mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a traffic processing unit for handling traffic in a communication network when the traffic is distributed across a set of traffic processing units, the method comprising: - receiving (2:1, 300) a packet of a traffic flow distributed to said traffic processing unit, - assigning (2:2, 302) a packet class to the received packet, out of a set of predefined classes, based on information derived from the received packet, wherein the packet class is detected (2:3, 304) as being active or inactive in the traffic processing unit based on an activity indicator of the packet class maintained in the traffic processing unit, - obtaining (2:4A/B, 306) state information pertaining to said assigned packet class, such that if the packet class is detected as active the state information is retrieved (2:4A) from a local storage in the traffic processing unit, and if the packet class is detected as inactive the state information is fetched (2:4B) from a central storage where state information of different packet classes is maintained, and - performing (2:5, 308) stateful packet processing of the received packet based on the obtained state information. - receiving (2:1, 300) a packet of a traffic flow distributed to said traffic processing unit, - assigning (2:2, 302) a packet class to the received packet, out of a set of predefined classes, based on information derived from the received packet, wherein the packet class is detected (2:3, 304) as being active or inactive in the traffic processing unit based on an activity indicator of the packet class maintained in the traffic processing unit, - obtaining (2:4A/B, 306) state information pertaining to said assigned packet class, such that if the packet class is detected as active the state information is retrieved (2:4A) from a local storage in the traffic processing unit, and if the packet class is detected as inactive the state information is fetched (2:4B) from a central storage where state information of different packet classes is maintained, and - performing (2:5, 308) stateful packet processing of the received packet based on the obtained state information.
Protective circuit for protection of an appliance, in particular an electric motor, against thermal overloading, comprising: - a first and a second connection (2, 3) for connection of a temperature detector element (4, 11); - a detection unit for detection of whether a resistance value of the temperature detector element (4, 11) which is connected between the first and the second connection (2, 3) is in a first or a second resistance range; - a short-circuit detector for detection of whether a short circuit is present between the first and the second connection (2, 3); - signaling outputs (8, 9) for emission of message signals to an evaluation unit when the detected resistance value is in the second resistance range and/or when a short circuit has been identified by the short-circuit detector; - a third connection, which is connected to the second connection via a predetermined resistance. - a first and a second connection (2, 3) for connection of a temperature detector element (4, 11); - a detection unit for detection of whether a resistance value of the temperature detector element (4, 11) which is connected between the first and the second connection (2, 3) is in a first or a second resistance range; - a short-circuit detector for detection of whether a short circuit is present between the first and the second connection (2, 3); - signaling outputs (8, 9) for emission of message signals to an evaluation unit when the detected resistance value is in the second resistance range and/or when a short circuit has been identified by the short-circuit detector; - a third connection, which is connected to the second connection via a predetermined resistance.
A method for establishing a secure wireless connection of a first device to an access point, the access point being a virtualized access point comprising a radio equipment (210, 4B) connected to a radio equipment controller (220, 4A) through a wired network connection, the method being implemented in the radio equipment controller (220, 4A) and comprising: - receiving a first information item from the first device through the radio equipment (210, 4B), the first information item being representative of a first physical interaction occurring on the first device to connect the first device to the access point, the first information item being encapsulated in the wired network connection; - receiving a second information item from the radio equipment, the second information item indicating that a second physical interaction occurred on the radio equipment to complement the first physical interaction on the first device to connect the first device to the access point; - establishing the secure wireless connection of the first device based on the received first and second information items, on condition that the first and second information items were received in a time interval shorter than a value. - receiving a first information item from the first device through the radio equipment (210, 4B), the first information item being representative of a first physical interaction occurring on the first device to connect the first device to the access point, the first information item being encapsulated in the wired network connection; - receiving a second information item from the radio equipment, the second information item indicating that a second physical interaction occurred on the radio equipment to complement the first physical interaction on the first device to connect the first device to the access point; - establishing the secure wireless connection of the first device based on the received first and second information items, on condition that the first and second information items were received in a time interval shorter than a value.
A platform, particularly for maintenance operations, which comprises a flat supporting structure, which defines a walking surface and is coupled to a movement assembly for moving a plurality of beams that are mutually laterally adjacent and parallel and which can translate integrally, longitudinally with respect to said structure characterised such that the beams have the possibility of mutually independent arrest, and which are adapted to define an extension of said walking surface, each one of said beams being associated with a respective one-way clearance unit, which is configured to allow the translation of said respective beam in a first direction, and to prevent the translation of said respective beam in a second direction, opposite to said first direction, said unit being selectively deactivatable in order to allow the translation of said beams in said second direction, wherein each one of said units comprises a first toothed element, mounted on a shaft which is normally braked, with the possibility of said first toothed element to rotate with respect to said shaft, only in a first way, chosen to correspond to the translation of said beams in said first direction, and a second toothed element, integral with said respective beam and meshing with said first toothed element.
A method of localized repair to a damaged thermal barrier, the method comprising the following step: a) subjecting a part coated in a damaged thermal barrier to electrophoresis treatment, the part being made of an electrically conductive material, the damaged thermal barrier comprising a ceramic material and presenting at least one damaged zone that is to be repaired, the part being present in an electrolyte comprising a suspension of particles in a liquid medium, the particles in the non-agglomerated state having a mean size lying in the range 20 nm to 1 μm, a ceramic coating being deposited by electrophoresis in the damaged zone in order to obtain a repaired thermal barrier for use at temperatures higher than or equal to 1000°C, the particles being made of a material different from the ceramic material present in the damaged thermal barrier, a generator imposing a voltage difference between the part and a counter-electrode during the electrophoresis treatment, the generator generating a pulsed current during the electrophoresis treatment. a) subjecting a part coated in a damaged thermal barrier to electrophoresis treatment, the part being made of an electrically conductive material, the damaged thermal barrier comprising a ceramic material and presenting at least one damaged zone that is to be repaired, the part being present in an electrolyte comprising a suspension of particles in a liquid medium, the particles in the non-agglomerated state having a mean size lying in the range 20 nm to 1 μm, a ceramic coating being deposited by electrophoresis in the damaged zone in order to obtain a repaired thermal barrier for use at temperatures higher than or equal to 1000°C, the particles being made of a material different from the ceramic material present in the damaged thermal barrier, a generator imposing a voltage difference between the part and a counter-electrode during the electrophoresis treatment, the generator generating a pulsed current during the electrophoresis treatment.
Clamping system comprising at least one clamping element which can be moved in a housing in a clamping direction between an open position and a stop position, wherein the clamping element can be subjected to a clamping force in the stop position, and comprising a drive unit for providing a lifting force in order to move the clamping element from the open position into the stop position, wherein at least one piston is provided which delimits a first pressure chamber which can be filled with fluid and a second pressure chamber which is directly connected to the first pressure chamber via a connecting line extending on or through the piston and which can also be filled with the fluid, wherein a valve is arranged in the connecting line, wherein, when the clamping element is moved by means of the lifting force provided by the drive unit, fluid flows via the connecting line from the first pressure chamber into the second pressure chamber or from the second pressure chamber into the first pressure chamber, characterized in that a pump unit is additionally provided and is designed, when or after the stop position is reached, to increase the operating pressure in the first pressure chamber or in the second pressure chamber in order to provide the clamping force. at least one piston is provided which delimits a first pressure chamber which can be filled with fluid and a second pressure chamber which is directly connected to the first pressure chamber via a connecting line extending on or through the piston and which can also be filled with the fluid, wherein a valve is arranged in the connecting line, wherein, when the clamping element is moved by means of the lifting force provided by the drive unit, fluid flows via the connecting line from the first pressure chamber into the second pressure chamber or from the second pressure chamber into the first pressure chamber, characterized in that a pump unit is additionally provided and is designed, when or after the stop position is reached, to increase the operating pressure in the first pressure chamber or in the second pressure chamber in order to provide the clamping force.
A ladder tube (10, 12) for use in a ladder section of a collapsible ladder which comprises several ladder sections (5, 5a-5j), where each ladder section comprises two ladder tubes (10, 12) arranged parallel to each other and interconnected by a rung to form the respective ladder section, and where each ladder tube (10, 12) is telescopically inserted into a ladder tube (10, 12) of a lower ladder section to form the collapsible ladder, wherein the ladder tube (10, 12) has a cross-sectional shape comprising one straight section, characterized in that the cross-sectional shape of the ladder tube (10, 12) further comprises a first additional section connected to a first end of the straight section at an angle larger than 90 degrees, a second additional section connected to a second end of the straight section at an angle larger than 90 degrees, a third additional section connected to the first additional section, a fourth additional section connected to the second additional section, and a fifth additional section interconnecting the third and fourth additional sections (18b, 18d), and wherein the first, second, third, fourth and fifth additional sections (18a-18e) have convex shapes.
A method for producing a thermally conductive molded body having thermal conductivity properties, comprising the following steps: a) preparing a mixture of at least two components present in the pourable state and in predetermined proportions, comprising a material with high thermal conductivity and another material consisting of at least two components having different melting points; b) introducing the mixture into a mold; c) pressing the mixture into the desired shape; d) heating the mixture to a temperature that is greater than the lower one of the different melting temperatures; and e) cooling and demolding the cross-linked molded body, wherein the mixture includes monoaluminum phosphate. a) preparing a mixture of at least two components present in the pourable state and in predetermined proportions, comprising a material with high thermal conductivity and another material consisting of at least two components having different melting points; b) introducing the mixture into a mold; c) pressing the mixture into the desired shape; d) heating the mixture to a temperature that is greater than the lower one of the different melting temperatures; and e) cooling and demolding the cross-linked molded body,
An ophthalmologic apparatus comprising: an acquiring part configured to acquire a first front image of the fundus of an eye; a first optical system configured to scan the fundus by signal light and detect interference light of returned light of the signal light from the fundus and reference light; a forming part configured to repeatedly form both a second front image of the fundus and a cross sectional image showing a cross section perpendicular to the cross section shown by the second front image based on the detection results repeatedly obtained by the first optical system; and a controller configured to display the first front image on a display means, display, as a moving image, the second front images repeatedly formed by the forming part over the first front image, and display, as a moving image, the cross sectional images repeatedly formed by the forming part on the display means. an acquiring part configured to acquire a first front image of the fundus of an eye; a first optical system configured to scan the fundus by signal light and detect interference light of returned light of the signal light from the fundus and reference light; a forming part configured to repeatedly form both a second front image of the fundus and a cross sectional image showing a cross section perpendicular to the cross section shown by the second front image based on the detection results repeatedly obtained by the first optical system; and a controller configured to display the first front image on a display means, display, as a moving image, the second front images repeatedly formed by the forming part over the first front image, and display, as a moving image, the cross sectional images repeatedly formed by the forming part on the display means.
Use of an adhesive system comprising an adhesive with a flame retardant for bonding composite construction films to a substrate or for bonding composite construction films in the overlapping edge areas, characterized in that the adhesive has a flame retardant, • wherein the flame retardant as a whole or particles of the flame retardant are encapsulated or coated, or • wherein the adhesive comprises at least one plastic resin having a polymerized flame retardant incorporated therein, or • wherein the adhesive comprises a filler portion and wherein at least 5% of the filler portion is replaced by the flame retardant, or • wherein the adhesive is applied to a carrier and wherein the carrier comprises flame retardants, that the adhesive contains such a flame retardant and/or a flame retardant in such an amount that the adhesive and a composite construction films bonded with the adhesive at the bonding point at least comply with fire class E according to EN 13501-1, and that an adhesive bond of the adhesive has such a mechanical stability that in a T-peel test according to DIN 11339 at a constant test speed of 100 mm/min the average values achieved are at least 2.5 N/cm and the maximum values achieved are at least 6.5 N/cm and that at a constant test speed of 10 mm/min the average values achieved are at least 1.5 N/cm and the maximum values achieved are at least 2.5 N/cm. the adhesive has a flame retardant, • wherein the flame retardant as a whole or particles of the flame retardant are encapsulated or coated, or • wherein the adhesive comprises at least one plastic resin having a polymerized flame retardant incorporated therein, or • wherein the adhesive comprises a filler portion and wherein at least 5% of the filler portion is replaced by the flame retardant, or • wherein the adhesive is applied to a carrier and wherein the carrier comprises flame retardants, • wherein the flame retardant as a whole or particles of the flame retardant are encapsulated or coated, or • wherein the adhesive comprises at least one plastic resin having a polymerized flame retardant incorporated therein, or • wherein the adhesive comprises a filler portion and wherein at least 5% of the filler portion is replaced by the flame retardant, or • wherein the adhesive is applied to a carrier and wherein the carrier comprises flame retardants, that the adhesive contains such a flame retardant and/or a flame retardant in such an amount that the adhesive and a composite construction films bonded with the adhesive at the bonding point at least comply with fire class E according to EN 13501-1, and that an adhesive bond of the adhesive has such a mechanical stability that in a T-peel test according to DIN 11339 at a constant test speed of 100 mm/min the average values achieved are at least 2.5 N/cm and the maximum values achieved are at least 6.5 N/cm and that at a constant test speed of 10 mm/min the average values achieved are at least 1.5 N/cm and the maximum values achieved are at least 2.5 N/cm.
Process for the production of OSB wood-based panels, in particular OSB wood-based panels with reduced emission of volatile organic compounds (VOCs), comprising the steps (a) Production of wood strands from suitable timbers; (b) Treatment of at least part of the wood strands in water at a temperature between 50°C and 100°C for a period of 10 to 60 minutes (c) Drying of the wood strands treated in water; (d) Coating of water-treated and dried wood strands and optionally coating of non-water-treated wood strands with at least one binder; (e) Scattering the glue-coated wood strands onto a conveyor belt; and f) Pressing the glue-coated wood strands to form an OSB wood-based panel. (a) Production of wood strands from suitable timbers; (b) Treatment of at least part of the wood strands in water at a temperature between 50°C and 100°C for a period of 10 to 60 minutes (c) Drying of the wood strands treated in water; (d) Coating of water-treated and dried wood strands and optionally coating of non-water-treated wood strands with at least one binder; (e) Scattering the glue-coated wood strands onto a conveyor belt; and f) Pressing the glue-coated wood strands to form an OSB wood-based panel.
Separating installation for separating magnetic and nonmagnetic particles which are present in a suspension, with an inlet and an outlet, with - a stirring stage, which comprises a stirrer for producing the suspension, - a filter stage for filtering the suspension according to grain size by means of at least one particle filter (9a, 9b), - a screening stage arranged downstream of the stirring stage, having at least one wet screen with a screen base and a screening position and an unloading position for particles which have been screened out, wherein means are provided for conveying away the screened particles from the wet screen into the stirring stage, and - a magnetic filter stage, downstream of the stirring stage, which comprises at least one magnetic filter for separating magnetic and nonmagnetic particles in the suspension, as well as means for delivering the nonmagnetic particles into the stirring stage, wherein - the stages of the installation are interconnected by a pipe system in such a way that they form a circuit, and - a conveying device is assigned to the pipe system. - a stirring stage, which comprises a stirrer for producing the suspension, - a filter stage for filtering the suspension according to grain size by means of at least one particle filter (9a, 9b), - a screening stage arranged downstream of the stirring stage, having at least one wet screen with a screen base and a screening position and an unloading position for particles which have been screened out, wherein means are provided for conveying away the screened particles from the wet screen into the stirring stage, and - a magnetic filter stage, downstream of the stirring stage, which comprises at least one magnetic filter for separating magnetic and nonmagnetic particles in the suspension, as well as means for delivering the nonmagnetic particles into the stirring stage, wherein - the stages of the installation are interconnected by a pipe system in such a way that they form a circuit, and - a conveying device is assigned to the pipe system.
Method for producing a hydrogen-containing gas product in a second modification having a lower hydrogen content than a first modification, wherein a synthesis gas that contains steam, carbon monoxide and hydrogen and is provided with a steam/carbon monoxide ratio (S/CO ratio) between 1.8 and 2.5 mol/mol being treated using a shift converter to obtain an intermediate product (3, 12) from which water and acid gases are separated to obtain the hydrogen-containing gas product (7, 14), and the synthesis gas being supplied to the shift converter in the form in which it is provided to obtain the gas product in the first modification, characterized in that the ratio of steam to carbon monoxide in the synthesis gas is adjusted to a value between 0.1 and 0.6 mol/mol by the separation of water upstream of the shift converter to obtain the gas product in the second modification.
Method for collating sausages to form sausage groups having a predetermined number of sausages, where spaced sausages are conveyed transverse to their longitudinal direction on a transport device and accumulated by at least one accumulator element (1a, 1b, 1c, 2a, 2b,2c), wherein said at least one accumulator element (1a, 1b, 1c, 2a, 2b, 2c) is for collating moved at least temporarily in the direction of transport, characterized in that at least two independently driven accumulator elements (1a, 1b, 1c, 2a, 2b, 2c) collate said sausages and in that two successive accumulator elements (1a, 1b, 1c, 2a, 2b, 2c) are attached to respective individually driven revolving conveying members, in particular conveyor belts, and each revolve on a closed path.