mhurhangee/ep-ind-claims huggingface dataset:
Method for the evaluation of signals of a LED status display of a device, for which the matter is of a safety device that is part of a safety system, with the steps: - detection of a signal emitted by the LED status display by means of a camera of a portable evaluation device, - comparison of the detected signal with signals stored in a database, whereby a status is respectively associated to the signals stored in the database and identification of a stored signal that corresponds to the detected signal and - display of information about the status that is associated to the identified stored signal by means of a display device of the portable evaluation device, characterized in that the emitted signal is emitted in the form as emitted by the LED status display, cannot be distinguished or not univocally distinguished by the human eye from other signals that can be emitted by the LED status display. - detection of a signal emitted by the LED status display by means of a camera of a portable evaluation device, - comparison of the detected signal with signals stored in a database, whereby a status is respectively associated to the signals stored in the database and identification of a stored signal that corresponds to the detected signal and - display of information about the status that is associated to the identified stored signal by means of a display device of the portable evaluation device,
An apparatus comprising: (a) a first electrical network for creating a first electric field between electrodes in a first pair of electrodes (121, 122); and (b) a second electrical network for creating a second electric field between electrodes in a second pair of electrodes (123, 124), wherein the first and second pairs of electrodes (121,122, 123, 124) are configured to be electrically connected to a brain such that the first and second electric fields constructively and destructively interfere with each other to create an amplitude-modulated waveform, and such that the envelope amplitude of the amplitude-modulated waveform in a target tissue region of the brain exceeds a threshold, wherein the first pair of electrodes (121, 122) or the second pair of electrodes (123, 124) are configured to produce a region of maximum interference that does not overlap with a region of the largest envelope amplitude. (a) a first electrical network for creating a first electric field between electrodes in a first pair of electrodes (121, 122); and (b) a second electrical network for creating a second electric field between electrodes in a second pair of electrodes (123, 124), wherein the first and second pairs of electrodes (121,122, 123, 124) are configured to be electrically connected to a brain such that the first and second electric fields constructively and destructively interfere with each other to create an amplitude-modulated waveform, and such that the envelope amplitude of the amplitude-modulated waveform in a target tissue region of the brain exceeds a threshold, wherein the first pair of electrodes (121, 122) or the second pair of electrodes (123, 124) are configured to produce a region of maximum interference that does not overlap with a region of the largest envelope amplitude.
A cysteine engineered anti-CD79b antibody comprising one or more free cysteine amino acids wherein said antibody comprises the sequence VTVSSCSTKGP including a free cysteine residue at position 114 of the heavy chain or the sequence GLSSPCTKSFN including a free cysteine residue at position 205 of the light chain, wherein the numbering is according to Kabat numbering convention and wherein said anti-CD79b antibody comprises: a. a heavy chain variable domain comprising the HVR1-H1, HVR-H2 and HVR-H3 of SEQ ID NO: 202-204 and a light chain variable domain comprising the HVR-L1, HVR-L2 and HVR-L3 of SEQ ID NO: 194-196; or b. a heavy chain variable domain comprising the HVR1-H1, HVR-H2 and HVR-H3 of SEQ ID NO: 164-166 and a light chain variable domain comprising the HVR-L1, HVR-L2 and HVR-L3 of SEQ ID NO: 156-158; or c. a heavy chain variable domain comprising the HVR1-H1, HVR-H2 and HVR-H3 of SEQ ID NO: 183-185 and a light chain variable domain comprising the HVR-L1, HVR-L2 and HVR-L3 of SEQ ID NO: 175-177; or d. a heavy chain variable domain comprising the HVR1-H1, HVR-H2 and HVR-H3 of SEQ ID NO: 221-223 and a light chain variable domain comprising the HVR-L1, HVR-L2 and HVR-L3 of SEQ ID NO: 213-215. a. a heavy chain variable domain comprising the HVR1-H1, HVR-H2 and HVR-H3 of SEQ ID NO: 202-204 and a light chain variable domain comprising the HVR-L1, HVR-L2 and HVR-L3 of SEQ ID NO: 194-196; or b. a heavy chain variable domain comprising the HVR1-H1, HVR-H2 and HVR-H3 of SEQ ID NO: 164-166 and a light chain variable domain comprising the HVR-L1, HVR-L2 and HVR-L3 of SEQ ID NO: 156-158; or c. a heavy chain variable domain comprising the HVR1-H1, HVR-H2 and HVR-H3 of SEQ ID NO: 183-185 and a light chain variable domain comprising the HVR-L1, HVR-L2 and HVR-L3 of SEQ ID NO: 175-177; or d. a heavy chain variable domain comprising the HVR1-H1, HVR-H2 and HVR-H3 of SEQ ID NO: 221-223 and a light chain variable domain comprising the HVR-L1, HVR-L2 and HVR-L3 of SEQ ID NO: 213-215.
A transmitter, wherein the transmitter is configured to transmit signals each comprising one pilot sequence comprising several pilot sequence symbols, wherein the transmitter comprises a signal generator, wherein the signal generator is configured to provide the pilot sequence based on a base sequence comprising several base sequence symbols, wherein the signal generator provides the pilot sequence with L pilot sequence symbols by repeating each base sequence symbol R-1 times in succession so that each base sequence symbol is present R times, wherein L is a natural number, and wherein R is a natural number greater than or equal to two and is a divisor of L, wherein the base sequence is configured such that a correlation of the pilot sequence with a transmission signal formed from the pilot sequence comprises a main maximum which is as narrow as possible and/or secondary maximums which are as small as possible, characterized in that the pilot sequence comprises eight or twelve pilot sequence symbols, wherein, in case the pilot sequence comprises eight pilot sequence symbols, the base sequence comprises one of the following forms: 0010 or 1101 or 0100 or 1011, and wherein the zeros and ones are each the binary base sequence bits; wherein, in case the pilot sequence comprises twelve pilot sequence symbols, the base sequence comprises one of the following forms or forms obtained therefrom by reversing the bit order: 000101, 001011, 001101, 010001, 111010, 110100, 110010 or 101110, and wherein the zeros and ones are each the binary base sequence bits.
A method for reconfiguring a receiver in a wireless device, the method comprising: by the wireless device: transmitting a first data frame comprising first configuration information specifying a first configuration of the receiver; receiving a first acknowledgement frame according to a second configuration of the receiver, the first acknowledgement frame confirming the first configuration information; configuring the receiver according to the first configuration in response to the receiving the first acknowledgement frame; and receiving a second data frame according to the first configuration, after configuring the receiver according to the first configuration. by the wireless device: transmitting a first data frame comprising first configuration information specifying a first configuration of the receiver; receiving a first acknowledgement frame according to a second configuration of the receiver, the first acknowledgement frame confirming the first configuration information; configuring the receiver according to the first configuration in response to the receiving the first acknowledgement frame; and receiving a second data frame according to the first configuration, after configuring the receiver according to the first configuration. transmitting a first data frame comprising first configuration information specifying a first configuration of the receiver; receiving a first acknowledgement frame according to a second configuration of the receiver, the first acknowledgement frame confirming the first configuration information; configuring the receiver according to the first configuration in response to the receiving the first acknowledgement frame; and receiving a second data frame according to the first configuration, after configuring the receiver according to the first configuration.
An aircraft propulsion system comprising: a propulsion motor; wiring configured to carry electrical power for the propulsion motor; and characterised in that the propulsion system further comprises an electromagnetic shielding arrangement which provides an enclosure around the wiring and is configured to block electromagnetic emissions from the wiring, the electromagnetic shielding arrangement comprising: a first shield; a second shield which can move relative to the first shield; and a gap between the first shield and the second shield, wherein the gap is configured to enable air to flow into or out of the enclosure via the gap, wherein the gap is configured to enable air to flow into the enclosure via the gap and into contact with the wiring, thereby cooling the wiring. a first shield; a second shield which can move relative to the first shield; and a gap between the first shield and the second shield, wherein the gap is configured to enable air to flow into or out of the enclosure via the gap, wherein the gap is configured to enable air to flow into the enclosure via the gap and into contact with the wiring, thereby cooling the wiring.
An insert holder, for retaining a tangential cutting insert, the insert holder comprising: a holder front surface; and an insert pocket comprising: a rear surface; a bottom surface; and a base surface comprising an insert fastening hole and three spaced apart base abutment protuberances, including a first, a second and a third base abutment protuberance (52, 54, 56), wherein: the first and second base abutment protuberances (52, 54) are located between the holder front surface and the insert fastening hole; the third base abutment protuberance is located between the insert fastening hole and the rear surface of the insert pocket; the second base abutment protuberance is further from the bottom surface than the third base abutment protuberance; the third base abutment protuberance is further from the bottom surface than the first base abutment protuberance; the first, second and third base abutment protuberances (52, 54, 56) comprise first, second and third base abutment surfaces (60, 62, 64), respectively; and the first, second and third base abutment surfaces (60, 62, 64) are flat and coplanar; characterized in that the first and second base abutment protuberances (52, 54) are aligned along a line perpendicular to the bottom surface; and the third base abutment protuberance is substantially the same distance from the bottom surface as the insert fastening hole. a holder front surface; and an insert pocket comprising: a rear surface; a bottom surface; and a base surface comprising an insert fastening hole and three spaced apart base abutment protuberances, including a first, a second and a third base abutment protuberance (52, 54, 56), wherein: a rear surface; a bottom surface; and a base surface comprising an insert fastening hole and three spaced apart base abutment protuberances, including a first, a second and a third base abutment protuberance (52, 54, 56), wherein: the first and second base abutment protuberances (52, 54) are located between the holder front surface and the insert fastening hole; the third base abutment protuberance is located between the insert fastening hole and the rear surface of the insert pocket; the second base abutment protuberance is further from the bottom surface than the third base abutment protuberance; the third base abutment protuberance is further from the bottom surface than the first base abutment protuberance; the first, second and third base abutment protuberances (52, 54, 56) comprise first, second and third base abutment surfaces (60, 62, 64), respectively; and the first, second and third base abutment surfaces (60, 62, 64) are flat and coplanar; characterized in that the first and second base abutment protuberances (52, 54) are aligned along a line perpendicular to the bottom surface; and the third base abutment protuberance is substantially the same distance from the bottom surface as the insert fastening hole. the first and second base abutment protuberances (52, 54) are aligned along a line perpendicular to the bottom surface; and the third base abutment protuberance is substantially the same distance from the bottom surface as the insert fastening hole.
A system for quality monitoring of additive manufacturing, comprising: an acoustic emission sensor configured to be attachable to an additive manufacturing substrate and to output a sensor signal indicative of acoustic vibrations received at the AE sensor; and an AE module configured to: receive the sensor signal from the AE sensor; and process the sensor signal to determine at least one characteristic of an additive manufacturing process; wherein the at least one characteristic of the additive manufacturing process includes an amount and/or a quality of at least one of a powder supply or an injection gas supply. an acoustic emission sensor configured to be attachable to an additive manufacturing substrate and to output a sensor signal indicative of acoustic vibrations received at the AE sensor; and an AE module configured to: receive the sensor signal from the AE sensor; and process the sensor signal to determine at least one characteristic of an additive manufacturing process; receive the sensor signal from the AE sensor; and process the sensor signal to determine at least one characteristic of an additive manufacturing process; wherein the at least one characteristic of the additive manufacturing process includes an amount and/or a quality of at least one of a powder supply or an injection gas supply.
An electronic article surveillance system, comprising: A first read zone including an associated first RFID reader; a piece of infrastructure at least partially positioned within the first read zone; an RFID guard device secured with respect to the piece of infrastructure; a second read zone including an associated second RFID reader configured to detect an RFID inventory device associated with a piece of inventory removably associated with the piece of infrastructure at a trigger threshold; and a controller configured to, when the RFID guard device is detected by any of the RFID reader, initiate a response selected from the group consisting of modifying the trigger threshold, modifying an amount of power transmitted by the RFID reader associated with the second read zone, modifying a direction in which power is transmitted by the RFID reader associated with the second read zone, transmitting a signal indicative of a need to move the piece of infrastructure away from the second read zone, and combinations thereof. A first read zone including an associated first RFID reader; a piece of infrastructure at least partially positioned within the first read zone; an RFID guard device secured with respect to the piece of infrastructure; a second read zone including an associated second RFID reader configured to detect an RFID inventory device associated with a piece of inventory removably associated with the piece of infrastructure at a trigger threshold; and a controller configured to, when the RFID guard device is detected by any of the RFID reader, initiate a response selected from the group consisting of modifying the trigger threshold, modifying an amount of power transmitted by the RFID reader associated with the second read zone, modifying a direction in which power is transmitted by the RFID reader associated with the second read zone, transmitting a signal indicative of a need to move the piece of infrastructure away from the second read zone, and combinations thereof.
Boiler for generating steam and/or for heating water, comprising a metal container hermetically closed and provided at least with a feed aperture to feed the water and a discharge aperture to discharge the water and/or possible limescale, wherein the boiler further comprises a cap, said discharge aperture being selectively closable by said cap, said boiler also comprising a heating element associated with said container, characterized in that it comprises, in correspondence or proximity to said water discharge aperture, an inclinable element, horizontally pivotable independently with respect to said cap with respect to a horizontal axis ("X") disposed under the discharge aperture, and having at least a first operating position for covering and protecting said discharge aperture and said cap, and at least a second operating position for facilitating the discharge of the water and/or limescale toward the outside of said container.
An automated method for determining the validity of an incoming phone call, the method comprising: receiving an incoming phone call; activating a controller in response to receipt of the incoming phone call, the controller generating a multi-digit code in response to the receipt of the incoming call, outputting an audible version of the multi-digit code to a caller placing the incoming call, requesting the caller to input the multi-digit code, comparing the multi-digit code with a caller input, determining the call is invalid in response to a mismatch between the multi-digit code and the caller input, and terminating the phone call, wherein the multi-digit code is a combination of letters forming a word, the controller audibly outputting the word to a device of the caller and instructing the caller to spell the word in his keypad, characterized by the controller increasing the level of cognition analysis by the caller by forming a word wherein the combination of letters includes at least one letter that has at least two pronunciations, the at least one letter having a pronunciation that changes based on the word in which it is included. receiving an incoming phone call; activating a controller in response to receipt of the incoming phone call, the controller generating a multi-digit code in response to the receipt of the incoming call, outputting an audible version of the multi-digit code to a caller placing the incoming call, requesting the caller to input the multi-digit code, comparing the multi-digit code with a caller input, determining the call is invalid in response to a mismatch between the multi-digit code and the caller input, and terminating the phone call, wherein the multi-digit code is a combination of letters forming a word, the controller audibly outputting the word to a device of the caller and instructing the caller to spell the word in his keypad, characterized by the controller increasing the level of cognition analysis by the caller by forming a word wherein the combination of letters includes at least one letter that has at least two pronunciations, the at least one letter having a pronunciation that changes based on the word in which it is included.
Superconducting coil device comprising a coil winding (12, 30) consisting of a plurality of turns (W i) comprising at least one superconducting tape conductor, which has a strip-shaped substrate tape and a superconducting layer arranged on the substrate tape, wherein the coil winding (12, 30) is subdivided into a plurality of segments (S i), neighboring turns (W i, W i+1) within each segment (S i) being encapsulated together or adhesively bonded to one another, and, in the intermediate region between two neighboring segments (S i, S i+1), neighboring turns (W i-1, W i) being at most weakly connected or adhesively bonded to one another at least in a subregion, wherein the coil winding is configured either as a racetrack coil or a rectangular coil, wherein a plurality of subregions having at most a weak connection of the neighboring turns (W i-1, W i) of neighboring segments (S i, S i+1) lie within the curved regions of the racetrack or rectangular coil, or as an approximately cylindrical winding in which the segments (S i) are configured as radial segments (S i) and which is formed from straight regions and curved regions alternating with one another, the subregions having at most a weak connection of the neighboring turns (W i-1, W i) of neighboring radial segments (S i) lying in the region of the curved regions.
Disc brake, in particular for commercial vehicles, having a brake lining which has a first projection (46, 48) which lies eccentrically in the thickness direction, a brake application device for pressing the brake linings against a brake disc, a pressure plate, via which the brake application device presses the brake lining against the brake disc during braking, and a first hold-down spring which has an opening (42, 44) for receiving the first projection in order to hold down the brake lining, characterized by an extension on the hold-down spring, which extension protrudes beyond the brake lining on one side in the axial direction of the brake disc in the mounted state.
Elevator system comprising an elevator car, a counterweight, a compensation rope affixed at a first end to the elevator car and at a second end to the counterweight, and a compensation sheave, the compensation rope being wrapped around the compensation sheave, wherein a traction sheave, drives at least one support means supporting the elevator car and the counterweight, the traction sheave being provided with tension means (44, 42) for inducing a variation of the tension of the compensation rope, characterized in that the tension means comprise at least one first servo actuator, which is adapted to adjust the position of the traction sheave.
A method for mounting planar lighting modules on a mounting surface, the method comprising: - providing on opposite sides of the lighting module fixing indentations opening on said opposite sides, - superimposing on said opposite sides of the lighting module stiffening bars having lateral lobes extending into said indentations, and - fixing to the mounting surface the stiffening bars superimposed on the opposite sides of the lighting module with the opposite sides of the lighting module sandwiched between the stiffening bars and the mounting surface, whereby the stiffening bars urge the lighting module toward the mounting surface, the method characterized in that it comprises providing the stiffening bars with flanges which extend around said lobes, and superimposing the stiffening bars on the opposite sides of the lighting module with said flanges bearing against the lighting module around the indentations in said opposite sides. - providing on opposite sides of the lighting module fixing indentations opening on said opposite sides, - superimposing on said opposite sides of the lighting module stiffening bars having lateral lobes extending into said indentations, and - fixing to the mounting surface the stiffening bars superimposed on the opposite sides of the lighting module with the opposite sides of the lighting module sandwiched between the stiffening bars and the mounting surface, whereby the stiffening bars urge the lighting module toward the mounting surface,