mhurhangee/ep-ind-claims huggingface dataset:
Antibodies or fragments thereof that are directed against a Staphylococcus aureus epitope that is recognized by monoclonal further antibodies which are secreted by the hybridoma cell line deposited at the DSMZ under accession number DSM ACC2987, wherein the epitope comprises at least one amino acid sequence which is identical in at least 13 amino acids with one of the sequences SEQ ID NO: 15, 17 to 19, 21 to 26, 32 to 34 and 57 or wherein each of the antibodies has a heavy chain with a first variable region and a light chain with a second variable region, wherein the first variable region comprises an amino acid sequence that is at least 90% identical with sequence SEQ ID NO: 2 and wherein the second variable region comprises an amino acid sequence that is at least 90% identical with sequence SEQ ID NO: 4.
An axial flow blower comprising: a housing including a suction opening, an ejection opening formed thereon, and an outer cylindrical body forming an air blow passage through which the suction opening and the ejection opening are in communication with each other; a motor case disposed in the air blow passage; a motor housed in the motor case; an air blow fan disposed in the air blow passage and connected with a driven section of the motor, the air blow fan being configured to rotate on a driving force of the motor to blow air from the suction opening toward the ejection opening; and an air communication passage provided between an outside of the air blow passage and an inside of the motor case, wherein there is an outflow hole bored through the motor case and disposed between the air blow fan and the suction opening, the outflow hole being in communication with the air blow passage, whereby an outer space outside the housing is in communication with an inner space inside the motor case through the air communication passage, characterized in that the air communication passage is formed inside a flow directing plate, an outer end portion thereof being connected to an inner circumferential face of the outer cylindrical body and an inner end portion thereof being connected to an outer circumferential face of the motor case at a downstream of the motor. a housing including a suction opening, an ejection opening formed thereon, and an outer cylindrical body forming an air blow passage through which the suction opening and the ejection opening are in communication with each other; a motor case disposed in the air blow passage; a motor housed in the motor case; an air blow fan disposed in the air blow passage and connected with a driven section of the motor, the air blow fan being configured to rotate on a driving force of the motor to blow air from the suction opening toward the ejection opening; and an air communication passage provided between an outside of the air blow passage and an inside of the motor case, wherein there is an outflow hole bored through the motor case and disposed between the air blow fan and the suction opening, the outflow hole being in communication with the air blow passage, whereby an outer space outside the housing is in communication with an inner space inside the motor case through the air communication passage, characterized in that the air communication passage is formed inside a flow directing plate, an outer end portion thereof being connected to an inner circumferential face of the outer cylindrical body and an inner end portion thereof being connected to an outer circumferential face of the motor case at a downstream of the motor.
A method for determining parameters associated with bale charges formed within agricultural balers, the method including transmitting signals through a charge of crop material located within a pre-compression chamber of an agricultural baler or into a wall of the pre-compression chamber; the method being characterized by: the signals being a microwave signals and determining, with one or more computing devices, at least one wave-related property associated with the microwave signals as transmitted through the charge of crop material or into the wall of the pre-compression chamber; and estimating, with the one or more computing devices, a filling degree of at least a portion of the pre-compression chamber based at least in part on the at least one wave-related property associated with the microwave signals. the signals being a microwave signals and determining, with one or more computing devices, at least one wave-related property associated with the microwave signals as transmitted through the charge of crop material or into the wall of the pre-compression chamber; and estimating, with the one or more computing devices, a filling degree of at least a portion of the pre-compression chamber based at least in part on the at least one wave-related property associated with the microwave signals.
An anti-tamper assembly comprising: - a printed circuit board provided with a uniform layer that surrounds one or more electronic component(s), on the printed circuit board, to be protected; and - a container having side walls, a first, closed end and a second, opposing, open end, the container being mounted, at said second open end, onto the uniform layer, over said one or more electronic component(s), to form a sealed cavity around said one or more electronic component(s); - a quantum random source of radioactive particles mounted, or otherwise provided, on an inner surface of the first closed end of said container; - an image sensor, mounted on the printed circuit board, for capturing image frames within said sealed cavity, in use, wherein said image sensor comprises a detector region defining an array of pixels; and - a processor, provided on the printed circuit board, for receiving said captured image frames, monitoring said image frames for changes in the statistical distribution of active pixels and, in the event that statistical distribution of active pixels indicates the presence of a feature in an image frame, generating a tamper alert. - a printed circuit board provided with a uniform layer that surrounds one or more electronic component(s), on the printed circuit board, to be protected; and - a container having side walls, a first, closed end and a second, opposing, open end, the container being mounted, at said second open end, onto the uniform layer, over said one or more electronic component(s), to form a sealed cavity around said one or more electronic component(s); - a quantum random source of radioactive particles mounted, or otherwise provided, on an inner surface of the first closed end of said container; - an image sensor, mounted on the printed circuit board, for capturing image frames within said sealed cavity, in use, wherein said image sensor comprises a detector region defining an array of pixels; and - a processor, provided on the printed circuit board, for receiving said captured image frames, monitoring said image frames for changes in the statistical distribution of active pixels and, in the event that statistical distribution of active pixels indicates the presence of a feature in an image frame, generating a tamper alert.
A method for detecting crystal orientation of a silicon wafer, comprising: a) with a camera shooting device including a light source, photographing said silicon wafer positioned on a platform at different rotation angles, wherein after each photographing, said platform and said camera shooting device make a relative rotation about a main axis of said platform for an angle of α, and photographing is performed again, until images at n rotation angles have been obtained, wherein n = 360/α and n ≥3; b) performing projection transformation and registration on the photographed images; c) for a grain on said silicon wafer, obtaining a pixel brightness on each image at the same position, and arranging the pixel brightness according to an accumulated rotation angle for the time of photographing, so as to obtain a grain reflection curve of said grain; d) within said grain reflection curve, identifying pixel brightness extreme values at three or more different shooting angles; e) determining normal directions of three or more faces of a <111> regular octahedron of a grain based on the determined pixel brightness extreme values; f) calculating all normal directions of said regular octahedron based on the determined normal directions of said three or more faces and in conjunction with a symmetric property of said regular octahedron of said grain; and g) determining a crystal orientation of said grain on said silicon wafer according to the calculated normal vectors of said regular octahedron. a) with a camera shooting device including a light source, photographing said silicon wafer positioned on a platform at different rotation angles, wherein after each photographing, said platform and said camera shooting device make a relative rotation about a main axis of said platform for an angle of α, and photographing is performed again, until images at n rotation angles have been obtained, wherein n = 360/α and n ≥3; b) performing projection transformation and registration on the photographed images; c) for a grain on said silicon wafer, obtaining a pixel brightness on each image at the same position, and arranging the pixel brightness according to an accumulated rotation angle for the time of photographing, so as to obtain a grain reflection curve of said grain; d) within said grain reflection curve, identifying pixel brightness extreme values at three or more different shooting angles; e) determining normal directions of three or more faces of a <111> regular octahedron of a grain based on the determined pixel brightness extreme values; f) calculating all normal directions of said regular octahedron based on the determined normal directions of said three or more faces and in conjunction with a symmetric property of said regular octahedron of said grain; and g) determining a crystal orientation of said grain on said silicon wafer according to the calculated normal vectors of said regular octahedron.
A brush for surfaces, the brush being of static type and comprising a frame provided with a mounting portion for mounting the brush to a self-powered vehicle and a plurality of bristles attached to the frame so that the bristles protrude from the frame on an opposite side to said mounting portion, wherein said plurality of bristles comprises a first group of bristles made from a plastic material and a second group of bristles made from an iron alloy, wherein said first group of bristles forms at least a first bristle barrier and said second group of bristles forms at least a second bristle barrier, characterized in that said first bristle barrier comprises at least a first row of bristles which extends continuously over an entire width of the brush and in that said second bristle barrier comprises at least a second row of bristles which extends continuously over the entire width of the brush.
A method of adjusting a deflected position of a central ray of an x-ray tube to a radiation imager using a tube control unit for each of a plurality of specified deflection positions of a deflection pattern, the method comprising the steps of: for one of the plurality of specified deflection positions of the deflection pattern; emitting a beam of electrons from an emitter in an x-ray tube; deflecting the beam of electrons with a steering magnetic multipole between the emitter and an anode on the x-ray tube according to the one of the plurality of specified deflection positions; generating x-rays with a central ray from the electrons colliding on a focal spot of an anode of the x-ray tube; receiving, at the TCU, a position correction value representing a distance of a deflected central ray from the one of the plurality of specified deflection positions; generating a steering signal from at least one steering driver of the TCU based on the position correction value that is applied to the steering magnetic multipole; moving the focal spot on the anode with the steering magnetic multipole so the deflected central ray aligns with the one of the plurality of specified deflection positions, wherein at least two poles of the steering magnetic multipole are on opposite sides of a path of the electrons; and repeating the steps for each of the other ones of the plurality of specified deflection positions. for one of the plurality of specified deflection positions of the deflection pattern; emitting a beam of electrons from an emitter in an x-ray tube; deflecting the beam of electrons with a steering magnetic multipole between the emitter and an anode on the x-ray tube according to the one of the plurality of specified deflection positions; generating x-rays with a central ray from the electrons colliding on a focal spot of an anode of the x-ray tube; receiving, at the TCU, a position correction value representing a distance of a deflected central ray from the one of the plurality of specified deflection positions; generating a steering signal from at least one steering driver of the TCU based on the position correction value that is applied to the steering magnetic multipole; moving the focal spot on the anode with the steering magnetic multipole so the deflected central ray aligns with the one of the plurality of specified deflection positions, wherein at least two poles of the steering magnetic multipole are on opposite sides of a path of the electrons; and repeating the steps for each of the other ones of the plurality of specified deflection positions.
A binder composition comprising a resin of vegetable origin, an oil of vegetable origin and a polymer, wherein the amount of resin is greater than 20wt%, the amount of oil is greater than 10wt% and the amount of polymer is less than 10wt%, wherein all weight percentages are based upon the weight of the binder, and characterised in that the polymer comprises functional groups chosen from carboxylic acid anhydride groups.
A medical device having a joint arrangement (11; 30; 50) which is designed for a swivelling movement of a first joint part relative to a second joint part, having a first joint part, which comprises two joint limbs (15, 16) arranged spaced apart from one another, and a joint pin (32; 52), which extends between the joint limbs (15, 16) along a longitudinal axis (38; 55) and which determines a pivot axis (38; 55) of the joint arrangement (11; 30; 50), and having a second joint part which is received in regions between the two joint limbs (15, 16) and which is penetrated by a joint recess (31; 51), wherein the joint pin (32; 52) is received in a pivotally movable manner in the joint recess (31; 51), wherein the joint pin (32; 52) and the joint recess (31; 51) have a central contact region (33; 56) with a touching contact between joint pin (32; 52) and the joint recess (31; 51) and clearance regions (36, 37; 57, 58) which adjoin on both sides of the contact region (33; 56) and extend up to the joint limbs (15, 16), at least partially within the joint recess (31; 51) and without touching contact between joint pin (32; 52) and joint recess (31; 51), in order to ensure an exclusively central force transmission between the joint pin (32; 52) and the joint recess (31; 51).
A method, comprising: an access node (140; 120; 105) allocating a fixed length identifier to an access terminal on initial entry of the access terminal to a network, wherein the access terminal is identified by one of a plurality of mode-dependent identifiers having different lengths in communication over an air interface between the access terminal and the network, said one mode-dependent identifier being selected based on an operational mode of the access terminal; the access node mapping the one of the plurality of mode-dependent identifiers to the fixed length identifier to identify the access terminal in at least one uplink message transmitted within the network; the access node mapping the fixed length identifier to the one of the plurality of mode-dependent identifiers to identify the access terminal in at least one downlink message transmitted over the air interface to the access terminal; and the access node (140; 120; 105) providing the fixed length identifier to at least one entity in the network.
A method to control an internal combustion engine provided with an exhaust system for the exhaust gases of a motor vehicle having an exhaust duct and an exhaust gas after-treatment system comprising at least one catalytic converter (15, 17) arranged along the exhaust duct; and an oxygen sensor (18, 18*), preferably a linear one, which is housed along the exhaust duct and is arranged upstream of said at least one catalytic converter (15, 17) in order to detect the air/fuel ratio of the exhaust gases providing an output that indicates the content of oxygen in the exhaust gases; and a burner, which is suited to introduce exhaust gases into the exhaust duct upstream of the oxygen sensor (18, 18*) so as to speed up the heating of said at least one catalytic converter (15, 17), wherein inside the burner there is defined a combustion chamber, which receives fresh air through an air feeding device, which is provided with a pumping device feeding air, and fuel from an injector, which is designed to inject fuel into the combustion chamber, and a spark plug coupled to the burner so as to ignite the mixture present inside the combustion chamber; the method comprises the following steps: a) identifying operation phases in which the internal combustion engine is turned off and the burner is turned on, so that the oxygen sensor (18, 18*) is exclusively hit by the exhaust gases produced by the burner; b) acquiring the signal generated by the oxygen sensor (18, 18*); and c) using the signal generated by the oxygen sensor (18, 18*) in order to control the objective air flow rate (ṁ A_OBJ) and determine the objective fuel flow rate (ṁ F_OBJ) to be fed to the burner. a) identifying operation phases in which the internal combustion engine is turned off and the burner is turned on, so that the oxygen sensor (18, 18*) is exclusively hit by the exhaust gases produced by the burner; b) acquiring the signal generated by the oxygen sensor (18, 18*); and c) using the signal generated by the oxygen sensor (18, 18*) in order to control the objective air flow rate (ṁ A_OBJ) and determine the objective fuel flow rate (ṁ F_OBJ) to be fed to the burner.
A method for High Power User Equipment, HPUE, power class adaptation for coverage extension in Long Term Evolution, LTE, the method comprising: setting, by the HPUE, a variable maximum transmit power to a predefined level that is below a maximum capability of the HPUE; transmitting, by the HPUE, at an operating transmit power at or below the variable maximum transmit power as a function of operating conditions detected by the HPUE, and reporting, by the HPUE to a serving evolved node B, eNB, a first power headroom as a function of the variable maximum transmit power; responsive to determining by the HPUE, as a function of operating conditions detected by the HPUE, that an increase in HPUE wireless transmit range is required, raising, by the HPUE, the variable maximum transmit power towards or to the maximum capability of the HPUE; transmitting, by the HPUE, at an operating transmit power at or below the raised variable maximum transmit power as a function of the detected operating conditions and reporting, by the HPUE to the serving eNB, a second power headroom as a function of the raised variable maximum transmit power. setting, by the HPUE, a variable maximum transmit power to a predefined level that is below a maximum capability of the HPUE; transmitting, by the HPUE, at an operating transmit power at or below the variable maximum transmit power as a function of operating conditions detected by the HPUE, and reporting, by the HPUE to a serving evolved node B, eNB, a first power headroom as a function of the variable maximum transmit power; responsive to determining by the HPUE, as a function of operating conditions detected by the HPUE, that an increase in HPUE wireless transmit range is required, raising, by the HPUE, the variable maximum transmit power towards or to the maximum capability of the HPUE; transmitting, by the HPUE, at an operating transmit power at or below the raised variable maximum transmit power as a function of the detected operating conditions and reporting, by the HPUE to the serving eNB, a second power headroom as a function of the raised variable maximum transmit power.
A fault processing method, wherein the method comprises: receiving, by a fault processing apparatus, first hardware fault information generated by a first peripheral component interconnect express,PCIe, device on a first high-speed serial computer expansion bus standard PCIe link, wherein the first hardware fault information is used to indicate that a hardware fault occurs on the first PCIe device, and the first hardware fault information comprises a device identifier of the first PCIe device; and performing, by the fault processing apparatus based on the first hardware fault information, fault recovery on the first PCIe link on which the first PCIe device is located, and interrupting a software service related to the first PCIe device, wherein after the performing, by the fault processing apparatus based on the first hardware fault information, fault recovery on the first PCIe link on which the first PCIe device is located, and interrupting a software service related to the first PCIe device, the method further comprises: obtaining, by the fault processing apparatus, hardware fault recovery success information that carries the device identifier of the first PCIe device; and recovering, by the fault processing apparatus, the software service related to the first PCIe device based on the fault recovery success information. receiving, by a fault processing apparatus, first hardware fault information generated by a first peripheral component interconnect express,PCIe, device on a first high-speed serial computer expansion bus standard PCIe link, wherein the first hardware fault information is used to indicate that a hardware fault occurs on the first PCIe device, and the first hardware fault information comprises a device identifier of the first PCIe device; and performing, by the fault processing apparatus based on the first hardware fault information, fault recovery on the first PCIe link on which the first PCIe device is located, and interrupting a software service related to the first PCIe device, wherein after the performing, by the fault processing apparatus based on the first hardware fault information, fault recovery on the first PCIe link on which the first PCIe device is located, and interrupting a software service related to the first PCIe device, the method further comprises: obtaining, by the fault processing apparatus, hardware fault recovery success information that carries the device identifier of the first PCIe device; and recovering, by the fault processing apparatus, the software service related to the first PCIe device based on the fault recovery success information. obtaining, by the fault processing apparatus, hardware fault recovery success information that carries the device identifier of the first PCIe device; and recovering, by the fault processing apparatus, the software service related to the first PCIe device based on the fault recovery success information.