mhurhangee/ep-ind-claims huggingface dataset:
A heterodimeric polypeptide comprising a first polypeptide comprising in N-terminal to C-terminal direction at least a portion of an immunoglobulin hinge region, which comprises one or more cysteine residues, an immunoglobulin CH2-domain and an immunoglobulin CH3-domain, and a second polypeptide comprising in N-terminal to C-terminal direction at least a portion of an immunoglobulin hinge region, which comprises one or more cysteine residues, an immunoglobulin CH2-domain and an immunoglobulin CH3-domain, wherein the immunoglobulin hinge region, the immunoglobulin CH2-domain and the immunoglobulin CH3-domain are of the human IgG1 subclass, wherein the first polypeptide comprises the mutations Y349C, T366S, L368A and Y407V (hole-chain) and the second polypeptide comprises the mutation S354C and T366W (knob-chain), and wherein the first polypeptide (hole-chain) comprises the mutations i) I253A or I253G, and ii) L314A or L314G or L314D, and wherein the first polypeptide and the second polypeptide are connected by one or more disulfide bridges, and wherein the CH3-domain of the first polypeptide and the CH3-domain of the second polypeptide both bind to protein A (numbering according to the Kabat EU index). i) I253A or I253G, and ii) L314A or L314G or L314D,
System for dispensing at least one makeup product, that can be manipulated in one hand, comprising a cup and a dispenser for filling the cup from the bottom with at least one product, the cup being secured to the dispenser at least while it is being filled with said product, the system having several filling orifices for filling with different base products, opening into the cup, the dispenser allowing at least two base products to be delivered to the cup, in adjustable proportions.
Method for sharpening a tool (1; 19) comprising the following method steps: - machining a machining surface of a base material with the tool (1; 19), - creating a depression in the base material with the tool (1; 19) along a depression direction, - removing the tool (1; 19) from the depression, - inserting at least one shaped part (13; 20) consisting of a sharpening material into the depression, - re-introducing the tool (1; 19) into the depression, - arranging the at least one shaped part (13; 20) on the machining surface, - continuing the machining with the tool (1; 19), - sharpening the tool (1; 19) by machining the at least one shaped part (13; 20) with the tool (1; 19), characterized in that, prior to insertion into the depression, the at least one shaped part (13; 20) is mounted on the tool. - machining a machining surface of a base material with the tool (1; 19), - creating a depression in the base material with the tool (1; 19) along a depression direction, - removing the tool (1; 19) from the depression, - inserting at least one shaped part (13; 20) consisting of a sharpening material into the depression, - re-introducing the tool (1; 19) into the depression, - arranging the at least one shaped part (13; 20) on the machining surface, - continuing the machining with the tool (1; 19), - sharpening the tool (1; 19) by machining the at least one shaped part (13; 20) with the tool (1; 19),
A method of entropy-coding video data, the method comprising: binarizing coefficients of a frequency domain by using binarization methods, wherein the coefficients of the frequency domain are generated by transforming a residual block of a current block into the frequency domain; and performing binary arithmetic coding on the binarized coefficients, characterized in that: wherein the binarization methods include one of a truncated binarization method of a maximum code value and an exponential golomb binarization method, wherein the maximum code value related to the binarization methods used in binarizing the coefficients of the frequency domain is different according to frequencies of the coefficients in the current block, and wherein the binarizing the coefficients of the frequency domain comprises: binarizing one of the coefficients of the frequency domain using the truncated binarization method when a value of the one of the coefficients of the frequency domain is less than or equal to the maximum code value; and binarizing the one of the coefficients of the frequency domain using the truncated binarization method and the exponential golomb binarization method when the value of the one of the coefficient of the frequency domain is greater than the maximum code value. binarizing coefficients of a frequency domain by using binarization methods, wherein the coefficients of the frequency domain are generated by transforming a residual block of a current block into the frequency domain; and performing binary arithmetic coding on the binarized coefficients, wherein the binarization methods include one of a truncated binarization method of a maximum code value and an exponential golomb binarization method, wherein the maximum code value related to the binarization methods used in binarizing the coefficients of the frequency domain is different according to frequencies of the coefficients in the current block, and wherein the binarizing the coefficients of the frequency domain comprises: binarizing one of the coefficients of the frequency domain using the truncated binarization method when a value of the one of the coefficients of the frequency domain is less than or equal to the maximum code value; and binarizing the one of the coefficients of the frequency domain using the truncated binarization method and the exponential golomb binarization method when the value of the one of the coefficient of the frequency domain is greater than the maximum code value. binarizing one of the coefficients of the frequency domain using the truncated binarization method when a value of the one of the coefficients of the frequency domain is less than or equal to the maximum code value; and binarizing the one of the coefficients of the frequency domain using the truncated binarization method and the exponential golomb binarization method when the value of the one of the coefficient of the frequency domain is greater than the maximum code value.
A clamp for compressing a flexible tube, comprising: a first member; a second member; a third member; a fourth member (34, 134, 234); and a locking member; wherein one of the first member and the second member include a pair of sidewalls (38, 40, 50, 52) that define a channel for upward and downward movement of the third member; the second member is moveably coupled to the first member and adapted to move into and out of a clamping position to apply a compressive force to the tube; the third member is moveably retained between the pair of sidewalls (38, 40, 50, 52); the third member is adapted to move from a first position to a second non-parallel position relative to the first position; the fourth member (34, 134, 234) is rotatably moveably coupled to one of the first member and the second member; the locking member is adapted to hold the first and second members (14, 16) in the clamping position; characterized in that the fourth member (34, 134, 234) has a cam portion and is adapted such that, when the first and second members (14 and 16) are held in the clamping position by the locking member, the cam portion is engageable with the third member such that the third member moves from the first position to the second position to apply an additional compressive force to the tube. a first member; a second member; a third member; a fourth member (34, 134, 234); and a locking member; wherein one of the first member and the second member include a pair of sidewalls (38, 40, 50, 52) that define a channel for upward and downward movement of the third member; the second member is moveably coupled to the first member and adapted to move into and out of a clamping position to apply a compressive force to the tube; the third member is moveably retained between the pair of sidewalls (38, 40, 50, 52); the third member is adapted to move from a first position to a second non-parallel position relative to the first position; the fourth member (34, 134, 234) is rotatably moveably coupled to one of the first member and the second member; the locking member is adapted to hold the first and second members (14, 16) in the clamping position; characterized in that the fourth member (34, 134, 234) has a cam portion and is adapted such that, when the first and second members (14 and 16) are held in the clamping position by the locking member, the cam portion is engageable with the third member such that the third member moves from the first position to the second position to apply an additional compressive force to the tube.
An LED converter, comprising: - a primary side stage and a secondary side stage; - an isolated switched resonant stage supplying terminals for driving an LED load, wherein an LED current i LED is feedback-controlled based only on feedback-control signals from the primary side stage of the LED converter; - a control unit controlling at least one switch (S 1, S 2), preferably two alternatively clocked switches connected in series, of the switched resonant stage on the basis of the feedback-control signals supplied to the control unit, characterised in that said feedback-control signals comprise: a) a signal representing the voltage across the LED load V LED, wherein the LED voltage V LED is indirectly measured, indirectly meaning by an electric parameter tapped off the primary side stage; b) a signal indicating a DC supply voltage of the primary side V BUS; and c) at least one signal representing the current sensed at the primary side and representing the current flowing on the primary side of the isolation stage of isolated switched resonant stage. - a primary side stage and a secondary side stage; - an isolated switched resonant stage supplying terminals for driving an LED load, wherein an LED current i LED is feedback-controlled based only on feedback-control signals from the primary side stage of the LED converter; - a control unit controlling at least one switch (S 1, S 2), preferably two alternatively clocked switches connected in series, of the switched resonant stage on the basis of the feedback-control signals supplied to the control unit, characterised in that said feedback-control signals comprise: a) a signal representing the voltage across the LED load V LED, wherein the LED voltage V LED is indirectly measured, indirectly meaning by an electric parameter tapped off the primary side stage; b) a signal indicating a DC supply voltage of the primary side V BUS; and c) at least one signal representing the current sensed at the primary side and representing the current flowing on the primary side of the isolation stage of isolated switched resonant stage. a) a signal representing the voltage across the LED load V LED, wherein the LED voltage V LED is indirectly measured, indirectly meaning by an electric parameter tapped off the primary side stage; b) a signal indicating a DC supply voltage of the primary side V BUS; and c) at least one signal representing the current sensed at the primary side and representing the current flowing on the primary side of the isolation stage of isolated switched resonant stage.
Pneumatic vehicle tyre, in particular for use in winter driving conditions, comprising a tread having at least one tread bar row which runs around in the circumferential direction and the tread bars (4, 4') of which have tread bar edges (4b, 4'b), which delimit transverse grooves, which separate the individual tread bars within the tread bar row from one another, wherein the tread bars each have at least two sipes (7, 17), which run at least substantially parallel to one another and the extent of which in the respective tread bar (4, 4c) is oriented on the basis of the course of the tread bar edges (4b, 4'b) delimiting the transverse grooves, and which sipes (7, 17) have a middle portion (7b, 17b) and two peripheral portions (7a, 7c; 17a, 17c), wherein the middle portion (7b, 17b) is the deepest and longest portion and the two peripheral portions (7a, 7c; 17a, 17c) have different depths, characterized in that at least the middle portion (7b, 17b) of those sipes that run adjacent to the tread bar edges (4b, 4'b) which delimit transverse grooves form an acute included angle (β) with this tread bar edge (4b, 4'b), wherein the peripheral portion (7c, 17c) that has a smaller depth adjoins that end of the middle portion (7b, 17b) that is at the smaller distance from the adjacent tread bar edge (4b, 4'b).
A communications network comprising: a plurality of network segments, each of the plurality of network segments comprising a segment management module, one or more routers and a plurality of communications links, the communications links connecting each router to one or more other routers; and a supervisory management module, wherein, in use, the network is configured such that each segment management module predicts the performance of each of the one or more routers in its respective segment that carries a data flow based on operational data reported by each of the one or more routers and if the predicted performance exceeds a threshold value, that segment management module is further configured to: a) identify an alternative routing for the data flow within that network segment; or b) if an alternative routing for the data flow cannot be found within that network segment, send a report to the supervisory management module, the supervisory management module being configured to, in use, take action in response to the report. a) identify an alternative routing for the data flow within that network segment; or b) if an alternative routing for the data flow cannot be found within that network segment, send a report to the supervisory management module, the supervisory management module being configured to, in use, take action in response to the report.
A graphical user interface method, comprising: receiving positional data from one or more position sensors disposed within a device; determining a continuous 3D frame of reference for the device based at least in part on the received positional data; receiving optical data from one or more optical sensors disposed within the device; determining a lighting condition in the environment of a user and a position of the user's eyes based at least in part on the received optical data; and generating a virtual 3D depiction of at least one graphical user interface object on a display of the device, wherein the at least one graphical user interface object is represented in a virtual 3D operating system environment, and wherein the act of generating is based at least in part on the determined 3D frame of reference, the lighting condition in the environment of the user, and the position of the user's eyes. receiving positional data from one or more position sensors disposed within a device; determining a continuous 3D frame of reference for the device based at least in part on the received positional data; receiving optical data from one or more optical sensors disposed within the device; determining a lighting condition in the environment of a user and a position of the user's eyes based at least in part on the received optical data; and generating a virtual 3D depiction of at least one graphical user interface object on a display of the device, wherein the at least one graphical user interface object is represented in a virtual 3D operating system environment, and wherein the act of generating is based at least in part on the determined 3D frame of reference, the lighting condition in the environment of the user, and the position of the user's eyes.
A drive unit for driving a passive element relative to an active element, wherein the active element comprises a resonator and at least one excitation means for exciting oscillations in the resonator, the resonator comprising at least two arms (21, 22) extending from a connection region of the resonator at the same side of the connection region, the resonator and the arms (21, 22) extending in parallel to a reference plane, each of the arms (21, 22) comprising, at an outer end of the arm, a contact element (31, 32), the contact elements (31, 32) being movable by way of oscillating movements of the arms (21, 22), the passive element being arranged to be driven and moved relative to the active element by way of these oscillating movements; the passive element comprises contact areas (41, 42), each contact area (41, 42) being arranged to be in contact with a respective one of the contact elements (31, 32); wherein each of the arms (21, 22) comprises, at the outer end of the arm, a protrusion (33, 34) extending in a first direction, the first direction being inward, toward the other arm or outward, away from the other arm, and on at least one of the arms (21, 22), the respective contact element (31, 32) arranged at the arm's outer end extends in a second direction, the second direction being opposite to the first direction characterised in that, for each of the arms (21, 22), the stiffness of the arm with respect to rotation around an axis normal to the reference plane, has a minimum value at a location of the arm that along the length of the arm is inward of an end section of the arm comprising the respective protrusion (33, 34). a resonator and at least one excitation means for exciting oscillations in the resonator, the resonator comprising at least two arms (21, 22) extending from a connection region of the resonator at the same side of the connection region, the resonator and the arms (21, 22) extending in parallel to a reference plane, each of the arms (21, 22) comprising, at an outer end of the arm, a contact element (31, 32), the contact elements (31, 32) being movable by way of oscillating movements of the arms (21, 22), the passive element being arranged to be driven and moved relative to the active element by way of these oscillating movements; the passive element comprises contact areas (41, 42), each contact area (41, 42) being arranged to be in contact with a respective one of the contact elements (31, 32); wherein each of the arms (21, 22) comprises, at the outer end of the arm, a protrusion (33, 34) extending in a first direction, the first direction being inward, toward the other arm or outward, away from the other arm, and on at least one of the arms (21, 22), the respective contact element (31, 32) arranged at the arm's outer end extends in a second direction, the second direction being opposite to the first direction characterised in that, for each of the arms (21, 22), the stiffness of the arm with respect to rotation around an axis normal to the reference plane, has a minimum value at a location of the arm that along the length of the arm is inward of an end section of the arm comprising the respective protrusion (33, 34).
End terminal for a safety guardrail, said end terminal comprising an elongated beam which is on opposite ends connected to a ground anchor and to the safety guardrail, respectively, and further comprising a collision catcher which is slidably mounted on the beam, wherein the collision catcher connects to a sliding block with an aperture through which the beam is guided, characterized in that the sliding block is provided with at least one of upper wall portions inside the aperture that directly engage the elongated beam for support of the sliding block, and that in or between said at least one of upper wall portions a slit or slits are provided providing room for passing of bolt heads or other fixtures extending from the elongated beam.
A Bluetooth Low Energy passive vehicle access control system comprising: a vehicle; an external device communicatively coupled to the vehicle; and a processor communicatively coupled the vehicle to the external device; wherein the external device is configured to: modulate a transmitted power level of successive transmissions; and generate a corresponding RX power level profile identical to the modulated TX power level of successive transmissions; wherein the processor is configured to: compare the RSS profile with a pre-determined secure patterns stored in a non-transitory computer-readable storage media; and disable a communication between the external device and the vehicle if the RSS profile is constant; wherein a same packet is transmitted multiple times during a connection and authentication phase by varying transmit power level. a vehicle; an external device communicatively coupled to the vehicle; and a processor communicatively coupled the vehicle to the external device; wherein the external device is configured to: modulate a transmitted power level of successive transmissions; and generate a corresponding RX power level profile identical to the modulated TX power level of successive transmissions; wherein the processor is configured to: compare the RSS profile with a pre-determined secure patterns stored in a non-transitory computer-readable storage media; and disable a communication between the external device and the vehicle if the RSS profile is constant; wherein a same packet is transmitted multiple times during a connection and authentication phase by varying transmit power level. modulate a transmitted power level of successive transmissions; and generate a corresponding RX power level profile identical to the modulated TX power level of successive transmissions; wherein the processor is configured to: compare the RSS profile with a pre-determined secure patterns stored in a non-transitory computer-readable storage media; and disable a communication between the external device and the vehicle if the RSS profile is constant; wherein a same packet is transmitted multiple times during a connection and authentication phase by varying transmit power level. compare the RSS profile with a pre-determined secure patterns stored in a non-transitory computer-readable storage media; and disable a communication between the external device and the vehicle if the RSS profile is constant; wherein a same packet is transmitted multiple times during a connection and authentication phase by varying transmit power level.
System for controlling a voltage inverter, for supplying power to a multiphase electric motor, notably of an automobile vehicle, comprising a means for generating values of power supply voltages for each phase of the electric motor, together with an amplitude value of the power supply voltages, comprising a phase-splicing determination means and a means for controlling the phase splicing cooperating together in order to control the transmission to the voltage inverter of duty cycles generated by means for determining the duty cycles (28, 31, 34, 37, 40, 43, 46), as a function of the values of power supply voltages for each phase of the electric motor, and also of the amplitude value of the power supply voltages, the phase-splicing determination means comprising phase detection means (62, 70, 78, 86, 94, 102) each being designed to generate a phase voltage signal, the phase-splicing determination means being furthermore designed to generate a phase identification signal at the output equal to that of the phase voltage signals whose value is non-zero, and the means for controlling the phase splicing being designed to generate a signal for enabling the phase splicing depending on the comparison of the amplitude value of the power supply voltages with a splicing enabling threshold and with a splicing disabling threshold, the control system comprising switches designed to control the generation of a signal from amongst the duty cycle signals received from the means for determining the duty cycles (28,31,34,37,40,43,46) for each phase depending on the signals received from the phase-splicing determination means and from the means for controlling the phase splicing, the control system being characterized in that the means for determining the duty cycles (28, 31, 34, 37, 40, 43, 46) for each phase comprise at least one means for holding at the zero potential, designed to cancel the duty cycle of one phase by addition of a constant shift and to shift the duty cycles of the other phases by the same constant.