mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a pasteurizing device comprising a first operating condition, wherein in the first operating condition sealed containers filled with foodstuff are conveyed through a treatment area comprising at least one heating zone (6, 7), the foodstuff is heated and pasteurized in the at least one heating zone (6, 7) by dispensing a temperature-controlled process liquid onto the containers, wherein at least a major part of the process liquid from the treatment area is returned to the treatment area in a closed-loop circuit for reuse, and wherein in the first operating condition sealed containers comprising a metal material on an exterior of the containers are conveyed through the treatment area, characterized in that at least one treatment chemical for container-treatment is introduced into the treatment area in a gaseous or aerosolized state by means of a feed device in any operating condition of the pasteurizing device, wherein the at least one treatment chemical introduced into the treatment area comprises a volatile carboxylic acid. in the first operating condition sealed containers filled with foodstuff are conveyed through a treatment area comprising at least one heating zone (6, 7), the foodstuff is heated and pasteurized in the at least one heating zone (6, 7) by dispensing a temperature-controlled process liquid onto the containers, wherein at least a major part of the process liquid from the treatment area is returned to the treatment area in a closed-loop circuit for reuse, and wherein in the first operating condition sealed containers comprising a metal material on an exterior of the containers are conveyed through the treatment area, characterized in that at least one treatment chemical for container-treatment is introduced into the treatment area in a gaseous or aerosolized state by means of a feed device in any operating condition of the pasteurizing device, wherein the at least one treatment chemical introduced into the treatment area comprises a volatile carboxylic acid.
Method for protecting a networked military system from malicious users, in which transactions between users of the networked military system are stored in a distributed database, wherein the transactions are stored in blocks which follow one another and the contents of which are networked to one another in such a manner that a check code formed from at least one preceding block is stored in a block, characterized in that only users registered in a basic block and approved new users can generate such data blocks, wherein the basic block is the first block of the blocks which follow one another and a user not yet approved in the network is approved as a new user in the network only when a user authorized to accept a new user and registered as such in a basic block approves the new user. the transactions are stored in blocks which follow one another and the contents of which are networked to one another in such a manner that a check code formed from at least one preceding block is stored in a block, characterized in that only users registered in a basic block and approved new users can generate such data blocks, wherein the basic block is the first block of the blocks which follow one another and a user not yet approved in the network is approved as a new user in the network only when a user authorized to accept a new user and registered as such in a basic block approves the new user.
Method for determining a speed profile to be followed by a motor vehicle, the method comprising steps of acquiring contextual information on the road environment of the vehicle via a multi-sensor system of the vehicle, of extracting event data from the acquired contextual information, comprising at least one distance from an event (D event) in relation to said vehicle and a target speed (V 3) for said vehicle at this event, of providing a measured initial speed (V 0) of said vehicle, of determining a speed profile to be followed as a function of time, between said measured initial speed and said target speed in three successive distinct phases, respectively a first phase (Phase_1) in which the jerk is set constant at a predetermined maximum jerk value in order to reach an optimal target acceleration value (A target) at the end of the first phase, a second phase (Phase_2) in which said optimal target acceleration value is kept constant throughout the duration of the second phase and a third phase (Phase_3) in which the jerk is again set constant in order to reach a zero acceleration value at the end of the third phase, said method being characterized in that it comprises a step of determining said optimal target acceleration value (A target) during the second phase such that the distance ( D profil) required to carry out the three phases of said profile by applying said determined optimal target acceleration value is equal to said distance from the event (D event).
An absolute position encoder (20, 60, 80, 100), comprising: a multi-spectral light source (24, 70, 90) that illuminates a position on a topographic surface (10, 104) at an angle of incidence determined from a vector normal to the surface; a target (22, 62, 82, 102) on, and positionally-registered to, the topographic surface, said target comprising a variable grating that diffracts the incident light to form a multi-spectral diffraction pattern in which the angular dispersion of the diffraction pattern varies with the absolute position of the incident light along the grating; a chromatically responsive sensor (30, 72, 92) that detects a narrow band of the diffraction pattern transmitted through an entrance aperture positioned at an angle of detection determined from the vector normal to the surface and outputs a signal responsive to the change in the angular dispersion of the detected narrowband of the diffraction pattern; and a processing element that maps the detected signal to the absolute-position of illumination by the source on the topographic surface. a multi-spectral light source (24, 70, 90) that illuminates a position on a topographic surface (10, 104) at an angle of incidence determined from a vector normal to the surface; a target (22, 62, 82, 102) on, and positionally-registered to, the topographic surface, said target comprising a variable grating that diffracts the incident light to form a multi-spectral diffraction pattern in which the angular dispersion of the diffraction pattern varies with the absolute position of the incident light along the grating; a chromatically responsive sensor (30, 72, 92) that detects a narrow band of the diffraction pattern transmitted through an entrance aperture positioned at an angle of detection determined from the vector normal to the surface and outputs a signal responsive to the change in the angular dispersion of the detected narrowband of the diffraction pattern; and a processing element that maps the detected signal to the absolute-position of illumination by the source on the topographic surface.
A fan comprising: a casing having an air inlet and an air outlet; an impeller housing located within the casing; an impeller located within the impeller housing for generating an air flow along a path extending from the air inlet to the air outlet through the impeller housing; a motor housing connected to the impeller housing; a motor located within the motor housing for driving the impeller; an annular seal in sealing engagement with the impeller housing and an annular seat located within the casing, characterised in that the impeller housing is mounted on the annular seat and at least one resilient support is located between the impeller housing and the seat for reducing the compressive load applied to the annular seal. a casing having an air inlet and an air outlet; an impeller housing located within the casing; an impeller located within the impeller housing for generating an air flow along a path extending from the air inlet to the air outlet through the impeller housing; a motor housing connected to the impeller housing; a motor located within the motor housing for driving the impeller; an annular seal in sealing engagement with the impeller housing and an annular seat located within the casing, characterised in that the impeller housing is mounted on the annular seat and at least one resilient support is located between the impeller housing and the seat for reducing the compressive load applied to the annular seal.
A memory device comprising: a memory stack including a plurality of coupled memory elements; and a plurality of thermal sensors, the plurality of thermal sensors including a first thermal sensor in a first area of memory of the memory stack and a second thermal sensor in a second area of memory of the memory stack; wherein a memory controller is to provide operations to modify thermal conditions of the plurality of memory elements based at least in part on thermal information generated by the plurality of thermal sensors, wherein modification of thermal conditions includes the memory controller to distribute memory accesses based on the thermal information to move accesses to a cooler area of the memory stack; wherein the memory controller is to compare temperatures of the memory to data describing required memory refresh rates for given temperatures, and, wherein if the comparison of the temperatures of the memory to the data indicates that a memory refresh frequency for the first area of the memory requires adjustment, the memory controller is to change the memory refresh frequency for the first area of memory, the memory refresh frequency for the first area of memory being adjustable independently from a memory refresh frequency for the second area of memory. a memory stack including a plurality of coupled memory elements; and a plurality of thermal sensors, the plurality of thermal sensors including a first thermal sensor in a first area of memory of the memory stack and a second thermal sensor in a second area of memory of the memory stack; wherein a memory controller is to provide operations to modify thermal conditions of the plurality of memory elements based at least in part on thermal information generated by the plurality of thermal sensors, wherein modification of thermal conditions includes the memory controller to distribute memory accesses based on the thermal information to move accesses to a cooler area of the memory stack; wherein the memory controller is to compare temperatures of the memory to data describing required memory refresh rates for given temperatures, and, wherein if the comparison of the temperatures of the memory to the data indicates that a memory refresh frequency for the first area of the memory requires adjustment, the memory controller is to change the memory refresh frequency for the first area of memory, the memory refresh frequency for the first area of memory being adjustable independently from a memory refresh frequency for the second area of memory.
Electronic controller for motor vehicle control systems having at least one valve actuation circuit, which uses pulse width modulation to control the load current (i L) flowing through an essentially inductive load, and having at least one electronic current measuring circuit which has at least one analog/digital converter which converts an analog measurement signal for the load current (i L) into a digital measurement signal for the load current (i L), wherein the at least one analog/digital converter is a sigma-delta modulator, characterized in that the output of the sigma-delta modulator is connected to at least one averaging device (8, 10, 11, 12).
A ship propelling apparatus comprising: a rear propeller fixed on a rotation shaft; a front propeller supported rotatably on the rotation shaft in front of the rear propeller; and a counter-rotating device configured to reverse rotation of the rotation shaft and transfer the reversed rotation to the front propeller, wherein the counter-rotating device comprises a gear box including therein a plurality of gears (31, 32, 33) for reversing rotation of the front propeller and accommodated in an installation space formed in a tail of a ship, characterized in that the ship propelling apparatus further comprises a fixing flange provided at the front of the gear box and including a separation groove which is a through-groove, wherein the gear box is separated from the installation space by applying a force to the gear box by inserting a bolt into the separation groove; and a coupling member which is coupled to the separation groove and into which a clamp bolt is inserted to fix the front of the gear box on the tail of the ship, wherein a plurality of separation grooves are formed along a marginal portion of the fixing flange that is in close contact with the gear box, wherein the gear box is separated from the installation space due to a force applied to the gear box by the bolt inserted into the separation groove in a state in which the clamp bolt and the coupling member are loosened from the separation groove, wherein the coupling member includes a screw thread in inner and outer marginal portions thereof and may be coupled to the separation groove. a rear propeller fixed on a rotation shaft; a front propeller supported rotatably on the rotation shaft in front of the rear propeller; and a counter-rotating device configured to reverse rotation of the rotation shaft and transfer the reversed rotation to the front propeller, wherein the counter-rotating device comprises a gear box including therein a plurality of gears (31, 32, 33) for reversing rotation of the front propeller and accommodated in an installation space formed in a tail of a ship, characterized in that the ship propelling apparatus further comprises a fixing flange provided at the front of the gear box and including a separation groove which is a through-groove, wherein the gear box is separated from the installation space by applying a force to the gear box by inserting a bolt into the separation groove; and a coupling member which is coupled to the separation groove and into which a clamp bolt is inserted to fix the front of the gear box on the tail of the ship, wherein a plurality of separation grooves are formed along a marginal portion of the fixing flange that is in close contact with the gear box, wherein the gear box is separated from the installation space due to a force applied to the gear box by the bolt inserted into the separation groove in a state in which the clamp bolt and the coupling member are loosened from the separation groove, wherein the coupling member includes a screw thread in inner and outer marginal portions thereof and may be coupled to the separation groove.
A kit for preparing a retrograde transport viral vector comprising: a packaging plasmid containing the gag gene and the pol gene of HIV-1; a packaging plasmid containing an accessory gene of HIV-1; a transfer plasmid containing a target gene; and an envelope plasmid containing, as an envelope gene, a gene encoding a fused polypeptide comprising an extracellular domain of rabies virus glycoprotein (RV-G), a transmembrane domain of rabies virus glycoprotein (RV-G) or vesicular stomatitis virus glycoprotein (VSV-G) and an intracellular domain of vesicular stomatitis virus glycoprotein (VSV-G); preferably wherein the fused polypeptide has the amino acid sequence shown in SEQ ID NO 2 or SEQ ID NO 6, and the packaging plasmid is pCAGkGP1.1 R, and the packaging plasmid is pCAG4-RTR2, and the transfer plasmid is pCL20c-MSCV-X where "X" represents the target gene; more preferably wherein the envelope gene is expressed under control of a cytomegalovirus enhancer and an avian β-actin promoter in the envelope plasmid; even more preferably wherein a base sequence of the gene encoding the fused polypeptide is shown in SEQ ID NO 1 or SEQ ID NO 5. a packaging plasmid containing the gag gene and the pol gene of HIV-1; a packaging plasmid containing an accessory gene of HIV-1; a transfer plasmid containing a target gene; and an envelope plasmid containing, as an envelope gene, a gene encoding a fused polypeptide comprising an extracellular domain of rabies virus glycoprotein (RV-G), a transmembrane domain of rabies virus glycoprotein (RV-G) or vesicular stomatitis virus glycoprotein (VSV-G) and an intracellular domain of vesicular stomatitis virus glycoprotein (VSV-G);
A method for supporting reconciliation between a controller in a multi-controller cluster and a switch (106, 108, 110) of a software-defined network, SDN, wherein the controller is communicatively coupled to the switch (106, 108, 110), the method comprising: - sending, by the switch to the controller, a first connection message for requesting a connection; - performing, by the switch, a first flow action with respect to a first flow of a plurality of flows; - sending, by the switch to the controller, a flow event message, wherein the flow event message comprises a flow event data object and a unique tag associated with the event for tracking deltas of the flows as seen by the controller; - storing, by the switch in a tag-event, TE, database maintained by the switch, the flow event data object along with the tag; - processing, by the controller, the flow event message and storing in a TE database maintained by the controller, the flow event data object and the tag contained in the flow event message; - sending, by the switch to the controller, a second connection message to reconnect with the controller after a disconnection between the switch and the controller; - sending, by the controller to the switch, a last-processed tag, wherein the last-processed tag is a last tag received from the switch that the controller has processed; and - sending, by the switch to the controller, all the flow event data stored in the switch that occurred after the last-processed tag. - sending, by the switch to the controller, a first connection message for requesting a connection; - performing, by the switch, a first flow action with respect to a first flow of a plurality of flows; - sending, by the switch to the controller, a flow event message, wherein the flow event message comprises a flow event data object and a unique tag associated with the event for tracking deltas of the flows as seen by the controller; - storing, by the switch in a tag-event, TE, database maintained by the switch, the flow event data object along with the tag; - processing, by the controller, the flow event message and storing in a TE database maintained by the controller, the flow event data object and the tag contained in the flow event message; - sending, by the switch to the controller, a second connection message to reconnect with the controller after a disconnection between the switch and the controller; - sending, by the controller to the switch, a last-processed tag, wherein the last-processed tag is a last tag received from the switch that the controller has processed; and - sending, by the switch to the controller, all the flow event data stored in the switch that occurred after the last-processed tag.
A manufacturing method for a composite material provided with a reinforcement and resin infused into the reinforcement, characterized by comprising: applying an adhesive to the sheet-shaped reinforcement having first and second regions (501,502) such that a content density of the adhesive of the second region is lower than that of the first region; forming a preform by preforming the reinforcement; placing the preform in a cavity of a mold such that the first region is placed in the vicinity of the injection port of the mold relative to the second region; and injecting the resin into the cavity from an injection port of the mold to infuse the resin into the preform and mold the composite material. applying an adhesive to the sheet-shaped reinforcement having first and second regions (501,502) such that a content density of the adhesive of the second region is lower than that of the first region; forming a preform by preforming the reinforcement; placing the preform in a cavity of a mold such that the first region is placed in the vicinity of the injection port of the mold relative to the second region; and injecting the resin into the cavity from an injection port of the mold to infuse the resin into the preform and mold the composite material.
A building system that includes a modular panel with side members, at least one of the side members having an associated coupling extending lengthwise of the side member for hooked connection with a corresponding shaped fixture of an adjacent structure, wherein the coupling projects outwardly from the side member, with voids (49, 70) defined either side of the coupling and either side of the fixture by a projection that has a return edge facing respectively the coupling or the fixture, and when the modular panel and the adjacent structure are connected by the coupling and the fixture, the said voids (49, 70) on either side face each other and form respective common voids for receiving a respective locking device in the form of an expansion piece that, when engaged by a key, acts to urge the coupling and fixture together, to lock the structure to the side member and, when disengaged, allows for play between the panel and structure in order to free the panel from the structure; characterised in that the expansion piece comprises a pin and a block with a through bore for screw-threaded receipt of the pin; and a resilient band fitted around a reduced dimension part of the block with arms that clasp inwardly tapered ramps to provide a bearing surface for the pin; wherein engagement of the key is used to wind the pin into the block until the band is engaged and forced away from the block to cause the arms to expand along the ramps, forcing the side member and the adjacent structure apart, so that the bearing surface and band are pushed away from the block and against a back surface of the coupling respectively the fixture to urge the coupling and fixture together.
A compound of Formula wherein n is 0 or 1, R 1 is H or CH 3 and R2 is a linear (C3-C6)alkyl. wherein n is 0 or 1, R 1 is H or CH 3 and R2 is a linear (C3-C6)alkyl.
A method for a surveillance system, comprising the steps of: - receiving an image from a surveillance camera capturing a sequence of images of a predetermined area; - detecting motion within the predetermined area, and - generating an alarm if motion is detected, characterized in that the method further comprises the steps of: - determining, subsequent to the alarm being generated, the type of alarm; - setting a non-alarm area (302, 304) within the image when the type of alarm has been determined and the type of alarm is on a list of predefined alarm types, and - suppressing, for a predefined time period, detection of motion in the non-alarm area (302, 304), wherein the predefined time period is set based on the type of alarm. - receiving an image from a surveillance camera capturing a sequence of images of a predetermined area; - detecting motion within the predetermined area, and - generating an alarm if motion is detected, - determining, subsequent to the alarm being generated, the type of alarm; - setting a non-alarm area (302, 304) within the image when the type of alarm has been determined and the type of alarm is on a list of predefined alarm types, and - suppressing, for a predefined time period, detection of motion in the non-alarm area (302, 304), wherein the predefined time period is set based on the type of alarm.