mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: (a) providing a substrate with a plurality of branched linkers coupled to said substrate, wherein said substrate comprises a plurality of hydroxyalkyl groups, wherein each branched linker comprises (i) a first branch comprising a first alkyne and (ii) a second branch, wherein said second branch comprises a first cleavable linker coupled to a 3' end of a first oligonucleotide, and wherein a 5' end of said first oligonucleotide is coupled to a first azide group; and (b) circularizing said first oligonucleotide by reacting said first azide group with a second alkyne, wherein said second alkyne is said first alkyne or a neighboring alkyne; wherein efficiency of said circularization increases when said second branch further comprises a capping moiety. (a) providing a substrate with a plurality of branched linkers coupled to said substrate, wherein said substrate comprises a plurality of hydroxyalkyl groups, wherein each branched linker comprises (i) a first branch comprising a first alkyne and (ii) a second branch, wherein said second branch comprises a first cleavable linker coupled to a 3' end of a first oligonucleotide, and wherein a 5' end of said first oligonucleotide is coupled to a first azide group; and (b) circularizing said first oligonucleotide by reacting said first azide group with a second alkyne, wherein said second alkyne is said first alkyne or a neighboring alkyne;
Armature for an actuator device (1; 401) comprising at least one electromagnet (4, 5), the armature being provided radially on the outside with a coating or extrusion coating, and the armature having radially on the outside at least one region that is not provided with the coating or extrusion coating, characterized in that the region that is not provided with the coating or extrusion coating is configured, arranged and/or dimensioned so as to create channels that allow a hydraulic equalization between two opposite ends of the armature.
A method for improving datacenter security by configuring a security layer as a set of nano-services that are executed to service a single tenant of a datacenter such that the nano-service protects the single tenant from other entities in the datacenter and the nano-service being compromised does not compromise security of other tenants of the datacenter, the method comprising: receiving a request to instantiate a virtual resource (vR) for a tenant; generating a nano-service to implement at least one security layer function for the virtual resource; and connecting the nano-service to the virtual resource and a virtual bridge in the datacenter to enable communication between the virtual resource and a network of the datacenter with a security layer function processing traffic between the virtual resource and the virtual bridge, characterised in that for each virtual resource of the tenant a corresponding nano-service is provided, and for each nano-service a connection is established between the virtual bridge and the corresponding nano-service, and a connection from the corresponding nano-service to the virtual resource, each nano-service having its own filtering rules. receiving a request to instantiate a virtual resource (vR) for a tenant; generating a nano-service to implement at least one security layer function for the virtual resource; and connecting the nano-service to the virtual resource and a virtual bridge in the datacenter to enable communication between the virtual resource and a network of the datacenter with a security layer function processing traffic between the virtual resource and the virtual bridge, characterised in that for each virtual resource of the tenant a corresponding nano-service is provided, and for each nano-service a connection is established between the virtual bridge and the corresponding nano-service, and a connection from the corresponding nano-service to the virtual resource, each nano-service having its own filtering rules.
An external processor device for an implantable prosthetic system, the device comprising: an external processor housing having a generally planar skin contacting surface and a central axis perpendicular to the skin contacting surface; a signal processor within the processor housing for developing an implant data signal; a transmitter coil about the central axis and within the processor housing for coupling the implant data signal across the skin to the implantable prosthetic system; and a battery compartment within the processor housing in an annular region around the central axis for containing a battery arrangement (214, 701) to provide electrical power to the signal processor and the transmitter coil, characterised in that the battery compartment is formed either as a complete annular ring or as a partial annular section around the central axis. an external processor housing having a generally planar skin contacting surface and a central axis perpendicular to the skin contacting surface; a signal processor within the processor housing for developing an implant data signal; a transmitter coil about the central axis and within the processor housing for coupling the implant data signal across the skin to the implantable prosthetic system; and a battery compartment within the processor housing in an annular region around the central axis for containing a battery arrangement (214, 701) to provide electrical power to the signal processor and the transmitter coil, characterised in that the battery compartment is formed either as a complete annular ring or as a partial annular section around the central axis.
Hybridization system for an electric device, said electric device having two terminals (A, B) and two states, a closed state allowing an electric current to circulate between the two terminals and an open state blocking the circulation of said electric current between said terminals, said device being suitable for an electric arc to be generated during the passage from the closed state to the open state, said hybridization system comprising: • two conductors suitable for being connected to the two terminals (A, B) of the electric device; • a timer switch having two terminals connected to the two conductors and said timer switch being suitable for being in the open state by default and, after a first predetermined time d1 following the triggering of the electric arc, switching to the closed state for a second predetermined time d2; the hybridization system further comprising an electric power supply of the timer switch, said power supply being connected to the two conductors and being suitable in order for the energy to come only from the electric energy provided by the electric arc, characterized in that the electric power supply comprises: • a rectifier module connected at the input to the two conductors and having an output connected to a ballast, • the ballast connected via a diode to an energy accumulator, • the energy accumulator having two terminals connected to the timer switch. • two conductors suitable for being connected to the two terminals (A, B) of the electric device; • a timer switch having two terminals connected to the two conductors and said timer switch being suitable for being in the open state by default and, after a first predetermined time d1 following the triggering of the electric arc, switching to the closed state for a second predetermined time d2; • a rectifier module connected at the input to the two conductors and having an output connected to a ballast, • the ballast connected via a diode to an energy accumulator, • the energy accumulator having two terminals connected to the timer switch.
A laser arrangement (400; 500), comprising a laser element (410; 510); a volume Bragg grating, VBG, (430; 530) configured to provide optical feedback to the laser element along a beam path; a polarizing beam splitter, PBS, (422; 522) arranged in the beam path between the laser element and the VBG; and a polarization-modifying element (424; 524) arranged in the beam path between the PBS and the VBG element, said polarization-modifying element being a wave-plate configured to modify linearly polarized light into generally elliptically polarized light; wherein said polarization-modifying element is structured and arranged to alter a polarization state of light reflected from said VBG such that said PBS is operative to divide said light reflected from said VBG into a first portion that provides the optical feedback to the laser element and a second portion that provides an output beam (440; 540) from the laser arrangement. a laser element (410; 510); a volume Bragg grating, VBG, (430; 530) configured to provide optical feedback to the laser element along a beam path; a polarizing beam splitter, PBS, (422; 522) arranged in the beam path between the laser element and the VBG; and a polarization-modifying element (424; 524) arranged in the beam path between the PBS and the VBG element, said polarization-modifying element being a wave-plate configured to modify linearly polarized light into generally elliptically polarized light; wherein said polarization-modifying element is structured and arranged to alter a polarization state of light reflected from said VBG such that said PBS is operative to divide said light reflected from said VBG into a first portion that provides the optical feedback to the laser element and a second portion that provides an output beam (440; 540) from the laser arrangement.
An emulsion having an aqueous phase and an oil phase containing an antifungal agent and an NSAID, characterized in that (a) the NSAID is diclofenac in a concentration of 0.1 to 0.5 weight percent, indometacin in a concentration of 0.1 to 0.4 weight percent, naproxen in a concentration of 1 to 5 weight percent, ibuprofen in a concentration of 0, 5 to 2.5 weight percent, dexibuprofen in a concentration of 0.25 to 1.25 weight percent, ketoprofen in a concentration of 0.25 to 1.25 weight percent, mefenamic acid in a concentration of 0.5 to 4 weight percent, or lornixocam in a concentration of 0.02 to 0.04 weight percent, wherein the NSAID is in salt form; in that (b) the weight ratio of the water phase to the oil phase in said emulsion is between the values 2.0 and 2.7, wherein the weight ratio is calculated including the fabrics dissolved in the phases, wherein emulsifiers are not included in either the water phase or the oil phase, and in that (c) the pH of the emulsion is not less than the value 6.5 and not more than 8.5, preferably in the area 7.0 to 8.0.
A method for controlling access to an access object, the method being performed by an access control device and comprising the steps of: receiving a user input to reset the access control device; generating a unique new identifier for the access control device, wherein the unique new identifier is in the form of one or more cryptographic key pairs, each comprising a public key and a private key; communicating with an electronic key to obtain an identity of the electronic key; obtaining a plurality of delegations, wherein each delegation is a delegation from a delegator to a receiver; and granting access to the access object only when the plurality of delegations comprise a sequence of delegations covering a delegation path from the access control device, identified using the new identifier, to the electronic key such that, in the sequence of delegations, the delegator of the first delegation is the access control device, and the receiver of the last delegation is the electronic key. receiving a user input to reset the access control device; generating a unique new identifier for the access control device, wherein the unique new identifier is in the form of one or more cryptographic key pairs, each comprising a public key and a private key; communicating with an electronic key to obtain an identity of the electronic key; obtaining a plurality of delegations, wherein each delegation is a delegation from a delegator to a receiver; and granting access to the access object only when the plurality of delegations comprise a sequence of delegations covering a delegation path from the access control device, identified using the new identifier, to the electronic key such that, in the sequence of delegations, the delegator of the first delegation is the access control device, and the receiver of the last delegation is the electronic key.
An ammunition projectile (10, 52, 54, 56, 58) with a full metal jacket configured to be fired from a weapon, said projectile (10, 52, 54, 56, 58) having an elongated circular body with a rear trailing edge that incorporates a thin metal disk (28, 30, 36) with a phosphor material, said metal disk (28, 30, 36) being crimped to the rear trailing edge of the projectile (10, 52, 54, 56, 58), said metal disk (28, 30, 36) having an exterior-facing, rear surface and a photo-luminescent material, disposed on the rear surface, that is configured to re-emit radiation when excited by incoming radiation from an external electro-optical radiation source.
A method of attaching a medical device to a surface, said medical device having at least one adhesive area, wherein said method comprises the steps of: - contacting said surface with a composition comprising a T silicone resin and/or a DT silicone resin and/or an MQ silicone resin, said resin(s) being three-dimensionally crosslinked polysiloxanes having a backbone of silicon and oxygen atoms, thereby providing a non-tacky coating on said surface; and attaching said adhesive area to said surface such that said composition is located between, and in contact with, said surface and said adhesive area, thereby attaching the medical device to said surface, wherein - said T silicone resin comprises T-units having the general formula RSiO 3/2; - said DT silicone resin comprises D-units having the general formula R 2 SiO 2/2 and T-units having the general formula RSiO 3/2; wherein the ratio between the number of R-groups and number of Si atoms in said DT silicone resin is 1.0< R: Si ≤1.7, such as 1.0< R:Si ≤1.4; - said MQ silicone resin comprises M-units having the general formula R 3 SiO 1/2 and Q-units having the general formula SiO 4/2; wherein the ratio of the number of M-units and number of Q-units is 0.5-2, such as 0.5-1.5; wherein the R group is a hydroxyl group and/or a monovalent or functionally substituted C1-C6 hydrocarbon group, such as a methyl group, phenyl group, and/or methoxy or ethoxy group. - contacting said surface with a composition comprising a T silicone resin and/or a DT silicone resin and/or an MQ silicone resin, said resin(s) being three-dimensionally crosslinked polysiloxanes having a backbone of silicon and oxygen atoms, thereby providing a non-tacky coating on said surface; and attaching said adhesive area to said surface such that said composition is located between, and in contact with, said surface and said adhesive area, thereby attaching the medical device to said surface, wherein - said T silicone resin comprises T-units having the general formula RSiO 3/2; - said DT silicone resin comprises D-units having the general formula R 2 SiO 2/2 and T-units having the general formula RSiO 3/2; wherein the ratio between the number of R-groups and number of Si atoms in said DT silicone resin is 1.0< R: Si ≤1.7, such as 1.0< R:Si ≤1.4; - said MQ silicone resin comprises M-units having the general formula R 3 SiO 1/2 and Q-units having the general formula SiO 4/2; wherein the ratio of the number of M-units and number of Q-units is 0.5-2, such as 0.5-1.5;
A lockable actuator comprising: - a body; - a screw mounted on the body to pivot relative to the body about a longitudinal axis (Oy); - a nut provided with connection means for connection to an element to be moved and engaged on the screw so as to move along the screw between an over-retracted first position and a deployed second position on opposite sides of a retracted third position; characterized in that it comprises: - a sleeve constrained to rotate with the screw and slidably mounted thereon in order to be moved by the nut; and - an obstacle secured to the sleeve and a pawl that is mounted to move on the body and that is connected to a declutching actuator in order to control the pawl to take up an active state and an inactive state, the pawl having a blocking portion for co-operating with the obstacle in order to block turning of the screw in a first direction of rotation when the pawl is in its active state; the pawl and the obstacle being arranged in such a manner that the pawl in its active state can co-operate with the obstacle only after the nut has been moved through a predetermined distance (j lock) from its third position towards its second position. - a body; - a screw mounted on the body to pivot relative to the body about a longitudinal axis (Oy); - a nut provided with connection means for connection to an element to be moved and engaged on the screw so as to move along the screw between an over-retracted first position and a deployed second position on opposite sides of a retracted third position; characterized in that it comprises: - a sleeve constrained to rotate with the screw and slidably mounted thereon in order to be moved by the nut; and - an obstacle secured to the sleeve and a pawl that is mounted to move on the body and that is connected to a declutching actuator in order to control the pawl to take up an active state and an inactive state, the pawl having a blocking portion for co-operating with the obstacle in order to block turning of the screw in a first direction of rotation when the pawl is in its active state;
Method for producing a laminate, in particular a continuous pressure laminate, comprising at least one kraft paper layer with the following steps: - Providing at least one layer of kraft paper, - Moistening the at least one layer of kraft paper; - Spreading at least a first layer of at least one powdered formaldehyde resin on at least one side of the kraft paper layer, - Placing at least one further layer of paper on the side of the kraft paper layer sprinkled with the powdered formaldehyde resin, and - Pressing the layer structure in a CPL press. - Providing at least one layer of kraft paper, - Moistening the at least one layer of kraft paper; - Spreading at least a first layer of at least one powdered formaldehyde resin on at least one side of the kraft paper layer, - Placing at least one further layer of paper on the side of the kraft paper layer sprinkled with the powdered formaldehyde resin, and - Pressing the layer structure in a CPL press.
Installation for the production of asphalt, comprising a) an indirectly heated drying drum; b) a continuous mixing unit which for continuously mixing material that has been heated in the drying drum is connected to the drying drum; c) a suction hood for suctioning particle-containing gas from the drying drum, said suction hood being connected to the drying drum; characterized in that d) a hot-gas generator for indirectly heating the drying drum is connected in the region of a drum outlet of the drying drum; e) the suction hood is connected to the hot-gas generator by way of a recirculating air line. a) an indirectly heated drying drum; b) a continuous mixing unit which for continuously mixing material that has been heated in the drying drum is connected to the drying drum; c) a suction hood for suctioning particle-containing gas from the drying drum, said suction hood being connected to the drying drum; d) a hot-gas generator for indirectly heating the drying drum is connected in the region of a drum outlet of the drying drum; e) the suction hood is connected to the hot-gas generator by way of a recirculating air line.
An optical recording medium comprising: a substrate; a recording layer formed on the substrate, containing In, Sn, Pd, and oxygen, and containing oxygen atoms more than stoichiometric composition of the case where the In and the Sn are completely oxidized; and a light transmission layer formed on the recording layer. a substrate; a recording layer formed on the substrate, containing In, Sn, Pd, and oxygen, and containing oxygen atoms more than stoichiometric composition of the case where the In and the Sn are completely oxidized; and a light transmission layer formed on the recording layer.
A method of monitoring a high-lift system on an aircraft, the method comprising: monitoring a first current draw (I1, I2, I3, or 14) of a first drive station (201, 202, 203, or 204) of the high-lift system; monitoring a second current draw (I1, I2, I3, or 14) of a second drive station (201, 202, 203, or 204) of the high-lift system; comparing the first current draw and the second current draw to determine if a differential between the first current draw and the second current draw exceeds a first threshold; and generating a failure signal if the differential between the first current draw and the second current draw exceeds the first threshold. monitoring a first current draw (I1, I2, I3, or 14) of a first drive station (201, 202, 203, or 204) of the high-lift system; monitoring a second current draw (I1, I2, I3, or 14) of a second drive station (201, 202, 203, or 204) of the high-lift system; comparing the first current draw and the second current draw to determine if a differential between the first current draw and the second current draw exceeds a first threshold; and generating a failure signal if the differential between the first current draw and the second current draw exceeds the first threshold.
Installation for pumping cryogenic fluid comprising a fluidtight enclosure intended to contain a bath of cryogenic fluid, the enclosure housing a compression chamber communicating with the bath and a piston that is able to move in order to compress the fluid in the compression chamber, the piston being mounted at a first end of a rod, the installation comprising a drive mechanism driving a second end of the rod in a back and forth movement in a longitudinal direction of travel, the drive mechanism comprising a motor equipped with a rotary shaft and a mechanical conversion system converting the rotational movement of the rotary shaft into a translational movement, in the configuration of operation of the installation, the longitudinal direction of travel of the piston rod being vertical, the motor being fixed rigidly to an upper mounting structure (6, 26), characterized in that the mechanical conversion system is also fixed rigidly to an upper mounting structure (6, 16) which comprises the mounting structure (6, 26) for the motor or a separate mounting structure rigidly connected to the mounting structure (6, 26) for the motor.