mhurhangee/ep-ind-claims huggingface dataset:
A weather radar system comprising: a waveform generator configured to generate a first waveform centered around a first frequency and a second waveform centered around the first frequency; a modulator configured to modulate the first waveform to include a first non-linear frequency modulation and modulate the second waveform to include a second non-linear frequency modulation, wherein the first and second non-linear frequency modulations are different; one or more polarizers configured to polarize the first waveform to include a first polarization state and polarize the second waveform to include a second polarization state, wherein the first and second polarization states are orthogonal; one or more amplifiers (320, 330) configured to amplify the first waveform and the second waveform; a first transmitter configured to transmit the first waveform as a first electromagnetic pulse into an environmental region; a second transmitter configured to transmit the second waveform as a second electromagnetic pulse into the environmental region, wherein the second electromagnetic pulse is transmitted within 100 nanoseconds of the completion of the transmission of the first electromagnetic pulse; a receiver (350, 355) configured to receive an electromagnetic signal reflected from within the environmental region; and a processor configured to process the received electromagnetic signal using pulse compression techniques and determine a radial velocity of an environmental object of interest within the environmental region based at least in part on the processed electromagnetic signal. a waveform generator configured to generate a first waveform centered around a first frequency and a second waveform centered around the first frequency; a modulator configured to modulate the first waveform to include a first non-linear frequency modulation and modulate the second waveform to include a second non-linear frequency modulation, wherein the first and second non-linear frequency modulations are different; one or more polarizers configured to polarize the first waveform to include a first polarization state and polarize the second waveform to include a second polarization state, wherein the first and second polarization states are orthogonal; one or more amplifiers (320, 330) configured to amplify the first waveform and the second waveform; a first transmitter configured to transmit the first waveform as a first electromagnetic pulse into an environmental region; a second transmitter configured to transmit the second waveform as a second electromagnetic pulse into the environmental region, wherein the second electromagnetic pulse is transmitted within 100 nanoseconds of the completion of the transmission of the first electromagnetic pulse; a receiver (350, 355) configured to receive an electromagnetic signal reflected from within the environmental region; and a processor configured to process the received electromagnetic signal using pulse compression techniques and determine a radial velocity of an environmental object of interest within the environmental region based at least in part on the processed electromagnetic signal.
A method for controlling part load operation of a gas turbine, wherein the gas turbine comprises active burners and a main controller, the method characterized by comprising the steps of: - calculating an actual load set point through the main controller; - calculating, based on a hot gas temperature model, an actual hot gas temperature of the active burners, wherein said calculated actual hot gas temperature is compared with a minimum limit of the hot gas temperature (THGmin) in a subtracting element to calculate a difference which serves as an input to a controller which determines a delta load based on said difference; - generating, based on said delta load, a minimum load set point (LSPmin); wherein said actual load set point is kept equal to or greater than said minimum load set point (LSPmin). - calculating an actual load set point through the main controller; - calculating, based on a hot gas temperature model, an actual hot gas temperature of the active burners, wherein said calculated actual hot gas temperature is compared with a minimum limit of the hot gas temperature (THGmin) in a subtracting element to calculate a difference which serves as an input to a controller which determines a delta load based on said difference; - generating, based on said delta load, a minimum load set point (LSPmin);
A pharmaceutical composition for use in the prevention or treatment of inflammatory spine disease comprising extract of Peony, Scolopendra subspinipes, Cibotium barometz, Ostericum Koreanum, Eucommia ulmoides, Achyranthes, Acanthopanax, Saposhnikovia divaricata, and Aralia continentalis as an active ingredient, wherein the weight ratio of Peony, Scolopendra subspinipes, Cibotium barometz, Ostericum Koreanum, Eucommia ulmoides, Achyranthes, Acanthopanax, Saposhnikovia divaricata, and Aralia continentalis is 2:1:1:1:1:1:1:1:1.
A counter for a handheld device for dispensing pharmaceutical substances, particularly an inhalation medication, with at least one counter wheel that features legible characters, wherein the counter wheel is rotatable about a rotational axis and a drive part for the counter wheel is provided in order to rotationally act upon the counter wheel, wherein said drive part features a shaped engagement section for cooperating with the counter wheel, and wherein an acting part is furthermore provided and can likewise be displaced relative counter wheel in the direction of the rotational axis against a spring force, wherein the acting part is rotationally moveable and connected to the drive part in order to rotate jointly therewith, characterized in that the drive part features a guide section, by means of which it is seated on the first rotational axis of the counter realized in the form of a stationary pin in the assembled state of the counter.
An isolated recombinant and/or synthetically produced peptide, or a pharmaceutically active salt thereof, wherein said peptide at least comprises an amino acid sequence as shown in SEQ.ID.NO. 2 (AF-6) and a cysteine disulfide in amino acid (aa) position no. 1 of SEQ.ID.NO. 2, said peptide having antisecretory activity.
A positive electrode for a secondary battery, the positive electrode comprising: a first positive electrode material mixture layer formed on a positive electrode collector; and a second positive electrode material mixture layer formed on the first positive electrode material mixture layer; wherein the first positive electrode material mixture layer has an operating voltage of 4.25 V to 6.0 V and comprises an active material for overcharge which generates lithium and gas during charge, the active material for overcharge comprising at least one of Li 2 C 2 O 4, Li 2 C 4 O 4, Li 2 C 3 O 5, Li 2 C 4 O 6, and LiN 3. a first positive electrode material mixture layer formed on a positive electrode collector; and a second positive electrode material mixture layer formed on the first positive electrode material mixture layer; wherein the first positive electrode material mixture layer has an operating voltage of 4.25 V to 6.0 V and comprises an active material for overcharge which generates lithium and gas during charge, the active material for overcharge comprising at least one of Li 2 C 2 O 4, Li 2 C 4 O 4, Li 2 C 3 O 5, Li 2 C 4 O 6, and LiN 3.
A method of handover performed in a base station, comprising the following steps of: a. sending a handover command to a user equipment, said handover command including information for indicating a Pcell and a Scell and that said Scell requires a timing advance different from said Pcell; b. sending information for indicating a corresponding timing advance to said user equipment after successful random accesses of said user equipment on said Pcell and the Scell requiring a timing advance different from said Pcell. c. if the random access of said user equipment on said Pcell fails, and a random access on at least one Scell succeeds, determining whether to change the Pcell or not. a. sending a handover command to a user equipment, said handover command including information for indicating a Pcell and a Scell and that said Scell requires a timing advance different from said Pcell; b. sending information for indicating a corresponding timing advance to said user equipment after successful random accesses of said user equipment on said Pcell and the Scell requiring a timing advance different from said Pcell. c. if the random access of said user equipment on said Pcell fails, and a random access on at least one Scell succeeds, determining whether to change the Pcell or not.
Cooling module having a fan wheel and having a housing (4, 6, 10; 206), wherein, for sound attenuation, at least one wall portion (14, 20, 24, 40; 214) of the housing (4, 6, 10; 206) has chambers (36; 136) which are delimited by a microperforated absorber extending over a plurality of chambers (36; 136) and by partitions (35; 135), wherein the microperforated absorber has a plurality of comparatively small through-apertures, and wherein the chambers (36; 136) are separated from one another by the partitions (35; 135), wherein the absorber is in one piece, characterized in that the absorber forms a plurality of inner flat wall elements and, between them, has contact portions in contact with an outer flat wall element, wherein the absorber is formed from a metal sheet and has a plurality of mutually parallel bending points.
A method of processing a telephone call comprising the steps of: initiating a telephone call by an automated calling system; taking a first action by the automated calling system if the telephone call is answered before a signal indicating a call alert is initiated; and taking a second action by the automated calling system if the telephone call is answered after the signal indicating the call alert is initiated, wherein: the first action is terminating the call and the second action is allowing the call to proceed, or the first action is determining that the call has been answered by a non-human and the second action is determining that the call has been answered by a human. initiating a telephone call by an automated calling system; taking a first action by the automated calling system if the telephone call is answered before a signal indicating a call alert is initiated; and taking a second action by the automated calling system if the telephone call is answered after the signal indicating the call alert is initiated, wherein: the first action is terminating the call and the second action is allowing the call to proceed, or the first action is determining that the call has been answered by a non-human and the second action is determining that the call has been answered by a human. the first action is terminating the call and the second action is allowing the call to proceed, or the first action is determining that the call has been answered by a non-human and the second action is determining that the call has been answered by a human.
An apparatus comprising: a device interface including one or more ports coupled to and defining respective one or more data channels for respective one or more peripherals, boot control logic, a volatile buffer memory for each data channel, and a volatile configuration memory (508, 510) comprising a volatile configuration memory for each data channel and a volatile device configuration memory, and a non-volatile device storage memory coupled to the device interface and including several memories (506a, 506b, 506c) for boot sequences, each memory (506a, 506b, 506c) comprising two contiguous sub-memory blocks, one for data and one for boot code, each contiguous sub-memory block for boot code contiguously storing boot code with one or more boot sets including a configuration routine for the apparatus or a data channel, wherein the boot control logic is configured to sequentially execute the boot code stored in the memories and including the one or more boot sets at power up or reset of the apparatus, the configuration routine including a load of data from the contiguous sub-memory block for data outside the contiguous sub-memory block for boot code to the buffer memory, and a write of the data from the buffer memory to the configuration memory (508, 510) to initialize the apparatus or the port for the respective data channel. a device interface including one or more ports coupled to and defining respective one or more data channels for respective one or more peripherals, boot control logic, a volatile buffer memory for each data channel, and a volatile configuration memory (508, 510) comprising a volatile configuration memory for each data channel and a volatile device configuration memory, and one or more ports coupled to and defining respective one or more data channels for respective one or more peripherals, boot control logic, a volatile buffer memory for each data channel, and a volatile configuration memory (508, 510) comprising a volatile configuration memory for each data channel and a volatile device configuration memory, and a non-volatile device storage memory coupled to the device interface and including several memories (506a, 506b, 506c) for boot sequences, each memory (506a, 506b, 506c) comprising two contiguous sub-memory blocks, one for data and one for boot code, each contiguous sub-memory block for boot code contiguously storing boot code with one or more boot sets including a configuration routine for the apparatus or a data channel, wherein the boot control logic is configured to sequentially execute the boot code stored in the memories and including the one or more boot sets at power up or reset of the apparatus, the configuration routine including a load of data from the contiguous sub-memory block for data outside the contiguous sub-memory block for boot code to the buffer memory, and a write of the data from the buffer memory to the configuration memory (508, 510) to initialize the apparatus or the port for the respective data channel.
Process for making up keratin materials, comprising the application to the keratin materials of a dye powder having a blue colour comprising at least one anthocyan, metal ions chosen from the group of ions derived from Al, Ca, Cu, Fe, Fe, Mg, Mn and Zn and mixtures thereof, tannic acid or a gallotannin derivative thereof, or mixtures thereof.
Selection element (50, 100, 300) comprising, in a first portion, a stack of amorphous layers, the thickness of each layer in the stack being smaller than or equal to 20 nm, at least one of the layers in the stack comprising a group-16 element, characterized in that the element comprises a second portion crossing at least certain layers of the stack, made of an alloy of at least part of the components of the layers of the stack.
A method for processing network data packets destined for applications with a plurality of throughput and latency requirements, the method implemented by a network traffic management system comprising an application delivery controller apparatus, the method comprising: receiving data packets from a network; classifying the data packets as high throughput classified and low latency classified based on one or more characteristics of each of the data packets; storing the data packets in a respective one of a low latency packet queue or a high throughput packet queue based on the classification; characterized in that the method further comprises processing low latency classified packets from the low latency packet queue; determining whether a predetermined number of the data packets are stored in the high throughput packet queue; and when it is determined that the predetermined number of the data packets are stored in the high throughput packet queue: interrupting the processing of the low latency classified packets and processing one or more high throughput classified packets from the high throughput packet queue; and resuming the processing of the low latency classified packets upon processing a number of the high throughput classified packets. receiving data packets from a network; classifying the data packets as high throughput classified and low latency classified based on one or more characteristics of each of the data packets; storing the data packets in a respective one of a low latency packet queue or a high throughput packet queue based on the classification; processing low latency classified packets from the low latency packet queue; determining whether a predetermined number of the data packets are stored in the high throughput packet queue; and when it is determined that the predetermined number of the data packets are stored in the high throughput packet queue: interrupting the processing of the low latency classified packets and processing one or more high throughput classified packets from the high throughput packet queue; and resuming the processing of the low latency classified packets upon processing a number of the high throughput classified packets. interrupting the processing of the low latency classified packets and processing one or more high throughput classified packets from the high throughput packet queue; and resuming the processing of the low latency classified packets upon processing a number of the high throughput classified packets.
An Information Handling System, IHS, comprising: a processor; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution by the processor, cause the IHS to: monitor a chain of Basic Input/Output System, BIOS, or Unified Extensible Firmware Interface, UEFI, configuration changes comprising at least a first configuration change having a first timestamp followed by a second configuration change having a second timestamp; compare the chain of BIOS/UEFI configuration changes against an Indication of Attack, IoA, comprising at least a third configuration change followed by a fourth configuration change, by comparing: the first configuration change against the third configuration change, and the second configuration change against the fourth configuration change; and report an alert in response to the chain of BIOS/UEFI configuration changes matching the IoA when: the first configuration change is equal to the third configuration change, and the second configuration change is equal to the fourth configuration change. a processor; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution by the processor, cause the IHS to: monitor a chain of Basic Input/Output System, BIOS, or Unified Extensible Firmware Interface, UEFI, configuration changes comprising at least a first configuration change having a first timestamp followed by a second configuration change having a second timestamp; compare the chain of BIOS/UEFI configuration changes against an Indication of Attack, IoA, comprising at least a third configuration change followed by a fourth configuration change, by comparing: the first configuration change against the third configuration change, and the second configuration change against the fourth configuration change; and report an alert in response to the chain of BIOS/UEFI configuration changes matching the IoA when: the first configuration change is equal to the third configuration change, and the second configuration change is equal to the fourth configuration change. monitor a chain of Basic Input/Output System, BIOS, or Unified Extensible Firmware Interface, UEFI, configuration changes comprising at least a first configuration change having a first timestamp followed by a second configuration change having a second timestamp; compare the chain of BIOS/UEFI configuration changes against an Indication of Attack, IoA, comprising at least a third configuration change followed by a fourth configuration change, by comparing: the first configuration change against the third configuration change, and the second configuration change against the fourth configuration change; and report an alert in response to the chain of BIOS/UEFI configuration changes matching the IoA when: the first configuration change is equal to the third configuration change, and the second configuration change is equal to the fourth configuration change.
Pane arrangement with coating comprising at least - a transparent substrate, - a primer (2.1) on at least one subregion of the substrate, said primer containing at least one first UV absorber (4.1) as well as at least two IR absorbers (3.1, 3.2) in the form of dispersed nanoparticles, and - a scratchproof coat (2.2) on the surface of the primer (2.1), said scratchproof coat containing at least one second UV absorber (4.2), wherein the first IR absorber (3.1) is a hexaboride of the general formula XB 6 and X = Y, Sr, La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, or Lu, and the second IR absorber (3.2) is indium tin oxide or antimony tin oxide. - a transparent substrate, - a primer (2.1) on at least one subregion of the substrate, said primer containing at least one first UV absorber (4.1) as well as at least two IR absorbers (3.1, 3.2) in the form of dispersed nanoparticles, and - a scratchproof coat (2.2) on the surface of the primer (2.1), said scratchproof coat containing at least one second UV absorber (4.2),
A very thin steel sheet characterized in containing, in mass%, C: 0.0004 to 0.0108%, N: 0.0032 to 0.0749%, Si: 0.0001 to 1.99%, Mn: 0.006 to 1.99%, S: 0.0001 to 0.089%, P: 0.001 to 0.069%, and Al: 0.070 to 1.99%; further containing one or both of Ti and Nb at Ti: 0.0062 to 0.0804%, and Nb: 0.0256 to 0.0894%, within the range of Ti + Nb: 0.0101 to 0.1394%; further satisfying the relationships of N - C ≥ 0.0020%, C + N ≥ 0.0054%, Al / N > 10, (Ti + Nb) / Al ≤ 0.8, (Ti / 48 + Nb / 93) x 12/C ≥ 0.5, and 0.31 < (Ti / 48 +Nb / 93) / (C / 12 +N / 14) ≤ 2.0; having a balance of iron and unavoidable impurities; and having a thickness of 0.4 mm or less. C: 0.0004 to 0.0108%, N: 0.0032 to 0.0749%, Si: 0.0001 to 1.99%, Mn: 0.006 to 1.99%, S: 0.0001 to 0.089%, P: 0.001 to 0.069%, and Al: 0.070 to 1.99%; Ti: 0.0062 to 0.0804%, and Nb: 0.0256 to 0.0894%, Ti + Nb: 0.0101 to 0.1394%; N - C ≥ 0.0020%, C + N ≥ 0.0054%, Al / N > 10, (Ti + Nb) / Al ≤ 0.8, (Ti / 48 + Nb / 93) x 12/C ≥ 0.5, and 0.31 < (Ti / 48 +Nb / 93) / (C / 12 +N / 14) ≤ 2.0;