mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of compound of formula: which comprises reacting compound of formula: with a compound of formula: wherein R 1 is hydrogen, C 1-7 -alkyl, or C 3-8 -cycloalkyl, in particular R 1 is methyl; R 2 is hydrogen, halo, C 1-7 -alkyl, C 1-7 -haloalkyl or C 3-8 -cycloalkyl, in particular R 2 is ethyl; R 3 is hydrogen or C 1-7 -alkyl, in particular R 3 is methyl; R 4 is C 1-7 -alkoxy (in particular methoxy); A is R 5 to R 8 are each independently selected from hydrogen and C 1-3 -alkyl, in particular R 5 to R 8 are hydrogen. R 1 is hydrogen, C 1-7 -alkyl, or C 3-8 -cycloalkyl, in particular R 1 is methyl; R 2 is hydrogen, halo, C 1-7 -alkyl, C 1-7 -haloalkyl or C 3-8 -cycloalkyl, in particular R 2 is ethyl; R 3 is hydrogen or C 1-7 -alkyl, in particular R 3 is methyl; R 4 is C 1-7 -alkoxy (in particular methoxy); A is R 5 to R 8 are each independently selected from hydrogen and C 1-3 -alkyl, in particular R 5 to R 8 are hydrogen.
A method of operating a multi-tenant cloud system, the method comprising: at a first data center, authenticating a first client and storing resources that correspond to the first client, the first data center in communication with a second data center that is configured to authenticate the first client and replicate the resources; the first data center receiving a write request for the first client, writing the write request and generating change event messages in a first order, wherein the change event messages are written to one or more first sharded queues of the first data center; and the first data center pushing the change event messages to the second data center via REST API calls; wherein, in response to receiving the change event messages, the second data center is configured to write the change event messages in the first order to its local database, wherein the change event messages are written to one or more second sharded queues of the second data center corresponding to the first sharded queues. at a first data center, authenticating a first client and storing resources that correspond to the first client, the first data center in communication with a second data center that is configured to authenticate the first client and replicate the resources; the first data center receiving a write request for the first client, writing the write request and generating change event messages in a first order, wherein the change event messages are written to one or more first sharded queues of the first data center; and the first data center pushing the change event messages to the second data center via REST API calls; wherein, in response to receiving the change event messages, the second data center is configured to write the change event messages in the first order to its local database, wherein the change event messages are written to one or more second sharded queues of the second data center corresponding to the first sharded queues.
An emptying and monitoring device for emptying an on-board reservoir of a fluid drained from an aircraft engine and for monitoring the fluid drained from the aircraft engine, the emptying and monitoring device comprising: an articulated pole incorporating an extensible first intake passage configured to establish a leak-tight connection to an emptying passage disposed on the aircraft for receiving, directly from the aircraft, the fluid drained from the engine, and a first quality sensor assembly for detecting at least one quality parameter of the fluid drained from the engine having been admitted through the first intake passage. an articulated pole incorporating an extensible first intake passage configured to establish a leak-tight connection to an emptying passage disposed on the aircraft for receiving, directly from the aircraft, the fluid drained from the engine, and a first quality sensor assembly for detecting at least one quality parameter of the fluid drained from the engine having been admitted through the first intake passage.
A Lange coupler comprising: input and through conductor strips (5,6) coupled respectively to input and through ports (2,3) of the Lange coupler; a central conductor strip, with the input and through conductor strips on opposite sides of the central conductor strip thereby defining a pair of outer conductors, with one end of the input conductor strip connected to one end of the central conductor strip and with one end of the through conductor strip connected to the other end of the central conductor strip, wherein the central conductor strip is also connected to the other ends of the input and through conductor strips at a midpoint along its length; an unbroken peripheral ground conductor surrounding the input and through conductor strips (5,6), the peripheral ground conductor and input and through conductor strips (5,6) being arranged on a first metal layer; first and second ground conductor strips (9,10) coupled to the ground conductor at each end and interposed between the central conductor strip and a respective one of the pair of outer conductors (5,6); and coupled and isolated conductor strips (15,14) arranged on a second metal layer, arranged on opposite lateral sides of the central conductor strip. input and through conductor strips (5,6) coupled respectively to input and through ports (2,3) of the Lange coupler; a central conductor strip, with the input and through conductor strips on opposite sides of the central conductor strip thereby defining a pair of outer conductors, with one end of the input conductor strip connected to one end of the central conductor strip and with one end of the through conductor strip connected to the other end of the central conductor strip, wherein the central conductor strip is also connected to the other ends of the input and through conductor strips at a midpoint along its length; an unbroken peripheral ground conductor surrounding the input and through conductor strips (5,6), the peripheral ground conductor and input and through conductor strips (5,6) being arranged on a first metal layer; first and second ground conductor strips (9,10) coupled to the ground conductor at each end and interposed between the central conductor strip and a respective one of the pair of outer conductors (5,6); and coupled and isolated conductor strips (15,14) arranged on a second metal layer, arranged on opposite lateral sides of the central conductor strip.
A method of determining a breathing rate of a patient, the method comprising the steps of: obtaining, using an ultrasound probe that is aimed at the patient's lung, Doppler ultrasound power and velocity data for a period of time that corresponds to a plurality of cardiac cycles; processing the power and velocity data obtained in the obtaining step using at least one noise reduction algorithm; extracting an envelope of the power and velocity data with respect to time, wherein at least one parameter used in the envelope extracting step is selected to track variations that correspond to an expected breathing cycle; identifying a periodic feature of the envelope extracted in the extracting step; determining timing of the periodic feature identified in the identifying step; and outputting an indication of the breathing rate based on the timing determined in the determining step. obtaining, using an ultrasound probe that is aimed at the patient's lung, Doppler ultrasound power and velocity data for a period of time that corresponds to a plurality of cardiac cycles; processing the power and velocity data obtained in the obtaining step using at least one noise reduction algorithm; extracting an envelope of the power and velocity data with respect to time, wherein at least one parameter used in the envelope extracting step is selected to track variations that correspond to an expected breathing cycle; identifying a periodic feature of the envelope extracted in the extracting step; determining timing of the periodic feature identified in the identifying step; and outputting an indication of the breathing rate based on the timing determined in the determining step.
Device configured to process a multi-layered data stream into which a video material is coded at different layers, corresponding to different levels of information amount, using inter-layer prediction, the multi-layer data stream comprising a plurality of packets, each of which is associated with one of the different layers, the device configured to: for each for the packets of the multi-layered data stream, read a base layer-ID field from the multi-layered data stream, the base layer-ID field comprising a first sub-field and a second sub-field; check (314 as to whether the first sub-field of the base layer-ID field fulfills a predetermined criterion, if the first sub-field of the base layer-ID field fulfills the predetermined criterion, read an extension layer-ID field from the multi-layered data stream, derive an extension value using the extension layer-ID field so that the extension value lies within a first subset of a domain of extension values, and derive a cluster value from the second sub-field by mapping from a domain of possible values of the second sub-field onto a domain of cluster values; if the first sub-field of the base layer-ID field does not fulfill the predetermined criterion, refrain from reading an extension layer-ID field from the multi-layered data stream, set the extension value to a value disjoint to the first subset of the domain of extension values, and derive the cluster value from the second sub-field by mapping from the domain of possible values of the second sub-field onto the domain of cluster values, index the layer which the respective packet is associated with using the cluster and extension values. read a base layer-ID field from the multi-layered data stream, the base layer-ID field comprising a first sub-field and a second sub-field; check (314 as to whether the first sub-field of the base layer-ID field fulfills a predetermined criterion, if the first sub-field of the base layer-ID field fulfills the predetermined criterion, read an extension layer-ID field from the multi-layered data stream, derive an extension value using the extension layer-ID field so that the extension value lies within a first subset of a domain of extension values, and derive a cluster value from the second sub-field by mapping from a domain of possible values of the second sub-field onto a domain of cluster values; if the first sub-field of the base layer-ID field does not fulfill the predetermined criterion, refrain from reading an extension layer-ID field from the multi-layered data stream, set the extension value to a value disjoint to the first subset of the domain of extension values, and derive the cluster value from the second sub-field by mapping from the domain of possible values of the second sub-field onto the domain of cluster values, index the layer which the respective packet is associated with using the cluster and extension values.
An optical transmitter comprising: a laser diode for transmitting an optical signal; a first temperature sensor configured to measure a temperature at or proximate to the laser diode; a second temperature sensor configured to measure a temperature of an environment in which the optical transmitter is operating; a thermoelectric device configured to apply heating or cooling to the laser diode; and a controller configured to, using the temperature measurements taken by the first temperature sensor and the second temperature sensor, control the thermoelectric device to heat or cool the laser diode, characterized in that the thermoelectric device comprises a plurality of independently controllable heat transfer elements; and the controller is configured to control each of the plurality of heat transfer elements independently of each of the other heat transfer elements, and wherein the controller is configured to control the heat transfer elements based on a temperature measurement taken by the second temperature sensor. a laser diode for transmitting an optical signal; a first temperature sensor configured to measure a temperature at or proximate to the laser diode; a second temperature sensor configured to measure a temperature of an environment in which the optical transmitter is operating; a thermoelectric device configured to apply heating or cooling to the laser diode; and a controller configured to, using the temperature measurements taken by the first temperature sensor and the second temperature sensor, control the thermoelectric device to heat or cool the laser diode, characterized in that the thermoelectric device comprises a plurality of independently controllable heat transfer elements; and the controller is configured to control each of the plurality of heat transfer elements independently of each of the other heat transfer elements, and wherein the controller is configured to control the heat transfer elements based on a temperature measurement taken by the second temperature sensor.
A fluid flow circuit (10b, c) for separating an anticoagulated red blood cell-containing fluid into separated red blood cells and another fluid constituent, the fluid flow circuit (10b,c) comprising: a spinning membrane separator including an inlet port and a red blood cell outlet port and configured to separate an anticoagulated red blood cell-containing fluid into separated red blood cells and another fluid constituent; a fluid source container configured to contain an anticoagulated red blood cell-containing fluid; an inlet flow path in fluid communication with the inlet port of the spinning membrane separator and the fluid source container for flowing the anticoagulated red blood cell-containing fluid from the fluid source container to the inlet port; and a leukoreduction filter associated with the inlet flow path and positioned upstream of the spinning membrane separator. a spinning membrane separator including an inlet port and a red blood cell outlet port and configured to separate an anticoagulated red blood cell-containing fluid into separated red blood cells and another fluid constituent; a fluid source container configured to contain an anticoagulated red blood cell-containing fluid; an inlet flow path in fluid communication with the inlet port of the spinning membrane separator and the fluid source container for flowing the anticoagulated red blood cell-containing fluid from the fluid source container to the inlet port; and a leukoreduction filter associated with the inlet flow path and positioned upstream of the spinning membrane separator.
A pulsed fiber laser comprising: a first optical source having an output configured to operate at a first optical wavelength; an optical fiber having a core coupled to the output of the first optical source; a second optical source having an output coupled to the optical fiber and configured to operate at a second optical wavelength, and configured to provide v-groove side pumping of a cladding layer of the optical fiber; and a narrowband optical filter coupled to the optical fiber and having a passband with a bandwidth less than or equal to 5 nm, and that includes the first optical wavelength, and configured to suppress an amplified spontaneous emission in the optical fiber, wherein the passband has a temperature dependence substantially equal to a temperature response of the first optical source. a first optical source having an output configured to operate at a first optical wavelength; an optical fiber having a core coupled to the output of the first optical source; a second optical source having an output coupled to the optical fiber and configured to operate at a second optical wavelength, and configured to provide v-groove side pumping of a cladding layer of the optical fiber; and a narrowband optical filter coupled to the optical fiber and having a passband with a bandwidth less than or equal to 5 nm, and that includes the first optical wavelength, and configured to suppress an amplified spontaneous emission in the optical fiber, wherein the passband has a temperature dependence substantially equal to a temperature response of the first optical source.
Method for braking a train set, - wherein a guiding locomotive is connected to at least one guided locomotive by means of a time multiplex train bus system, the method having the following steps: - detecting an actual electrical operating current (I IstLG) of the guided locomotive, - detecting an actual electrical operating current (I IstLF) of the guiding locomotive; - detecting a maximum return current value (I max) as a current which can be maximally fed back; - detecting a pneumatic braking request value (HL soll) of the compressed air brake line; - determining a maximum electrical return current and an electrical target braking value of the guided locomotive from the actual electrical operating current (I IstLG) of the guided locomotive, the actual electrical operating current (I IstLF) of the guiding locomotive, the maximum return current value (I max) and the pneumatic braking request value (HL soll) of the compressed air brake line; - transmitting the electrical target braking value (E Soll) via the time multiplex train bus system to the guided locomotive, - electrically braking the train set by means of the electrical target braking value (E soll) in such a manner that the maximum overcurrent which can be fed back of the guided locomotive is not exceeded. - wherein a guiding locomotive is connected to at least one guided locomotive by means of a time multiplex train bus system, - detecting an actual electrical operating current (I IstLG) of the guided locomotive, - detecting an actual electrical operating current (I IstLF) of the guiding locomotive; - detecting a maximum return current value (I max) as a current which can be maximally fed back; - detecting a pneumatic braking request value (HL soll) of the compressed air brake line; - determining a maximum electrical return current and an electrical target braking value of the guided locomotive from the actual electrical operating current (I IstLG) of the guided locomotive, the actual electrical operating current (I IstLF) of the guiding locomotive, the maximum return current value (I max) and the pneumatic braking request value (HL soll) of the compressed air brake line; - transmitting the electrical target braking value (E Soll) via the time multiplex train bus system to the guided locomotive, - electrically braking the train set by means of the electrical target braking value (E soll) in such a manner that the maximum overcurrent which can be fed back of the guided locomotive is not exceeded.
A medical electrical lead comprising:a lead body extending from a terminal connector located at a proximal end portion of the lead body to a distal end portion, the lead body comprising at least one outer layer of an insulating material, at least one conductive polymer conductor extending within the lead body from the terminal connector located at the proximal end portion of the lead body in a direction toward the distal end portion of the lead body, the conductive polymer conductor comprising a conductive material blended within a copolymer; and at least one electrode located on the lead body, the at least one electrode operatively coupled to the at least one conductive polymer conductor extending within the lead body, characterised in that the insulating material includes a polyisobutylene urethane, urea or urethane/ urea copolymer, and the conductive copolymer is a polyisobutylene urethane, urea or urethane/urea copolymer.
An apparatus for retrieving data from a power distribution unit, comprising: a monitoring device, the monitoring device configured to be contained within a power distribution unit, the monitoring device including a processor, memory and display, wherein the monitoring device is configured to be coupled with tracking circuitry of the power distribution unit to obtain operating information for the power distribution unit and convert the operating information into a stream of character sets, each character set including at least one character, characterized in that the stream of character sets are presented as individual character sets on the display at a frequency of at least 9 Hertz such that they are not detectable to a human eye. a monitoring device, the monitoring device configured to be contained within a power distribution unit, the monitoring device including a processor, memory and display, wherein the monitoring device is configured to be coupled with tracking circuitry of the power distribution unit to obtain operating information for the power distribution unit and convert the operating information into a stream of character sets, each character set including at least one character, characterized in that the stream of character sets are presented as individual character sets on the display at a frequency of at least 9 Hertz such that they are not detectable to a human eye.
A media assembly (10, 48, 90, 104, 106, 108, 134, 136, 138) comprising a speaker assembly, the speaker assembly comprising: a housing (18, 54, 70) having a resonating chamber; a speaker mounted to the housing (18, 54, 70) in cooperation with the resonating chamber; and a reflector (28, 60) spaced apart from and facing the speaker, the reflector (28, 60) being symmetrical about a center axis that is generally coaxial with the speaker, the reflector (28, 60) having an arcuate central convex region for reflecting pressure back to the speaker for amplifying back pressure of the speaker, and the reflector (28, 60) having a secondary region with a concave cross-section oriented about the central region for reflecting acoustic vibrations past and outboard of the housing (18, 54, 70), characterized in that the reflector (28, 60) is at least partially translucent; and the media assembly (10, 48, 90, 104, 106, 108, 134, 136, 138) further comprises a light source (42, 44, 62) provided adjacent the reflector (28, 60) spaced apart from a reflection surface that faces the speaker, the light source being oriented to convey light through the reflector (28, 60), past and outboard of the housing (18, 54, 70) for illuminating an underlying region. a housing (18, 54, 70) having a resonating chamber; a speaker mounted to the housing (18, 54, 70) in cooperation with the resonating chamber; and a reflector (28, 60) spaced apart from and facing the speaker, the reflector (28, 60) being symmetrical about a center axis that is generally coaxial with the speaker, the reflector (28, 60) having an arcuate central convex region for reflecting pressure back to the speaker for amplifying back pressure of the speaker, and the reflector (28, 60) having a secondary region with a concave cross-section oriented about the central region for reflecting acoustic vibrations past and outboard of the housing (18, 54, 70), characterized in that the reflector (28, 60) is at least partially translucent; and the media assembly (10, 48, 90, 104, 106, 108, 134, 136, 138) further comprises a light source (42, 44, 62) provided adjacent the reflector (28, 60) spaced apart from a reflection surface that faces the speaker, the light source being oriented to convey light through the reflector (28, 60), past and outboard of the housing (18, 54, 70) for illuminating an underlying region.
A press device for pressing adjacent lamellae which are glued together to form a laminated carpet, comprising pressure pieces which can be displaced by means of drive units, characterized in that the drive units are detachably connected to at least one synchronizing rail in such a manner that the drive units are decoupled from the synchronizing rail when a predefined retaining force is exceeded.