mhurhangee/ep-ind-claims huggingface dataset:
An airborne platform deployable in the stratosphere, comprising: an optical-communication component, wherein the optical-communication component has a pointing axis, and wherein the optical-communication component is operable to communicate with a correspondent airborne platform via a free-space optical link (512, 522); a radio frequency communication system, wherein the RF communication system is operable to communicate with the correspondent airborne platform via an RF link; a pointing mechanism configured to adjust the pointing axis; and a controller configured to: (i) determine a predicted relative location of the correspondent airborne platform based on data received from the correspondent airborne platform via the RF link, and (ii) control the pointing mechanism to adjust the pointing axis based on the predicted relative location, to maintain the free-space optical link with the correspondent airborne platform. an optical-communication component, wherein the optical-communication component has a pointing axis, and wherein the optical-communication component is operable to communicate with a correspondent airborne platform via a free-space optical link (512, 522); a radio frequency communication system, wherein the RF communication system is operable to communicate with the correspondent airborne platform via an RF link; a pointing mechanism configured to adjust the pointing axis; and a controller configured to: (i) determine a predicted relative location of the correspondent airborne platform based on data received from the correspondent airborne platform via the RF link, and (ii) control the pointing mechanism to adjust the pointing axis based on the predicted relative location, to maintain the free-space optical link with the correspondent airborne platform. (i) determine a predicted relative location of the correspondent airborne platform based on data received from the correspondent airborne platform via the RF link, and (ii) control the pointing mechanism to adjust the pointing axis based on the predicted relative location, to maintain the free-space optical link with the correspondent airborne platform.
A multi-turn-coil multiplex circuit, characterized in that, the multi-turn-coil multiplex circuit comprises: a multi-turn coil (100, 200), a switch (101, 201), a Near Field Communication NFC matching circuit (102, 202) and a camera sub-board (103, 203), wherein the switch (101, 201) comprises a common port, a first port and a second port, the multi-turn coil (100, 200) is connected to the common port, the NFC matching circuit (102, 202) is connected to the first port, and the camera sub-board (103, 203) is connected to the second port, and in presence of a camera-control signal, the second port is connected such that the multi-turn coil (100, 200) functions as a focus-adjusting coil for a camera in the camera sub-board (103, 203), and in absence of the camera-control signal, the first port is connected such that the multi-turn coil (100, 200) functions as a NFC antenna in the NFC matching circuit (102, 202). a multi-turn coil (100, 200), a switch (101, 201), a Near Field Communication NFC matching circuit (102, 202) and a camera sub-board (103, 203), wherein the switch (101, 201) comprises a common port, a first port and a second port, the multi-turn coil (100, 200) is connected to the common port, the NFC matching circuit (102, 202) is connected to the first port, and the camera sub-board (103, 203) is connected to the second port, and in presence of a camera-control signal, the second port is connected such that the multi-turn coil (100, 200) functions as a focus-adjusting coil for a camera in the camera sub-board (103, 203), and in absence of the camera-control signal, the first port is connected such that the multi-turn coil (100, 200) functions as a NFC antenna in the NFC matching circuit (102, 202).
Method for the cryptographically protected provision of a digital certificate (CERT) for a device, comprising the steps of: - generating a one-time security identifier on the basis of a secret and at least one device-specific indication in a configuration apparatus, - transmitting the one-time security identifier to the device, and in the device - generating security information on the basis of the one-time security identifier, - requesting the certificate (CERT) from an issuing authority by way of a request message that contains the device-specific indication and that is cryptographically protected by way of the security information, and in the issuing authority - checking the request message (Req) by way of the security information and the device-specific indication and the secret that is also known to the issuing authority, and - transmitting the certificate (CERT) to the device in the event of a positive check result, wherein the secret is known only in the issuing authority and the configuration apparatus. - generating a one-time security identifier on the basis of a secret and at least one device-specific indication in a configuration apparatus, - transmitting the one-time security identifier to the device, and in the device - generating security information on the basis of the one-time security identifier, - requesting the certificate (CERT) from an issuing authority by way of a request message that contains the device-specific indication and that is cryptographically protected by way of the security information, and in the issuing authority - checking the request message (Req) by way of the security information and the device-specific indication and the secret that is also known to the issuing authority, and - transmitting the certificate (CERT) to the device in the event of a positive check result, wherein the secret is known only in the issuing authority and the configuration apparatus.
A method for error handling during a Mobile Terminated, MT, Circuit Switched, CS, call or MT Short Message Service, SMS, to a User Equipment, UE, in a cellular system, the method being performed by a network device being an alternative Mobility Management Entity, MME, of the cellular system and comprising the steps of: failing to forward a paging request to a serving MME, at which the UE is registered; and paging (41, 42) the UE using a Core Network, CN, domain equal Circuit Switched, CS, paging, wherein said step of paging comprises paging the UE using a System Architecture Evolution - Temporary Mobile Subscriber Identity, S-TMSI, and limit the paging scope by use of a Tracking Area Identity, TAI,-list from a UE Context Replica fetched by the alternative MME. failing to forward a paging request to a serving MME, at which the UE is registered; and paging (41, 42) the UE using a Core Network, CN, domain equal Circuit Switched, CS, paging, wherein said step of paging comprises paging the UE using a System Architecture Evolution - Temporary Mobile Subscriber Identity, S-TMSI, and limit the paging scope by use of a Tracking Area Identity, TAI,-list from a UE Context Replica fetched by the alternative MME.
A nanocomposite comprising clay and an elastomer, wherein the elastomer is a random copolymer of a C 4 to C 7 isoolefin and a styrenic monomer, and wherein the elastomer also comprises functionalized monomer units described by one or more of the following groups,,, and pendant to the elastomer, E: wherein R 1 is selected from hydrogen, C 1 to C 20 alkyls, alkenyls or aryls, substituted C 1 to C 20 alkyls, alkenyls or aryls; wherein the value of x ranges from 0 to 20, preferably from 1 to 10, and more preferably from 1 to 5; and wherein the value of y ranged from 0 to 20, preferably from 0 to 10; and wherein the value of z ranges from 1 to 20, preferably from 1 to 10, and more preferably from 1 to 5; and wherein "A" is an aryl group, either substituted or not.
Electrical contact between a connection pin and a connection wire which is provided with an electrical insulating sheath at least in sections, wherein, in order to establish an electrically conductive connection, the connection wire is wound around an edge of the connection pin, wherein the connection wire is provided with the insulating sheath in the region of the wire winding around the connection pin, and wherein a contact-pressure part which engages around the connection pin is provided, the said contact-pressure part applying a radial contact-pressure force on the wire winding in the direction of the edge of the connection pin, characterized in that the internal geometry of the contact-pressure part has a conical shape and a radial contact-pressure force which has different magnitudes is applied over the axial length of the contact-pressure part.
A non-therapeutic method for preventing and/or controlling the growth and/or the spreading of a pathogen, said method comprising contacting the pathogen with one or more bacterial heme peroxidase as defined in SEQ ID NO: 1 (HydPOX), SEQ ID NO: 18 or 26 (HydPOXs), SEQ ID NO: 11 (OkePOX), or SEQ ID NO: 25 or 27 (OkePOXs), wherein said contacting of said pathogen with the bacterial heme peroxidase comprises the co-administration of said bacterial heme peroxidase with a reducing agent, and (i) hydrogen peroxide and/or (ii) a hydrogen-peroxide donor system; in aqueous solution. wherein said contacting of said pathogen with the bacterial heme peroxidase comprises the co-administration of said bacterial heme peroxidase with a reducing agent, and (i) hydrogen peroxide and/or (ii) a hydrogen-peroxide donor system; (i) hydrogen peroxide and/or (ii) a hydrogen-peroxide donor system; in aqueous solution.
A collision avoidance support device that supports avoidance of a collision of a vehicle with an object, comprising: a support control unit configured to perform a control of supporting avoidance of a collision; a support suppressing unit configured to suppress the support of the support control unit when a steering angle of the vehicle is equal to or greater than a predetermined angle; characterized by an intervention limiting unit configured to determine whether a support suppression of the support suppressing unit is necessary when the steering angle is equal to or greater than the predetermined angle on the basis of vehicle information acquired from the vehicle or a running environment of the vehicle and to limit intervention of the support suppression of the support suppressing unit depending on a determination result. a support control unit configured to perform a control of supporting avoidance of a collision; a support suppressing unit configured to suppress the support of the support control unit when a steering angle of the vehicle is equal to or greater than a predetermined angle;
An in vitro method for increasing the secretion levels of recombinant human IL-2 and its derived muteins in a host, without affecting its biological functions and the selective modulation of its interactions with the receptor subunits, characterized by the introduction of a single non-conservative mutation at position 35 of its primary sequence selected from the group consisting of: - K35E, - K35D and - K35Q and wherein said muteins are selected from the group consisting of: SEQ ID NO. 1, SEQ ID NO. 4, SEQ ID NO. 5, SEQ ID NO. 6, SEQ ID NO. 8, SEQ ID NO. 9, SEQ ID NO. 10, SEQ ID NO. 11, SEQ ID NO. 12, SEQ ID NO. 13, SEQ ID NO. 14, SEQ ID NO. 15, SEQ ID NO. 16, SEQ ID NO. 17 and SEQ ID NO. 18 and wherein the host is selected from the group comprising: - E. coli, - mammalian cells and - yeasts. - K35E, - K35D and - K35Q SEQ ID NO. 1, SEQ ID NO. 4, SEQ ID NO. 5, SEQ ID NO. 6, SEQ ID NO. 8, SEQ ID NO. 9, SEQ ID NO. 10, SEQ ID NO. 11, SEQ ID NO. 12, SEQ ID NO. 13, SEQ ID NO. 14, SEQ ID NO. 15, SEQ ID NO. 16, SEQ ID NO. 17 and SEQ ID NO. 18 - E. coli, - mammalian cells and - yeasts.
A phosphor wheel comprising: a substrate; and a wavelength conversion portion, the wavelength conversion portion comprising: a first layer of material having a wavelength conversion material and a flat surface; and a second layer of material adherent to the flat surface of the first layer and including a plurality of convex surfaces optically integrated with the wavelength conversion material and arranged such that excitation light enters through at least one of the convex surfaces and is refracted into focused light onto the wavelength conversion material, wherein the plurality of convex surfaces form a ring of multiple convex dome shapes. a substrate; and a wavelength conversion portion, the wavelength conversion portion comprising: a first layer of material having a wavelength conversion material and a flat surface; and a second layer of material adherent to the flat surface of the first layer and including a plurality of convex surfaces optically integrated with the wavelength conversion material and arranged such that excitation light enters through at least one of the convex surfaces and is refracted into focused light onto the wavelength conversion material, wherein the plurality of convex surfaces form a ring of multiple convex dome shapes. a first layer of material having a wavelength conversion material and a flat surface; and a second layer of material adherent to the flat surface of the first layer and including a plurality of convex surfaces optically integrated with the wavelength conversion material and arranged such that excitation light enters through at least one of the convex surfaces and is refracted into focused light onto the wavelength conversion material, wherein the plurality of convex surfaces form a ring of multiple convex dome shapes.
A method for controlling a wind power plant, comprising a plurality of wind turbine generators connected to an electrical grid, and a power plant controller having an operational mode, wherein the power plant controller is arranged for controlling electrical parameters, wherein the method comprises: - determining a first voltage level at terminals of one or more wind turbine generators, - determining if the first voltage level of one or more wind turbine generators is outside a first predetermined range, in case the first voltage level of one or more wind turbine generator(s) is outside a first predetermined range then, - changing the operational mode of the power plant controller between first and second operational modes, wherein the power plant controller in the first operational mode is controlling a first electrical parameter, and wherein the power plant controller in the second operational mode is controlling a second electrical parameter, the first and second parameters being different, - dispatching a set point according to the second operational mode to the one or more wind turbine generators. - determining a first voltage level at terminals of one or more wind turbine generators, - determining if the first voltage level of one or more wind turbine generators is outside a first predetermined range, in case the first voltage level of one or more wind turbine generator(s) is outside a first predetermined range then, - changing the operational mode of the power plant controller between first and second operational modes, wherein the power plant controller in the first operational mode is controlling a first electrical parameter, and wherein the power plant controller in the second operational mode is controlling a second electrical parameter, the first and second parameters being different, - dispatching a set point according to the second operational mode to the one or more wind turbine generators.
A filter assembly comprising: a filter frame, wherein the filter frame comprises: a perimeter frame having multiple first through holes formed therein; an outer window frame integral with the perimeter frame and having multiple second through holes formed therein; and an inner window frame integral with the outer window frame and having a third through hole formed therein; and filters (184; 186; 188) mounted to the filter frame to purify air flowing through the filters (184; 186; 188); wherein the filter frame is removably mountable to a moving plate which is movable together with the filter frame, and wherein the filters (184; 186; 188) comprise: a first filter disposed in the first through holes of the perimeter frame to purify the air introduced to the first filter; a second filter disposed in the second through holes of the outer window frame to purify the air passing through the first filter; and a third filter disposed in the third through hole of the inner window frame to purify the air introduced to the third through hole. a perimeter frame having multiple first through holes formed therein; an outer window frame integral with the perimeter frame and having multiple second through holes formed therein; and an inner window frame integral with the outer window frame and having a third through hole formed therein; and filters (184; 186; 188) mounted to the filter frame to purify air flowing through the filters (184; 186; 188); wherein the filter frame is removably mountable to a moving plate which is movable together with the filter frame, and wherein the filters (184; 186; 188) comprise: a first filter disposed in the first through holes of the perimeter frame to purify the air introduced to the first filter; a second filter disposed in the second through holes of the outer window frame to purify the air passing through the first filter; and a third filter disposed in the third through hole of the inner window frame to purify the air introduced to the third through hole. a first filter disposed in the first through holes of the perimeter frame to purify the air introduced to the first filter; a second filter disposed in the second through holes of the outer window frame to purify the air passing through the first filter; and a third filter disposed in the third through hole of the inner window frame to purify the air introduced to the third through hole.
Laser source for transmitting a group of pulses comprising: - a primary laser source which is suitable for the transmission of at least one primary laser pulse, - one or more interferometers (24, 44, 54, 64, 74, 76) which are suitable for the formation, from the primary laser pulse, of a plurality of secondary laser pulses (1, 2, 11, 12, 13, 14), each interferometer comprising at least one delay line which enables two secondary laser pulses to be separated temporally by a delay (Δt, Δt') between 50 ps and 10 ns, - a single-mode amplifying optical fibre which is intended to receive the plurality of secondary laser pulses in order to form at the output a group of pulses (3, 4, 15, 16, 17, 18) which are superimposed spatially, characterised in that: - the interferometer(s) comprise(s) spectral and/or temporal shaping means for at least one of the secondary laser pulses. - a primary laser source which is suitable for the transmission of at least one primary laser pulse, - one or more interferometers (24, 44, 54, 64, 74, 76) which are suitable for the formation, from the primary laser pulse, of a plurality of secondary laser pulses (1, 2, 11, 12, 13, 14), each interferometer comprising at least one delay line which enables two secondary laser pulses to be separated temporally by a delay (Δt, Δt') between 50 ps and 10 ns, - a single-mode amplifying optical fibre which is intended to receive the plurality of secondary laser pulses in order to form at the output a group of pulses (3, 4, 15, 16, 17, 18) which are superimposed spatially, characterised in that: - the interferometer(s) comprise(s) spectral and/or temporal shaping means for at least one of the secondary laser pulses.
A redox flow cell membrane comprising a porous membrane that has a mean flow pore size of not more than 30 nm, that has a thickness of not more than 500 μm, and that has an air flow rate of not less than 0.1 ml/s·cm 2, wherein the redox flow cell membrane permits permeation of hydrogen ions, wherein the porous membrane is made of a fluorine-based resin, wherein the mean flow pore size represents a value measured in accordance with ASTM F316-86, and the air flow rate is calculated by measuring gurley seconds in accordance with the JISP8117 gurley tester method, wherein the redox flow cell membrane is used for a V-V-based redox flow cell.
A method for a propulsion arrangement for providing propulsive power to a marine vessel, comprising: - determining whether the vessel is running by means of the propulsion arrangement at a constant vessel speed, - storing a detected value of the constant vessel speed, - detecting a value of a rotational speed of a rotatable part of the propulsion arrangement while the vessel is running at the constant vessel speed, - storing the detected rotational speed value, - subsequently controlling the propulsion arrangement so as to change the vessel speed, - subsequently repeating (S7-S11) the steps of determining whether the vessel is running at a constant vessel speed, storing a detected value (V2-V4) of the constant vessel speed, and detecting and storing a value (n2-n4) of the rotational speed of the rotatable part, to obtain a plurality of stored pairs of vessel speed values (V1-V4) and rotational speed values (n1-n4), - creating based at least partly on the stored pairs of values (V1-V4, n1-n4) a correlation record correlating vessel speed values with rotational speed values, characterized by - receiving a requested value (Vreq) of the vessel speed, - determining by means of the correlation record a rotational speed value (ncorr) that is correlated to the requested vessel speed value (Vreq), and - controlling the rotational speed so as to reach the correlated rotational speed value (ncorr). - determining whether the vessel is running by means of the propulsion arrangement at a constant vessel speed, - storing a detected value of the constant vessel speed, - detecting a value of a rotational speed of a rotatable part of the propulsion arrangement while the vessel is running at the constant vessel speed, - storing the detected rotational speed value, - subsequently controlling the propulsion arrangement so as to change the vessel speed, - subsequently repeating (S7-S11) the steps of determining whether the vessel is running at a constant vessel speed, storing a detected value (V2-V4) of the constant vessel speed, and detecting and storing a value (n2-n4) of the rotational speed of the rotatable part, to obtain a plurality of stored pairs of vessel speed values (V1-V4) and rotational speed values (n1-n4), - creating based at least partly on the stored pairs of values (V1-V4, n1-n4) a correlation record correlating vessel speed values with rotational speed values, characterized by - receiving a requested value (Vreq) of the vessel speed, - determining by means of the correlation record a rotational speed value (ncorr) that is correlated to the requested vessel speed value (Vreq), and - controlling the rotational speed so as to reach the correlated rotational speed value (ncorr).
Holder for a fire protection sleeve, comprising a fastening portion, a support portion, and a holding portion that is provided with an anchoring means which can interact interlockingly with the jacket of a fire protection sleeve and which is designed to be angled twice starting from the support portion so that it forms, together with the support portion, a receiving channel for an edge portion of the fire protection sleeve, the anchoring means being formed by at least one pin, characterized in that the anchoring means is opposite the support portion.
Active ingredient combinations comprising: a) ε-polylysine (epsilon-polylysine) having a degree of polymerization of 2 to 200, preferably 10 to 100, particularly preferably 23 to 35 b) one or more ethoxylated or propoxylated alkanols, which is/are selected from the group of polyethylene glycol-20 stearyl ether (= Steareth-20), polyethylene glycol-100 stearyl ether (= Steareth-100) and PPG-15 stearyl ether. a) ε-polylysine (epsilon-polylysine) having a degree of polymerization of 2 to 200, preferably 10 to 100, particularly preferably 23 to 35 b) one or more ethoxylated or propoxylated alkanols, which is/are selected from the group of polyethylene glycol-20 stearyl ether (= Steareth-20), polyethylene glycol-100 stearyl ether (= Steareth-100) and PPG-15 stearyl ether.