mhurhangee/patent-ind-claim-en huggingface dataset:
An alpha-amylase variant comprising: a) a deletion at two or more positions corresponding to positions R181, G182, D183 and G184 of the mature polypeptide of SEQ ID NO: 1, and b) a substitution at one or more positions corresponding to Y200Q or H, Y203L or N, and A204S of the mature polypeptide of SEQ ID NO: 1, and c) a substitution of the methionine at the position corresponding to position M202L of the mature polypeptide of SEQ ID NO: 1, wherein the variant has at least 90%, but less than 100% sequence identity with the mature polypeptide of SEQ ID NO: 1, and wherein the variant has alpha-amylase activity. a) a deletion at two or more positions corresponding to positions R181, G182, D183 and G184 of the mature polypeptide of SEQ ID NO: 1, and b) a substitution at one or more positions corresponding to Y200Q or H, Y203L or N, and A204S of the mature polypeptide of SEQ ID NO: 1, and c) a substitution of the methionine at the position corresponding to position M202L of the mature polypeptide of SEQ ID NO: 1,
A secure multiparty computation method in which GF(p k ) is an extended field having a characteristic of p and a degree k of field extension, a is data that is an element of the extended field GF(p k ), [a] is a share obtained by applying additive secret sharing to data a, v is an integer equal to 254, p=2, k=8, the secure multiparty computation method computing a share [a v ] of the v-th power of data a from a share [a] of data a while data a is concealed and being executed by a secure multiparty computation system that includes three or more secret computation apparatuses (1 1 , ..., 1 n ), the secure multiparty computation method comprising: computing multiplications using a protocol Mult in additive secret sharing; and computing the p u -th power of a share [a t ] of the t-th power of data a, in a local operation unit of each of the secret computation apparatuses, using a local power operation LocalExp that does not communicate with the other secret computation apparatuses, wherein the share [a t ] is locally held, u and t are integers equal to or larger than 1 satisfying t*p u ≤ v, characterized in that the secure multiparty computation method computes the share [a v ] as: [a 2 ]:=LocalExp([a], 2), [a 3 ]←Mult([a 2 ], [a]), [a 12 ]:=LocalExp([a 3 ], 2 2 ), [a 15 ]←Mult([a 12 ], [a 3 ]), [a 14 ]←Mult([a 12 ], [a 2 ]), [a 240 ]:=LocalExp([a 15 ], 2 4 ), and [a 254 ]←Mult([a 240 ], [a 14 ]); and the multiplications of Mult([a 12 ], [a 3 ]) and Mult([a 12 ], [a 2 ]) are executed in parallel. the secure multiparty computation method computing a share [a v ] of the v-th power of data a from a share [a] of data a while data a is concealed and being executed by a secure multiparty computation system that includes three or more secret computation apparatuses (1 1 , ..., 1 n ), the secure multiparty computation method comprising: computing multiplications using a protocol Mult in additive secret sharing; and computing the p u -th power of a share [a t ] of the t-th power of data a, in a local operation unit of each of the secret computation apparatuses, using a local power operation LocalExp that does not communicate with the other secret computation apparatuses, wherein the share [a t ] is locally held, u and t are integers equal to or larger than 1 satisfying t*p u ≤ v, characterized in that the secure multiparty computation method computes the share [a v ] as: [a 2 ]:=LocalExp([a], 2), [a 3 ]←Mult([a 2 ], [a]), [a 12 ]:=LocalExp([a 3 ], 2 2 ), [a 15 ]←Mult([a 12 ], [a 3 ]), [a 14 ]←Mult([a 12 ], [a 2 ]), [a 240 ]:=LocalExp([a 15 ], 2 4 ), and [a 254 ]←Mult([a 240 ], [a 14 ]); and the multiplications of Mult([a 12 ], [a 3 ]) and Mult([a 12 ], [a 2 ]) are executed in parallel. [a 2 ]:=LocalExp([a], 2), [a 3 ]←Mult([a 2 ], [a]), [a 12 ]:=LocalExp([a 3 ], 2 2 ), [a 15 ]←Mult([a 12 ], [a 3 ]), [a 14 ]←Mult([a 12 ], [a 2 ]), [a 240 ]:=LocalExp([a 15 ], 2 4 ), and [a 254 ]←Mult([a 240 ], [a 14 ]); and the multiplications of Mult([a 12 ], [a 3 ]) and Mult([a 12 ], [a 2 ]) are executed in parallel.
A non-transitory computer-readable storage medium comprising instructions that when executed cause a processor of a computing device to: in response to receiving a chunk size request from a recovery agent executable at an operating system in a second storage device of the computing device , dynamically determine a chunk size via firmware instructions in a first storage device of the computing device ; transmit the chunk size from the firmware instructions in the first storage device to the recovery agent in the second storage device ; receive data chunks of a recovery image from the recovery agent in the second storage device in sequence and validate the data chunks ; store the data chunks in a third storage device of the computing device ; and construct the recovery image using the data chunks ; wherein the chunk size is determined based on a utilization percentage of the processor , a quality of a network connection, a size of the recovery image, or a combination thereof. in response to receiving a chunk size request from a recovery agent executable at an operating system in a second storage device of the computing device , dynamically determine a chunk size via firmware instructions in a first storage device of the computing device ; transmit the chunk size from the firmware instructions in the first storage device to the recovery agent in the second storage device ; receive data chunks of a recovery image from the recovery agent in the second storage device in sequence and validate the data chunks ; store the data chunks in a third storage device of the computing device ; and construct the recovery image using the data chunks ; wherein the chunk size is determined based on a utilization percentage of the processor , a quality of a network connection, a size of the recovery image, or a combination thereof.
Biocidal composition for agricultural crops, characterised in that it comprises a photocatalytic material in the form of titanium dioxide at a concentration of between 2% to 4% (w/w) and potassium orthosilicate with an SiO 2 concentration of between 0.1% and 25% (w/w.).
A closing cap for a hydrant , comprising a locking plate with latches or other connection elements for connecting the locking plate to an output clutch of the hydrant , wherein, in the installed state of the closing cap , an inner side of the locking plate faces the output clutch when the closing cap is connected to the output clutch, wherein a hydrant device is arranged at an outer side of the locking plate opposing the inner side, characterized in that said hydrant device comprises a toroidal housing with a continuous central opening and an electronic controller arranged in said housing, wherein the toroidal housing comprises an annular housing base and an arched annular housing cover which are connected to each other in a watertight manner.
A respiratory information acquisition device used for a Pressure Swing Adsorption, PSA, type oxygen concentration device that is configured to switch and use multiple adsorption cylinders comprising: a differential pressure sensor where at one end a pressure in an oxygen supply path including both a pressure fluctuation due to a compression/decompression during a generation of concentrated oxygen gas and a respiration pressure of a patient is applied, the differential pressure sensor configured to measure a first pressure for a time span during which the respiration pressure is not applied, and the differential pressure sensor further configured to measure a second pressure with the respiration pressure superimposed on the first pressure, a phase confirmation means configured to align the periodic pressure fluctuations of the first pressure and the second pressure, and a subtraction processing means configured to calculate a difference between the aligned periodic pressure fluctuations of the first pressure and the second pressure. a differential pressure sensor where at one end a pressure in an oxygen supply path including both a pressure fluctuation due to a compression/decompression during a generation of concentrated oxygen gas and a respiration pressure of a patient is applied, the differential pressure sensor configured to measure a first pressure for a time span during which the respiration pressure is not applied, and the differential pressure sensor further configured to measure a second pressure with the respiration pressure superimposed on the first pressure, a phase confirmation means configured to align the periodic pressure fluctuations of the first pressure and the second pressure, and a subtraction processing means configured to calculate a difference between the aligned periodic pressure fluctuations of the first pressure and the second pressure.
A method for producing a seamless steel pipe having high strength and excellent resistance to sulfide stress cracking, wherein a steel that has a chemical composition consisting of, by mass percent, C: 0.15 to 0.65%, Si: 0.05 to 0.5%, Mn: 0.1 to 1.5%, Cr: 0.2 to 1.5%, Mo: 0.1 to 2.5%, Ti: 0.005 to 0.50%, Al: 0.001 to 0.50%, optionally at least one selected from the elements shown in (a) and (b), and the balance of Fe and impurities, wherein Ni, P, S, N and O among the impurities are Ni: 0.1% or less, P: 0.04% or less, S: 0.01% or less, N: 0.01% or less, and O: 0.01% or less, and that has been hot-worked into a desired shape is sequentially subjected to the steps of the following to : A step of heating the steel to a temperature exceeding the Ac 1 transformation point and lower than the Ac 3 transformation point and cooling the steel; A step of reheating the steel to a temperature not lower than the Ac 3 transformation point and quenching the steel by rapid cooling; and A step of tempering the steel at a temperature not higher than the Ac 1 transformation point; (a) Nb: 0.4% or less, V: 0.5% or less, and B: 0.01% or less; (b) Ca: 0.005% or less, Mg: 0.005% or less, and REM: 0.005% or less, and wherein in step the value of PL is 23,500 or smaller, wherein PL is expressed by PL = T + 273 × 20 + log 10 t , in which T is heating temperature (°C) and t is heating time (h), and the Ac 1 transformation point and the Ac 3 transformation point are calculated by Ac 1 point ° C = 723 + 29.1 × Si − 10.7 × Mn − 16.9 × Ni + 16.9 × Cr + 6.38 × W + 290 × As , and Ac 3 point ° C = 910 − 203 × C 0.5 + 44.7 × Si − 15.2 × Ni + 31.5 × Mo + 104 × V + 13.1 × W − 30 × Mn + 11 × Cr + 20 × Cu − 700 × P − 400 × Al − 120 × As − 400 × Ti , Ti), where, each of C, Si, Mn, Cu, Ni, Cr, Mo, V, Ti, Al, W, As and P in the formulas means the content by mass percent of that element. A step of heating the steel to a temperature exceeding the Ac 1 transformation point and lower than the Ac 3 transformation point and cooling the steel; A step of reheating the steel to a temperature not lower than the Ac 3 transformation point and quenching the steel by rapid cooling; and A step of tempering the steel at a temperature not higher than the Ac 1 transformation point; (a) Nb: 0.4% or less, V: 0.5% or less, and B: 0.01% or less; (b) Ca: 0.005% or less, Mg: 0.005% or less, and REM: 0.005% or less, and (a) Nb: 0.4% or less, V: 0.5% or less, and B: 0.01% or less; (b) Ca: 0.005% or less, Mg: 0.005% or less, and REM: 0.005% or less, and in which T is heating temperature (°C) and t is heating time (h), and the Ac 1 transformation point and the Ac 3 transformation point are calculated by
A synchronization processing method, comprising: sending (S101), by a network device, a first synchronization signal and a second synchronization signal to a terminal device within a first time unit, so that the terminal device determines an optimal transmit beam of the network device for the terminal device and a time sequence of the optimal transmit beam based on the first synchronization signal and the second synchronization signal, characterised in that : frequencies of first synchronization signals in all beams are the same, each beam is corresponding to a different frequency offset, and the frequency offset is a difference between the frequency of the first synchronization signal in a beam and a frequency of the second synchronization signal in the beam.
Power sourcing equipment , comprising a processor , a connection port , and a power supply circuit , characterized in that , the processor is configured to: perform a plurality of detections by using the connection port, wherein a quantity of performed detections is equal to a quantity of power supply ports of an intermediate device, and the connection port is connected to the intermediate device; and when at least one detection result of the plurality of detections is effective, send a power supply indication to the intermediate device, and supply power to the connection port by using the power supply circuit, wherein the power supply indication is based on each detection result of the plurality of detections. perform a plurality of detections by using the connection port, wherein a quantity of performed detections is equal to a quantity of power supply ports of an intermediate device, and the connection port is connected to the intermediate device; and when at least one detection result of the plurality of detections is effective, send a power supply indication to the intermediate device, and supply power to the connection port by using the power supply circuit, wherein the power supply indication is based on each detection result of the plurality of detections.
A method of providing a pathway through a luminal network of a patient from an entry point to a target comprising the steps of: A) providing a three-dimensional map of said luminal network; B) selecting a target on said map; C) running an algorithm that automatically determines a pathway from the selected target to a selected entry point by beginning at said selected target and following lumina of the luminal network back to said entry point; and D) displaying said determined pathway on a user interface; wherein the method further comprises running an algorithm that automatically assigns and displays waypoints along said pathway by detecting luminal intersections and designating a point spaced apart from said intersection, and on said pathway, as a waypoint for use as a navigational guidance target along the pathway. A) providing a three-dimensional map of said luminal network; B) selecting a target on said map; C) running an algorithm that automatically determines a pathway from the selected target to a selected entry point by beginning at said selected target and following lumina of the luminal network back to said entry point; and D) displaying said determined pathway on a user interface;
Glazed device intended to be assembled with a door casing for forming a motor vehicle door , including a frame having an upper cross member connecting two jambs each formed by a sliding guide rail (112 A , 112 B ) of at least one mobile glazed panel (110,) between a closed position and at least one open position, said mobile glazed panel having, on its face oriented toward the interior of the vehicle, at least one guide glide slidably mounted with respect to one of said guide rails (112 A , 112 B ), the glazed device further comprises at least one sealing device comprising a rigid upper portion (115 C ) forming said upper cross member of the frame, said rigid upper portion (115 C ) carrying first sealing means intended to come into contact with the vehicle body (C) when the door is closed, and second sealing means intended to come into contact with the mobile glazed panel , said rigid upper portion , the first door sealing means and the second glazing sealing means being made of a single piece, said sealing device comprising to fastening lugs (123 A , 123 B ) of the guide rails (112 A , 112 B ) to said sealing device , and the two fastening lugs (123 A , 123 B ) being overmolded on said sealing device . the glazed device further comprises at least one sealing device comprising a rigid upper portion (115 C ) forming said upper cross member of the frame, said rigid upper portion (115 C ) carrying first sealing means intended to come into contact with the vehicle body (C) when the door is closed, and second sealing means intended to come into contact with the mobile glazed panel , said rigid upper portion , the first door sealing means and the second glazing sealing means being made of a single piece, said sealing device comprising to fastening lugs (123 A , 123 B ) of the guide rails (112 A , 112 B ) to said sealing device , and the two fastening lugs (123 A , 123 B ) being overmolded on said sealing device .
An implant device having at least one anchoring region for anchoring the implant device in a bone, having at least one head part region , and having a connection device made of a metallic material, which connection device is designed as a module separate from the anchoring region and the head part region and is designed and set up in such a way that the head part region and anchoring region of the implant device are reversibly and elastically pivotable relative to one another, characterised in that the head part region and the anchoring region in an unloaded state of the implant device , when the implant device is not loaded by chewing movements or the like, are supported at least in regions so as to lie flat in contact against one another via surface regions of complementary design, wherein the surface regions are designed in such a way that, as they are pivoted, the head part region and the anchoring region can roll over one another in the contact region.
A method of using an actuator for detecting application of a force to an electronic device , the method comprising: determining, by a processor , a resonance frequency of an actuator in the electronic device , wherein the actuator is used in the electronic device to also provide haptic feedback by producing vibrations; determining (S315), by the processor and based on the determined resonance frequency, the presence of a force applied to the electronic device ; and executing (S320) a predetermined function of the electronic device in response to determining the presence of the force applied to the electronic device ; characterised in that: the actuator is a linear resonant actuator; and the presence of the force applied to the electronic device is determined by driving (S305) the actuator by a driving voltage signal circuitry at a first driving voltage which is a low voltage that corresponds to a low vibration amplitude that is imperceptible to a user of the electronic device . determining, by a processor , a resonance frequency of an actuator in the electronic device , wherein the actuator is used in the electronic device to also provide haptic feedback by producing vibrations; determining (S315), by the processor and based on the determined resonance frequency, the presence of a force applied to the electronic device ; and executing (S320) a predetermined function of the electronic device in response to determining the presence of the force applied to the electronic device ; the actuator is a linear resonant actuator; and the presence of the force applied to the electronic device is determined by driving (S305) the actuator by a driving voltage signal circuitry at a first driving voltage which is a low voltage that corresponds to a low vibration amplitude that is imperceptible to a user of the electronic device .
A device for monitoring physiological parameters of an animal, including an accelerometer for detecting movements of the animal, a microcontroller for processing signals emitted by the accelerometer, a power source, an RF transmitter of the information signals developed by the microcontroller, and software for detecting heat from the animal on the one hand, and the imminence of birth on the other hand, characterized in that the device is suitable for being used, in distinct periods of the lifetime of the animal, and in different locations on the animal, on the one hand to detect heat of the animal, and on the other hand to detect birth, and in that it includes discriminating means for orienting the device upon the detection of heat of the animal or on the detection of the imminence of birth.
An inventory management system comprising: a first RFID reader system monitoring a first environment including: a first RFID reader configured to attempt to communicate with a plurality of RFID-readable tags and generate data regarding the RFID-readable tags with which the first RFID reader has successfully communicated, and a first host programmed to receive said data from the first RFID reader , generate instructions based at least in part on said data, and transmit said instructions; and a second RFID reader system monitoring a second environment in which said plurality of RFID-readable tags are less easily communicated with than in the first environment, wherein the first environment and the second environment are different, the second RFID reader system including a second RFID reader configured to attempt to communicate with said plurality of RFID-readable tags, and a second host programmed to receive said instructions from the first host and modify the operation of the second RFID reader in attempting to communicate with said plurality of RFID-readable tags based at least in part on said instructions so as to increase the number of said plurality of RFID-readable tags with which the second RFID reader successfully communicates in a given time. a first RFID reader system monitoring a first environment including: a first RFID reader configured to attempt to communicate with a plurality of RFID-readable tags and generate data regarding the RFID-readable tags with which the first RFID reader has successfully communicated, and a first host programmed to receive said data from the first RFID reader , generate instructions based at least in part on said data, and transmit said instructions; and a second RFID reader system monitoring a second environment in which said plurality of RFID-readable tags are less easily communicated with than in the first environment, wherein the first environment and the second environment are different, the second RFID reader system including a second RFID reader configured to attempt to communicate with said plurality of RFID-readable tags, and a second host programmed to receive said instructions from the first host and modify the operation of the second RFID reader in attempting to communicate with said plurality of RFID-readable tags based at least in part on said instructions so as to increase the number of said plurality of RFID-readable tags with which the second RFID reader successfully communicates in a given time. a second RFID reader configured to attempt to communicate with said plurality of RFID-readable tags, and a second host programmed to receive said instructions from the first host and modify the operation of the second RFID reader in attempting to communicate with said plurality of RFID-readable tags based at least in part on said instructions so as to increase the number of said plurality of RFID-readable tags with which the second RFID reader successfully communicates in a given time.