mhurhangee/ep-ind-claims huggingface dataset:
Method for the manipulation of an individual encoded microcarrier within a population of encoded microcarriers for the identification of said individual encoded microcarrier, comprising: (a) an identification purpose step of a microcarrier, said identification purpose step being a detection step for the detection of said individual encoded microcarrier, said encoded microcarrier being encoded by a code written on the microcarrier, wherein the identification step corresponds to reading of the code; and (b) a positioning and orientation step prior to or during the identification purpose step, wherein said individual encoded microcarrier is positioned and oriented in reference to a reading instrument, such that the code can subsequently be reliably resolved by the reading instrument, said step comprising (b. 1) distribution of the population of microcarriers in a one-layer system caused by a transportation of the microcarriers preferably according to a laminar flow pattern in a liquid, gaseous or semi-solid environment; and (b. 2) restricting rotational movement of the microcarriers as a result of a magnetic field imposed on the microcarriers or as a result of an electrical field imposed on the microcarriers, said microcarriers comprising a net electrical charge, an electrical dipole moment or a magnetic dipole moment or said microcarriers being ferro-, ferri-or paramagnetic as such. (a) an identification purpose step of a microcarrier, said identification purpose step being a detection step for the detection of said individual encoded microcarrier, said encoded microcarrier being encoded by a code written on the microcarrier, wherein the identification step corresponds to reading of the code; and (b) a positioning and orientation step prior to or during the identification purpose step, wherein said individual encoded microcarrier is positioned and oriented in reference to a reading instrument, such that the code can subsequently be reliably resolved by the reading instrument, said step comprising (b. 1) distribution of the population of microcarriers in a one-layer system caused by a transportation of the microcarriers preferably according to a laminar flow pattern in a liquid, gaseous or semi-solid environment; and (b. 2) restricting rotational movement of the microcarriers as a result of a magnetic field imposed on the microcarriers or as a result of an electrical field imposed on the microcarriers, said microcarriers comprising a net electrical charge, an electrical dipole moment or a magnetic dipole moment or said microcarriers being ferro-, ferri-or paramagnetic as such. (b. 1) distribution of the population of microcarriers in a one-layer system caused by a transportation of the microcarriers preferably according to a laminar flow pattern in a liquid, gaseous or semi-solid environment; and (b. 2) restricting rotational movement of the microcarriers as a result of a magnetic field imposed on the microcarriers or as a result of an electrical field imposed on the microcarriers,
Method for producing a wind turbine rotor blade for a wind turbine, the wind turbine rotor blade having a rotor blade shell made of a first half-shell and a second half-shell, wherein a shear web is arranged in the shell running in the longitudinal direction of the wind turbine rotor blade, having the following steps: - providing the first half-shell in a mould tool, - placing the shear web into the first half-shell, - providing a shear web holding device in a root area of the first half-shell in order to securely hold the shear web in position, wherein the shear web holding device is fixed to the shear web and to the mould tool at a mould end region, the mould end region being associated with a root end of the wind turbine rotor blade, - placing the second half-shell on the first half-shell, - adhesive bonding of the first and second half-shells (140, 160) to each other and to the shear web to form the rotor blade shell of the wind turbine rotor blade, characterized by - removing the shear web holding device after the step of adhesive bonding. - providing the first half-shell in a mould tool, - placing the shear web into the first half-shell, - providing a shear web holding device in a root area of the first half-shell in order to securely hold the shear web in position, wherein the shear web holding device is fixed to the shear web and to the mould tool at a mould end region, the mould end region being associated with a root end of the wind turbine rotor blade, - placing the second half-shell on the first half-shell, - adhesive bonding of the first and second half-shells (140, 160) to each other and to the shear web to form the rotor blade shell of the wind turbine rotor blade, characterized by - removing the shear web holding device after the step of adhesive bonding.
A casing intended to removably receive a post, the casing comprising: - a blind housing extending along a main direction, the housing comprising a proximal end comprising an opening, and a distal end opposite to the proximal end along the main direction having a bottom of the housing, the housing being configured to receive a post part, intended to be inserted into the housing along the main direction via the opening, - a cover movable in translation along the main direction between a closed position in which it closes off the opening, and a stowed position in which the cover is moved along the main direction towards the distal end to allow the insertion of a post in the housing, - a return element disposed between the bottom of the housing and the cover, the return element being configured so as to return the cover to the closed position, characterized in that the return element comprises a helical spring defined by a wire forming a plurality of turns comprising a first end portion connected to the cover and a second end portion connected to the bottom of the housing, the helical spring being movable between: - a rest position in which the helical spring has a generally frustoconical shape along the main direction, and - a retracted position in which the helical spring is comprised in a volume having a thickness along the main direction equal to two diameters of the wire forming the turns of the helical spring. - a blind housing extending along a main direction, the housing comprising a proximal end comprising an opening, and a distal end opposite to the proximal end along the main direction having a bottom of the housing, the housing being configured to receive a post part, intended to be inserted into the housing along the main direction via the opening, - a cover movable in translation along the main direction between a closed position in which it closes off the opening, and a stowed position in which the cover is moved along the main direction towards the distal end to allow the insertion of a post in the housing, - a return element disposed between the bottom of the housing and the cover, the return element being configured so as to return the cover to the closed position, - a rest position in which the helical spring has a generally frustoconical shape along the main direction, and - a retracted position in which the helical spring is comprised in a volume having a thickness along the main direction equal to two diameters of the wire forming the turns of the helical spring.
A sealing ring for a pipe assembly having a cross-sectional shape comprising: a plane surface, defining a plane of the sealing ring, an essentially planar, slanting surface being at a first angle (α) to the plane of the sealing ring, and a groove surface, interconnecting the plane surface and the slanting surface, the groove surface opposing the slanting surface and having a curvature such that it is connected to the slanting surface, and an abutment surface opposing the groove surface and interconnecting the slanting surface and the plane surface, characterized in that the abutment surface comprises a curve defining the interconnection between the slanting surface and the plane surface, wherein the angle of the abutment surface to the plane varies along the abutment surface from the first angel (α) to a second angle (β) that is smaller than the first angle (α). a plane surface, defining a plane of the sealing ring, an essentially planar, slanting surface being at a first angle (α) to the plane of the sealing ring, and a groove surface, interconnecting the plane surface and the slanting surface, the groove surface opposing the slanting surface and having a curvature such that it is connected to the slanting surface, and an abutment surface opposing the groove surface and interconnecting the slanting surface and the plane surface, characterized in that the abutment surface comprises a curve defining the interconnection between the slanting surface and the plane surface, wherein the angle of the abutment surface to the plane varies along the abutment surface from the first angel (α) to a second angle (β) that is smaller than the first angle (α).
The use of a powder comprising TMC278, dispersed in a water-soluble polymer selected from polyvinylpyrrolidone, a copolymer of vinylpyrrolidone and vinyl acetate, a hydroxyalkyl alkylcellulose, and a poloxamer, to be mixed with water, for the manufacture of a medicament for the treatment of a subject infected with HIV, wherein the weight:weight ratio of water soluble polymer to TMC278 is in the range of about 50:1 to about 1:1.
Breech block with a breech block carrier and a breech block head carried in the breech block carrier, with a separate striking mechanism for triggering a firing pin incorporated in the breech block head, wherein the striking mechanism has at least one lever (12, 14) for engaging under a spring-tensioned sear, characterized by a rear tensioning ramp and a front ramp on the breech block carrier, wherein the rear tensioning ramp is used for tensioning the spring of the sear in the striking mechanism and the front ramp is used for pressing the at least one lever (12, 14) to disengage it from under the sear to release the sear.
A device for tagging an object, comprising a tag body having an engagement arrangement for engaging the tag body to the object, wherein the engagement arrangement includes at least one sensing arrangement arranged to detect a disengagement of the tag body from the object, wherein: the engagement arrangement includes a removable strap for engaging the tag body to the object; the at least one sensing arrangement includes a strap sensor arranged to be connected to the removable strap to detect the disengagement of the tag body from the object; the removable strap includes a conductive member arranged to connect with the strap sensor; and the conductive member is further arranged to disconnect from the strap sensor when the tag body is disengaged from the object, characterized in that: the engagement arrangement further includes a cuff member arranged to fit snugly with a limb of the object to engage the tag body to the object; and the at least one sensing arrangement further includes a cuff sensor disposed adjacent to the cuff member, the cuff sensor arranged to detect a disengagement of the cuff member from the limb of the object. the engagement arrangement includes a removable strap for engaging the tag body to the object; the at least one sensing arrangement includes a strap sensor arranged to be connected to the removable strap to detect the disengagement of the tag body from the object; the removable strap includes a conductive member arranged to connect with the strap sensor; and the conductive member is further arranged to disconnect from the strap sensor when the tag body is disengaged from the object, characterized in that: the engagement arrangement further includes a cuff member arranged to fit snugly with a limb of the object to engage the tag body to the object; and the at least one sensing arrangement further includes a cuff sensor disposed adjacent to the cuff member, the cuff sensor arranged to detect a disengagement of the cuff member from the limb of the object.
A method for establishing a secondary cell group, SCG, split bearer performed by a primary base station of a master cell group, MCG, supporting a first RAT, the method further comprising: transmitting, to a secondary base station supporting a second RAT, an addition request message for requesting addition of the secondary base station including a first parameter for full quality of service, QoS, and a second parameter associated with guaranteed bit rate QoS, GBR QoS, that is admittable by the MCG, wherein the first parameter is received from a core network of the first RAT; and receiving, from the secondary base station, an addition response message including a third parameter about QoS to be provided by the MCG, wherein the first RAT is long term evolution, LTE, and the second RAT is new radio, NR, wherein a QoS for bearers of the primary base station and the secondary base station is guaranteed by a sum of the resources provided by the MCG and the SCG. transmitting, to a secondary base station supporting a second RAT, an addition request message for requesting addition of the secondary base station including a first parameter for full quality of service, QoS, and a second parameter associated with guaranteed bit rate QoS, GBR QoS, that is admittable by the MCG, wherein the first parameter is received from a core network of the first RAT; and receiving, from the secondary base station, an addition response message including a third parameter about QoS to be provided by the MCG, wherein the first RAT is long term evolution, LTE, and the second RAT is new radio, NR, wherein a QoS for bearers of the primary base station and the secondary base station is guaranteed by a sum of the resources provided by the MCG and the SCG.
A fault location system for a distribution network, the fault location system comprising: at least one sensor (11, 12) located on the distribution network, for sensing current and voltage; and a fault location evaluation apparatus comprising: a possible power flow path, PPFP, selecting unit for selecting PPFPs (14, 15, 16) one by one in the distribution network; a line section selecting unit for selecting line sections one by one in each of the selected PPFPs (14, 15, 16); a line section classification unit for classifying each of the selected line sections into a corresponding equivalent fault model based on the selected PPFP (14, 15, 16); a fault location parameter calculation unit for calculating a fault distance 'D' and a fault resistance 'R F ' of an assumed fault point of each of the selected line sections based on the corresponding equivalent fault model; and a fault location candidate record unit for recording the assumed fault points as fault location candidates if R F ≥0 and 0≤D≤ D T, wherein 'D T ' is the total length of the corresponding line section. at least one sensor (11, 12) located on the distribution network, for sensing current and voltage; and a fault location evaluation apparatus comprising: a possible power flow path, PPFP, selecting unit for selecting PPFPs (14, 15, 16) one by one in the distribution network; a line section selecting unit for selecting line sections one by one in each of the selected PPFPs (14, 15, 16); a line section classification unit for classifying each of the selected line sections into a corresponding equivalent fault model based on the selected PPFP (14, 15, 16); a fault location parameter calculation unit for calculating a fault distance 'D' and a fault resistance 'R F ' of an assumed fault point of each of the selected line sections based on the corresponding equivalent fault model; and a fault location candidate record unit for recording the assumed fault points as fault location candidates if R F ≥0 and 0≤D≤ D T, wherein 'D T ' is the total length of the corresponding line section. a possible power flow path, PPFP, selecting unit for selecting PPFPs (14, 15, 16) one by one in the distribution network; a line section selecting unit for selecting line sections one by one in each of the selected PPFPs (14, 15, 16); a line section classification unit for classifying each of the selected line sections into a corresponding equivalent fault model based on the selected PPFP (14, 15, 16); a fault location parameter calculation unit for calculating a fault distance 'D' and a fault resistance 'R F ' of an assumed fault point of each of the selected line sections based on the corresponding equivalent fault model; and a fault location candidate record unit for recording the assumed fault points as fault location candidates if R F ≥0 and 0≤D≤ D T, wherein 'D T ' is the total length of the corresponding line section.
A coil system (30, 40, 50) for generating a homogeneous magnetic field, the coil system (30, 40, 50) comprising a coil assembly, each coil assembly being composed of at least two coils (S1, S2, S3), the respective windings (W1, W2, W3) of said coils (S1, S2, S3) forming plane-parallel, rotationally symmetrical surfaces having different sizes and a common axis of rotation as a coil axis running perpendicular to the surfaces, a current flowing in the opposite direction in relation to another one of said coils through at least one of said coils (S1, S2, S3), characterized by at least three coil assemblies, the coils (S1, S2, S3) of each coil assembly being located inside and oriented plane-parallel to the base surface of a generating pyramid, the apex of which coincides with the center of a regular, convex polyhedron and the base surface of which is identical to a surface of the convex polyhedron in which the projection of the pyramid apex onto the pyramid base surface coincides with the center of the pyramid base surface, wherein the polyhedron having n surfaces is a tetrahedron, a hexahedron, an octahedron, a dodecahedron or an icosahedron which can be composed of n generating pyramids in a volume-filling manner..
A method of producing encapsulated primary mesenchymal stem cells comprising: (a) providing a population of cells which comprise at least 97 % primary mesenchymal stem cells with an alginate to thereby obtain a solution of said alginate with said primary mesenchymal stem cells, and (b) infusing droplets of said solution into a Calcium Chloride (CaCl 2) solution, to thereby generate spheres of said alginate and said mesenchymal stem cells, (c) mixing said spheres with a poly-L lysine solution, to thereby create semi permeable microcapsules, thereby producing the encapsulated mesenchymal stem cells. (a) providing a population of cells which comprise at least 97 % primary mesenchymal stem cells with an alginate to thereby obtain a solution of said alginate with said primary mesenchymal stem cells, and (b) infusing droplets of said solution into a Calcium Chloride (CaCl 2) solution, to thereby generate spheres of said alginate and said mesenchymal stem cells, (c) mixing said spheres with a poly-L lysine solution, to thereby create semi permeable microcapsules,
A control system configured to control a driveline of a motor vehicle to operate in a first configuration in which the driveline is configured such that a first group of one or more wheels (12, 13) and in addition a second group of one or more wheels (14, 15) are arranged to be driven or a second configuration in which the first group of one or more wheels and not the second group are arranged to be driven, the control system comprising: receiver means operable to receive a location signal indicative of a location of the vehicle; means to determine a predicted path of travel of the vehicle using the location signal; means to predict an amount of lateral acceleration that will be experienced by the vehicle in dependence at least in part on the predicted path of travel of the vehicle; a comparator operable to compare the predicted amount of lateral acceleration with a threshold lateral acceleration value; and a controller operable to cause the driveline to operate in either the first or the second configuration in dependence at least in part on whether the predicted amount of lateral acceleration exceeds the threshold value; wherein if the predicted amount of lateral acceleration exceeds the threshold value the controller causes the driveline to operate in the first configuration and if the predicted amount of lateral acceleration is below the threshold value the controller causes the driveline to operate in the second configuration; and wherein the threshold lateral acceleration value is determined at least in part in dependence on vehicle speed, and data in respect of one or more environmental conditions. receiver means operable to receive a location signal indicative of a location of the vehicle; means to determine a predicted path of travel of the vehicle using the location signal; means to predict an amount of lateral acceleration that will be experienced by the vehicle in dependence at least in part on the predicted path of travel of the vehicle; a comparator operable to compare the predicted amount of lateral acceleration with a threshold lateral acceleration value; and a controller operable to cause the driveline to operate in either the first or the second configuration in dependence at least in part on whether the predicted amount of lateral acceleration exceeds the threshold value; wherein if the predicted amount of lateral acceleration exceeds the threshold value the controller causes the driveline to operate in the first configuration and if the predicted amount of lateral acceleration is below the threshold value the controller causes the driveline to operate in the second configuration; and wherein the threshold lateral acceleration value is determined at least in part in dependence on vehicle speed, and data in respect of one or more environmental conditions.
Compound according to one of the structures, or: where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are selected from: -H, -(C 1 -C 12) -alkyl, -O- (C 1 -C 12) -alkyl, -(C 6 -C 20) -ar yl, -O- (C 6 -C 20) -aryl, -NO 2, -NH 2, -N[(C 1 -C 12) -alkyl] 2.