mhurhangee/ep-ind-claims huggingface dataset:
A method for data communications, comprising: generating, at a transmitter device, a transition number from a set of bits, wherein the transition number comprises a twelve digit ternary number; converting, at the transmitter device, the transition number into a 12-symbol sequence of symbols, wherein timing information is encoded in transitions between symbols in the sequence of symbols; and transmitting, from the transmitter device, the sequence of symbols on a two-wire serial bus when the two-wire serial bus is operated in a first mode of operation, wherein each transition between consecutive symbols causes a change in a signaling state of the two-wire serial bus, wherein, while two-wire serial bus is in the first mode of operation, the sequence of symbols is ignored by a device deployed on the two-wire serial bus which is configured to communicate using a second mode of operation of the two-wire serial bus. generating, at a transmitter device, a transition number from a set of bits, wherein the transition number comprises a twelve digit ternary number; converting, at the transmitter device, the transition number into a 12-symbol sequence of symbols, wherein timing information is encoded in transitions between symbols in the sequence of symbols; and transmitting, from the transmitter device, the sequence of symbols on a two-wire serial bus when the two-wire serial bus is operated in a first mode of operation, wherein each transition between consecutive symbols causes a change in a signaling state of the two-wire serial bus, wherein, while two-wire serial bus is in the first mode of operation, the sequence of symbols is ignored by a device deployed on the two-wire serial bus which is configured to communicate using a second mode of operation of the two-wire serial bus.
A method for detecting AKT-mTOR pathway proteins, comprising a. isolating AKT-mTOR pathway proteins from a biological sample; b. digesting the isolated proteins; c. assaying the digested protein(s) via mass spectrometry to determine the presence of a peptide for AKT-mTOR pathway protein(s), wherein the peptide for AKT-mTOR pathway protein(s) consist(s) of a sequence listed in Table 5; and d. detecting one or more AKT-mTOR pathway protein(s) in the sample, wherein the isolation of step a. comprises: treating a biological sample with more than one antibody selected from an antibody of Table 8 and/or Table 9 wherein the antibody of Table 8 detects non-phosphorylated AKT-mTOR pathway proteins and the antibody of Table 9 detects phosphorylated AKT-mTOR pathway proteins and capable of immunoprecipitating the AKT-mTOR pathway protein(s) from a biological sample; a. isolating AKT-mTOR pathway proteins from a biological sample; b. digesting the isolated proteins; c. assaying the digested protein(s) via mass spectrometry to determine the presence of a peptide for AKT-mTOR pathway protein(s), wherein the peptide for AKT-mTOR pathway protein(s) consist(s) of a sequence listed in Table 5; and d. detecting one or more AKT-mTOR pathway protein(s) in the sample,
Steel substrate suitable for forming operations comprising a corrosion protective coating, wherein the corrosion protective coating comprises a nano-layer of oxide nanoparticles and a polyamide-imide layer on the nano-layer.
A safety needle device comprising: a needle cannula having a proximal end and a distal end with a puncture tip; a hub supporting the needle cannula proximal end, the hub including at least one release member; a safety shield movably associated with the hub from a retracted position disposed generally coaxially with the hub to an extended position shielding the puncture tip of the needle cannula; and a drive member associated with the hub and adapted to move the safety shield from the retracted position to the extended position, characterized in that application of radial pressure to the at least one release member moves a locking tab on a distal end of-the at least one release member to engage the safety shield and maintain the safety shield in the retracted position, and that release of the radial pressure enables the drive member to exert a force on the safety shield which causes-a distal end surface of the safety shield to slide along an inward-facing surface of the locking tab to move the at least one release member out of engagement with the safety shield, thereby allowing the drive member to-move the safety shield from the retracted position to the extended position. a needle cannula having a proximal end and a distal end with a puncture tip; a hub supporting the needle cannula proximal end, the hub including at least one release member; a safety shield movably associated with the hub from a retracted position disposed generally coaxially with the hub to an extended position shielding the puncture tip of the needle cannula; and a drive member associated with the hub and adapted to move the safety shield from the retracted position to the extended position, characterized in that application of radial pressure to the at least one release member moves a locking tab on a distal end of-the at least one release member to engage the safety shield and maintain the safety shield in the retracted position, and that release of the radial pressure enables the drive member to exert a force on the safety shield which causes-a distal end surface of the safety shield to slide along an inward-facing surface of the locking tab to move the at least one release member out of engagement with the safety shield, thereby allowing the drive member to-move the safety shield from the retracted position to the extended position.
Roller door having a door leaf which can be moved between an open position, in which it at least partially uncovers a wall opening and preferably forms a multi-layered roll at least partially above the wall opening, and a closed position, in which it at least partially closes the wall opening, and which has a plurality of door leaf segments arranged one behind the other in the direction of movement of the door leaf, wherein at least one stabilizing device (1200, 2200) extending perpendicularly to the direction of movement of the door leaf is arranged between two door leaf segments, and the mutually facing edge regions of the door leaf segments are held on the stabilizing device (1200, 2200), as a result of which at least one edge region of at least one segment is held floatingly on the stabilizing device (1200, 2200) in such a way that a relative movement of this edge region with respect to the stabilizing device (1200, 2200) is possible at least in the direction of movement of the door leaf, and at least one segment having a floatingly mounted edge region has at least one pane (110a, 110b, 120a, 102b) which is formed at least in sections from a flexible material, such as for instance polycarbonate, characterized in that the at least one segment having a floatingly mounted edge region has at least two panes (110a, 110b, 120a, 102b) which are spaced apart from one another in the direction of thickness of the door leaf and run approximately parallel to one another, each of which has at least one edge region which is held on the stabilizing device (1200, 2200) and faces an adjacent segment, wherein at least one edge region of at least one pane (110a, 110b, 120a, 102b) is held floatingly on the stabilizing device (1200, 2200) in such a way that a relative movement of this edge region with respect to the stabilizing device (1200, 2200) is possible at least in the direction of movement of the door leaf.
A method for wireless communication at a user equipment, UE, comprising: receiving a discontinuous reception cycle configuration that indicates a plurality of discontinuous reception cycles arranged to be spaced within a discontinuous reception period, the plurality of discontinuous reception cycles having a plurality of ON-durations during which the UE is to wake up from a sleep mode to monitor for transmissions of wireless communications having a traffic periodicity, wherein the plurality of ON-durations include an offset ON-duration; determining, based at least in part on the discontinuous reception cycle configuration, a plurality of start times comprising respective start times for the ON-durations, wherein a period between consecutive ON-durations has a duration different from a period defined between the offset ON-duration and an ON-duration arranged adjacent to the offset ON-duration; and wherein the respective periods between the consecutive ON-durations, the respective start times of the ON-durations, and the period defined between the offset ON-duration and the ON-duration arranged adjacent to the offset ON-duration are configured based on the traffic periodicity; and initiating a wakeup procedure for the UE at each of the plurality of start times based at least in part on the determining. receiving a discontinuous reception cycle configuration that indicates a plurality of discontinuous reception cycles arranged to be spaced within a discontinuous reception period, the plurality of discontinuous reception cycles having a plurality of ON-durations during which the UE is to wake up from a sleep mode to monitor for transmissions of wireless communications having a traffic periodicity, wherein the plurality of ON-durations include an offset ON-duration; determining, based at least in part on the discontinuous reception cycle configuration, a plurality of start times comprising respective start times for the ON-durations, wherein a period between consecutive ON-durations has a duration different from a period defined between the offset ON-duration and an ON-duration arranged adjacent to the offset ON-duration; and wherein the respective periods between the consecutive ON-durations, the respective start times of the ON-durations, and the period defined between the offset ON-duration and the ON-duration arranged adjacent to the offset ON-duration are configured based on the traffic periodicity; and initiating a wakeup procedure for the UE at each of the plurality of start times based at least in part on the determining.
A contact lens (102, 200, 210, 230), comprising: a transparent substrate (202, 212, 232) formed to cover at least a portion of an iris of an eye; and a circuit comprising: one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238) disposed directly on or within the transparent substrate (202, 212, 232) and configured to detect light reflected from, and thus filtered through, the iris and incident on the one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238), wherein the one or more light sensors are configured to detect image data from the reflected light, the image data being indicative of a pattern associated with the iris; readout circuitry (209, 224, 244), operably coupled to the one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238), configured to output information indicative of the pattern associated with the iris; and a power component (208, 222, 242), operably coupled to the readout circuitry (209, 224, 244), configured to supply power to the readout circuitry (209, 224, 244). a transparent substrate (202, 212, 232) formed to cover at least a portion of an iris of an eye; and a circuit comprising: one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238) disposed directly on or within the transparent substrate (202, 212, 232) and configured to detect light reflected from, and thus filtered through, the iris and incident on the one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238), wherein the one or more light sensors are configured to detect image data from the reflected light, the image data being indicative of a pattern associated with the iris; readout circuitry (209, 224, 244), operably coupled to the one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238), configured to output information indicative of the pattern associated with the iris; and one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238) disposed directly on or within the transparent substrate (202, 212, 232) and configured to detect light reflected from, and thus filtered through, the iris and incident on the one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238), wherein the one or more light sensors are configured to detect image data from the reflected light, the image data being indicative of a pattern associated with the iris; readout circuitry (209, 224, 244), operably coupled to the one or more light sensors (206, 214, 216, 218, 220, 234, 236, 238), configured to output information indicative of the pattern associated with the iris; and a power component (208, 222, 242), operably coupled to the readout circuitry (209, 224, 244), configured to supply power to the readout circuitry (209, 224, 244).
Sequential burner (30, 31; 42, 43) for an axial gas turbine, comprising a burner body (31, 43), which is designed as an axially extending hot gas channel, and further comprising a fuel injection device (30, 42), which extends into said burner body (31, 43) perpendicular to the axial direction, the fuel injection device (30, 42) being an injection head comprising a plurality of fingers extending parallel to each other and perpendicular to the axial direction characterized in that: said fuel injection device (30, 42) has an upper end plate and a lower end plate, said fingers extending between said upper end plate and lower end plate; and said fuel injection device (30, 42) is fixed to said burner body (31, 43) in order to keep it aligned with said burner body (31, 43), with said upper endplate fixed to an outer wall of said burner body (31, 43) and said lower end plate flush with an inner wall of said burner body (31, 43), whereby said fuel injection device (30, 42) results in a mechanically stiff component and stiffens said burner body (31, 43) against creep. said fuel injection device (30, 42) has an upper end plate and a lower end plate, said fingers extending between said upper end plate and lower end plate; and said fuel injection device (30, 42) is fixed to said burner body (31, 43) in order to keep it aligned with said burner body (31, 43), with said upper endplate fixed to an outer wall of said burner body (31, 43) and said lower end plate flush with an inner wall of said burner body (31, 43), whereby said fuel injection device (30, 42) results in a mechanically stiff component and stiffens said burner body (31, 43) against creep.
A combination of at least one device operating with at least one hazardous material and a safety cabinet for storing the hazardous material concerned, wherein - the safety cabinet is equipped with bottom-side rollers and thereby the device and the safety cabinet form a transportable working unit (1, 2), and wherein - the safety cabinet has one or more containers in its interior for receiving the hazardous material for disposal of the device, characterized in that - a control unit (13, 13') is provided for detecting the amount of hazardous material processed, wherein - the control unit (13, 13') is coupled to a sensor with the aid of which the volume of contaminated hazardous materials stored in the container is measured. - the safety cabinet is equipped with bottom-side rollers and thereby the device and the safety cabinet form a transportable working unit (1, 2), and wherein - the safety cabinet has one or more containers in its interior for receiving the hazardous material for disposal of the device, characterized in that - a control unit (13, 13') is provided for detecting the amount of hazardous material processed, wherein - the control unit (13, 13') is coupled to a sensor with the aid of which the volume of contaminated hazardous materials stored in the container is measured.
A tautomerase pptA variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein arginine, which is an amino acid corresponding to position 31 of SEQ ID NO: 3, is substituted with histidine.
A bandwidth management method, comprising: transmitting, by a computing device to a plurality of modems, a schedule identifying: a plurality of different times at which each modem of the plurality of modems is to transmit a pilot signal (401, 501a, 501b, 501c, 501d), and for each time, a corresponding tone of a plurality of discrete tones on which the pilot signal is to be transmitted; receiving, by the computing device, a plurality of pilot signals (401, 501a, 501b, 501c, 501d) from the plurality of modems on the plurality of discrete tones; using the received pilot signals (401, 501a, 501b, 501c, 501d) to determine which modulation rates each modem is able to use on each of the plurality of discrete tones by determining corresponding modulation rates of each of the received pilot signals (401, 501a, 501b, 501c, 501d); and storing, on a computer-readable medium, a modulation rate map indicating an individual modem's usable modulation rates for different tones of the plurality of discrete tones, the modulation rate map configured to be used for scheduling future pilot tones for a given modem. transmitting, by a computing device to a plurality of modems, a schedule identifying: a plurality of different times at which each modem of the plurality of modems is to transmit a pilot signal (401, 501a, 501b, 501c, 501d), and for each time, a corresponding tone of a plurality of discrete tones on which the pilot signal is to be transmitted; a plurality of different times at which each modem of the plurality of modems is to transmit a pilot signal (401, 501a, 501b, 501c, 501d), and for each time, a corresponding tone of a plurality of discrete tones on which the pilot signal is to be transmitted; receiving, by the computing device, a plurality of pilot signals (401, 501a, 501b, 501c, 501d) from the plurality of modems on the plurality of discrete tones; using the received pilot signals (401, 501a, 501b, 501c, 501d) to determine which modulation rates each modem is able to use on each of the plurality of discrete tones by determining corresponding modulation rates of each of the received pilot signals (401, 501a, 501b, 501c, 501d); and storing, on a computer-readable medium, a modulation rate map indicating an individual modem's usable modulation rates for different tones of the plurality of discrete tones, the modulation rate map configured to be used for scheduling future pilot tones for a given modem.
A mobile radio communication terminal device, comprising at least one circuit configured to perform a method of processing received digitized signals, the method comprising: determining a plurality of cross-correlation coefficients for the received digitized signal, wherein each of the plurality of cross-correlation coefficients is determined by cross-correlating the received digitized signal with a respective candidate mobile radio local reference signal out of a plurality of pre-stored candidate mobile radio local reference signals; and selecting one or more cross-correlation coefficients from the determined plurality of cross-correlation coefficients; wherein at least one of the plurality of pre-stored candidate mobile radio local reference signals differs from another of the plurality of pre-stored candidate mobile radio local reference signals according to a predefined frequency scheme; and wherein one or more of the plurality of pre-stored candidate mobile radio local reference signals comprise a predefined synchronization sequence rotated in frequency according to the predefined frequency scheme. determining a plurality of cross-correlation coefficients for the received digitized signal, wherein each of the plurality of cross-correlation coefficients is determined by cross-correlating the received digitized signal with a respective candidate mobile radio local reference signal out of a plurality of pre-stored candidate mobile radio local reference signals; and selecting one or more cross-correlation coefficients from the determined plurality of cross-correlation coefficients; wherein at least one of the plurality of pre-stored candidate mobile radio local reference signals differs from another of the plurality of pre-stored candidate mobile radio local reference signals according to a predefined frequency scheme; and wherein one or more of the plurality of pre-stored candidate mobile radio local reference signals comprise a predefined synchronization sequence rotated in frequency according to the predefined frequency scheme.
A method for processing sensor information transmitted by one or more electronic devices, comprising: receiving, by a sensor information processing apparatus, sensor information from the one or more electronic devices; determining, by the sensor information processing apparatus, a representative sensor from among one or more sensors (101, 102, 103, 104, 105) provided in the electronic devices based on the received sensor information; and transmitting, by the sensor information processing apparatus, representative sensor-related information to the one or more electronic devices. receiving, by a sensor information processing apparatus, sensor information from the one or more electronic devices; determining, by the sensor information processing apparatus, a representative sensor from among one or more sensors (101, 102, 103, 104, 105) provided in the electronic devices based on the received sensor information; and transmitting, by the sensor information processing apparatus, representative sensor-related information to the one or more electronic devices.