mhurhangee/ep-ind-claims huggingface dataset:
A printing method, comprising the following steps: (a) printing by ejecting ink to a printing surface of a packaging base material from a nozzle while conveying the packaging base material in the form of an elongated strip before a bag making process in a longitudinal direction; (b) obtaining position information of an invisible region that corresponds to a bottom part, out of the printing surface of the packaging base material, that is invisible from the outside after the bag making process of a stand-up pouch, or corresponds to a folded part (314; 324), out of the printing surface of the packaging base material, that is invisible from the outside after the bag making process of a center seal pouch; (c) performing a flushing process by ejecting the ink toward the invisible region from the nozzle based on the position information; and (d) receiving a print command including print image information for printing and process image information for bag making process that is various pieces of information used when manufacturing a bag by applying the bag making process to the base material, wherein: the step (a) includes printing based on the print image information and the process image information, and the step (b) includes obtaining the position information based on the process image information. (a) printing by ejecting ink to a printing surface of a packaging base material from a nozzle while conveying the packaging base material in the form of an elongated strip before a bag making process in a longitudinal direction; (b) obtaining position information of an invisible region that corresponds to a bottom part, out of the printing surface of the packaging base material, that is invisible from the outside after the bag making process of a stand-up pouch, or corresponds to a folded part (314; 324), out of the printing surface of the packaging base material, that is invisible from the outside after the bag making process of a center seal pouch; (c) performing a flushing process by ejecting the ink toward the invisible region from the nozzle based on the position information; and (d) receiving a print command including print image information for printing and process image information for bag making process that is various pieces of information used when manufacturing a bag by applying the bag making process to the base material, wherein: the step (a) includes printing based on the print image information and the process image information, and the step (b) includes obtaining the position information based on the process image information. the step (a) includes printing based on the print image information and the process image information, and the step (b) includes obtaining the position information based on the process image information.
A method for detecting Fast-Flux malware, the method comprising: monitoring a plurality of domain name system lookup requests to one or more DNS servers from a local area network to a wide area network, the DNS lookup requests comprising a plurality of requests to resolve one or more uniform resource locators (URLs) to one or more received network addresses; monitoring the received network addresses received for the URLs from the DNS servers for the DNS lookup requests to provide a URL-to-IP associations list; monitoring the DNS servers used for the DNS lookup requests for the URLs to provide a DNS Domain-to-DNS server associations list; generating a suspicious URL log based on the URL-to-IP associations list and a suspicious DNS log based on the DNS Domain-to-DNS server associations list, wherein for each suspicious URL from the suspicious URL-log performing a search in the suspicious DNS-log that the URL was considered suspicious,and for each suspicious DNS from the suspicious DNS-log performing a search in the suspicious URL-log that the domain was considered suspicious for Double-Flux and for Single-Flux results, respectively, which occurred during the same time period, and if a match is found combining all known data to generate a security event to be output to an external list, the external list comprising security events that indicate that said found URLs and/or domains are suspect. monitoring a plurality of domain name system lookup requests to one or more DNS servers from a local area network to a wide area network, the DNS lookup requests comprising a plurality of requests to resolve one or more uniform resource locators (URLs) to one or more received network addresses; monitoring the received network addresses received for the URLs from the DNS servers for the DNS lookup requests to provide a URL-to-IP associations list; monitoring the DNS servers used for the DNS lookup requests for the URLs to provide a DNS Domain-to-DNS server associations list; generating a suspicious URL log based on the URL-to-IP associations list and a suspicious DNS log based on the DNS Domain-to-DNS server associations list, wherein for each suspicious URL from the suspicious URL-log performing a search in the suspicious DNS-log that the URL was considered suspicious,and for each suspicious DNS from the suspicious DNS-log performing a search in the suspicious URL-log that the domain was considered suspicious for Double-Flux and for Single-Flux results, respectively, which occurred during the same time period, and if a match is found combining all known data to generate a security event to be output to an external list, the external list comprising security events that indicate that said found URLs and/or domains are suspect.
A contact lens comprising: - an optical zone extending with a first diameter about an optical axis of said lens and provided with a first dioptric power, and - a central region, inside and contiguous with said optical zone, extending about said optical axis with a second diameter smaller than said first diameter, characterised in that inside said central region is provided an optically inactive zone, extending about said optical axis with a third diameter of between 0.16 mm and 0.32 mm, which is provided with a second dioptric power that differs from said first dioptric power by at least 6 dioptres, wherein said optically inactive zone is a region of said contact lens shaped in such a way that the light which passes through it cannot be used for forming images that are distinguishable by the eye of a user, and wherein said central region has a progressive asphericality that joins in a continuous manner said second dioptric power of said optically inactive zone with said first dioptric power of said optical zone. - an optical zone extending with a first diameter about an optical axis of said lens and provided with a first dioptric power, and - a central region, inside and contiguous with said optical zone, extending about said optical axis with a second diameter smaller than said first diameter,
A computer for use in a network of computers which interact by passing messages between them in order to perform a distributed application (WS1...WSn), said computer being arranged in operation to: i) provide two or more virtual machines, each with its own access control mechanism; ii) execute one or more local components of the distributed application (WS1...WSn) in a local-component-hosting virtual machine; iii) receive an inbound message from another computer in said network of computers, said message being for said local component of the distributed application (WS1...WSn); said computer being characterised by being further arranged in operation to: iv) intercept messages for or from local components of said distributed application (WS1...WSn); v) on intercepting a message, execute, in a message-handling virtual machine (PEP VM), a message handling program to perform one or more security actions on each intercepted message; vi) following the performance of said one or more security actions, forward said intercepted inbound message to said local-component-hosting virtual machine. i) provide two or more virtual machines, each with its own access control mechanism; ii) execute one or more local components of the distributed application (WS1...WSn) in a local-component-hosting virtual machine; iii) receive an inbound message from another computer in said network of computers, said message being for said local component of the distributed application (WS1...WSn); iv) intercept messages for or from local components of said distributed application (WS1...WSn); v) on intercepting a message, execute, in a message-handling virtual machine (PEP VM), a message handling program to perform one or more security actions on each intercepted message; vi) following the performance of said one or more security actions, forward said intercepted inbound message to said local-component-hosting virtual machine.
A method for bonding a first substrate with a second substrate at contact surfaces (17u, 17o) of the substrates (2o, 2u) with the following steps, in particular in the following sequence: - mounting of the first substrate on a first mounting surface of a first substrate holder and mounting of the second substrate on a second mounting surface of a second substrate holder, wherein the substrate holders (1o, 1u) are arranged in a chamber, - contacting of the contact surfaces (17u, 17o) at a bond initiation surface, wherein a ring-shaped contacting takes place, - bonding of the first substrate with the second substrate from the bond initiation surface to the centre of the substrates (2o, 2u). - mounting of the first substrate on a first mounting surface of a first substrate holder and mounting of the second substrate on a second mounting surface of a second substrate holder, wherein the substrate holders (1o, 1u) are arranged in a chamber, - contacting of the contact surfaces (17u, 17o) at a bond initiation surface, wherein a ring-shaped contacting takes place, - bonding of the first substrate with the second substrate from the bond initiation surface to the centre of the substrates (2o, 2u).
An onboard battery to be mounted in a front section of a space located behind a rearmost seat of a vehicle, comprising: an assembly battery including electrode terminals arranged on a rear surface of the assembly battery in a vehicle frontward and rearward direction; and a battery case accommodating the assembly battery, characterized in that a case rear-surface member forming a rear surface of the battery case is provided with a ridge portion that faces at least a part of the rear surface of the assembly battery in the vehicle frontward and rearward direction in a manner as to avoid the electrode terminals, the ridge portion rising toward the assembly battery, and, when the case rear-surface member is moved toward the assembly battery by an external force, the ridge portion comes into contact with the assembly battery before the case rear-surface member applies force to the electrode terminals. an assembly battery including electrode terminals arranged on a rear surface of the assembly battery in a vehicle frontward and rearward direction; and a battery case accommodating the assembly battery, characterized in that a case rear-surface member forming a rear surface of the battery case is provided with a ridge portion that faces at least a part of the rear surface of the assembly battery in the vehicle frontward and rearward direction in a manner as to avoid the electrode terminals, the ridge portion rising toward the assembly battery, and, when the case rear-surface member is moved toward the assembly battery by an external force, the ridge portion comes into contact with the assembly battery before the case rear-surface member applies force to the electrode terminals.
Method for preventing and/or reducing the consequences of collisions when a vehicle swerves to avoid an obstacle, wherein at least one obstacle is detected by means of at least one surroundings sensor (52 to 54), wherein data relating to the obstacle are determined and profiles of the longitudinal accelerations and lateral accelerations of the vehicle are determined on the basis of the data of the obstacle and of data of the vehicle, said profiles being necessary for the prevention of collisions, and at least one control signal is generated, with the aid of which the determined profile of the longitudinal acceleration is carried out by selective control of the brake system, characterized in that on the basis of the data it is determined whether a collision with the obstacle can be prevented solely by braking and whether a collision with the obstacle can be prevented solely by steering, and the vehicle is then decelerated if the collision with the obstacle can be prevented neither solely by braking nor solely by steering.
The use, as reactive diluent for the preparation of a polymerizable and/or crosslinkable resin, adhesive, coating or composite matrix composition, of at least one bis-anhydrohexitol ether - of formula: - and having a Brookfield viscosity, measured at 20°C, of less than 500 mPa.s, said polymerizable and/or crosslinkable composition being based on a polymerizable organic matrix of epoxy type. - of formula: - and having a Brookfield viscosity, measured at 20°C, of less than 500 mPa.s, said polymerizable and/or crosslinkable composition being based on a polymerizable organic matrix of epoxy type.
A floating body field effect transistor comprising: a pair of source/drain regions having a floating body channel region (30g, 62, 68, 18) received therebetween, the source/drain regions and the floating body channel region (30g, 62, 68, 18) being received directly on an insulator; a gate electrode over the floating body channel region (30g, 62, 68, 18); a gate dielectric received between the gate electrode and the floating body channel region (30g, 62, 68, 18); the floating body channel region (30g, 62, 68, 18) comprising: a semiconductor Si x Ge (1-x) -comprising region, said semiconductor Si x Ge (1-x) -comprising region being received directly on said insulator and extending from one of the pair of source/drain regions to the other of the pair of source/drain regions; a semiconductor silicon-comprising region received over said semiconductor Si x Ge (1-x) -comprising region and extending from one of the pair of souce/drain region to the other of the pair of source/drain regions; wherein the semiconductor SixGe(1-x)-comprising region has having a greater quantity of Ge than any quantity of Ge within the semiconductor silicon-comprising region, characterized in that the floating body field-effect transistor comprises an insulating material region received directly on the semiconductor Si x Ge (1-x) -comprising region, the insulating material region extending from one of the pair of source/drain regions to the other of the pair of source/drain regions, and in that said semiconductor silicon-comprising region is received directly on said insulating material region. a pair of source/drain regions having a floating body channel region (30g, 62, 68, 18) received therebetween, the source/drain regions and the floating body channel region (30g, 62, 68, 18) being received directly on an insulator; a gate electrode over the floating body channel region (30g, 62, 68, 18); a gate dielectric received between the gate electrode and the floating body channel region (30g, 62, 68, 18); a semiconductor Si x Ge (1-x) -comprising region, said semiconductor Si x Ge (1-x) -comprising region being received directly on said insulator and extending from one of the pair of source/drain regions to the other of the pair of source/drain regions; a semiconductor silicon-comprising region received over said semiconductor Si x Ge (1-x) -comprising region and extending from one of the pair of souce/drain region to the other of the pair of source/drain regions; wherein the semiconductor SixGe(1-x)-comprising region has having a greater quantity of Ge than any quantity of Ge within the semiconductor silicon-comprising region, characterized in that the floating body field-effect transistor comprises an insulating material region received directly on the semiconductor Si x Ge (1-x) -comprising region, the insulating material region extending from one of the pair of source/drain regions to the other of the pair of source/drain regions, and in that said semiconductor silicon-comprising region is received directly on said insulating material region.
Cutting device for an agricultural harvesting machine comprising: a drive (1, 21), a transmission arrangement (2, 22) having an input element (4, 28) drivingly connected to said drive (1, 21) and driven reciprocatingly by said drive along an input travel, the transmission arrangement (2, 22) being a traction drive arrangement and the input element (4, 28) being a traction means, and a knife (3, 23, 105) having a plurality of cutting edges (109, 110), said knife (3, 23, 105) being drivingly connected to an output element (8, 31,) of the transmission arrangement (2, 22,) and driven thereby in a linearly reciprocating manner along an output travel that is longer than the input travel, characterized in that the cutting edges (109, 110) of the knife (3, 23, 105) each pass at least two counter-cutting edges (111, 112) of the cutting device during a movement in one direction (S1, S2) along the entire output travel. a drive (1, 21), a transmission arrangement (2, 22) having an input element (4, 28) drivingly connected to said drive (1, 21) and driven reciprocatingly by said drive along an input travel, the transmission arrangement (2, 22) being a traction drive arrangement and the input element (4, 28) being a traction means, and a knife (3, 23, 105) having a plurality of cutting edges (109, 110), said knife (3, 23, 105) being drivingly connected to an output element (8, 31,) of the transmission arrangement (2, 22,) and driven thereby in a linearly reciprocating manner along an output travel that is longer than the input travel, characterized in that the cutting edges (109, 110) of the knife (3, 23, 105) each pass at least two counter-cutting edges (111, 112) of the cutting device during a movement in one direction (S1, S2) along the entire output travel.
At least one non-digestible oligosaccharide selected form the group consisting of fructo-oligosaccharide, non-digestible dextrin, galacto-oligosaccharide, xylo-oligosaccharide, arabino-oligosaccharide, arabinogalacto-oligosaccharide, gluco-oligosaccharide, glucomanno-oligosaccharide, galactomanno-oligosaccharide, mannan-oligosaccharide, chito-oligosaccharide, uronic acid oligosaccharide, sialyloligosaccharide and fuco-oligosaccharide for use in the enhancement of a partial protein hydrolysate-induced oral tolerance against dietary proteins, wherein the partial protein hydrolysate is partial mammalian milk protein hydrolysate, partial whey protein hydrolysate or partial beta-lactoglobulin hydrolysate, wherein the partial protein hydrolysate comprises a mixture of three or preferably four β-lactoglobulin peptides comprising a sequence selected from the group consisting of SEQ ID NO 1, SEQ ID NO 2, SEQ ID NO 3 and SEQ ID NO 4, wherein the β-lactoglobulin peptide preferably has a molecular weight of below 5 kDa.
A measurement method for measuring a fluid speed, the method being performed by a measurement device comprising a first transducer, a second transducer, and a measurement module comprising a processor component, the measurement method comprising at least a first measurement stage comprising the following successive steps: ▪ causing the processor component to emit at the same emission time both a first electrical excitation signal that is applied as input to the first transducer and also a second electrical excitation signal that is applied as input to the second transducer, such that the first transducer generates a first ultrasonic signal that travels through the fluid to the second transducer along a path of defined length, and such that the second transducer generates a second ultrasonic signal that travels in the opposite direction through the fluid to the first transducer along the path of defined length; ▪ putting the processor component on standby; ▪ reactivating the processor component after a predetermined standby duration (D v); ▪ causing the first ultrasonic signal to be acquired by the second transducer and then by the processor component, and causing the second ultrasonic signal to be acquired by the first transducer and then by the processor component; ▪ estimating a value DToF of a difference between a second time of flight of the second ultrasonic signal and a first time of flight of the first ultrasonic signal, and using the value DToF to estimate the speed of the fluid. ▪ causing the processor component to emit at the same emission time both a first electrical excitation signal that is applied as input to the first transducer and also a second electrical excitation signal that is applied as input to the second transducer, such that the first transducer generates a first ultrasonic signal that travels through the fluid to the second transducer along a path of defined length, and such that the second transducer generates a second ultrasonic signal that travels in the opposite direction through the fluid to the first transducer along the path of defined length; ▪ putting the processor component on standby; ▪ reactivating the processor component after a predetermined standby duration (D v); ▪ causing the first ultrasonic signal to be acquired by the second transducer and then by the processor component, and causing the second ultrasonic signal to be acquired by the first transducer and then by the processor component; ▪ estimating a value DToF of a difference between a second time of flight of the second ultrasonic signal and a first time of flight of the first ultrasonic signal, and using the value DToF to estimate the speed of the fluid.
An integrated circuit comprising: a plurality of functional circuits (54, 56, 58, 60, 62) operable to perform data processing operations; a functional bus operable to provide communication between said plurality of functional circuits for non-diagnostic operations; the integrated circuit characterised by a diagnostic bus-master circuit connected to the functional bus, the diagnostic bus-master circuit operable to perform a diagnostic operation upon at least one of said plurality of functional circuits by issuing a bus transaction request via said functional bus to one or more of said plurality of functional circuits during real time operation of said plurality of functional circuits. a plurality of functional circuits (54, 56, 58, 60, 62) operable to perform data processing operations; a functional bus operable to provide communication between said plurality of functional circuits for non-diagnostic operations; the integrated circuit characterised by a diagnostic bus-master circuit connected to the functional bus, the diagnostic bus-master circuit operable to perform a diagnostic operation upon at least one of said plurality of functional circuits by issuing a bus transaction request via said functional bus to one or more of said plurality of functional circuits during real time operation of said plurality of functional circuits.