mhurhangee/patent-ind-claim-en huggingface dataset:
An enclave identification method performed by a computing device comprising a processor and memory, the method comprising: receiving an identity type and a request for an operation related to an instantiated enclave; determining an identity value for the enclave based on the identity type and information derived from an enclave image from which the enclave was instantiated, wherein the identity value is determined as an output of a hash function, and wherein the enclave image includes references to additional dependent enclave images; and performing the operation with the identity value, wherein the method further comprises: determining , based at least in part on the identity type, an identity portion of the enclave image; computing the hash function over the identity portion; and determining , based at least in part on the identity type, which of the additional dependent enclave images are included in as input to the hash function. receiving an identity type and a request for an operation related to an instantiated enclave; determining an identity value for the enclave based on the identity type and information derived from an enclave image from which the enclave was instantiated, wherein the identity value is determined as an output of a hash function, and wherein the enclave image includes references to additional dependent enclave images; and performing the operation with the identity value, wherein the method further comprises: determining , based at least in part on the identity type, an identity portion of the enclave image; computing the hash function over the identity portion; and determining , based at least in part on the identity type, which of the additional dependent enclave images are included in as input to the hash function. determining , based at least in part on the identity type, an identity portion of the enclave image; computing the hash function over the identity portion; and determining , based at least in part on the identity type, which of the additional dependent enclave images are included in as input to the hash function.
A method comprising the steps of: providing a microfluidic system comprising one or more microchannels; introducing a stream of aqueous fluid into a microchannel of the microfluidic system, wherein the aqueous fluid contains at least a first species of a target molecule and one or more reagents for conducting a reaction with the target molecule; flowing the stream of aqueous fluid through the microchannel towards a downstream plug-forming region at an outlet of the microchannel; forming a plurality of plugs of the aqueous fluid in an immiscible carrier fluid based, at least in part, on the flow of the stream of aqueous fluid and surface tension of the aqueous fluid relative to the carrier fluid at the plug-forming region, wherein the carrier fluid comprises an oil and at least one plug is substantially surrounded by the carrier fluid, wherein the at least one plug comprises the one or more reagents sufficient for an autocatalytic reaction including the first species of molecule in a concentration such that the at least one plug contains no more than a single molecule of the first species; conducting an autocatalytic reaction such that the single molecule is amplified; and detecting contents of the plug as it is flowing through the one or more microchannels. providing a microfluidic system comprising one or more microchannels; introducing a stream of aqueous fluid into a microchannel of the microfluidic system, wherein the aqueous fluid contains at least a first species of a target molecule and one or more reagents for conducting a reaction with the target molecule; flowing the stream of aqueous fluid through the microchannel towards a downstream plug-forming region at an outlet of the microchannel; forming a plurality of plugs of the aqueous fluid in an immiscible carrier fluid based, at least in part, on the flow of the stream of aqueous fluid and surface tension of the aqueous fluid relative to the carrier fluid at the plug-forming region, wherein the carrier fluid comprises an oil and at least one plug is substantially surrounded by the carrier fluid, wherein the at least one plug comprises the one or more reagents sufficient for an autocatalytic reaction including the first species of molecule in a concentration such that the at least one plug contains no more than a single molecule of the first species; conducting an autocatalytic reaction such that the single molecule is amplified; and detecting contents of the plug as it is flowing through the one or more microchannels.
Phased array antenna comprising several antenna elements , a signal feed entry from or to which a signal is transmitted to or from the several antenna elements , and for each antenna element a corresponding phase shifting device , two bias voltage electrode lines that are connected to a bias voltage driver , wherein the bias voltage driver comprises several output channel terminal pairs , wherein each output channel terminal pair comprises two output channel terminals , and wherein each terminal pair comprises an odd output channel terminal and an even output channel terminal , each odd output channel terminal is arranged adjacent to the corresponding even output channel terminal , wherein the odd output channel terminal and the adjacent even output channel terminal form the terminal pair , wherein the two bias voltage electrode lines of each phase shifting device are connected to a the respective terminal pair , wherein the bias voltage driver has a common voltage output channel terminal and a number of odd output channel terminals and just as many even output channel terminals , whereby the phase difference of each signal that is transmitted from the signal feed entry to the respective antenna element or that is transmitted from the respective antenna element to the signal feed entry is modified by the corresponding phase shifting device in order to adjust the superposition of each signal according to the preferred direction of radiation of the phased array antenna , whereby for each phase shifting device a bias voltage is applied via the two bias voltage electrode lines ,whereby the bias voltage driver is configured to apply a tunable output channel voltage difference to each terminal pair ,whereby the bias voltage driver is configured to operate in a manner that the polarity of a voltage difference between any odd output channel terminal and the common voltage output channel terminal is opposite to the polarity of a voltage difference between any even output channel terminal and the common voltage output channel terminal .
A fecal microbiota composition for use in reducing an inflammation induced by anti-cancer therapy combined with antibiotherapy and/or hematopoietic stem cell transplantation (HSCT) in acute leukemia patient, wherein the fecal microbiota composition has been obtained by a process comprising the steps of: (i) collecting a stool sample and putting it in anaerobic conditions at most 5 minutes after collection; (ii) still in anaerobic conditions, mixing the sample with an aqueous saline solution comprising at least a cryoprotectant and/or a bulking agent; and (iii) filtering the diluted sample, wherein the proportion of the following 15 genera is increased relative to the level before a fecal microbiota transfer (FMT): Blautia, Faecalibacterium, Alistipes, Eubacterium, Bifidobacterium, Ruminococcus, Clostridium, Coprococcus, Odoribacter, Roseburia, Holdemanella, Anaerostipes, Oscillibacter, Subdoligranulum and Butyrivibrio, wherein neopterin in a gut, CRP in serum and/or ferritin in serum is decreased, and wherein the fecal microbiota composition administered comprises the following 15 genera: Blautia, Faecalibacterium, Alistipes, Eubacterium, Bifidobacterium, Ruminococcus, Clostridium, Coprococcus, Odoribacter, Roseburia, Holdemanella, Anaerostipes, Oscillibacter, Subdoligranulum and Butyrivibrio. (i) collecting a stool sample and putting it in anaerobic conditions at most 5 minutes after collection; (ii) still in anaerobic conditions, mixing the sample with an aqueous saline solution comprising at least a cryoprotectant and/or a bulking agent; and (iii) filtering the diluted sample, wherein the proportion of the following 15 genera is increased relative to the level before a fecal microbiota transfer (FMT): Blautia, Faecalibacterium, Alistipes, Eubacterium, Bifidobacterium, Ruminococcus, Clostridium, Coprococcus, Odoribacter, Roseburia, Holdemanella, Anaerostipes, Oscillibacter, Subdoligranulum and Butyrivibrio, wherein neopterin in a gut, CRP in serum and/or ferritin in serum is decreased, and wherein the fecal microbiota composition administered comprises the following 15 genera: Blautia, Faecalibacterium, Alistipes, Eubacterium, Bifidobacterium, Ruminococcus, Clostridium, Coprococcus, Odoribacter, Roseburia, Holdemanella, Anaerostipes, Oscillibacter, Subdoligranulum and Butyrivibrio.
A coffee machine for producing and dispensing coffee-based beverages comprising: at least one hydraulic pump , a boiler and a brewer unit equipped to receive ground coffee and pass through hot water received from the boiler , and comprising a flow meter to measure the flow of water and a control unit receiving electrical signals from the flow meter and controlling the at least one hydraulic pump to regulate the flow rate of water, wherein the coffee machine incorporates an input of the control unit that establishes a variable setpoint value of the flow rate that depends on a desired fixed extraction time of the ground coffee received in the brewer unit , wherein the control unit is arranged to calculate a difference between the variable setpoint value of the flow rate, and a measured value from the flow meter , and that the control unit supplies this difference as an error value to a control tool , characterized in that the control tool drives a converter that converts DC power at a powerline into an amplitude variable electrical pulse signal at a driver line that drives the at least one hydraulic pump .
A method for wireless communication, the method being performed by a user equipment, UE, and comprising: receiving (505; 1505) a group-specific signal including slot structure information to be used in communications with a base station, wherein the group-specific signal is a group common downlink control signal, and wherein slot structures comprise an uplink portion, a downlink portion, and a guard period portion; receiving (505; 1510) a UE-specific signal including additional slot structure information, the UE-specific signal being based at least in part on the slot structure information of the group-specific signal; determining (520; 1515) a first slot structure based at least in part on the group-specific signal and the UE-specific signal whereby the UE specific signal overrides at least in part a slot structure associated with the slot structure information included in the group-specific signal for the UE such that a location and duration of the guard period portion in the first slot structure is determined by the UE-specific signal; and communicating (535; 1520) with the base station using the first slot structure for a first slot. receiving (505; 1505) a group-specific signal including slot structure information to be used in communications with a base station, wherein the group-specific signal is a group common downlink control signal, and wherein slot structures comprise an uplink portion, a downlink portion, and a guard period portion; receiving (505; 1510) a UE-specific signal including additional slot structure information, the UE-specific signal being based at least in part on the slot structure information of the group-specific signal; determining (520; 1515) a first slot structure based at least in part on the group-specific signal and the UE-specific signal whereby the UE specific signal overrides at least in part a slot structure associated with the slot structure information included in the group-specific signal for the UE such that a location and duration of the guard period portion in the first slot structure is determined by the UE-specific signal; and communicating (535; 1520) with the base station using the first slot structure for a first slot.
A lens moving apparatus comprising: a housing ; a bobbin disposed in the housing ; a first coil disposed on the bobbin ; a magnet disposed on the housing ; an upper spring (150-1; 150-2; 150-3; 150-4) coupled both to an upper portion of the bobbin and to an upper portion of the housing ; a circuit board disposed under the housing ; a support member conductively connecting the upper spring (150-1; 150-2; 150-3; 150-4) to the circuit board ; and wherein the upper spring (150-1; 150-2; 150-3; 150-4) comprises: an outer portion coupled to the housing ; a first coupling portion comprising a coupling region coupled to the support member ; and a first connecting portion connecting the outer portion to the first coupling portion , wherein the first coupling portion further comprises a first extension , which extends toward the outer portion from the coupling region , characterized in that a damping member (91; 92) is disposed on the upper spring (150-1; 150-2; 150-3; 150-4), and that the first extension is spaced apart from the outer portion , and the damping member (91; 92) connects the first extension to the outer portion , that the damping member (91; 92) is spaced apart from the coupling region , and the coupling region is positioned closer to the first extension portion than the damping member (91;92). a housing ; a bobbin disposed in the housing ; a first coil disposed on the bobbin ; a magnet disposed on the housing ; an upper spring (150-1; 150-2; 150-3; 150-4) coupled both to an upper portion of the bobbin and to an upper portion of the housing ; a circuit board disposed under the housing ; a support member conductively connecting the upper spring (150-1; 150-2; 150-3; 150-4) to the circuit board ; and wherein the upper spring (150-1; 150-2; 150-3; 150-4) comprises: an outer portion coupled to the housing ; a first coupling portion comprising a coupling region coupled to the support member ; and a first connecting portion connecting the outer portion to the first coupling portion , wherein the first coupling portion further comprises a first extension , which extends toward the outer portion from the coupling region , an outer portion coupled to the housing ; a first coupling portion comprising a coupling region coupled to the support member ; and a first connecting portion connecting the outer portion to the first coupling portion , wherein the first coupling portion further comprises a first extension , which extends toward the outer portion from the coupling region , characterized in that a damping member (91; 92) is disposed on the upper spring (150-1; 150-2; 150-3; 150-4), and that the first extension is spaced apart from the outer portion , and the damping member (91; 92) connects the first extension to the outer portion , that the damping member (91; 92) is spaced apart from the coupling region , and the coupling region is positioned closer to the first extension portion than the damping member (91;92).
A zoom lens (L0) comprising, in order from an object side to an image side: a first lens unit (L1) having a positive refractive power; a second lens unit (L2) having a negative refractive power; a third lens unit (L3) having a positive refractive power; and a rear lens group (LR) including a plurality of lens units, wherein an interval between each pair of adjacent lens units is changed during zooming, wherein the rear lens group includes a lens unit Ln disposed closest to the image side among lens units including a positive lens and a negative lens, the first lens unit and the lens unit Ln are configured to move for zooming, wherein the lens unit Ln has negative refractive power, wherein the first lens unit includes, in order from the object side to the image side, a first positive lens, a second positive lens, and a first negative lens, and characterized in that the following conditional expressions are satisfied: 0.20 < f 1 / ft < 0.45 ; and − 0.15 < fn / ft < − 0.05 ; and 0.05 < Lnwi / Lnti < 0.25 , where f1 is a focal length of the first lens unit, fn is a focal length of the lens unit Ln, ft is a focal length of the zoom lens at a telephoto end, Lnwi is a distance from a lens surface closest to the image side in the lens unit Ln to a paraxial image plane on an optical axis at a wide angle end, and Lnti is a distance from a lens surface closest to the image side in the lens unit Ln to a paraxial image plane on the optical axis at the telephoto end. a first lens unit (L1) having a positive refractive power; a second lens unit (L2) having a negative refractive power; a third lens unit (L3) having a positive refractive power; and a rear lens group (LR) including a plurality of lens units, wherein an interval between each pair of adjacent lens units is changed during zooming, wherein the rear lens group includes a lens unit Ln disposed closest to the image side among lens units including a positive lens and a negative lens, the first lens unit and the lens unit Ln are configured to move for zooming, wherein the lens unit Ln has negative refractive power, wherein the first lens unit includes, in order from the object side to the image side, a first positive lens, a second positive lens, and a first negative lens, and characterized in that the following conditional expressions are satisfied: 0.20 < f 1 / ft < 0.45 ; and − 0.15 < fn / ft < − 0.05 ; and 0.05 < Lnwi / Lnti < 0.25 , where f1 is a focal length of the first lens unit, fn is a focal length of the lens unit Ln, ft is a focal length of the zoom lens at a telephoto end, Lnwi is a distance from a lens surface closest to the image side in the lens unit Ln to a paraxial image plane on an optical axis at a wide angle end, and Lnti is a distance from a lens surface closest to the image side in the lens unit Ln to a paraxial image plane on the optical axis at the telephoto end.
A vacuum pump comprising an assembly means which defines a perpendicular (100; 200) which corresponds to the direction of gravity and which forms the surface normal of an assembly plane; a shaft (30; 28; 230; 330; 328) having a shaft axis (112; 212); a space (20, 22; 220) which serves for the reception of a lubricant filling quantity (72; 74); a centrifugal structure (60, 70; 260) arranged at the shaft for distributing lubricant in the space; and an oil return means (54; 254; 354; 356) which allows the return of lubricant into the space and which has an outlet (58; 258; 258'; 358) open with respect to said space, wherein - an outlet plane (108; 208) arranged beneath the shaft with respect to the direction of gravity includes the outlet and is in parallel with the assembly plane; - a plane of intersection (106; 206) includes the lowest point with respect to the direction of gravity reached in the operation of the centrifugal structure and is in parallel with the assembly plane; and - a spacing (110; 210) between the outlet plane and the plane of intersection amounts to at least half, advantageously two thirds, of a distance between the shaft axis and the plane of intersection or of a distance between the plane of intersection and a lowest point of a housing bounding the space. - an outlet plane (108; 208) arranged beneath the shaft with respect to the direction of gravity includes the outlet and is in parallel with the assembly plane; - a plane of intersection (106; 206) includes the lowest point with respect to the direction of gravity reached in the operation of the centrifugal structure and is in parallel with the assembly plane; and - a spacing (110; 210) between the outlet plane and the plane of intersection amounts to at least half, advantageously two thirds, of a distance between the shaft axis and the plane of intersection or of a distance between the plane of intersection and a lowest point of a housing bounding the space.
A system for imaging, monitoring, measuring, or otherwise quantifying a material, combination of materials, or flow within a volume of a vessel interior or other object, the system comprising: a sensor comprising a plurality of electrodes for placement near or around the vessel or the object, wherein the sensor is adapted to provide electric field distribution and sensor sensitivity in at least two geometric dimensions; a data acquisition circuit in communication with the sensor for receiving input data from the sensor, the data acquisition circuit is adapted to output capacitance and phase data at multiple frequencies to the processing system; characterised by a processing system in communication with the data acquisition circuit, the processing system programmed with instructions for executing on the processing system to use the capacitance and phase data at multiple frequencies to measure a volume fraction of each phase of the flow and for using each capacitance and phase data to calculate the velocity for each phase of the flow. a sensor comprising a plurality of electrodes for placement near or around the vessel or the object, wherein the sensor is adapted to provide electric field distribution and sensor sensitivity in at least two geometric dimensions; a data acquisition circuit in communication with the sensor for receiving input data from the sensor, the data acquisition circuit is adapted to output capacitance and phase data at multiple frequencies to the processing system; characterised by a processing system in communication with the data acquisition circuit, the processing system programmed with instructions for executing on the processing system to use the capacitance and phase data at multiple frequencies to measure a volume fraction of each phase of the flow and for using each capacitance and phase data to calculate the velocity for each phase of the flow.
A method, comprising: transmitting, from a first cache controller of a first cache to a second cache controller of a second cache , an unused bandwidth message representing an unused bandwidth between the first cache and the second cache during a first cycle; preemptively writing back, during a second cycle, a cache line containing dirty data from the second cache to the first cache based on the unused bandwidth message; and writing over, in response to a cache miss to the second cache, the cache line in the second cache . transmitting, from a first cache controller of a first cache to a second cache controller of a second cache , an unused bandwidth message representing an unused bandwidth between the first cache and the second cache during a first cycle; preemptively writing back, during a second cycle, a cache line containing dirty data from the second cache to the first cache based on the unused bandwidth message; and writing over, in response to a cache miss to the second cache, the cache line in the second cache .
A rotary nursing bed consisting of a place to rest upon, a headrest and a footrest in the form of flat, cuboid boxes placed on travelling wheels , a main frame connected with wheel elements characterized in that the main frame is connected with the wheel elements by means of gas spring , wherein the main frame is equipped with two additional "L" shaped securing beams that form a demountable internal basket and each securing beam move upon steel bars , wherein said steel bars are located in headrest and footrest and said steel bars are so arranged that they form arched shaped guides allowing the outer ends of the safety beams to move and to set their selected position in relation to the main frame .
A beverage having an improved flavor, comprising an aqueous medium extract of a hop having been subjected to an oxidation treatment, wherein the total content of 7α-tricyclooxyisocohumulone, 7α-tricyclooxyisohumulone, and 7α-tricyclooxyisoadhumulone in the beverage is from 0.00825 to 44 ppm, wherein 7α-tricyclooxyisocohumulone, 7α-tricyclooxyisohumulone, and 7α-tricyclooxyisoadhumulone are represented by the following Formulas 1, 2 and 3, respectively: and and wherein the 7α-orientation of 7α-tricyclooxyisocohumulone, 7α-tricyclooxyisohumulone, and 7α-tricyclooxyisoadhumulone is characterized by the following Formula 4: