mhurhangee/ep-ind-claims huggingface dataset:
Device for connecting a valve drive with a valve membrane, the device comprising: an intermediate body with control sections (10, 12) which are arranged in a fixed manner within a passage opening of the intermediate body; and an adapter arranged moveably, at least in sections, within the passage opening, with two adapter elements (20, 22) which are fixed so as to be rotatable in relation to the adapter around an axis of rotation running perpendicular to an actuating axis, wherein, in a first position of the adapter on the actuating axis, connecting contours (30, 32) of the adapter elements (20, 22) facing the actuating axis limit a common receiving space to accommodate a fastening section of the valve membrane, and wherein, in a second position of the adapter on the actuating axis, a respective contact section (40, 42) of the adapter element (20, 22) makes contact with the assigned control section (10, 12) in such a way that the respective adapter element (22, 22) is rotated around the axis of rotation into a mounting position in which the connecting contours (30, 32) limit a mounting space which is larger than the receiving space, characterised in that at least one spring element pre-tensions the two adapter elements (20, 22) in such a way that, in the first position of the adapter along the actuating axis, connecting contours (30, 32) of the adapter elements (20, 22) facing the actuating axis limit the common receiving space to accommodate the fastening section of the valve membrane. an intermediate body with control sections (10, 12) which are arranged in a fixed manner within a passage opening of the intermediate body; and an adapter arranged moveably, at least in sections, within the passage opening, with two adapter elements (20, 22) which are fixed so as to be rotatable in relation to the adapter around an axis of rotation running perpendicular to an actuating axis, wherein, in a first position of the adapter on the actuating axis, connecting contours (30, 32) of the adapter elements (20, 22) facing the actuating axis limit a common receiving space to accommodate a fastening section of the valve membrane, and wherein, in a second position of the adapter on the actuating axis, a respective contact section (40, 42) of the adapter element (20, 22) makes contact with the assigned control section (10, 12) in such a way that the respective adapter element (22, 22) is rotated around the axis of rotation into a mounting position in which the connecting contours (30, 32) limit a mounting space which is larger than the receiving space, characterised in that at least one spring element pre-tensions the two adapter elements (20, 22) in such a way that, in the first position of the adapter along the actuating axis, connecting contours (30, 32) of the adapter elements (20, 22) facing the actuating axis limit the common receiving space to accommodate the fastening section of the valve membrane.
A consumable material selected from the group consisting of a foodstuff, a chewing gum, a medicinal product, a toothpaste, an alcoholic beverage, an aqueous beverage, a snack, a sauce and a soup comprising a compound selected from the group consisting of: 2-butenamide, N-[ -3,7-dimethyl-2,6-octadienyl]-, -; 2-butenamide, N-[ -3,7-dimethyl-2,6-octadienyl]-, -; 2-butenamide, N-[ -3,7-dimethyl-2,6-octadienyl]-3-methyl-; and 2-butenamide, N-[ -3,7-dimethyl-2,6-octadienyl]-3-methyl-. 2-butenamide, N-[ -3,7-dimethyl-2,6-octadienyl]-, -; 2-butenamide, N-[ -3,7-dimethyl-2,6-octadienyl]-, -; 2-butenamide, N-[ -3,7-dimethyl-2,6-octadienyl]-3-methyl-; and 2-butenamide, N-[ -3,7-dimethyl-2,6-octadienyl]-3-methyl-.
An energy ray-curable inkjet ink composition capable of stretching a printed film after curing, comprising at least: a coloring material, a monofunctional monomer having a glass transition temperature of lower than -25°C when a single monomer is polymerized, and having one ethylenic double bond, a difunctional oligomer having an elongation rate of 130% or more at 25°C when a single oligomer is polymerized, and having two ethylenic double bonds, at least one kind of a photopolymerization initiator selected from the group consisting of an acylphosphine oxide initiator (C-1), and a mixed initiator (C-2) of an α-aminoalkylphenone initiator and a thioxanthone initiator, and a surface tension conditioner, wherein a content of the monofunctional monomer is 40 to 70% by mass, and a content of the difunctional oligomer is 15 to 40% by mass, relative to the whole ink composition. a coloring material, a monofunctional monomer having a glass transition temperature of lower than -25°C when a single monomer is polymerized, and having one ethylenic double bond, a difunctional oligomer having an elongation rate of 130% or more at 25°C when a single oligomer is polymerized, and having two ethylenic double bonds, at least one kind of a photopolymerization initiator selected from the group consisting of an acylphosphine oxide initiator (C-1), and a mixed initiator (C-2) of an α-aminoalkylphenone initiator and a thioxanthone initiator, and a surface tension conditioner, wherein a content of the monofunctional monomer is 40 to 70% by mass, and a content of the difunctional oligomer is 15 to 40% by mass, relative to the whole ink composition.
A system for protecting a web application against a web attack, the system comprising: an in-application agent comprising an in-application library for storing rules and a rules processor for applying and injecting rules for protecting the web application in which the in-application agent is embedded and for generating reports of suspicious activity detected by the in-application agent, wherein the rules are called by hooks around interfaces between the web application and a runtime environment; a cloud service for providing the rules, receiving the reports and generating new rules in response to the reports received without user intervention in the in-application agent; and an agent manager in communication with the cloud service for receiving the rules from the cloud service and passing the rules received to the in-application agent and for receiving the reports from the in-application agent and passing the reports received to the cloud service, wherein code implementing the rules called by the hooks around the interfaces is modified at runtime without user intervention. an in-application agent comprising an in-application library for storing rules and a rules processor for applying and injecting rules for protecting the web application in which the in-application agent is embedded and for generating reports of suspicious activity detected by the in-application agent, wherein the rules are called by hooks around interfaces between the web application and a runtime environment; a cloud service for providing the rules, receiving the reports and generating new rules in response to the reports received without user intervention in the in-application agent; and an agent manager in communication with the cloud service for receiving the rules from the cloud service and passing the rules received to the in-application agent and for receiving the reports from the in-application agent and passing the reports received to the cloud service, wherein code implementing the rules called by the hooks around the interfaces is modified at runtime without user intervention.
A process for the production of high-purity dimethyl carbonate, comprising: - subjecting a commercial grade dimethyl carbonate, having a chlorine content higher than 1 ppm, to cooling, operating at a cooling temperature ranging from +6°C to -5°C and at a cooling rate ranging from 0.5°C/hour to 2°C/hour, so as to obtain dimethyl carbonate in solid form, the term "cooling temperature" referring to the temperature of a cooling fluid; - subjecting said dimethyl carbonate in solid form to a first heating, operating at a heating temperature ranging from -5°C to +6°C and at a heating rate ranging from 1°C/hour to 5°C/hour, so as to obtain a mixture comprising dimethyl carbonate in solid form and a predetermined amount of dimethyl carbonate in liquid form, the term "heating temperature" referring to the temperature of said cooling fluid; - separating said dimethyl carbonate in liquid form from said mixture so as to obtain dimethyl carbonate in solid form; - subjecting said dimethyl carbonate in solid form to a second heating, operating at a heating temperature ranging from 20°C to 40°C, so as to obtain dimethyl carbonate in liquid form, said dimethyl carbonate in liquid form having a purity degree higher than 99.99% and a chlorine content lower than or equal to 1 ppm, the term "heating temperature" referring to the temperature of said cooling fluid; wherein said dimethyl carbonate in liquid form is present in the mixture obtained after said first heating in an amount ranging from 15% by weight to 30% by weight with respect to the total weight of the starting commercial grade dimethyl carbonate; and wherein the term "commercial grade" refers to a dimethyl carbonate having a purity degree ranging from 98% to 99.95%. - subjecting a commercial grade dimethyl carbonate, having a chlorine content higher than 1 ppm, to cooling, operating at a cooling temperature ranging from +6°C to -5°C and at a cooling rate ranging from 0.5°C/hour to 2°C/hour, so as to obtain dimethyl carbonate in solid form, the term "cooling temperature" referring to the temperature of a cooling fluid; - subjecting said dimethyl carbonate in solid form to a first heating, operating at a heating temperature ranging from -5°C to +6°C and at a heating rate ranging from 1°C/hour to 5°C/hour, so as to obtain a mixture comprising dimethyl carbonate in solid form and a predetermined amount of dimethyl carbonate in liquid form, the term "heating temperature" referring to the temperature of said cooling fluid; - separating said dimethyl carbonate in liquid form from said mixture so as to obtain dimethyl carbonate in solid form; - subjecting said dimethyl carbonate in solid form to a second heating, operating at a heating temperature ranging from 20°C to 40°C, so as to obtain dimethyl carbonate in liquid form, said dimethyl carbonate in liquid form having a purity degree higher than 99.99% and a chlorine content lower than or equal to 1 ppm, the term "heating temperature" referring to the temperature of said cooling fluid;
Method for determining the welding current to be applied for the resistance seam welding of overlapping seams of consecutive container frames, having an overlapping width which changes along the seam, wherein at least a test frame is welded with a welding current strength which decreases or increases during welding of its seam, wherein the welding current strength is chosen to be higher in case of the larger overlapping width and is chosen to be smaller in case of a smaller overlapping width and wherein it is determined which welding current strength is applied where on the seam and wherein a decreasing or increasing course of the welding current is determined by mechanical and/or optical verification of the test frame, such that the welding current yields a correct welding of the seam for the larger overlapping width as well as also for the smaller overlapping width.
A sterilized medical device assembly comprising: a medical device having a hydrophilic surface on at least a part thereof; a package forming a closed compartment accommodating said medical device, wherein said medical device is arranged in an activated state in said package with said hydrophilic surface being wetted with a wetting fluid; and a wetting liquid being freely arranged in said closed compartment of the package, and in direct contact with said hydrophilic surface of the medical device; wherein said medical device assembly is steam sterilized characterized in that a volume of said wetting liquid corresponds to between 0.01% and 10% of a volume of said closed compartment. a medical device having a hydrophilic surface on at least a part thereof; a package forming a closed compartment accommodating said medical device, wherein said medical device is arranged in an activated state in said package with said hydrophilic surface being wetted with a wetting fluid; and a wetting liquid being freely arranged in said closed compartment of the package, and in direct contact with said hydrophilic surface of the medical device; wherein said medical device assembly is steam sterilized characterized in that a volume of said wetting liquid corresponds to between 0.01% and 10% of a volume of said closed compartment.
Use of a cable jacket comprising a random heterophasic polypropylene copolymer for lowering the amount of copper needed in a copper concentric neutral of a power cable, the random heterophasic polypropylene copolymer comprising a matrix being a random propylene copolymer (R-PP) and dispersed therein an elastomeric propylene copolymer, wherein the random propylene copolymer (R-PP) comprises a first propylene copolymer fraction (R-PP1) having a comonomer content in the range of 0.8 to 6.0 mol% and a second propylene copolymer fraction (R-PP2) having a comonomer content in the range of 7.2 to 20.0 mol%, based on the overall amount of fractions (R-PP1) and (R-PP2), and wherein said random heterophasic polypropylene copolymer has MFR 2 (230°C) measured according to ISO 1133 in the range of 0.5 to 15 g/10 min, and Charpy impact strength measured according to ISO 179-1/1eA at -20°C in the range of 5 to 20 kJ/m 2.. the random heterophasic polypropylene copolymer comprising a matrix being a random propylene copolymer (R-PP) and dispersed therein an elastomeric propylene copolymer, wherein the random propylene copolymer (R-PP) comprises a first propylene copolymer fraction (R-PP1) having a comonomer content in the range of 0.8 to 6.0 mol% and a second propylene copolymer fraction (R-PP2) having a comonomer content in the range of 7.2 to 20.0 mol%, based on the overall amount of fractions (R-PP1) and (R-PP2), and wherein said random heterophasic polypropylene copolymer has MFR 2 (230°C) measured according to ISO 1133 in the range of 0.5 to 15 g/10 min, and Charpy impact strength measured according to ISO 179-1/1eA at -20°C in the range of 5 to 20 kJ/m 2..
A method for controlling a robot being provided with at least one visual sensor, comprising the steps of: - defining a target for a motion of the robot, - calculating a motion control signal adapted for the robot reaching the target, - calculating a collision avoidance control signal for avoiding collision of segments of the robot and a virtual object which is set up between the visual sensing means and the target, based on the closest points of the segments of the robot and the virtual object, and - combining the motion control signal and the collision avoidance control signal, wherein the weight of the motion control output signal is the higher the lower a calculated collision risk, and - controlling a motion of the robot according to the combined signal such that no segment of the robot enters the space defined by the virtual object. - defining a target for a motion of the robot, - calculating a motion control signal adapted for the robot reaching the target, - calculating a collision avoidance control signal for avoiding collision of segments of the robot and a virtual object which is set up between the visual sensing means and the target, based on the closest points of the segments of the robot and the virtual object, and - combining the motion control signal and the collision avoidance control signal, - controlling a motion of the robot according to the combined signal such that no segment of the robot enters the space defined by the virtual object.
A method for producing graphene, the method comprising: preparing a container that contains graphene, graphite, and a solvent; applying a magnetic field of a magnet to the solvent to situate the graphene and the graphite at different locations in the solvent; and removing the graphene from the solvent, wherein, in the magnetic field applying, the graphene and the graphite are situated at different locations in the solvent on the basis of the difference in diamagnetism strengths of the graphene and the graphite. preparing a container that contains graphene, graphite, and a solvent; applying a magnetic field of a magnet to the solvent to situate the graphene and the graphite at different locations in the solvent; and removing the graphene from the solvent, wherein, in the magnetic field applying, the graphene and the graphite are situated at different locations in the solvent on the basis of the difference in diamagnetism strengths of the graphene and the graphite.
An information management method, comprising: recording, after a secondary node is added to a user equipment, history information for the user equipment by the secondary node; characterized by further comprising: storing, by the secondary node, in response to the secondary node receiving history information for the user equipment under other secondary nodes sent by a master node, the history information for the user equipment under the other secondary nodes. recording, after a secondary node is added to a user equipment, history information for the user equipment by the secondary node; characterized by further comprising: storing, by the secondary node, in response to the secondary node receiving history information for the user equipment under other secondary nodes sent by a master node, the history information for the user equipment under the other secondary nodes.
A terminal apparatus configured to perform communication using a cell contained in a master cell group belonging to a first base station apparatus and another cell contained in a secondary cell group belonging to a second base station apparatus, the terminal apparatus comprising: a reception processing unit configured to receive from the first base station apparatus a radio resource configuration information including radio bearer configuration information; and a Radio Resource Control, RRC, layer configured to, when a Radio Link Control, RLC, layer of the terminal apparatus corresponding to the second base station apparatus notifies the RRC layer of the terminal apparatus that a number of data retransmissions to the second base station apparatus reaches a maximum number, suspend radio bearers corresponding to the second base station apparatus, reset a Medium Access Control, MAC, corresponding to the second base station apparatus, and transmit to the first base station apparatus, a message indicating a detection of a radio link failure with respect to the second base station apparatus. a reception processing unit configured to receive from the first base station apparatus a radio resource configuration information including radio bearer configuration information; and a Radio Resource Control, RRC, layer configured to, when a Radio Link Control, RLC, layer of the terminal apparatus corresponding to the second base station apparatus notifies the RRC layer of the terminal apparatus that a number of data retransmissions to the second base station apparatus reaches a maximum number, suspend radio bearers corresponding to the second base station apparatus, reset a Medium Access Control, MAC, corresponding to the second base station apparatus, and transmit to the first base station apparatus, a message indicating a detection of a radio link failure with respect to the second base station apparatus. suspend radio bearers corresponding to the second base station apparatus, reset a Medium Access Control, MAC, corresponding to the second base station apparatus, and transmit to the first base station apparatus, a message indicating a detection of a radio link failure with respect to the second base station apparatus.
Loading device to successively supply with cardboard sheets a station for handling said sheets by folding to form from them boxes for packaging, said handling station having a storage area to receive the successive sheets, optionally grouped in bundles, said device itself having a manipulator that comprises, on the one hand, a gripping tool to pick up said sheets, and, on the other hand, an actuator to move the tool between an inventory of sheets and the receiving storage area of the station, device characterized in that it comprises, on the one hand, a detection means for detecting the status of filling of the storage area, as well as, on the other hand, a control unit that directs the action of the device and that receives the detection information from the detection means to do this, said control unit being independent of the control of the station and programmable to adapt the operation of the loading device to the type of sheets handled.
An apparatus (250; 350) for dynamic thermal control, comprising: a fan module (240; 340; 340; 340) comprising a plurality of fan units; a deflection member (260; 360; 360; 360) configured to direct airflow received from the fan module (240; 340; 340; 340); at least one system component (220; 225; 320; 325; 325; 325); and a chassis management controller (270; 370) coupled to the fan module (240; 340; 340; 340), deflection member (260; 360; 360; 360), and the at least one system component (220; 225; 320; 325; 325; 325), wherein the CMC (270; 370) is configured to utilize an artificial neural network to dynamically control an engagement angle Θ of the deflection member and an airflow rate of the fan module (240; 340; 340; 340) to direct airflow from the fan module (240; 340; 340; 340) to the system component (220; 225; 320; 325; 325; 325) by accounting for at least one environmental element within the apparatus (250; 350), wherein the environmental element comprises at least one of a usage rate of the system component (220; 225), a read/write status of the system component (220; 225), and temperature of the system component (220; 225). a fan module (240; 340; 340; 340) comprising a plurality of fan units; a deflection member (260; 360; 360; 360) configured to direct airflow received from the fan module (240; 340; 340; 340); at least one system component (220; 225; 320; 325; 325; 325); and a chassis management controller (270; 370) coupled to the fan module (240; 340; 340; 340), deflection member (260; 360; 360; 360), and the at least one system component (220; 225; 320; 325; 325; 325), wherein the CMC (270; 370) is configured to utilize an artificial neural network to dynamically control an engagement angle Θ of the deflection member and an airflow rate of the fan module (240; 340; 340; 340) to direct airflow from the fan module (240; 340; 340; 340) to the system component (220; 225; 320; 325; 325; 325) by accounting for at least one environmental element within the apparatus (250; 350), wherein the environmental element comprises at least one of a usage rate of the system component (220; 225), a read/write status of the system component (220; 225), and temperature of the system component (220; 225).