mhurhangee/ep-ind-claims huggingface dataset:
Process for preparing radiation-curing binders containing allophanate groups, where, at temperatures ≤ 130°C A) one or more compounds containing uretdione groups is or are reacted with B) one or more OH-functional compounds which contain groups which react, with polymerization, with ethylenically unsaturated compounds on exposure to actinic radiation (radiation-curing groups), and C) optionally further NCO-reactive compounds in the presence D) of one or more compounds containing at least one tetrasubstituted ammonium or phosphonium salt of an aliphatic or cycloaliphatic carboxylic acid as catalyst, and E) one or more stabilizers and optionally auxiliaries and additives to form allophanate groups by opening the uretdione ring, wherein the ratio of the OH groups from component B) to the sum of NCO and uretdione groups from A) is from 1.5:1.0 to 1.0:1.9; first A) is reacted with B) until reaction of the NCO groups is complete - at this stage, E) or parts thereof may already be present - and then the reaction of the uretdione groups of A) with B) is initiated by addition of D) and additionally, optionally, by temperature adaptation; the unsaturated allophanates obtainable contain amounts of free di- and/or triisocyanate monomers of below 0.5% by weight, preferably below 0.1% by weight; and the reaction of component A) with B) and further NCO-reactive compounds C) is over as soon as all of the NCO groups, in accordance with the chosen stoichiometric proportions, have reacted with NCO-reactive groups from B) and C) and all uretdione groups, in accordance with the chosen stoichiometric proportions, have reacted with the hydroxyl groups from B). A) one or more compounds containing uretdione groups is or are reacted with B) one or more OH-functional compounds which contain groups which react, with polymerization, with ethylenically unsaturated compounds on exposure to actinic radiation (radiation-curing groups), and C) optionally further NCO-reactive compounds in the presence D) of one or more compounds containing at least one tetrasubstituted ammonium or phosphonium salt of an aliphatic or cycloaliphatic carboxylic acid as catalyst, and E) one or more stabilizers and optionally auxiliaries and additives
A system, comprising: at least one computing device of a ground control station, the at least one computing device configured to: determine a starting position for an unmanned aerial vehicle, UAV, descent based on one or more local weather conditions, wherein the determining comprises back-calculating flight plan waypoints based on a nominal descent rate of the UAV, turn rate limitations, and the weather conditions, until the desired starting position is determined; determine a flight pattern for landing the UAV based on the determined starting position for the UAV; have the UAV fly the determined flight pattern; and modify the determined flight pattern based on a change in the one or more local weather conditions and a current position of the UAV, wherein the modifying comprises regenerating a new flight plan based on a constant recalculation of the current position of the UAV and local weather conditions. determine a starting position for an unmanned aerial vehicle, UAV, descent based on one or more local weather conditions, wherein the determining comprises back-calculating flight plan waypoints based on a nominal descent rate of the UAV, turn rate limitations, and the weather conditions, until the desired starting position is determined; determine a flight pattern for landing the UAV based on the determined starting position for the UAV; have the UAV fly the determined flight pattern; and modify the determined flight pattern based on a change in the one or more local weather conditions and a current position of the UAV, wherein the modifying comprises regenerating a new flight plan based on a constant recalculation of the current position of the UAV and local weather conditions.
A method for accessing a service, including, a first device comprising a chip, the chip comprising data storing means, the data storing means storing at least two subscriptions, a first subscription being active, at least one second subscription being non-active, the data storing means storing a subscription manager, the method includes the following steps: - the subscription manager receives a request for switching to the second subscription, as a subscription to be activated; - the subscription manager including a first variable relating to a next active subscription, the subscription manager sets the first variable to the second subscription; - the subscription manager sends to the first device operating system a message for requesting the first device operating system to re-launch an execution of the subscription manager and to read data; - the first device operating system sends to the subscription manager a message including a command for re-launching an execution of the subscription manager; - the subscription manager de-activates, based upon the first variable value, the first subscription; - the subscription manager activates, based upon the first variable value, the second subscription; and - the subscription manager sends to the first device operating system data relating to the second subscription, as a current active subscription. - the subscription manager receives a request for switching to the second subscription, as a subscription to be activated; - the subscription manager including a first variable relating to a next active subscription, the subscription manager sets the first variable to the second subscription; - the subscription manager sends to the first device operating system a message for requesting the first device operating system to re-launch an execution of the subscription manager and to read data; - the first device operating system sends to the subscription manager a message including a command for re-launching an execution of the subscription manager; - the subscription manager de-activates, based upon the first variable value, the first subscription; - the subscription manager activates, based upon the first variable value, the second subscription; and - the subscription manager sends to the first device operating system data relating to the second subscription, as a current active subscription.
A method, performed in a network power sourcing equipment having a power supply with a fixed power capacity, the network power sourcing equipment providing power to a plurality of powered network devices at a provision voltage, the method comprising: receiving, at the network power sourcing equipment, an electronic request to power a network device of the plurality of powered network devices with a requested amount of power; calculating, at the network power sourcing equipment, a worst-case current draw of the network device in the event of a pre-defined maximum voltage slew rate; allocating and providing power, from the power supply to the network device when a remaining power capacity is greater than or equal to the provision voltage multiplied by the worst-case current draw of the network device in the event of the maximum voltage slew rate; and denying power from the power supply to the network device when the remaining power capacity is less than the provision voltage multiplied by the worst-case current draw of the device in the event of the maximum voltage slew rate; wherein the remaining power capacity is defined to be the fixed power capacity of the network power sourcing equipment minus any power that has already been allocated to other powered network devices of the plurality of powered network devices. receiving, at the network power sourcing equipment, an electronic request to power a network device of the plurality of powered network devices with a requested amount of power; calculating, at the network power sourcing equipment, a worst-case current draw of the network device in the event of a pre-defined maximum voltage slew rate; allocating and providing power, from the power supply to the network device when a remaining power capacity is greater than or equal to the provision voltage multiplied by the worst-case current draw of the network device in the event of the maximum voltage slew rate; and denying power from the power supply to the network device when the remaining power capacity is less than the provision voltage multiplied by the worst-case current draw of the device in the event of the maximum voltage slew rate; wherein the remaining power capacity is defined to be the fixed power capacity of the network power sourcing equipment minus any power that has already been allocated to other powered network devices of the plurality of powered network devices.
An injection molding machine comprising: a toggle mechanism; a motor which operates the toggle mechanism; a motion conversion mechanism which converts a rotary motion of the motor into a linear motion of a crosshead (21, 21B) of the toggle mechanism; and a guide (19, 19B) which guides the crosshead (21, 21B), wherein the toggle mechanism includes the crosshead (21, 21B) and a link which is oscillatingly coupled to the crosshead (21, 21B), wherein the crosshead (21, 21B) includes a main body portion (211, 211A, 211B) to which the motion conversion mechanism is attached, a link coupling portion (212, 212A) to which the link is oscillatingly coupled, and a guided portion which is guided by the guide (19, 19B), and wherein a dimension of the guided portion in a guide direction is longer than a dimension of the main body portion (211, 211A, 211B) in the guide direction, wherein the guided portion includes a guide insertion portion (213, 213A, 213B) into which the guide (19, 19B) is inserted, and wherein a dimension of the guide insertion portion (213, 213A, 213B) in the guide direction is longer than the dimension of the main body portion (211, 211A, 211B) in the guide direction, and wherein the link coupling portion (212, 212A) protrudes from the main body portion (211, 211A, 211B) in the guide direction, and wherein the guide insertion portion (213, 213A, 213B) further protrudes from the main body portion (211, 211A, 211B) in the guide direction than the link coupling portion (212, 212A). a toggle mechanism; a motor which operates the toggle mechanism; a motion conversion mechanism which converts a rotary motion of the motor into a linear motion of a crosshead (21, 21B) of the toggle mechanism; and a guide (19, 19B) which guides the crosshead (21, 21B), wherein the toggle mechanism includes the crosshead (21, 21B) and a link which is oscillatingly coupled to the crosshead (21, 21B), wherein the crosshead (21, 21B) includes a main body portion (211, 211A, 211B) to which the motion conversion mechanism is attached, a link coupling portion (212, 212A) to which the link is oscillatingly coupled, and a guided portion which is guided by the guide (19, 19B), and wherein a dimension of the guided portion in a guide direction is longer than a dimension of the main body portion (211, 211A, 211B) in the guide direction, wherein the guided portion includes a guide insertion portion (213, 213A, 213B) into which the guide (19, 19B) is inserted, and wherein a dimension of the guide insertion portion (213, 213A, 213B) in the guide direction is longer than the dimension of the main body portion (211, 211A, 211B) in the guide direction, and wherein the link coupling portion (212, 212A) protrudes from the main body portion (211, 211A, 211B) in the guide direction, and wherein the guide insertion portion (213, 213A, 213B) further protrudes from the main body portion (211, 211A, 211B) in the guide direction than the link coupling portion (212, 212A).
A molding die for multicolored molding comprising: a first molding die which defines a first cavity, which is configured to mold a primary molded portion as an optical element (1, 412, 502) that is made of a first resin and has at least an optical functional surface (1a1, 1a2, 412a1, 412a2, 502a, 502b), between a first fixed die having a first fixed side runner through which the first resin flows and a movable die (300, 423) that is connectable to and separable from the first fixed die; and a second molding die which defines a second cavity (5000, 5001), which is configured to mold a secondary molded portion (2, 416, 504, 506) by using a second resin different from the first resin, while being joined to the optical element (1, 412, 502) molded by the first molding die, characterized in that the second molding die has a second fixed die (200, 421) which is connectable to and separable from the movable die (300, 423), the molding die for multicolored molding mold a multicolored molded piece (3, 413, 501) by defining the second cavity (5000, 5001) between the movable die (300, 423) and the second fixed die (200, 421), and the second fixed die (200, 421) comprises a hollow shape portion (201, 427) which is arranged to face the whole optical functional surface (1a1, 1a2, 412a1, 412a2, 502a, 502b) and is noncontact to the whole optical functional surface (1a1, 1a2, 412a1, 412a2, 502a, 502b) and an abutting portion (201A, 427A) which abuts on the optical element (1, 412, 502) excluding the optical functional surface (1a1, 1a2, 412a1, 412a2, 502a, 502b). a first molding die which defines a first cavity, which is configured to mold a primary molded portion as an optical element (1, 412, 502) that is made of a first resin and has at least an optical functional surface (1a1, 1a2, 412a1, 412a2, 502a, 502b), between a first fixed die having a first fixed side runner through which the first resin flows and a movable die (300, 423) that is connectable to and separable from the first fixed die; and a second molding die which defines a second cavity (5000, 5001), which is configured to mold a secondary molded portion (2, 416, 504, 506) by using a second resin different from the first resin, while being joined to the optical element (1, 412, 502) molded by the first molding die, characterized in that the second molding die has a second fixed die (200, 421) which is connectable to and separable from the movable die (300, 423), the molding die for multicolored molding mold a multicolored molded piece (3, 413, 501) by defining the second cavity (5000, 5001) between the movable die (300, 423) and the second fixed die (200, 421), and the second fixed die (200, 421) comprises a hollow shape portion (201, 427) which is arranged to face the whole optical functional surface (1a1, 1a2, 412a1, 412a2, 502a, 502b) and is noncontact to the whole optical functional surface (1a1, 1a2, 412a1, 412a2, 502a, 502b) and an abutting portion (201A, 427A) which abuts on the optical element (1, 412, 502) excluding the optical functional surface (1a1, 1a2, 412a1, 412a2, 502a, 502b).
A method, performed by a wireless terminal (10, 210), for handling uplink transmit power reporting in a radio access network (2, 202) of a cellular radio system (1, 201), wherein the method comprises: - providing (402, 1402) a respective transmit power report for at least one of multiple uplink reference signal transmission configurations comprised in the wireless terminal (10, 210), each of the multiple uplink reference signal transmission configurations configuring transmission, by the wireless terminal (10, 210), of an uplink reference signal, the respective transmit power report providing information about a transmit power used by the wireless terminal (10, 210) for transmitting the uplink reference signal on a carrier and a power headroom report assuming Physical Uplink Shared Channel, PUSCH, transmission or PUSCH and Physical Uplink Control Channel, PUCCH, transmission on the carrier, wherein said at least one of the multiple uplink reference signal transmission configurations is associated with a respective path loss measurement by the wireless terminal (10, 210), and wherein the transmit power of the uplink reference signal, according to said at least one of the multiple uplink reference signal transmission configurations, is based on the respective path loss measurement associated with said at least one of the multiple uplink reference signal transmission configurations, and - sending (403, 1403) the respective transmit power report and the power headroom report to one or more network nodes (12, 212, 14, 214) of the cellular radio system (1, 201). - providing (402, 1402) a respective transmit power report for at least one of multiple uplink reference signal transmission configurations comprised in the wireless terminal (10, 210), each of the multiple uplink reference signal transmission configurations configuring transmission, by the wireless terminal (10, 210), of an uplink reference signal, the respective transmit power report providing information about a transmit power used by the wireless terminal (10, 210) for transmitting the uplink reference signal on a carrier and a power headroom report assuming Physical Uplink Shared Channel, PUSCH, transmission or PUSCH and Physical Uplink Control Channel, PUCCH, transmission on the carrier, wherein said at least one of the multiple uplink reference signal transmission configurations is associated with a respective path loss measurement by the wireless terminal (10, 210), and wherein the transmit power of the uplink reference signal, according to said at least one of the multiple uplink reference signal transmission configurations, is based on the respective path loss measurement associated with said at least one of the multiple uplink reference signal transmission configurations, and - sending (403, 1403) the respective transmit power report and the power headroom report to one or more network nodes (12, 212, 14, 214) of the cellular radio system (1, 201).
A composite hydrophilic porous membrane comprising a porous fluoropolymer support and a coating comprising a copolymer, wherein the copolymer comprises repeat units A and B, wherein A is of the formula: and B is of the formula wherein: the copolymer is a block copolymer or a random copolymer; m and n, the number of repeat units A and B, respectively, present in the copolymer, range from 1 to about 1000, provided the sum of n and m is equal to or greater than 10; wherein the copolymer is optionally crosslinked. the copolymer is a block copolymer or a random copolymer; m and n, the number of repeat units A and B, respectively, present in the copolymer, range from 1 to about 1000, provided the sum of n and m is equal to or greater than 10; wherein the copolymer is optionally crosslinked.
A temporary support member for a sensor unit of a bearing assembly, said support member comprising: - a first part for accommodating at least a part of a sensor body of said sensor unit - a second part for accommodating, in a coiled configuration, a cable connected to said sensor body and - a third part for accommodating a connector mounted at a free end of said cable characterized in that - the temporary support member comprises ∘ a notch provided in a generally cylindrical skirt portion of the first part; ∘ a lug located next to notch and extending radially outwardly from skirt, for shaping said cable between said sensor body and said second part; and ∘ a radially outer concave portion or gutter provided at the end of lug opposite to skirt defining a concave recess oriented radially outwardly with respect to axis for accommodating a part of the cable; - said second part has a circular cross section and - said lug extends along a direction (Δ50) which is globally radial with respect to a central axis of said second part. - a first part for accommodating at least a part of a sensor body of said sensor unit - a second part for accommodating, in a coiled configuration, a cable connected to said sensor body and - a third part for accommodating a connector mounted at a free end of said cable - the temporary support member comprises ∘ a notch provided in a generally cylindrical skirt portion of the first part; ∘ a lug located next to notch and extending radially outwardly from skirt, for shaping said cable between said sensor body and said second part; and ∘ a radially outer concave portion or gutter provided at the end of lug opposite to skirt defining a concave recess oriented radially outwardly with respect to axis for accommodating a part of the cable; ∘ a notch provided in a generally cylindrical skirt portion of the first part; ∘ a lug located next to notch and extending radially outwardly from skirt, for shaping said cable between said sensor body and said second part; and ∘ a radially outer concave portion or gutter provided at the end of lug opposite to skirt defining a concave recess oriented radially outwardly with respect to axis for accommodating a part of the cable; - said second part has a circular cross section and - said lug extends along a direction (Δ50) which is globally radial with respect to a central axis of said second part.
A multi-configuration electrical connector for use in making electrical connections between an external defibrillator and defibrillation electrodes (14, 16) applied to a patient, the multi-configuration connector comprising: a connector body; at least first and second pairs (150, 152) of electrical terminal elements supported in the connector body; and a pair of electrical conductors (140, 142) within the connector body, each conductor of the pair being configured to be electrically connectable to one of the electrical terminal elements in each of the first and second pairs (150, 152) of electrical terminal elements, wherein the connector body and first and second pairs (150, 152) of electrical terminal elements are configured so that the multi-configuration connector is able to mate alternatively with first and second mating defibrillation electrode connectors (26, 20) of different mating configurations, with the pair of electrical conductors (140, 142) and the first pair of electrical terminal elements configured to be in electrical contact with mating electrical elements of the first mating defibrillation electrode connector (26, 20) when the multi-configuration connector is mated with the first mating defibrillation electrode connector, and with the pair of electrical conductors (140, 142) and the second pair of electrical terminal elements configured to be in electrical contact with mating electrical elements of the second mating defibrillation electrode connector (26, 20) when the multi-configuration connector is mated with the second mating defibrillation electrode connector. a connector body; at least first and second pairs (150, 152) of electrical terminal elements supported in the connector body; and a pair of electrical conductors (140, 142) within the connector body, each conductor of the pair being configured to be electrically connectable to one of the electrical terminal elements in each of the first and second pairs (150, 152) of electrical terminal elements, wherein the connector body and first and second pairs (150, 152) of electrical terminal elements are configured so that the multi-configuration connector is able to mate alternatively with first and second mating defibrillation electrode connectors (26, 20) of different mating configurations, with the pair of electrical conductors (140, 142) and the first pair of electrical terminal elements configured to be in electrical contact with mating electrical elements of the first mating defibrillation electrode connector (26, 20) when the multi-configuration connector is mated with the first mating defibrillation electrode connector, and with the pair of electrical conductors (140, 142) and the second pair of electrical terminal elements configured to be in electrical contact with mating electrical elements of the second mating defibrillation electrode connector (26, 20) when the multi-configuration connector is mated with the second mating defibrillation electrode connector.