mhurhangee/ep-ind-claims huggingface dataset:
A method for dividing a composite material in which a brittle material layer and a resin layer are laminated, the method being characterised by: a resin removing step of forming a processed groove along a scheduled dividing line of the composite material by radiating a laser light oscillated from a laser source to the resin layer along the scheduled dividing line and thereby removing the resin forming the resin layer; a brittle material removing step of forming a processing mark along the scheduled dividing line by radiating a laser light oscillated from an ultrashort pulse laser source to the brittle material layer along the scheduled dividing line and thereby removing the brittle material forming the brittle material layer, after the resin removing step; and a composite material dividing step of dividing the composite material by applying an external force along the scheduled dividing line, after the brittle material removing step, wherein the processing mark formed in the brittle material removing step is perforated through holes along the scheduled dividing line, and a pitch of the through holes is 10 μm or less. a resin removing step of forming a processed groove along a scheduled dividing line of the composite material by radiating a laser light oscillated from a laser source to the resin layer along the scheduled dividing line and thereby removing the resin forming the resin layer; a brittle material removing step of forming a processing mark along the scheduled dividing line by radiating a laser light oscillated from an ultrashort pulse laser source to the brittle material layer along the scheduled dividing line and thereby removing the brittle material forming the brittle material layer, after the resin removing step; and a composite material dividing step of dividing the composite material by applying an external force along the scheduled dividing line, after the brittle material removing step, wherein the processing mark formed in the brittle material removing step is perforated through holes along the scheduled dividing line, and a pitch of the through holes is 10 μm or less.
An automatic traveling method comprising: Causing (S12, S22) a work vehicle to automatically travel along a target route set within a field; Detecting (S13, S23) an obstacle located on an outer periphery of the field, while the work vehicle is traveling along the target route in an outer peripheral area (Fb) of the field; and in a case where the obstacle is an object to be avoided, causing (S15, S25) the work vehicle to travel along an avoidance route that is located more inside the field than the target route, characterized in the method further comprising: in a case where an operator boards the work vehicle, determining that the obstacle is the object to be avoided in a case where a distance between the work vehicle and the obstacle becomes equal to or less than a first set distance, and in a case where an operator does not board the work vehicle, determining that the obstacle is the object to be avoided in a case where the distance between the work vehicle and the obstacle becomes equal to or less than a second set distance being greater than the first set distance. Causing (S12, S22) a work vehicle to automatically travel along a target route set within a field; Detecting (S13, S23) an obstacle located on an outer periphery of the field, while the work vehicle is traveling along the target route in an outer peripheral area (Fb) of the field; and in a case where the obstacle is an object to be avoided, causing (S15, S25) the work vehicle to travel along an avoidance route that is located more inside the field than the target route, characterized in the method further comprising: in a case where an operator boards the work vehicle, determining that the obstacle is the object to be avoided in a case where a distance between the work vehicle and the obstacle becomes equal to or less than a first set distance, and in a case where an operator does not board the work vehicle, determining that the obstacle is the object to be avoided in a case where the distance between the work vehicle and the obstacle becomes equal to or less than a second set distance being greater than the first set distance. in a case where an operator boards the work vehicle, determining that the obstacle is the object to be avoided in a case where a distance between the work vehicle and the obstacle becomes equal to or less than a first set distance, and in a case where an operator does not board the work vehicle, determining that the obstacle is the object to be avoided in a case where the distance between the work vehicle and the obstacle becomes equal to or less than a second set distance being greater than the first set distance.
An apparatus for generating a vector of digital signal samples, the apparatus comprising: means for mapping received data symbols to a discrete signal of complex data symbols, means for receiving (52, 102, 82) the discrete signal of complex data symbols, calculate frequency responses (A 1,...A M) corresponding to tones (f,... f), through an M-point DFT, and output a vector [A 1,...A M] of length M, means for expanding (56, 106, 86) the vector [A 1,...A M] to a new vector of length N, and insert zero-value symbols corresponding to tones other than tones allocated to a transmitter, means for performing (58, 108, 88) an N-point inverse discrete Fourier transform operation on the new vector after zero insertion to obtain the vector of digital signal samples, means for pre-pending a cyclic prefix to the vector of the digital signal samples, and means for generating an OFDM-based signal using the vector of digital signal samples with the pre-pended cyclic prefix for transmission. means for mapping received data symbols to a discrete signal of complex data symbols, means for receiving (52, 102, 82) the discrete signal of complex data symbols, calculate frequency responses (A 1,...A M) corresponding to tones (f,... f), through an M-point DFT, and output a vector [A 1,...A M] of length M, means for expanding (56, 106, 86) the vector [A 1,...A M] to a new vector of length N, and insert zero-value symbols corresponding to tones other than tones allocated to a transmitter, means for performing (58, 108, 88) an N-point inverse discrete Fourier transform operation on the new vector after zero insertion to obtain the vector of digital signal samples, means for pre-pending a cyclic prefix to the vector of the digital signal samples, and means for generating an OFDM-based signal using the vector of digital signal samples with the pre-pended cyclic prefix for transmission.
An endoscope apparatus, comprising: an illumination section which alternately irradiates a subject with special light and reference light for a predetermined blanking period, a CMOS image pickup device (22b, 23b) which includes a plurality of lines of pixels that receive light from the subject which is irradiated with the special light from the illumination section for the predetermined blanking period and generates an image pickup signal, sequentially reads the image pickup signal from the lines of pixels, during a reading period, and, after a subsequent exposure of all of the pixels with reference light for the predetermined blanking period sequentially reads the image pickup signal from the plurality of lines of pixels during a further reading period; a frame rate selection switch which sets a first frame rate and a second frame rate higher than the first frame rate of the CMOS image pickup device (22b, 23b); and an image pickup device driver which, when the second frame rate is set by the frame rate selection switch, performs reading pixel thinning-out to shorten the reading periods of the image pickup signal by selecting and reading predetermined pixels from selected lines of the plurality of pixels to be read from the CMOS image pickup device (22b, 23b) during the reading period, characterized in that the image pickup device driver, when the second frame rate is set by the frame rate selection switch, sets the predetermined blanking period that is the same as for the first frame rate, without shortening the predetermined blanking period. an illumination section which alternately irradiates a subject with special light and reference light for a predetermined blanking period, a CMOS image pickup device (22b, 23b) which includes a plurality of lines of pixels that receive light from the subject which is irradiated with the special light from the illumination section for the predetermined blanking period and generates an image pickup signal, sequentially reads the image pickup signal from the lines of pixels, during a reading period, and, after a subsequent exposure of all of the pixels with reference light for the predetermined blanking period sequentially reads the image pickup signal from the plurality of lines of pixels during a further reading period; a frame rate selection switch which sets a first frame rate and a second frame rate higher than the first frame rate of the CMOS image pickup device (22b, 23b); and an image pickup device driver which, when the second frame rate is set by the frame rate selection switch, performs reading pixel thinning-out to shorten the reading periods of the image pickup signal by selecting and reading predetermined pixels from selected lines of the plurality of pixels to be read from the CMOS image pickup device (22b, 23b) during the reading period,
Method for controlling a power train for a motor vehicle, the said power train being equipped with an engine, with a turbocharger supplying at outlet an intake air fed to the engine, and with an engine gearbox, the said method comprising the following steps: - detecting a change in gearbox ratio, - evaluating the load on the engine at the detected gear change, - adjusting the operation of the engine through a step of modifying the intake-air pressure (E3-1) involving a step of diverting at least some of the intake air through a first valve, notably a pop-off valve and/or through a step of modifying the action of the exhaust gases leaving the engine on the turbocharger, the step of adjusting the operation of the engine being performed if a condition associated with the evaluated load is satisfied, the said condition being satisfied if a measured engine torque is above a torque threshold corresponding to a torque resulting from a level of boost pressure that causes a compressor surge phenomenon, the said method being iterative and performed on each gearbox gear change from a lower ratio to a higher ratio. - detecting a change in gearbox ratio, - evaluating the load on the engine at the detected gear change, - adjusting the operation of the engine through a step of modifying the intake-air pressure (E3-1) involving a step of diverting at least some of the intake air through a first valve, notably a pop-off valve and/or through a step of modifying the action of the exhaust gases leaving the engine on the turbocharger, the step of adjusting the operation of the engine being performed if a condition associated with the evaluated load is satisfied, the said condition being satisfied if a measured engine torque is above a torque threshold corresponding to a torque resulting from a level of boost pressure that causes a compressor surge phenomenon,
Lifting platform for motor vehicles, having four supporting arms (3, 4, 5, 6) which are pivotably mounted on a lifting device (1, 2) and the free ends of which are movable under support points of a motor vehicle to be lifted, wherein the supporting arms (3, 4, 5, 6) form a first, in particular front, and a second, in particular rear, pair of supporting arms, wherein at least the supporting arms (3, 4) of the first pair of supporting arms are adjustable in length and are designed as rigid supporting arms which are pivotable solely about their articulation points (3a, 4a) on the lifting device (1, 2), while the supporting arms (5, 6) of the second pair of supporting arms are designed as double-jointed arms having an additional articulated joint (51, 61), characterised in that the supporting arms (5, 6) of the second pair of supporting arms are at least twice as long as the supporting arms (3, 4) of the first pair of supporting arms in the retracted state, and the articulated joints (51, 61) are configured such that, for positioning under the support points of a motor vehicle to be lifted, the supporting arms (5, 6) of the second pair of supporting arms, starting from a maximally extended position of the relevant supporting arm, can be bent horizontally in both directions.
Method for operating an energy supply device for at least one motor vehicle (2, 3), wherein at least temporarily electric power from a power source is provided at a power connection of the energy supply device and at least temporarily hydrogen from a hydrogen store is provided at a hydrogen connection of the energy supply device for transfer to the at least one motor vehicle (2, 3), wherein the hydrogen is obtained by electrolysis from water using electric power from the power source, wherein the power source comprises a thermal energy store for temporarily storing thermal energy characterised in that the thermal energy is stored in the energy store by means of a heat transfer medium which is in a liquid state throughout, wherein the thermal energy temporarily stored in the thermal energy store is used at least temporarily to provide the electric power, which is used at least temporarily to carry out the electrolysis, wherein the hydrogen being withdrawn via the hydrogen connection is provided from the hydrogen store, the filling level of which is regulated during the withdrawal to a desired filling level by hydrogen obtained by the electrolysis being fed to the hydrogen store.
A system for treating a respiratory disorder in a patient, the system comprising a patient interface, a pressure generator configured to generate, for treating the respiratory disorder, a downstream air flow having a flow rate and a pressure, and an air path in fluid communication with an air outlet of the pressure generator and an air inlet of the patient interface, the system comprising a flow rate sensor for measuring the gas flow rate of the flow of breathable gas being directed to the patient interface, said flow rate sensor comprising: first and second acoustic generators (8500, 8500a, 8500b, 8600), the first and second acoustic generators (8500, 8500a, 8500b, 8600) separated by a distance along the air path to the patient interface, the first and second acoustic generators (8500, 8500a, 8500b, 8600) configured to sample the flow of breathable gas within the air path; wherein the first and second acoustic generators (8500, 8500a, 8500b, 8600) are configured to generate acoustic signals that produce a detectable beat frequency representative of the flow rate or the pressure of the air path. first and second acoustic generators (8500, 8500a, 8500b, 8600), the first and second acoustic generators (8500, 8500a, 8500b, 8600) separated by a distance along the air path to the patient interface, the first and second acoustic generators (8500, 8500a, 8500b, 8600) configured to sample the flow of breathable gas within the air path; wherein the first and second acoustic generators (8500, 8500a, 8500b, 8600) are configured to generate acoustic signals that produce a detectable beat frequency representative of the flow rate or the pressure of the air path.
An anthelmintic compound of formula (IA-1): wherein one of Y and Z is benzothiazolyl or benzoxazolyl optionally substituted with one or more halogen, C 1 -C 3 haloalkyl, C 1 -C 3 haloalkoxy, C 1 -C 3 alkylthio or C 1 -C 3 haloalkylthio; and the other of Y and Z is phenyl optionally substituted with one or more CN, halogen, C 1 -C 3 alkyl, C 1 -C 3 haloalkyl, C 1 -C 3 alkoxy, C 1 -C 3 haloalkoxy, C 1 -C 3 alkylthio or C 1 -C 3 haloalkylthio; X 1 is a bond, -NH- or -NMe-; X 6 is -O-, -NH- which may optionally be substituted by alkyl or haloalkyl; -S-, -S - or -S 2 -; X 8 is a bond, -NH-, -NMe-, >N(CH 2) 2 NEt 2, >NCO 2 Et or >NCO(CH 2) 2 CO 2 H; one of Ring A and Ring B is L19, L20 or L21: and the other of Ring A and Ring B is trans-cyclohexylene, L1 or L4: W is O or S; R 2 and R 3 are independently hydrogen, halogen, cyano, alkyl, haloalkyl or carbocyclyl; and n is 0, 1, 2 or 3. one of Y and Z is benzothiazolyl or benzoxazolyl optionally substituted with one or more halogen, C 1 -C 3 haloalkyl, C 1 -C 3 haloalkoxy, C 1 -C 3 alkylthio or C 1 -C 3 haloalkylthio; and the other of Y and Z is phenyl optionally substituted with one or more CN, halogen, C 1 -C 3 alkyl, C 1 -C 3 haloalkyl, C 1 -C 3 alkoxy, C 1 -C 3 haloalkoxy, C 1 -C 3 alkylthio or C 1 -C 3 haloalkylthio; X 1 is a bond, -NH- or -NMe-; X 6 is -O-, -NH- which may optionally be substituted by alkyl or haloalkyl; -S-, -S - or -S 2 -; X 8 is a bond, -NH-, -NMe-, >N(CH 2) 2 NEt 2, >NCO 2 Et or >NCO(CH 2) 2 CO 2 H; one of Ring A and Ring B is L19, L20 or L21: and the other of Ring A and Ring B is trans-cyclohexylene, L1 or L4: W is O or S; R 2 and R 3 are independently hydrogen, halogen, cyano, alkyl, haloalkyl or carbocyclyl; and n is 0, 1, 2 or 3.
Cord comprising a multifilament para-aramid yarn comprising filaments, wherein the filaments have a non-round cross section having a smaller and a larger dimension, where the cross-sectional aspect ratio between the larger and the smaller dimension is 1.5-10 and the smaller dimension of the cross section has a maximum of 50 μm and wherein the para-aramid has at least 90% para bonds between the aromatic moieties and wherein the cord has a linear density of at least 25 dtex.
A subset-difference method using a plurality of difference keys to encrypt a content key, each of the plurality of difference keys being generated by using a corresponding label, the method comprising: generating during a first rekeying each of the plurality of difference keys L I,J by applying a one-way function G M to the corresponding label, LABEL I,J, and a current content key, CK P; generating during a next rekeying each of the plurality of difference keys L I,J by applying a one-way function G M to the corresponding label, LABEL I,J, and the next current content key, CK P + 1; and wherein the next sequential content key, CK P + 2, generated by applying a one-way function G M to the corresponding label, LABEL I,J, and content key, CK P + 1, is used to ensure continued delivery of contents. generating during a first rekeying each of the plurality of difference keys L I,J by applying a one-way function G M to the corresponding label, LABEL I,J, and a current content key, CK P; generating during a next rekeying each of the plurality of difference keys L I,J by applying a one-way function G M to the corresponding label, LABEL I,J, and the next current content key, CK P + 1; and wherein the next sequential content key, CK P + 2, generated by applying a one-way function G M to the corresponding label, LABEL I,J, and content key, CK P + 1, is used to ensure continued delivery of contents.
A method, performed at a network device, comprising: receiving, from a communication device, a list of security algorithms utilized by the communication device; determining, by a processor of the network device, whether a security algorithm in the received list of security algorithms is identified as a weak security algorithm; and enabling, based on said determining, provision of a message to the communication device instructing the communication device to remove, disable, or assign at least one condition to the identified weak security algorithm. receiving, from a communication device, a list of security algorithms utilized by the communication device; determining, by a processor of the network device, whether a security algorithm in the received list of security algorithms is identified as a weak security algorithm; and enabling, based on said determining, provision of a message to the communication device instructing the communication device to remove, disable, or assign at least one condition to the identified weak security algorithm.
A fully automated system for processing a component of interest contained in at least one sample, comprising: a separation station comprising an extraction device, adapted to receive and extract the component of interest from said sample when the sample is disposed in a tube; an amplification incubation station comprising a heater and a plate seal gripper tool, the amplification station adapted to receive an amplification plate comprising a plurality of wells; a detection station, adapted to detect for the presence of said component of interest extracted by said extraction device, the detection station adapted to receive the amplification plate from the amplification station; and a robot with an attached pipetting apparatus using disposable pipette tips, adapted to automatically transfer said sample into the tube in the extraction device and automatically transfer the extracted component of interest from said extraction device to the amplification station and automatically pick up a plate seal gripper tool and seal the amplification plate using said plate seal gripper tool and automatically transfer the sealed amplification plate (540, 530) from the amplification station to the detection station, wherein the robot is a selectively compliant articulated robot arm (SCARA) wherein the SCARA is further adapted to transfer fluid to and remove fluid from the extraction device to assist the extraction device in extracting the component of interest. a separation station comprising an extraction device, adapted to receive and extract the component of interest from said sample when the sample is disposed in a tube; an amplification incubation station comprising a heater and a plate seal gripper tool, the amplification station adapted to receive an amplification plate comprising a plurality of wells; a detection station, adapted to detect for the presence of said component of interest extracted by said extraction device, the detection station adapted to receive the amplification plate from the amplification station; and a robot with an attached pipetting apparatus using disposable pipette tips, adapted to automatically transfer said sample into the tube in the extraction device and automatically transfer the extracted component of interest from said extraction device to the amplification station and automatically pick up a plate seal gripper tool and seal the amplification plate using said plate seal gripper tool and automatically transfer the sealed amplification plate (540, 530) from the amplification station to the detection station, wherein the robot is a selectively compliant articulated robot arm (SCARA) wherein the SCARA is further adapted to transfer fluid to and remove fluid from the extraction device to assist the extraction device in extracting the component of interest.
A resonator, comprising a housing and a cover, wherein an accommodating cavity is disposed in the housing, a resonant rod, a dielectric block, and an elastic element are disposed in the accommodating cavity, and the cover is assembled on the housing; the resonant rod is in a tubular shape and comprises an inner side face, an outer side face, and a first end face that is connected between the inner side face and the outer side face; the dielectric block comprises a bottom end and a top end, the top end is connected to the cover, a second end face and a boss that protrudes from the second end face are disposed at the bottom end, and the boss is in an annular shape; the first end face is opposite to the second end face; the boss fits around the outside of the resonant rod and surrounds the outer side face; and the elastic element is connected between the first end face and the second end face, wherein the elastic element fits around a top of the resonant rod, and the boss fits around the outside of the elastic element, and the elastic element is electrically conductive.