mhurhangee/ep-ind-claims huggingface dataset:
A method for local voice survivability, comprising: detecting, by a local gateway, according to a preset detection period, an activity state of a server recorded in a server monitoring list, wherein the server monitoring list records a voice server on an Internet protocol, IP, multimedia subsystem, IMS, network in advance; monitoring, by the local gateway, interaction between a user terminal and the server in the server monitoring list; maintaining, by the local gateway, a user account and temporary user state information for the user terminal in the monitoring process, wherein the temporary user state information records time of last interaction between the user terminal and the server in the server monitoring list; intercepting, by the local gateway, when it is detected that all servers in the server monitoring list are in an unavailable state, a service data stream sent by the user terminal to the server; and providing, by the local gateway, a corresponding service response for the user terminal according to content of the intercepted service data stream and the maintained user account. detecting, by a local gateway, according to a preset detection period, an activity state of a server recorded in a server monitoring list, wherein the server monitoring list records a voice server on an Internet protocol, IP, multimedia subsystem, IMS, network in advance; monitoring, by the local gateway, interaction between a user terminal and the server in the server monitoring list; maintaining, by the local gateway, a user account and temporary user state information for the user terminal in the monitoring process, wherein the temporary user state information records time of last interaction between the user terminal and the server in the server monitoring list; intercepting, by the local gateway, when it is detected that all servers in the server monitoring list are in an unavailable state, a service data stream sent by the user terminal to the server; and providing, by the local gateway, a corresponding service response for the user terminal according to content of the intercepted service data stream and the maintained user account.
A crankshaft, comprising: a first shaft, a first oil passage being formed in the first shaft along an axis direction thereof; a second shaft, a second oil passage being formed in the second shaft along an axis direction thereof; a first crank arm, being configured to connect the first shaft and the second shaft, the first crank arm being provided with a third oil passage, and the third oil passage being configured to communicate the first oil passage with the second oil passage, wherein the second shaft is eccentrically provided relative to an axis of the first shaft; and characterised in that in any one of cross sections of the first shaft, the first oil passage does not have a constant wall thickness. a first shaft, a first oil passage being formed in the first shaft along an axis direction thereof; a second shaft, a second oil passage being formed in the second shaft along an axis direction thereof; a first crank arm, being configured to connect the first shaft and the second shaft, the first crank arm being provided with a third oil passage, and the third oil passage being configured to communicate the first oil passage with the second oil passage, wherein the second shaft is eccentrically provided relative to an axis of the first shaft; and characterised in that in any one of cross sections of the first shaft, the first oil passage does not have a constant wall thickness.
A method of enabling wireless data transfer to an electronic device having a first transceiver structured to interact with a first wireless network wherein a first beacon signal is repeatedly transmitted at a first interval, and further having a second transceiver structured to interact with a second wireless network wherein a second beacon signal is repeatedly transmitted at a second interval that is longer than the first interval, the method comprising: repeatedly powering up the second transceiver to receive data through the second wireless network, the data received including the second beacon signal; and while the first transceiver is powered down, receiving an instance of the second beacon signal with an indication of availability of data to be transferred to the electronic device through the first wireless network; in response to the receiving of the instance of the second beacon signal with the indication of availability of the data, powering up the first transceiver to receive the data through the first wireless network while simultaneously using the second transceiver to receive an initial portion of the data through the second wireless network; receiving the initial portion of the data through the second wireless network; and receiving a second portion of the data through the first wireless network, wherein at least a portion of the receiving the initial portion and the receiving a second portion occur simultaneously. repeatedly powering up the second transceiver to receive data through the second wireless network, the data received including the second beacon signal; and while the first transceiver is powered down, receiving an instance of the second beacon signal with an indication of availability of data to be transferred to the electronic device through the first wireless network; in response to the receiving of the instance of the second beacon signal with the indication of availability of the data, powering up the first transceiver to receive the data through the first wireless network while simultaneously using the second transceiver to receive an initial portion of the data through the second wireless network; receiving the initial portion of the data through the second wireless network; and receiving a second portion of the data through the first wireless network, wherein at least a portion of the receiving the initial portion and the receiving a second portion occur simultaneously.
Sill trim with a construction length significantly above one meter, for a motor vehicle, with - an upper region, and - a lower region, wherein a part of the outer side of the upper region forms a visible area of the sill trim, which, in the installed state of the sill trim, is visible on the motor vehicle, wherein the lower region is releasably fastenable to a bodywork element of the motor vehicle and extends until a transition section, wherein the lower region forms the region of the sill trim not visible in the installed state, characterized in that the sill trim is composed of at least two parts (8, 9), wherein a visible part forming the upper region consists of a thermoplastic material and comprises at least one lacquer layer on the outer side, and wherein a function part forming the lower region consist of a further thermoplastic material and is unlacquered and, wherein the visible part is connected with the function part in the region of the transition section. - an upper region, and - a lower region,
A hybrid electric propulsion system, comprising: a gas turbine engine including a low speed spool and a high speed spool, the low speed spool including a low pressure compressor and a low pressure turbine, and the high speed spool including a high pressure compressor and a high pressure turbine; a mechanical power transmission (150A, 150B) configured to at least one of extract power from and supply power to at least one of the low speed spool and the high speed spool; an electric motor (212A, 212B) configured to augment rotational power of at least one of the low speed spool and the high speed spool; and a controller operable to control a power augmentation of at least one of the low speed spool and the high speed spool during an operational stress state of operation of the gas turbine engine; characterized in that the power augmentation includes slowing a deceleration of the high speed spool while maintaining a commanded thrust by at least one of: (i) extracting power from the low speed spool; (ii) adding power to the high speed spool from an auxiliary power source; and (iii) transferring power from the low speed spool to the high speed spool. a gas turbine engine including a low speed spool and a high speed spool, the low speed spool including a low pressure compressor and a low pressure turbine, and the high speed spool including a high pressure compressor and a high pressure turbine; a mechanical power transmission (150A, 150B) configured to at least one of extract power from and supply power to at least one of the low speed spool and the high speed spool; an electric motor (212A, 212B) configured to augment rotational power of at least one of the low speed spool and the high speed spool; and a controller operable to control a power augmentation of at least one of the low speed spool and the high speed spool during an operational stress state of operation of the gas turbine engine; characterized in that the power augmentation includes slowing a deceleration of the high speed spool while maintaining a commanded thrust by at least one of: (i) extracting power from the low speed spool; (ii) adding power to the high speed spool from an auxiliary power source; and (iii) transferring power from the low speed spool to the high speed spool. (i) extracting power from the low speed spool; (ii) adding power to the high speed spool from an auxiliary power source; and (iii) transferring power from the low speed spool to the high speed spool.
Thermochemical heat storage system comprising at least one compartment (8.1) called the upstream compartment, configured to contain a heat storage material, means of feeding a heat storage material into the upstream compartment, means of circulating a fluidisation gas in the upstream compartment so as to form a fluidised bed in said upstream compartment (8.1) with the storage material, means of circulating a heat fluid transfer in said upstream compartment (8.1) so as to make heat exchanges with the storage material, the system being characterised in that it comprises means of regulating the fluidisation gas inlet velocity as a function of the thermal power transported by the heat transporting fluid at the storage system inlet, such that the temperature of the heat fluid transfer at the outlet from the heat storage system is kept approximately constant.
A method for assembling a blood treatment circuit by aseptically connecting a connected bag set, which has previously been sterilized, and a filter unit, which has previously been sterilized, to each other, said connected bag set being composed of a primary bag holding collected blood and a secondary bag holding blood or blood components and a first tube connecting said primary bag to said secondary bag, said filter unit having an inlet and an outlet, a filter medium to remove specific components from a fluid introduced through said inlet, and a second tube, both ends of which are connected to said inlet and said outlet, wherein said method comprises a step of aseptically connecting said first tube to said second tube by using an apparatus for aseptically connecting tubes, thereby placing said filter unit along said first tube.
An apparatus comprising: means for determining a position of a plurality of users, each having a different position within a volumetric space (40, 40', 70, 90), wherein the volumetric space is one or more of a virtual reality, augmented reality or mixed reality space; means for determining a rendering of a single message (48, 68, 78, 96) within the volumetric space, based, at least in part, on the determined positions of said users, such that the message is visible to all of said plurality of users that have not acknowledged the message; and means for determining an acknowledgement of the message, wherein said means for determining rendering of the message includes updating the rendering of the message so that the message is no longer presented to users that have acknowledged the message. means for determining a position of a plurality of users, each having a different position within a volumetric space (40, 40', 70, 90), wherein the volumetric space is one or more of a virtual reality, augmented reality or mixed reality space; means for determining a rendering of a single message (48, 68, 78, 96) within the volumetric space, based, at least in part, on the determined positions of said users, such that the message is visible to all of said plurality of users that have not acknowledged the message; and means for determining an acknowledgement of the message, wherein said means for determining rendering of the message includes updating the rendering of the message so that the message is no longer presented to users that have acknowledged the message.
Rotary dobby for a loom, this dobby comprising, for each of its blades: - an oscillating part coupled to a heddle frame and associated with an actuating element mounted loose on a central shaft, - a first driving element for driving the actuation element, secured in rotation to the central shaft, - a second driving element for driving the actuation element, and - at least one latch (10, 11) mounted on the actuation element and capable of securing this actuation element in rotation either with the first driving element, or with the second driving element, one of the two driving elements being driven in a rotary movement in only one direction, while the other driving element is driven in an alternating rotary movement, characterized in that the second driving element is placed around the first driving element and in that the latch (10, 11) is placed in a space defined radially between the first driving element and the second driving element. - an oscillating part coupled to a heddle frame and associated with an actuating element mounted loose on a central shaft, - a first driving element for driving the actuation element, secured in rotation to the central shaft, - a second driving element for driving the actuation element, and - at least one latch (10, 11) mounted on the actuation element and capable of securing this actuation element in rotation either with the first driving element, or with the second driving element,
A computer-implemented method of providing a synthetic track to one or more observation devices, comprising: determining, by one or more computing devices, a location range and a time range for a synthetic track to be created by at least a subset of a plurality of platforms (102A-G); determining, by the one or more computing devices, an emission location (120A-G) and an emission time (122A-G) for at least the subset of platforms of the plurality of platforms (102A-G) based at least in part on the location range and the time range, wherein the emission location (120A-G) is indicative of a location at which the respective platform is to generate an emission (126A-G) and the emission time (122A-G) is indicative of a time at which the respective platform is to generate the emission (126A-G); and sending, by the one or more computing devices, a set of data (128A-G) to each of the platforms of at least the subset of platforms (102A-G), each respective set of data (128A-G) indicating the emission location (120A-G) and the emission time (122A-G) at which the respective platform is to generate the emission to create the synthetic track; characterized in that the emissions (126A-G) are not generated in response to the platforms (102 A-G) receiving one or more signals from one or more observation devices. determining, by one or more computing devices, a location range and a time range for a synthetic track to be created by at least a subset of a plurality of platforms (102A-G); determining, by the one or more computing devices, an emission location (120A-G) and an emission time (122A-G) for at least the subset of platforms of the plurality of platforms (102A-G) based at least in part on the location range and the time range, wherein the emission location (120A-G) is indicative of a location at which the respective platform is to generate an emission (126A-G) and the emission time (122A-G) is indicative of a time at which the respective platform is to generate the emission (126A-G); and sending, by the one or more computing devices, a set of data (128A-G) to each of the platforms of at least the subset of platforms (102A-G), each respective set of data (128A-G) indicating the emission location (120A-G) and the emission time (122A-G) at which the respective platform is to generate the emission to create the synthetic track; characterized in that the emissions (126A-G) are not generated in response to the platforms (102 A-G) receiving one or more signals from one or more observation devices.
A process for preparing a compound of formula 1, having the chemical name 3- endo -(8-azabicyclo[3.2.1]oct-3-yl)benzamide, or a salt thereof: the process comprising hydrogenating a compound of formula 2, having the chemical name 3-(8-azabicyclo[3.2.1]oct-2-en-3-yl)benzamide: or an acid salt thereof, in the presence of a palladium metal catalyst, and, when the compound of formula 2 is in the form of a free base, in the presence of an acid, to provide a compound of formula 1 or a salt thereof; in which the compound of formula 2 or acid salt thereof has been prepared by deprotecting a compound of formula 3: wherein P 1 is tert -butoxycarbonyl or p -methoxybenzyloxycarbonyl.
A printer cartridge comprising: a shared free fluid chamber; multiple backpressure chambers arranged in an array and in fluid communication with the shared free fluid chamber, each backpressure chamber (104-1, 104-2, 104-3) comprising: an outlet to supply fluid from the backpressure chamber (104-1, 104-2, 104-3) to a corresponding nozzle of a fluidic ejection assembly, and a spring-compliant wall to regulate backpressure provided to the nozzle during deposition of fluid onto a print medium; and multiple ports disposed between the shared free fluid chamber and the multiple backpressure chambers to regulate flow of fluid between the free fluid chamber and the multiple backpressure chambers. a shared free fluid chamber; multiple backpressure chambers arranged in an array and in fluid communication with the shared free fluid chamber, each backpressure chamber (104-1, 104-2, 104-3) comprising: an outlet to supply fluid from the backpressure chamber (104-1, 104-2, 104-3) to a corresponding nozzle of a fluidic ejection assembly, and a spring-compliant wall to regulate backpressure provided to the nozzle during deposition of fluid onto a print medium; and an outlet to supply fluid from the backpressure chamber (104-1, 104-2, 104-3) to a corresponding nozzle of a fluidic ejection assembly, and a spring-compliant wall to regulate backpressure provided to the nozzle during deposition of fluid onto a print medium; and multiple ports disposed between the shared free fluid chamber and the multiple backpressure chambers to regulate flow of fluid between the free fluid chamber and the multiple backpressure chambers.
A passively Q-switched laser device (1, 2, 3) comprising an excitation light source arranged to emit pulsed excitation light, and an optical resonator (20, 50, 70) that includes a saturable absorber (32, 27) that is arranged to serve as a passive Q-switch and a laser medium (31, 26) that is arranged to emit light upon absorption of the excitation light, the laser medium being arranged to emit the light upon an input of the excitation light, which is pulsed light, into the optical resonator (20, 50, 70), the optical resonator (20, 50, 70) being arranged to amplify the light emitted by the laser medium (31, 26) to obtain laser light and output the laser light as output light, the laser medium being doped with ytterbium (Yb), the excitation light source and the optical resonator being configured such that a pulse width of the excitation light, a cavity length of the optical resonator (20, 50, 70), and the saturable absorber are set such that the excitation light is single-pulsed light and the output light is composed of a plurality of pulses, the passively Q-switched laser device comprising a spatial filter (40, 60) that is disposed in an optical path of the light inside the optical resonator or that is disposed in an optical path of the output light outside the optical resonator (20, 50), the spatial filter (40, 60) being configured to filter out a portion of the light or of the output light around an optical axis so as to bring a transverse oscillation mode close to single mode. the laser medium being doped with ytterbium (Yb), the excitation light source and the optical resonator being configured such that a pulse width of the excitation light, a cavity length of the optical resonator (20, 50, 70), and the saturable absorber are set such that the excitation light is single-pulsed light and the output light is composed of a plurality of pulses, the passively Q-switched laser device comprising a spatial filter (40, 60) that is disposed in an optical path of the light inside the optical resonator or that is disposed in an optical path of the output light outside the optical resonator (20, 50), the spatial filter (40, 60) being configured to filter out a portion of the light or of the output light around an optical axis so as to bring a transverse oscillation mode close to single mode.
An apparatus, comprising: a lancet integrated test tape (174, 176) comprising a plurality of lancet integrated test units, the lancet integrated test units each comprising a lancet configured to form an incision in tissue, and a test element configured to analyze body fluid from the incision in the tissue; and a cartridge comprising a supply compartment configured to store an unused section of the lancet integrated test tape, the lancet integrated test tape being folded within the supply compartment to limit damage to the lancet integrated test units, wherein the unused section of the lancet integrated test tape is folded in an accordion manner within the supply compartment, characterized by a feed mechanism to feed the lancet integrated test tape; wherein the lancet integrated test tape includes fold lines between each lancet integrated test unit; wherein the lancets and test elements are joined together at alternating fold lines for folding the lancet integrated test tape in the accordion manner in which the lancets and test elements are folded away from each other within the supply compartment; and wherein the lancet integrated test tape is configured to unfold during indexing in a manner in which the lancets and test elements are sandwiched together by opposing guides to form the lancet integrated test units. a lancet integrated test tape (174, 176) comprising a plurality of lancet integrated test units, the lancet integrated test units each comprising a lancet configured to form an incision in tissue, and a test element configured to analyze body fluid from the incision in the tissue; and a cartridge comprising a supply compartment configured to store an unused section of the lancet integrated test tape, the lancet integrated test tape being folded within the supply compartment to limit damage to the lancet integrated test units, wherein the unused section of the lancet integrated test tape is folded in an accordion manner within the supply compartment, characterized by a feed mechanism to feed the lancet integrated test tape; wherein the lancet integrated test tape includes fold lines between each lancet integrated test unit; wherein the lancets and test elements are joined together at alternating fold lines for folding the lancet integrated test tape in the accordion manner in which the lancets and test elements are folded away from each other within the supply compartment; and wherein the lancet integrated test tape is configured to unfold during indexing in a manner in which the lancets and test elements are sandwiched together by opposing guides to form the lancet integrated test units.