mhurhangee/ep-ind-claims huggingface dataset:
An attack code detection device comprising: a learning unit configured to generate a model which has learned, using a known malicious data series including a Return Oriented Programming,ROP, code, as learning data that a feature of a byte sequence is a component of a data series, and that a feature of a byte sequence is a component of an ROP code; a detection unit configured to detect the ROP code included in an inspection target unknown data series, based on the model; and a malignancy determination unit configured to determine, using a detection result of the detection unit, whether the inspection target unknown data series is a malicious data series that is configured to execute an attack using ROP wherein, based on the model, the detection unit is configured to obtain a component of a data series included in a byte sequence forming the inspection target unknown data series, or a component of the ROP code, and is configured to detect the ROP code included in the inspection target unknown data series. a learning unit configured to generate a model which has learned, using a known malicious data series including a Return Oriented Programming,ROP, code, as learning data that a feature of a byte sequence is a component of a data series, and that a feature of a byte sequence is a component of an ROP code; a detection unit configured to detect the ROP code included in an inspection target unknown data series, based on the model; and a malignancy determination unit configured to determine, using a detection result of the detection unit, whether the inspection target unknown data series is a malicious data series that is configured to execute an attack using ROP wherein, based on the model, the detection unit is configured to obtain a component of a data series included in a byte sequence forming the inspection target unknown data series, or a component of the ROP code, and is configured to detect the ROP code included in the inspection target unknown data series.
A head-mounted display device comprising: a microdisplay configured to display an augmented reality image and comprises a panel of light-emitting diodes arranged in rows; and a sensor configured to sense an angular velocity of a user's head; and at least one control circuit, to reduce motion blur of the augmented reality image, configured to control the microdisplay responsive to the angular velocity by concurrently decreasing a row duty cycle of the rows and increasing a panel duty cycle of the panel, wherein: for each row, the row duty cycle is provided according to a respective row duty cycle control signal which transitions from an associated on level to an associated off level; the panel duty cycle is provided according to a panel duty cycle control signal which transitions between associated on and off levels; and the light-emitting diodes of each row are on when the row duty cycle is at the associated on level concurrently with the panel duty cycle being at the associated on level, and are off at other times. a microdisplay configured to display an augmented reality image and comprises a panel of light-emitting diodes arranged in rows; and a sensor configured to sense an angular velocity of a user's head; and at least one control circuit, to reduce motion blur of the augmented reality image, configured to control the microdisplay responsive to the angular velocity by concurrently decreasing a row duty cycle of the rows and increasing a panel duty cycle of the panel, wherein: for each row, the row duty cycle is provided according to a respective row duty cycle control signal which transitions from an associated on level to an associated off level; the panel duty cycle is provided according to a panel duty cycle control signal which transitions between associated on and off levels; and the light-emitting diodes of each row are on when the row duty cycle is at the associated on level concurrently with the panel duty cycle being at the associated on level, and are off at other times. for each row, the row duty cycle is provided according to a respective row duty cycle control signal which transitions from an associated on level to an associated off level; the panel duty cycle is provided according to a panel duty cycle control signal which transitions between associated on and off levels; and the light-emitting diodes of each row are on when the row duty cycle is at the associated on level concurrently with the panel duty cycle being at the associated on level, and are off at other times.
Armrest device for an aircraft seat, with a cushion unit, which is at least substantially implemented by an elastomer and is configured at least to form an elastic substrate for an arm support for a passenger, wherein the cushion unit comprises a comfort structure, which is configured for an adjustment of an elastic deformability of the cushion unit, wherein the cushion unit is implemented at least substantially of a silicone, and with an inlay, which is at least substantially encompassed by the cushion unit that is at least substantially implemented of a silicone, characterised in that the inlay is connected to the cushion unit by an adhesive bond and/or by substance-to-substance bond, wherein a middle region of the inlay is implemented by a lattice structure.
A radiographic imaging system capable of both tomosynthesis x-ray imaging and standard projection radiography x-ray imaging, the radiographic imaging system comprising an x-ray generator and a control unit to control x-ray sources, the system comprising a single x-ray source assembly (100, 200) comprising a plurality of distributed x-ray sources (120t, 220), where at least one of the plurality of distributed x-ray sources is positioned centrally (120s, 210) and is_configured to output a beam sufficient for standard projection radiography, and each of at least two of the plurality of distributed x-ray sources (120t, 220) is configured to output a beam at a lower radiation dose sufficient for tomosynthesis, and the control unit configured to control each of the x-ray sources (120t, 120s, 210, 220), the system being characterised in that the plurality of distributed x-ray sources are in a circular arrangement (120t, 220), and attached to a single collimator (122, 222) such that the x-rays from all said sources for tomosynthesis (120t, 220) are focused to overlap at a prescribed distance or at an x-ray detector, where each said single collimator (122, 222) is adjustable cooperatively such that the individual radiation field from each said x-ray source for tomosynthesis (120t, 220) is refocused to accommodate different source to detector distance and radiation field size.
A method for monitoring light weight machine to machine, LWM2M, Internet of things, loT, device state, the method comprising: in a service capability exposure function, SCEF, including at least one processor: providing an interface for receiving subscription requests from loT application servers, ASs, or service capability servers, SCSs, for monitoring LWM2M loT device state; maintaining, in the SCEF, a database of identifiers of loT devices that utilize LWM2M protocols; receiving, via the interface and from an SCS or AS, a first monitoring event request for subscribing to receive state information regarding an loT device; performing a lookup in the database using an loT device identifier extracted from the first monitoring event request and identifying the first monitoring event request as being associated with an LWM2M loT device; communicating with the LWM2M loT device using LWM2M constrained application protocol, CoAP, messaging to subscribe to and receive state information from the LWM2M loT device; and communicating the state information to the SCS or AS. providing an interface for receiving subscription requests from loT application servers, ASs, or service capability servers, SCSs, for monitoring LWM2M loT device state; maintaining, in the SCEF, a database of identifiers of loT devices that utilize LWM2M protocols; receiving, via the interface and from an SCS or AS, a first monitoring event request for subscribing to receive state information regarding an loT device; performing a lookup in the database using an loT device identifier extracted from the first monitoring event request and identifying the first monitoring event request as being associated with an LWM2M loT device; communicating with the LWM2M loT device using LWM2M constrained application protocol, CoAP, messaging to subscribe to and receive state information from the LWM2M loT device; and communicating the state information to the SCS or AS.
A process for producing a structure comprising a membrane of a first material, in particular indium-tin oxide, in contact with receiving ends of a plurality of nanowires, the process comprising the following steps: - Forming a nanowire device comprising the receiving ends, the receiving ends being formed so as to form planar surfaces, - Producing of a membrane device (3; 34) comprising said membrane and a layer - Placing, by transfer, of the membrane device (3; 34), previously made, directly on the nanowires at the planar surfaces of the receiving ends, so that the membrane is in contact with said receiving ends, the ratio of the sum of the areas of the surfaces of the receiving ends relative to the continuous area of the surface of the membrane on said receiving ends being strictly less than 100%, and - Following the step of placing the membrane device on the nanowires at the receiving ends, rinsing the structure with a solvent, so as to dissolve the layer of the membrane device so as to remain on said receiving ends, the membrane. - Forming a nanowire device comprising the receiving ends, the receiving ends being formed so as to form planar surfaces, - Producing of a membrane device (3; 34) comprising said membrane and a layer - Placing, by transfer, of the membrane device (3; 34), previously made, directly on the nanowires at the planar surfaces of the receiving ends, so that the membrane is in contact with said receiving ends, the ratio of the sum of the areas of the surfaces of the receiving ends relative to the continuous area of the surface of the membrane on said receiving ends being strictly less than 100%, and - Following the step of placing the membrane device on the nanowires at the receiving ends, rinsing the structure with a solvent, so as to dissolve the layer of the membrane device so as to remain on said receiving ends, the membrane.
Junction organ to connect a first baking dish and a second baking dish, each of the first and second (1,2) baking dish having each an edge, including a bottom wall, substantially horizontal, and a side wall, substantially vertical, extending from the bottom wall to the edge, the first baking dish having 0, 1, or 2 grip ears and the second baking dish having 1 or 2 grip ears, characterised in that the connecting member includes a connecting ring conformed to position the edge of the second baking dish overhanging the edge of the first baking dish and at least one gripping portion extending protruding from the connecting ring, said connecting ring comprising: a first low end portion conformed to extend inside of the side wall of the first baking dish, a second high end portion conformed to extend outside the side wall the second baking dish and a central portion connecting the first and second high end portions (9.10) and arranged to be positioned between the edges of the first and second baking dish (1.2); further characterised in that at least one portion of the grip of the junction organ extends transversely from the second high end portion and in the extension of the second high end portion and in so far as said at least one portion of grip is conformed to cooperate by complementarity of form with at least one ear of grip of the second dish of cooking.
Compound of following formula: R a R b C(OR 1)-CHR c -CONR 2 R 3 where - R a, R b and R c, which are identical or different, are groups chosen from the hydrogen atom and linear or branched alkyl groups, at least one of the groups chosen from R a, R b and R c being other than the hydrogen atom, - R 1 is chosen from methyl, ethyl, propyl, isopropyl, n-butyl, isobutyl, n-pentyl, isopentyl, isoamyl, n-hexyl, cyclohexyl, n-octyl, isooctyl, 2-ethylhexyl or tridecyl groups; - R 2 and R 3, which are identical or different, are groups chosen from methyl, ethyl, n-propyl, isopropyl, n-butyl, isobutyl, n-pentyl, amyl, isoamyl, hexyl or cyclohexyl groups. - R a, R b and R c, which are identical or different, are groups chosen from the hydrogen atom and linear or branched alkyl groups, at least one of the groups chosen from R a, R b and R c being other than the hydrogen atom, - R 1 is chosen from methyl, ethyl, propyl, isopropyl, n-butyl, isobutyl, n-pentyl, isopentyl, isoamyl, n-hexyl, cyclohexyl, n-octyl, isooctyl, 2-ethylhexyl or tridecyl groups; - R 2 and R 3, which are identical or different, are groups chosen from methyl, ethyl, n-propyl, isopropyl, n-butyl, isobutyl, n-pentyl, amyl, isoamyl, hexyl or cyclohexyl groups.
A motion compensating gangway comprising: a proximal end, a distal end, a walkway between these, a control unit, and a joint and an actuator (26, 28, 30) for each of a telescopic, luffing and slewing direction, for moving the distal end relative to the proximal end upon command from the control unit, the motion compensating gangway comprising at least one sensor for determining a condition of contact between the distal end and a separate structure, and a contact mode, wherein under the contact mode the control unit is configured to control the distal end position relative to the proximal end, based on at least a signal from a motion reference unit and a signal from the sensor, the actuators being driven based on the signal from the motion reference unit and additionally on the signal from the sensor. a proximal end, a distal end, a walkway between these, a control unit, and a joint and an actuator (26, 28, 30) for each of a telescopic, luffing and slewing direction, for moving the distal end relative to the proximal end upon command from the control unit, the motion compensating gangway comprising at least one sensor for determining a condition of contact between the distal end and a separate structure, and a contact mode, wherein under the contact mode the control unit is configured to control the distal end position relative to the proximal end, based on at least a signal from a motion reference unit and a signal from the sensor, the actuators being driven based on the signal from the motion reference unit and additionally on the signal from the sensor.
A shaft assembly for use with a surgical instrument, said shaft assembly comprising: a shaft; an end effector; an articulation joint connecting said end effector to said shaft; a firing driver movable relative to said end effector; an articulation driver configured to articulate said end effector about said articulation joint; and a clutch, wherein the clutch comprises an engagement member configured to rotate about a pivot pin mounted to a proximal end of the articulation driver to selectively engage said articulation driver to said firing driver to impart the movement of said firing driver to said articulation driver. a shaft; an end effector; an articulation joint connecting said end effector to said shaft; a firing driver movable relative to said end effector; an articulation driver configured to articulate said end effector about said articulation joint; and a clutch, wherein the clutch comprises an engagement member configured to rotate about a pivot pin mounted to a proximal end of the articulation driver to selectively engage said articulation driver to said firing driver to impart the movement of said firing driver to said articulation driver.
A method in a network node configured to transmit data using an automatic retransmission process, the method comprising: receiving data to be transmitted to a remote endpoint; and when all process identifiers in a predetermined set of process identifiers of the automatic retransmission process are currently in use: selecting one process identifier from the predetermined set of process identifiers; storing a previously transmitted transport block in a temporary buffer, the previously transmitted transport block including the selected process identifier; and transmitting the received data in a second transport block including the selected process identifier. receiving data to be transmitted to a remote endpoint; and when all process identifiers in a predetermined set of process identifiers of the automatic retransmission process are currently in use: selecting one process identifier from the predetermined set of process identifiers; storing a previously transmitted transport block in a temporary buffer, the previously transmitted transport block including the selected process identifier; and transmitting the received data in a second transport block including the selected process identifier. selecting one process identifier from the predetermined set of process identifiers; storing a previously transmitted transport block in a temporary buffer, the previously transmitted transport block including the selected process identifier; and transmitting the received data in a second transport block including the selected process identifier.
A cold-rolled steel plate having a chemical composition containing, on the basis of percent by mass, C from 0.03 to 0.12%, Si from 0 to 1.0%, Mn from 0.2 to 0.8%, P at 0.03% or less, S at 0.03% or less, and A1 at 0.05% or less so as to satisfy the formula: 5 * C% - Si% + Mn% - 1.5 * Al% < 1, and the chemical composition further containing a plurality of elements out of Nb from 0.01 to 0.4%, V from 0.01 to 0.3%, and Ti from 0.01 to 0.3% so as to satisfy a formula: 0.04 < (Nb%/1.4) + (V%/1.1) + Ti% < 0.3, with the remainder of the composition totalling 100% being formed of Fe and unavoidable impurities; wherein an average diameter of particles of carbides containing at least one of Nb, V and Ti as precipitates is from 20 to 100 nm; and wherein the cold-rolled steel plate has cross-sectional hardness from 200 to 400 HV.
A method for manufacturing a chambered steel piston ring provided with a wear-resistant layer (8, 9), in that a base body is produced, the bearing surface of which is provided with a chambering, and which base body will be worked in the transition area of a flank of the base body into the bearing surface, such that a chamfer is created, the bearing surface as well as at least parts of the chamfer will be provided with a wear-resistant layer (8, 9), the circumferential areas and flank areas (5, 6) of the base body, which are not provided with the wear-resistant layer (8, 9), will be nitrided, such that in the area on the side of the chamfer of the flank a section of defined width (a) will remain which does not comprise any nitrided layer, and finally at least the wear-resistant layer (8, 9) will be removed to such an extent that an essentially sharp, but not nitrided functional edge will be created in the transition area of the flank into the bearing surface.
An ultrasonic sealing method that applies a pressure from both sides of a bag with a horn (31, 64) and an anvil (32, 65) of an ultrasonic sealing device, and an ultrasonic vibration energy transmitted from the horn seals films (17, 18) on both sides of the bag together or seals films (17, 18) on both sides of the bag and a part sandwiched therebetween, wherein, when a gap is formed between the films (17, 18) on both sides of the bag in a region adjacent to a site sandwiched between the horn (31, 64) and the anvil (32, 65), characterized in that said method moves a contact member (71, 73) from a horn (31, 64) side toward said region and presses said contact member (71, 73) against film (17, 18) on the horn side, and then in this state supplies ultrasonic vibration energy to the horn, wherein the bag is equipped a gas compartment that extends in a longitudinal direction thereof and is integrally formed at a sealed part of a side edge of the bag, with an air intake means that allows an inside of the gas compartment to communicate with an outside of the bag being formed in a film of a gas introduction portion of the gas compartment, the gap is a gap that is formed in the gas compartment when the gas compartment is inflated, at least one of said horn (31, 64) and said anvil (32, 65) is provided therein with a gas channel (43, 48) that is connected at one end thereof to a pressurized gas supply source and opens at another end thereof to a distal end thereof, said another end of said channel (43, 48) being a spray outlet (47, 52) for a pressurized gas, the pressurized gas is blown into the gas compartment through the gas introduction portion by at least one of said horn (31, 64) and said anvil (32, 65) to inflate the gas compartment, and the film around the air intake means is then ultrasonically sealed.
A composition comprising a clay interlaced yeast cell wall extract, wherein the clay interlaced yeast cell wall extract is derived from a yeast cell cultivated in growth medium comprising clay, for use in decreasing the absorption and/or uptake of one or more types of mycotoxins by a subject via the digestive tract and thereby preventing mycotoxin-associated diseases and mycotoxin-associated pathological responses in the subject.
A process for laundering textiles in a tunnel washer comprising two or more compartments, wherein the textiles are transported from compartment to compartment in a predetermined pace, water is transported through the tunnel washer in counter-current, and a halogen-free washing liquor is supplied to one or more compartments, wherein said washing liquor is partially or completely irradiated with UV radiation, characterized in that said washing liquor comprises hydrogen peroxide and/or peracid in a solvent, especially water.
A method for animal liquid manure processing, wherein a liquid manure stream taken from a liquid manure tank and mixed with an addition of a substance containing at least 1% by weight free calcium oxide or potassium oxide, such as a biomass ash, in relation to the weight of the liquid manure, is filtered on a filter on a filter bed, at least 50% by volume of which is pyrolytic carbon obtained from a dry biomass in a biomass pyrolysis unit, a primary filtrate stream is subjected to nanofiltration in a nanofiltration unit, from where a permeate stream goes to a water treatment installation, from which an industrial water stream is obtained, while the filtration bed with pyrolytic carbon with a filtered off mass being a stream of solid fraction from the liquid manure with pyrolytic carbon after exceeding a total mass of not less than 150% of the initial carbon mass of the filter bed is exchanged for a new bed with pyrolytic carbon and the stream of solid fraction with pyrolytic carbon after mixing in a dense substrate mixer, with a retentate stream from the nanofiltration unit, eventually with other admixture substrates (23, 24, 25) as a dense fertilizer mix is granulated and dried in a granulator, the temperature to which the dense fertilizer mix is subjected either before granulating, during granulating or during drying, is not lower than 95 degrees C for not less than 20 s, at the same time, the heat for heating and drying granules is obtained from combustion of excess streams of liquid and gaseous fuel from the dry biomass pyrolysis, the excess ones, i.e. those remaining after use for the own needs of the biomass pyrolysis unit.