (d2) between the first reflective element and the lens .
An electronic device configured to switchover power supplied from a primary source to an alternate source to maintain continuity of power supplied to a load bus , wherein the electronic device comprises one or more processors configured to: identify availability of the alternate source using source monitoring in order to measure and calculate a tracking frequency for controlling a variable sampling interval of the one or more processors ; and obtain signal samples having associated time stamps from the primary source , the alternate source , and the load bus ; characterised in that the one or more processors are further configured to store load bus signal samples and associated time stamps of the load bus into a variable length buffer ; perform a dual buffer sampling interval transfer by calculating, using an adaptive resampling algorithm , a new time stamp for transferring a sample from the variable length buffer to a fixed length buffer to estimate a new sample value at the calculated new time stamp; store the new sample value and associated new time stamp into the fixed length buffer; determine a set of attributes from samples of the alternate source using the tracking frequency and fixed length buffer samples of a load bus supply, wherein the set of attributes comprise a magnitude , an angle , a frequency , a slip , an acceleration , or any combination thereof; and calculate supervising conditions to execute a source switchover signal when the primary source is unavailable based at least in part on comparing the set of load bus attributes to alternate source attributes at an estimated instance of switchover. identify availability of the alternate source using source monitoring in order to measure and calculate a tracking frequency for controlling a variable sampling interval of the one or more processors ; and obtain signal samples having associated time stamps from the primary source , the alternate source , and the load bus ; characterised in that the one or more processors are further configured to store load bus signal samples and associated time stamps of the load bus into a variable length buffer ; perform a dual buffer sampling interval transfer by calculating, using an adaptive resampling algorithm , a new time stamp for transferring a sample from the variable length buffer to a fixed length buffer to estimate a new sample value at the calculated new time stamp; store the new sample value and associated new time stamp into the fixed length buffer; determine a set of attributes from samples of the alternate source using the tracking frequency and fixed length buffer samples of a load bus supply, wherein the set of attributes comprise a magnitude , an angle , a frequency , a slip , an acceleration , or any combination thereof; and calculate supervising conditions to execute a source switchover signal when the primary source is unavailable based at least in part on comparing the set of load bus attributes to alternate source attributes at an estimated instance of switchover.
A method of protecting an iterative calculation concerning an algorithm for securing data against attacks aiming at discovering quantities manipulated by the calculation performed on a first number (M; P), representative of information representative of a number which is desired to be ciphered, and a second number (e; d), representative of information representative of a cipher key, the calculation being executed by an electronic circuit , wherein: the second number (e; d) is broken down into an algebraic sum of at least three third numbers (X1, X2, X3); and the calculation is performed bit by bit (X1 i , X2 i , X3 i ) for each rank (i) of the third numbers (X1, X2, X3), all the bits (X1 i , X2 i , X3 i ) of the third numbers (X1, X2, X3) being processed by successive increasing bit ranks (i) and said processing comprising: scanning all the bits (X1 i , X2 i , X3 i ) of a same rank (i) in a random order; and performing, depending on the value of each bit (X1 i , X2 i , X3 i ), operations on the contents of a first register (R0) and of a second register (R1). the second number (e; d) is broken down into an algebraic sum of at least three third numbers (X1, X2, X3); and the calculation is performed bit by bit (X1 i , X2 i , X3 i ) for each rank (i) of the third numbers (X1, X2, X3), all the bits (X1 i , X2 i , X3 i ) of the third numbers (X1, X2, X3) being processed by successive increasing bit ranks (i) and said processing comprising: scanning all the bits (X1 i , X2 i , X3 i ) of a same rank (i) in a random order; and performing, depending on the value of each bit (X1 i , X2 i , X3 i ), operations on the contents of a first register (R0) and of a second register (R1). scanning all the bits (X1 i , X2 i , X3 i ) of a same rank (i) in a random order; and performing, depending on the value of each bit (X1 i , X2 i , X3 i ), operations on the contents of a first register (R0) and of a second register (R1).
A method in a network node for adaptive initial synchronization beam sweep transmission, the network node controlling a serving area of a cell, the method comprising: transmitting a plurality of initial synchronization beams with at least two different beam sweep cycles, wherein at least one beam sweep cycle is an exhaustive beam sweep cycle and at least one beam sweep cycle is an optimized beam sweep cycle , wherein the exhaustive beam sweep cycle covers all of a serving area of the cell and the optimized beam sweep cycle covers a subset of the serving area, characterized in that the plurality of initial synchronization beams comprise a number of K optimized beam sweep cycles transmitted between two exhaustive beam sweep cycles . transmitting a plurality of initial synchronization beams with at least two different beam sweep cycles, wherein at least one beam sweep cycle is an exhaustive beam sweep cycle and at least one beam sweep cycle is an optimized beam sweep cycle , wherein the exhaustive beam sweep cycle covers all of a serving area of the cell and the optimized beam sweep cycle covers a subset of the serving area, characterized in that the plurality of initial synchronization beams comprise a number of K optimized beam sweep cycles transmitted between two exhaustive beam sweep cycles .
A two-component printable conductive composition comprising, as separate components ready for mixing: (a) a metallic component comprising a high melting point (HMP) metal or metal alloy powder having a mean particle size below 15 μm, wherein the HMP metal or metal alloy has a melting point of above 650°C; and (b) a fluxing component comprising an organic acid characterized by having at least two carboxylic groups and a first logarithmic acid dissociation constant (pK a1 ) of at most 4 and an organic solvent, wherein the organic acid is selected from the group consisting of citric acid, tartaric acid, malic acid, maleic acid, malonic acid, glutamic acid, phthalic acid, and isomers and combinations thereof, wherein the two components are maintained separately and mixed prior to use. (a) a metallic component comprising a high melting point (HMP) metal or metal alloy powder having a mean particle size below 15 μm, wherein the HMP metal or metal alloy has a melting point of above 650°C; and (b) a fluxing component comprising an organic acid characterized by having at least two carboxylic groups and a first logarithmic acid dissociation constant (pK a1 ) of at most 4 and an organic solvent, wherein the organic acid is selected from the group consisting of citric acid, tartaric acid, malic acid, maleic acid, malonic acid, glutamic acid, phthalic acid, and isomers and combinations thereof,
An impingement cooling apparatus comprising: a housing having a surface to be directed at a treatment area; an optically transparent region on said surface of the housing through which electromagnetic radiation (EMR) from a source is directable from the housing to the treatment area; and at least one opening on said surface of the housing through which a fluid flow is directable to the treatment area to maintain the treatment area at a therapeutically acceptable temperature range while avoiding interference with the EMR being directed at the treatment area. a housing having a surface to be directed at a treatment area; an optically transparent region on said surface of the housing through which electromagnetic radiation (EMR) from a source is directable from the housing to the treatment area; and at least one opening on said surface of the housing through which a fluid flow is directable to the treatment area to maintain the treatment area at a therapeutically acceptable temperature range while avoiding interference with the EMR being directed at the treatment area.
Monitoring apparatus for monitoring the function of a lidar system for emitting pulses, comprising • a detector for detecting laser light and generating a reference signal from the laser light, and • a control loop for minimizing a difference between an amplitude of the reference signal and an amplitude of a corrective signal by varying the corrective signal , wherein the control loop has a comparator for determining a difference between the reference signal and the corrective signal and a control unit for changing the corrective signal on the basis of the difference determined by the comparator , characterized by an additional comparator for determining a difference between the amplitude of the reference signal and half the amplitude of the corrective signal in order to therefore determine a pulse width signal which indicates a pulse width of the reference signal . • a detector for detecting laser light and generating a reference signal from the laser light, and • a control loop for minimizing a difference between an amplitude of the reference signal and an amplitude of a corrective signal by varying the corrective signal ,
An electronic apparatus comprising: an image receiver configured to receive an input image corresponding to an azimuthal range where a viewpoint is movable; a communicator configured to communicate with a first display apparatus ; and at least one processor , the apparatus characterized in that the at least one processor is configured to: based on an information of a first viewpoint being received from the first display apparatus via the communicator, control the communicator to transmit an image which is a portion of the received input image to the first display apparatus, wherein the image comprises a first area and a second area , the first area corresponding to the first viewpoint and being displayed on a screen of the first display apparatus, and the second area surrounding the first area and having a surface area corresponding to a moving characteristic of the first viewpoint. an image receiver configured to receive an input image corresponding to an azimuthal range where a viewpoint is movable; a communicator configured to communicate with a first display apparatus ; and at least one processor , the apparatus characterized in that the at least one processor is configured to: based on an information of a first viewpoint being received from the first display apparatus via the communicator, control the communicator to transmit an image which is a portion of the received input image to the first display apparatus, wherein the image comprises a first area and a second area , the first area corresponding to the first viewpoint and being displayed on a screen of the first display apparatus, and the second area surrounding the first area and having a surface area corresponding to a moving characteristic of the first viewpoint.
An information processing system, comprising: an image pickup apparatus ; and an information processing apparatus , the information processing apparatus comprising: a communication unit ; an operation unit ; and a control unit , the information processing apparatus being configured to: communicate, via the communication unit, with the image pickup apparatus via a communication path selected from a plurality of different communication paths that include a first communication path and a second communication path; switch between a first communication mode for communicating with the image pickup apparatus via the first communication path and a second communication mode for communicating with the image pickup apparatus via at least the second communication path during capturing an image by the image pickup apparatus, depending on an operation of the operation unit; and display, on a display unit , recording processing execution/stop state information for the image pickup apparatus in the first communication state and the second communication state. an image pickup apparatus ; and an information processing apparatus , the information processing apparatus comprising: a communication unit ; an operation unit ; and a control unit , a communication unit ; an operation unit ; and a control unit , the information processing apparatus being configured to: communicate, via the communication unit, with the image pickup apparatus via a communication path selected from a plurality of different communication paths that include a first communication path and a second communication path; switch between a first communication mode for communicating with the image pickup apparatus via the first communication path and a second communication mode for communicating with the image pickup apparatus via at least the second communication path during capturing an image by the image pickup apparatus, depending on an operation of the operation unit; and display, on a display unit , recording processing execution/stop state information for the image pickup apparatus in the first communication state and the second communication state. communicate, via the communication unit, with the image pickup apparatus via a communication path selected from a plurality of different communication paths that include a first communication path and a second communication path; switch between a first communication mode for communicating with the image pickup apparatus via the first communication path and a second communication mode for communicating with the image pickup apparatus via at least the second communication path during capturing an image by the image pickup apparatus, depending on an operation of the operation unit; and display, on a display unit , recording processing execution/stop state information for the image pickup apparatus in the first communication state and the second communication state.