mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of Formula I wherein R 1 is levulinyl (Lev); R 2 is OAcetyl or -OBenzoyl; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; R 6 is CO 2 CH 2 C 6 H 5 ; and R 7 is -CO 2 Me, or R 1 is tetrahydropyran (THP); R 2 is -OAcetyl or -OBenzoyl; R 3 is benzyl; R4 is N 3 (azide); R 5 is methyl; R 6 is -CO 2 CH 2 C 6 H 5 ; and R 7 is -CO 2 Me; or R 1 is tetrahydropyran (THP); R 2 is -O- or a salt thereof; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran (THP); R 2 is -OSO 3" or a salt thereof; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran (THP); R 2 is -OSO 3 - or a salt thereof; R3 is H; R4 is NH2; R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran (THP); R 2 is -OSO 3 Na; R 3 is H; R 4 is NHSO 3 Na; R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 Na, and wherein said compound has alpha (α) stereochemistry at the carbon bearing the - OR 5 group. R 1 is levulinyl (Lev); R 2 is OAcetyl or -OBenzoyl; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; R 6 is CO 2 CH 2 C 6 H 5 ; and R 7 is -CO 2 Me, or R 1 is tetrahydropyran (THP); R 2 is -OAcetyl or -OBenzoyl; R 3 is benzyl; R4 is N 3 (azide); R 5 is methyl; R 6 is -CO 2 CH 2 C 6 H 5 ; and R 7 is -CO 2 Me; or R 1 is tetrahydropyran (THP); R 2 is -O- or a salt thereof; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran (THP); R 2 is -OSO 3" or a salt thereof; R 3 is benzyl; R 4 is N 3 (azide); R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran (THP); R 2 is -OSO 3 - or a salt thereof; R3 is H; R4 is NH2; R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 - or a salt thereof, or R 1 is tetrahydropyran (THP); R 2 is -OSO 3 Na; R 3 is H; R 4 is NHSO 3 Na; R 5 is methyl; and R 6 and R 7 are independently selected from -CO 2 Na, and
Protection device , configured to protect a power supply battery of a motor vehicle with electric or hybrid drive against lateral shocks, comprising, in the form of a single piece , a protection element and a shock absorber of crash-box type, the protection element taking the form of a sheet, or plate, planar or nonplanar, notably convex on the side of the top surface of the protection element, of truncated rectangular form.
An optical fiber fusion splicing method for performing fusion splicing through positioning of optical fibers to be spliced in a V-groove , the optical fiber fusion splicing method comprising: pressing the optical fibers placed in the V-groove relatively toward the V-groove using a clamp ; varying a clamp pressure of the clamp pressing the optical fibers ; and moving the optical fibers placed in the V-groove with respect to the V-groove in an axial direction; characterized in that the varying the clamp pressure and the moving the optical fibers in the axial direction are performed simultaneously. pressing the optical fibers placed in the V-groove relatively toward the V-groove using a clamp ; varying a clamp pressure of the clamp pressing the optical fibers ; and moving the optical fibers placed in the V-groove with respect to the V-groove in an axial direction; characterized in that the varying the clamp pressure and the moving the optical fibers in the axial direction are performed simultaneously.
A computing system for detecting Man-in-the-Middle (MITM) intrusions on a local area network (LAN), comprising at least one processor and at least one memory storage communicatively coupled to the at least one processor on which is stored computer-readable instructions that when executed by the at least one processor cause the computing system to perform steps including: during a first period of network operation, emitting a plurality of first excitation signals onto the LAN, each first excitation signal x being a sequence of echo requests; determining, for each first excitation signal, a respective output sequence y of round-trip times (RTTs) and responsively determining, for each first excitation signal, a vector of first network features, wherein the first network features include a mean RTT, a measure of impulse response energy, and a measure of jitter distribution, wherein the value of impulse response energy is calculated as an inverse discrete Fourier transform (DFT) of a ratio of discrete Fourier transforms of the excitation signal x and the output sequence y; generating from the plurality of first network feature vectors a behavior model characterizing a first period operation; subsequently emitting one or more second excitation signals of sequences of echo requests onto the LAN; measuring respective second network feature vectors from responses to the second excitation signals; determining, according to the behavior model characterizing the first period operation, that the second network feature vectors are anomalous with respect to the first network feature vectors; and responsively issuing an MITM alert. during a first period of network operation, emitting a plurality of first excitation signals onto the LAN, each first excitation signal x being a sequence of echo requests; determining, for each first excitation signal, a respective output sequence y of round-trip times (RTTs) and responsively determining, for each first excitation signal, a vector of first network features, wherein the first network features include a mean RTT, a measure of impulse response energy, and a measure of jitter distribution, wherein the value of impulse response energy is calculated as an inverse discrete Fourier transform (DFT) of a ratio of discrete Fourier transforms of the excitation signal x and the output sequence y; generating from the plurality of first network feature vectors a behavior model characterizing a first period operation; subsequently emitting one or more second excitation signals of sequences of echo requests onto the LAN; measuring respective second network feature vectors from responses to the second excitation signals; determining, according to the behavior model characterizing the first period operation, that the second network feature vectors are anomalous with respect to the first network feature vectors; and responsively issuing an MITM alert.
A data compression method comprising performing spatial decorrelation on a j x k input block of data values using a spatial decorrelation module which is arranged to process g x h blocks of data values, wherein the number of columns, j , in the input block of data values is a multiple of g , and wherein j × k = g × h , the method comprising: reorganising the input block of data values into a g x h block of data values by: (i) dividing each of the rows of the input block into a plurality sections, wherein each section comprises g data values, and (ii) arranging the sections into h rows to form a g x h block of data values; characterized by performing spatial decorrelation on the g x h block of data values to determine spatially decorrelated data values, wherein the rows of the g x h block of data values are processed in an order such that, for each row of the input block of data values, a first section of that row is processed in an earlier iteration to that in which a second section of that row is processed, wherein the first section is to the right of the second section in the row, and wherein at least one value from the first section is saved for use in the spatial decorrelation of the second section; and providing the spatially decorrelated data values to an entropy encoding module for entropy encoding. reorganising the input block of data values into a g x h block of data values by: (i) dividing each of the rows of the input block into a plurality sections, wherein each section comprises g data values, and (ii) arranging the sections into h rows to form a g x h block of data values; characterized by performing spatial decorrelation on the g x h block of data values to determine spatially decorrelated data values, wherein the rows of the g x h block of data values are processed in an order such that, for each row of the input block of data values, a first section of that row is processed in an earlier iteration to that in which a second section of that row is processed, wherein the first section is to the right of the second section in the row, and wherein at least one value from the first section is saved for use in the spatial decorrelation of the second section; and providing the spatially decorrelated data values to an entropy encoding module for entropy encoding.
A treatment fluid composition for treating a subterranean formation penetrated by a well bore, the composition comprising: an aqueous fluid; a hydratable polymer; and a water-soluble, non-symmetrical, particulate inorganic peroxide breaking agent that has an available oxygen content (AvOx) of at least 4.0 wt. %, wherein the inorganic peroxide is classified as a non-oxidizer in accordance with the standard test method of the UN Manual of Tests and Criteria, subsection 34.4.1, wherein the peroxide breaking agent is CaO 2 containing at least one other constituent other than CaO 2 , the other constituent being selected from the group consisting of molecular sieves, preferably of the zeolite type (hydrated alumino-silicates), aluminum hydroxide, magnesium hydroxide, basic magnesium carbonate hydrates, and combinations thereof. an aqueous fluid; a hydratable polymer; and a water-soluble, non-symmetrical, particulate inorganic peroxide breaking agent that has an available oxygen content (AvOx) of at least 4.0 wt. %, wherein the inorganic peroxide is classified as a non-oxidizer in accordance with the standard test method of the UN Manual of Tests and Criteria, subsection 34.4.1, wherein the peroxide breaking agent is CaO 2 containing at least one other constituent other than CaO 2 , the other constituent being selected from the group consisting of molecular sieves, preferably of the zeolite type (hydrated alumino-silicates), aluminum hydroxide, magnesium hydroxide, basic magnesium carbonate hydrates, and combinations thereof.
A contact assembly for a load break switch including: a stationary contact unit ; and a movable contact unit configured to move between a closed position and an open position, wherein an electric current i) flowing along a current path through the stationary contact unit and the movable contact unit and ii) including an electric arc between the stationary contact unit and the movable contact unit is adapted to generate a magnetic field enabling a Lorentz force to act on the electric arc , wherein a structure of the stationary contact unit and/or a structure of the movable contact unit is adapted to form the current path , such that the Lorentz force enlarges a path of the electric arc , to facilitate quenching or extinguishing the electric arc , wherein in the closed position, the structure is configured to allow the current flowing through the movable contact unit and the stationary contact unit to flow along a current path that is unaffected by the structure , characterized in that the structure of the movable contact unit and/or the stationary contact unit includes at least one barrier zone through which the flow of electric current is obstructed or prevented; and the barrier zone is determined by a material gap or an electrically insulating material. a stationary contact unit ; and a movable contact unit configured to move between a closed position and an open position, wherein an electric current i) flowing along a current path through the stationary contact unit and the movable contact unit and ii) including an electric arc between the stationary contact unit and the movable contact unit is adapted to generate a magnetic field enabling a Lorentz force to act on the electric arc , wherein a structure of the stationary contact unit and/or a structure of the movable contact unit is adapted to form the current path , such that the Lorentz force enlarges a path of the electric arc , to facilitate quenching or extinguishing the electric arc , wherein in the closed position, the structure is configured to allow the current flowing through the movable contact unit and the stationary contact unit to flow along a current path that is unaffected by the structure , characterized in that the structure of the movable contact unit and/or the stationary contact unit includes at least one barrier zone through which the flow of electric current is obstructed or prevented; and the barrier zone is determined by a material gap or an electrically insulating material.
A method for capturing haptic features of a physical object to be moved, for example a pivotable closure, comprising the following method steps: - virtualising the physical object to generate a virtual object , - producing interaction between a person and the virtual object , the interaction taking place by means of a physical device , - generating a haptic reaction during the interaction between the person and the virtual object using the physical device , which is physically moved by the person in accordance with the movement of the virtual object that takes place as a result of the interaction, - the physical device having movable links and being provided having integrated force and/or torque sensors in the spatial position of the virtual object, - and forces and/or torques that act on the physical device being detected, characterised in that an arm of a robot, said arm having the movable links, is provided as the physical device , in that , during the interaction with the virtual object , the forces and/or torques exerted on the robot arm by the user are measured and compared with forces and/or torques that are characteristic of the movement of the physical object for the purpose of quality control of the object to be moved, and in that changes to the physical object or to properties thereof are implemented on the basis of any deviation between the forces and/or torques exerted on the physical device by the user and the characteristic forces and/or torques. - virtualising the physical object to generate a virtual object , - producing interaction between a person and the virtual object , the interaction taking place by means of a physical device , - generating a haptic reaction during the interaction between the person and the virtual object using the physical device , which is physically moved by the person in accordance with the movement of the virtual object that takes place as a result of the interaction, - the physical device having movable links and being provided having integrated force and/or torque sensors in the spatial position of the virtual object, - and forces and/or torques that act on the physical device being detected,
Blade for a turbomachine, comprising an airfoil having a suction side and a pressure side which extend between a leading edge and a trailing edge of the airfoil , and a blade root for connecting the blade to a main rotor body , the blade comprising a crack affecting device which has a changed cross-sectional geometry, at least in the radial direction and/or the circumferential direction, by comparison with an aerodynamically optimized blade profile, characterized in that the crack affecting device has at least two profile regions at least in part along the pressure side and/or the suction side , at least one first profile region of the at least two profile regions extending around the blade at least in part, from a blade leading edge to a blade trailing edge , such that a full region , an outlet region and a region free from the crack affecting device are formed, and the extension of the full region along the axial extent of the pressure side and/or of the suction side being in a range which corresponds to at least 30% of the extent of the pressure side or of the suction side , respectively, and/or in that the extension of the free region along the axial extent of the pressure side and/or of the suction side is in a range which corresponds to at least 5% of the extent of the pressure side or of the suction side , respectively.
A method for evaluating performance of an intraocular lens , the method comprising: capturing , with an image capture mechanism , a plurality of images through the intraocular lens at different focus positions ; displaying , with a display screen, a portion of at least one selected image of the plurality of images at different sizes to a test subject; receiving , with a processing system and in response to the displaying of the selected image, an input from the test subject for the different sizes, the input being indicative of perceived acuity of the at least one selected image; and determining , with the processing system, a measure of intraocular lens performance from the received input. capturing , with an image capture mechanism , a plurality of images through the intraocular lens at different focus positions ; displaying , with a display screen, a portion of at least one selected image of the plurality of images at different sizes to a test subject; receiving , with a processing system and in response to the displaying of the selected image, an input from the test subject for the different sizes, the input being indicative of perceived acuity of the at least one selected image; and determining , with the processing system, a measure of intraocular lens performance from the received input.
A computer-implemented method, comprising: performing one or more matching operations between audio associated with a sequence of segments that are extracted from source files of an audiovisual program and a first source audio associated with the audiovisual program to determine that a first segment of the audio corresponds to a second segment of the first source audio; mapping a first subtitle associated with the first source audio from a source timeline associated with the first source audio to a timeline associated with the audio to generate a first mapped subtitle; and generating a subtitle list based on the first mapped subtitle and at least one additional mapped subtitle. performing one or more matching operations between audio associated with a sequence of segments that are extracted from source files of an audiovisual program and a first source audio associated with the audiovisual program to determine that a first segment of the audio corresponds to a second segment of the first source audio; mapping a first subtitle associated with the first source audio from a source timeline associated with the first source audio to a timeline associated with the audio to generate a first mapped subtitle; and generating a subtitle list based on the first mapped subtitle and at least one additional mapped subtitle.
A coherence based dynamic stability control system for a vehicle audio system, comprising: at least one output sensor configured to transmit an output signal including a noise cancellation signal and an undesired noise signal ; at least one input sensor configured to transmit an input signal indicative of an acceleration of a vehicle; and a processor being programmed to: control a transducer to output the noise cancellation signal based on at least one parameter ; receive the input signal and the output signal; determine a coherence between the input signal and the output signal; determine whether the coherence exceeds a predefined coherence threshold; adjust the at least one parameter to generate an adjusted parameter ; and control the transducer to output an updated noise cancellation signal based on the adjusted parameter in response to the coherence failing to exceed the predefined coherence threshold. at least one output sensor configured to transmit an output signal including a noise cancellation signal and an undesired noise signal ; at least one input sensor configured to transmit an input signal indicative of an acceleration of a vehicle; and a processor being programmed to: control a transducer to output the noise cancellation signal based on at least one parameter ; receive the input signal and the output signal; determine a coherence between the input signal and the output signal; determine whether the coherence exceeds a predefined coherence threshold; adjust the at least one parameter to generate an adjusted parameter ; and control the transducer to output an updated noise cancellation signal based on the adjusted parameter in response to the coherence failing to exceed the predefined coherence threshold. control a transducer to output the noise cancellation signal based on at least one parameter ; receive the input signal and the output signal; determine a coherence between the input signal and the output signal; determine whether the coherence exceeds a predefined coherence threshold; adjust the at least one parameter to generate an adjusted parameter ; and control the transducer to output an updated noise cancellation signal based on the adjusted parameter in response to the coherence failing to exceed the predefined coherence threshold.
A method of power control for a user equipment, UE, comprising: establishing a wireless connection to a first network; tuning away from the first network for a first predetermined interval; tuning back to the first network after the first predetermined interval; entering a power control state for a second predetermined interval after tuning back to the first network, in which the UE will not transmit at a higher transmit power regardless of uplink grants or commands received from the first network; sending a plurality of transmissions to the first network during the second predetermined interval; determining if a number of the plurality of transmissions that are not received by the first network exceeds a first threshold or if a number of the plurality of transmissions that are retransmitted to the first network exceeds a second threshold; and exiting the power control state when it is determined that the first threshold is exceeded or when it is determined that the second threshold is exceeded. establishing a wireless connection to a first network; tuning away from the first network for a first predetermined interval; tuning back to the first network after the first predetermined interval; entering a power control state for a second predetermined interval after tuning back to the first network, in which the UE will not transmit at a higher transmit power regardless of uplink grants or commands received from the first network; sending a plurality of transmissions to the first network during the second predetermined interval; determining if a number of the plurality of transmissions that are not received by the first network exceeds a first threshold or if a number of the plurality of transmissions that are retransmitted to the first network exceeds a second threshold; and exiting the power control state when it is determined that the first threshold is exceeded or when it is determined that the second threshold is exceeded.