mhurhangee/ep-ind-claims huggingface dataset:
Receiver for receiving signals with on-off coding or amplitude shift coding with a signal interface, a supply interface, a first signal path, which is connected with the signal interface, - the first signal path having at least one rectifying differentiator and a decoding means and the decoding means being connected with a processing means via a wake-up path, - the rectifying differentiator being configured such that a signal (Sf) supplied via the signal interface is divided into at least two different frequency signal parts, these are demodulated and the difference in the instantaneous amplitudes of the two demodulated signals is established and the differential signal supplied to a decoding means, - the decoding means being configured such that it obtains information from the differential signal, compares this with predetermined information and, in the case of a match, supplies a wake-up signal to the processing means via a wake-up path, - - the receiver being configured such that it is operable at least in an active mode of operation and a sleep mode of operation and, on receipt of the wake-up signal, changes from the sleep mode of operation into the active mode of operation, characterized in that the different frequency signal parts do not have any overlapping frequency ranges. - the first signal path having at least one rectifying differentiator and a decoding means and the decoding means being connected with a processing means via a wake-up path, - the rectifying differentiator being configured such that a signal (Sf) supplied via the signal interface is divided into at least two different frequency signal parts, these are demodulated and the difference in the instantaneous amplitudes of the two demodulated signals is established and the differential signal supplied to a decoding means, - the decoding means being configured such that it obtains information from the differential signal, compares this with predetermined information and, in the case of a match, supplies a wake-up signal to the processing means via a wake-up path, - - the receiver being configured such that it is operable at least in an active mode of operation and a sleep mode of operation and, on receipt of the wake-up signal, changes from the sleep mode of operation into the active mode of operation, characterized in that the different frequency signal parts do not have any overlapping frequency ranges. - - the receiver being configured such that it is operable at least in an active mode of operation and a sleep mode of operation and, on receipt of the wake-up signal, changes from the sleep mode of operation into the active mode of operation, characterized in that the different frequency signal parts do not have any overlapping frequency ranges.
A data processing method performed by an ingress device, the data processing method comprising the steps of: receiving a multicast packet requiring Service Function Chaining, SFC, processing; encapsulating the multicast packet to obtain a target packet after encapsulation, wherein the target packet comprises an SFC path indication and an egress device-based Bit Indexed Explicit Replication, BIER, header; and sending the target packet to at least one Service Function Forwarder, SFF, according to the SFC path indication, wherein a last-hop SFF is used for sending the multicast packet to at least one egress device according to the egress device-based BIER header. receiving a multicast packet requiring Service Function Chaining, SFC, processing; encapsulating the multicast packet to obtain a target packet after encapsulation, wherein the target packet comprises an SFC path indication and an egress device-based Bit Indexed Explicit Replication, BIER, header; and sending the target packet to at least one Service Function Forwarder, SFF, according to the SFC path indication, wherein a last-hop SFF is used for sending the multicast packet to at least one egress device according to the egress device-based BIER header.
A process for preparing compounds of formula I wherein R is C 1 -C 4 -alkyl, C 1 -C 4 -haloalkyl, C 3 -C 6 -cycloalkyl or C 3 -C 6 -C Y Cloalkyl-C 1 -C 4 -alkyl; Y is hydrogen, C 1 -C 4 -alkoxy, C 2 -C 4 -alkenyl or benzyl; and wherein the -CH 2 -OH group and the -C(=NOCH 3)C(=O)NYCH 3 group are on the same side of the C=C double bond between the carbon atoms depicted with the numbers 3 and 4 (Z-configuration), and wherein the -OCH 3 group and the -C(=O)NYCH 3 group are on the opposite side of the C=N double bond between the carbon atom depicted with number 2 and the neighbouring nitrogen atom ( E -configuration); the process comprising: reacting a compound of formula II wherein R is as defined above; with a compound of formula III wherein Y is as defined above. R is C 1 -C 4 -alkyl, C 1 -C 4 -haloalkyl, C 3 -C 6 -cycloalkyl or C 3 -C 6 -C Y Cloalkyl-C 1 -C 4 -alkyl; Y is hydrogen, C 1 -C 4 -alkoxy, C 2 -C 4 -alkenyl or benzyl; and wherein the -CH 2 -OH group and the -C(=NOCH 3)C(=O)NYCH 3 group are on the same side of the C=C double bond between the carbon atoms depicted with the numbers 3 and 4 (Z-configuration), and wherein the -OCH 3 group and the -C(=O)NYCH 3 group are on the opposite side of the C=N double bond between the carbon atom depicted with number 2 and the neighbouring nitrogen atom ( E -configuration); reacting a compound of formula II wherein R is as defined above; with a compound of formula III wherein Y is as defined above.
A casing (10, 50) for a cosmetic article (12, 52), the casing comprising: - a base (18, 58) having an inner surface (19, 59); - a lid (22, 62), the lid being movable, relative to the base (18, 58), between a closed position and an opened position; and - an intermediate tray (30, 66) located between the base (18, 58) and the lid (22, 62), said intermediate tray (30, 66) accommodating the cosmetic article (12, 52), the intermediate tray (30, 66) being slidably mounted to the base (18, 58) so as to be movable relative to the base between a retracted position, in which the intermediate tray (30, 66) substantially covers the inner surface (19, 59) of the base, and an extended position, in which the intermediate tray (30, 66) exposes the inner surface (19, 59) of the base, wherein the movement of the lid (22, 62) from the closed position to the open position causes the tray (30, 66) to slide from the retracted position to the extended position and wherein the lid (22, 62) is rotatably mounted to the base (18, 58) about a first axis of rotation (32, 72), and the intermediate tray (30, 66) is slidably mounted to the base (18, 58) according to a second axis of sliding (34, 74), the second axis being perpendicular to the first axis of rotation. - a base (18, 58) having an inner surface (19, 59); - a lid (22, 62), the lid being movable, relative to the base (18, 58), between a closed position and an opened position; and - an intermediate tray (30, 66) located between the base (18, 58) and the lid (22, 62), said intermediate tray (30, 66) accommodating the cosmetic article (12, 52), the intermediate tray (30, 66) being slidably mounted to the base (18, 58) so as to be movable relative to the base between a retracted position, in which the intermediate tray (30, 66) substantially covers the inner surface (19, 59) of the base, and an extended position, in which the intermediate tray (30, 66) exposes the inner surface (19, 59) of the base,
An equaliser for processing, in the electrical domain, a signal obtained from a path of an optical transmission system, the equaliser comprising N cascaded stages (where N ≥1), wherein at least one of the stages comprises a cascade of: a linear equalisation element; and a non-linear equalisation element, wherein the linear equalisation element is one of: a finite impulse response filter or an infinite impulse response filter, the non-linear equalisation element has an input for receiving an input signal, and characterised in that the non-linear equalisation element is arranged to rotate phase of the input signal proportional to the squared modulus of the input signal amplitude. a linear equalisation element; and a non-linear equalisation element,
A composite comprising: a barrier, said barrier being configured to selectively pass water, and said barrier being degradable in the presence of water; a matrix material for disposition within said barrier, wherein said matrix material has a flowable state and a set state, and wherein said matrix material is degradable in the presence of water; and at least one reinforcing element for disposition within said barrier and integration with said matrix material, wherein said at least one reinforcing element is degradable in the presence of water, and further wherein, upon the degradation of said at least one reinforcing element in the presence of water, said at least one reinforcing element provides an agent for modulating degradation rate of said matrix material in the presence of water. a barrier, said barrier being configured to selectively pass water, and said barrier being degradable in the presence of water; a matrix material for disposition within said barrier, wherein said matrix material has a flowable state and a set state, and wherein said matrix material is degradable in the presence of water; and at least one reinforcing element for disposition within said barrier and integration with said matrix material, wherein said at least one reinforcing element is degradable in the presence of water, and further wherein, upon the degradation of said at least one reinforcing element in the presence of water, said at least one reinforcing element provides an agent for modulating degradation rate of said matrix material in the presence of water.
Method of use of a wiping device for vehicle windows, which wiper device comprises: - a wiper blade (1, 1a-f) on at least one wiper arm, wherein the wiper blade (1, 1a-f) is intended for an initial movement from a home position into a reversal position and a return movement from the reversal position into the direction of the home position, and - a spray device comprising numerous spray or nozzle openings which are arranged successively in a longitudinal wiper blade direction and assigned to two longitudinal wiper blade sides, for the purpose of ejection of a washing or cleaning fluid onto the vehicle window, wherein - the wiper blade (1, 1 a-f) has at least two spray or fluid channels (7, 8), wherein the at least two spray or fluid channels (7, 8) comprises at least one separate spray or fluid channel (7, 8) for the spray or nozzle openings which are arranged on the longitudinal wiper blade side that leads in the initial movement, and at least one specific spray or fluid channel for the spray or nozzle openings which are arranged on the longitudinal wiper blade side which leads in the return movement, characterized in that - after activation of the spray and wiping process and during the first wipe across of the vehicle window with the wiper blade, a greater quantity of washing or cleaning fluid is ejected on the longitudinal wiper blade side which leads in the initial movement, at least during the first initial movement of the wiper blade (1, 1a-f), than on the longitudinal wiper blade side which follows in the initial movement and leads in the return movement. - a wiper blade (1, 1a-f) on at least one wiper arm, wherein the wiper blade (1, 1a-f) is intended for an initial movement from a home position into a reversal position and a return movement from the reversal position into the direction of the home position, and - a spray device comprising numerous spray or nozzle openings which are arranged successively in a longitudinal wiper blade direction and assigned to two longitudinal wiper blade sides, for the purpose of ejection of a washing or cleaning fluid onto the vehicle window, wherein - the wiper blade (1, 1 a-f) has at least two spray or fluid channels (7, 8), wherein the at least two spray or fluid channels (7, 8) comprises at least one separate spray or fluid channel (7, 8) for the spray or nozzle openings which are arranged on the longitudinal wiper blade side that leads in the initial movement, and at least one specific spray or fluid channel for the spray or nozzle openings which are arranged on the longitudinal wiper blade side which leads in the return movement, characterized in that - after activation of the spray and wiping process and during the first wipe across of the vehicle window with the wiper blade, a greater quantity of washing or cleaning fluid is ejected on the longitudinal wiper blade side which leads in the initial movement, at least during the first initial movement of the wiper blade (1, 1a-f), than on the longitudinal wiper blade side which follows in the initial movement and leads in the return movement.
A method of controlling a wind turbine comprising one or more blades attached to a rotor hub, the one or more blades being arranged to pitch relative to the hub, the method comprising the steps of: - obtaining an absolute blade load sum signal indicative of the sum of the absolute blade loads on the one or more blades, - determining an envelope of the absolute blade load sum signal for normal operation, - determining a plurality of reference load thresholds from the envelope of the absolute blade load sum signal, - processing the blade load data to detect a high thrust wind event, where the step of detecting the high thrust wind event comprises comparing the load sum signal and/or one or more signals derived from the load sum signal to the plurality of reference load thresholds, and - generating a control signal comprising a pitch contribution for affecting the blades to pitch out of the wind in response to the detected wind event. - obtaining an absolute blade load sum signal indicative of the sum of the absolute blade loads on the one or more blades, - determining an envelope of the absolute blade load sum signal for normal operation, - determining a plurality of reference load thresholds from the envelope of the absolute blade load sum signal, - processing the blade load data to detect a high thrust wind event, where the step of detecting the high thrust wind event comprises comparing the load sum signal and/or one or more signals derived from the load sum signal to the plurality of reference load thresholds, and - generating a control signal comprising a pitch contribution for affecting the blades to pitch out of the wind in response to the detected wind event.
Process for continuous operation of a Mannich reaction, characterized in that an aqueous phase which contains at least one amine catalyst is separated by at least one membrane separation stage into a stream consisting predominantly of water and a stream of reduced water content.
A shed-forming device for a weaving machine, wherein the shed-forming device comprises a number of drive levers (4, 33) and a number of transmission mechanisms (2, 34), wherein the drive levers are integrated into a driving device or the drive levers are integrated into the transmission mechanisms, wherein each transmission mechanism (2, 34) can drive a heald frame and is driven by the driving device via an associated drive lever (4, 33), and wherein the transmission mechanism (2, 34) and the driving device are coupled by means of a settable connection on the associated drive lever (4, 33), which is set to a specific coupling position, wherein an amplitude of the movement of the associated heald frame is settable by adjusting the coupling position of the settable connection along the drive lever (4, 33), characterized in that at least one indication (22, 23, 27, 28, 46) for a reference coupling position used with a specific weaving configuration and/or a desired setting of the shed is provided on at least one drive lever (4, 33).
A winding shaft for receiving at least one winding core having a shaft body made of fiber-reinforced plastic, preferably CFRP, having at least two bearing points on at least one end of the winding shaft and radially displaceable clamping elements for clamping, holding and releasing the winding cores, characterized in that the winding shaft is designed to hold winding cores having an inside diameter of maximally 80 mm. that clamping elements for the pre-centering of the winding core and clamping elements for clamping the winding core are provided arranged alternately in the circumferential direction, wherein the clamping elements (20, 21) can be moved outwards in the radial direction of the winding shaft, wherein the clamping elements (20, 21) comprise a widened base and are displaceable within openings, wherein the base is displaceable within a widened groove, wherein the widened groove serves as a path limitation, that tubes are provided for the extension of the clamping elements, which tubes are inserted between the widened groove and the surface of the base facing away from the respective clamping element (20, 21), which can be filled with a gas and can be pressurized, wherein all tubes can be supplied with gas from a central pressurized gas pipe, wherein all tubes are connected with a connecting line to the central pressurized gas pipe, and that a throttle device is provided or the clamping elements for the clamping can be subjected to a spring force, in order to delay the movement of the clamping elements for the clamping relative to the movement of the clamping elements for the pre-centering.
A vehicle left-right wheel drive force distribution control apparatus that executes a distributed output of a wheel drive force to left and right subordinate drive wheels in accordance with a left-right subordinate wheel drive force distribution control, the left-right wheel drive force distribution control apparatus comprising: a left-right subordinate wheel drive force difference transient control amount computing means that computes a left-right subordinate wheel drive force difference transient control amount (d Δ TcLR) for the left and right subordinate drive wheels based on a transient turn response request of a driver through a steering wheel operation, characterized in that the left-right subordinate wheel drive force difference transient control amount (d Δ TcLR) computed by said computing means contributes to the left-right subordinate wheel drive force distribution control by being smaller when the steering wheel is being turned away from a center position than when the steering wheel is being returned toward the center position, and the left-right subordinate wheel drive force difference transient control amount is gradually increased as the steering wheel turning speed increases when the steering wheel starts being turned away from the center position and gradually decreased as the steering wheel turning speed increases when the steering wheel starts being returned toward the center position. a left-right subordinate wheel drive force difference transient control amount computing means that computes a left-right subordinate wheel drive force difference transient control amount (d Δ TcLR) for the left and right subordinate drive wheels based on a transient turn response request of a driver through a steering wheel operation, characterized in that the left-right subordinate wheel drive force difference transient control amount (d Δ TcLR) computed by said computing means contributes to the left-right subordinate wheel drive force distribution control by being smaller when the steering wheel is being turned away from a center position than when the steering wheel is being returned toward the center position, and the left-right subordinate wheel drive force difference transient control amount is gradually increased as the steering wheel turning speed increases when the steering wheel starts being turned away from the center position and gradually decreased as the steering wheel turning speed increases when the steering wheel starts being returned toward the center position.
A recognition molecule, which is an antibody, which binds with a first binding domain to a Fcε receptor (FcεR) and with a second binding domain to a Fc gamma receptor IIB (FcγRIIB), wherein the first binding domain comprises at least a portion of an IgE constant region, wherein the second domain comprises at least a portion of a Fab domain, which comprises in its second binding domain the following CDR sequences in its heavy and light chain variable region: (a) SEQ ID NO. 14 (CDR-H1), SEQ ID NO. 15 (CDR-H2), and SEQ ID NO. 16 (CDR-H3) in its heavy chain variable region, and SEQ ID NO. 17 (CDR-L1), SEQ ID NO. 18 (CDR-L2), and SEQ ID NO. 19 (CDR-L3) in its light chain variable region; or (b) SEQ ID NO. 20 (CDR-H1), SEQ ID NO. 21 (CDR-H2), and SEQ ID NO. 22 (CDR-H3) in its heavy chain variable region, and SEQ ID NO. 23 (CDR-L1), SEQ ID NO. 24 (CDR-L2), and SEQ ID NO. 25 (CDR-L3) in its light chain variable region. (a) SEQ ID NO. 14 (CDR-H1), SEQ ID NO. 15 (CDR-H2), and SEQ ID NO. 16 (CDR-H3) in its heavy chain variable region, and SEQ ID NO. 17 (CDR-L1), SEQ ID NO. 18 (CDR-L2), and SEQ ID NO. 19 (CDR-L3) in its light chain variable region; or (b) SEQ ID NO. 20 (CDR-H1), SEQ ID NO. 21 (CDR-H2), and SEQ ID NO. 22 (CDR-H3) in its heavy chain variable region, and SEQ ID NO. 23 (CDR-L1), SEQ ID NO. 24 (CDR-L2), and SEQ ID NO. 25 (CDR-L3) in its light chain variable region.
Apparatus for determining a gear condition of meshing gears in a torque transferring device, which torque transferring device comprises: - at least two meshing gears (14, 15; 22, 23, 24), - a torque meter for monitoring the transferred torque ( τ tr) in the torque transferring device, and - an angular meter arranged to monitor an angular position ( α) of at least one of the meshing gears (14, 15; 22, 23, 24) over at least one angular interval (α int), characterized in that the apparatus comprises a processor that is adapted to: - map the transferred torque ( τ tr) to the monitored angular position (α) and create a representation of the transferred torque ( τ tr) over an angular interval (α int), - combine at least two individual representations of the transferred torque ( τ tr) over at least two monitored angular intervals (α int), each individual representation including at least one transferred torque ( τ tr) over at least one corresponding monitored angular interval (α int); - create a combined representation from the combination of the at least two individual representations; and - analyze said combined representation in order to determine a gear condition of at least one of said at least two meshing gears (14, 15; 22, 23, 24) in the torque transferring device. - at least two meshing gears (14, 15; 22, 23, 24), - a torque meter for monitoring the transferred torque ( τ tr) in the torque transferring device, and - an angular meter arranged to monitor an angular position ( α) of at least one of the meshing gears (14, 15; 22, 23, 24) over at least one angular interval (α int), - map the transferred torque ( τ tr) to the monitored angular position (α) and create a representation of the transferred torque ( τ tr) over an angular interval (α int), - combine at least two individual representations of the transferred torque ( τ tr) over at least two monitored angular intervals (α int), each individual representation including at least one transferred torque ( τ tr) over at least one corresponding monitored angular interval (α int); - create a combined representation from the combination of the at least two individual representations; and - analyze said combined representation in order to determine a gear condition of at least one of said at least two meshing gears (14, 15; 22, 23, 24) in the torque transferring device.