mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the mobility of fluorescent particles or particles tagged with a fluorescent marker, based on at least one fluorescence image of a sample, said at least one fluorescence image being generated in a process comprising - a fluorescence properties changing step of locally irradiating the sample such as to carry out a local light-induced change of the fluorescence properties of the fluorescent particles, said light-induced change comprising one of the following: • a photobleaching, • a light-induced activation of fluorescence in a fraction of particles that are initially non-fluorescent, • a light-induced switching of a fraction of particles between a fluorescent and a non-fluorescent state, or • a light-induced switching of a fraction of particles between fluorescent states that are different with respect to their fluorescence emission wavelength, and - a fluorescence image recording step carried out after or interleaved with said fluorescence properties changing step, in which said fluorescence image is recorded, wherein both of said fluorescence properties changing step and said fluorescence image recording step are carried out in a pixel-wise scanning process using a laser scanning microscope according to a predetermined scan pattern, said scanning process corresponding to one image frame and wherein the particle mobility is assessed accounting for translocations of particles with changed fluorescence properties that occurred during said scanning process. - a fluorescence properties changing step of locally irradiating the sample such as to carry out a local light-induced change of the fluorescence properties of the fluorescent particles, said light-induced change comprising one of the following: • a photobleaching, • a light-induced activation of fluorescence in a fraction of particles that are initially non-fluorescent, • a light-induced switching of a fraction of particles between a fluorescent and a non-fluorescent state, or • a light-induced switching of a fraction of particles between fluorescent states that are different with respect to their fluorescence emission wavelength, and • a photobleaching, • a light-induced activation of fluorescence in a fraction of particles that are initially non-fluorescent, • a light-induced switching of a fraction of particles between a fluorescent and a non-fluorescent state, or • a light-induced switching of a fraction of particles between fluorescent states that are different with respect to their fluorescence emission wavelength, and - a fluorescence image recording step carried out after or interleaved with said fluorescence properties changing step, in which said fluorescence image is recorded,
Device arrangement, - with a housing surrounding a housing interior, which housing has a viewing window which is sealed by a transparent window pane, - with an electronic device arranged in the housing interior and having a display, - with a suspension/damping device by means of which the window pane is supported on the housing, characterised in that - the electronic device is secured immovably onto the window pane, - the window pane is secured by means of an adhesive layer, which comprises a transparent adhesive, onto the display of the electronic device, - the window pane is made from a hardened glass or a transparent ceramic or a combination of the two. - with a housing surrounding a housing interior, which housing has a viewing window which is sealed by a transparent window pane, - with an electronic device arranged in the housing interior and having a display, - with a suspension/damping device by means of which the window pane is supported on the housing, - the electronic device is secured immovably onto the window pane, - the window pane is secured by means of an adhesive layer, which comprises a transparent adhesive, onto the display of the electronic device, - the window pane is made from a hardened glass or a transparent ceramic or a combination of the two.
A method of making a controlled valency semiconductor nanocrystal, comprising: contacting a population of semiconductor nanocrystals with a compound having an affinity for the semiconductor nanocrystal to form a distribution of compound-associated nanocrystals; and separating the members of the distribution of compound-associated nanocrystals according to the number of compounds associated with each nanocrystal; and isolating members of the distribution of compound-associated nanocrystals which have exactly one compound associated with a nanocrystal, wherein the isolated semiconductor nanocrystal is monovalent and is associated with exactly one binding site for an affinity tag or affinity target; wherein the compound is a monovalent avidin or a monovalent streptavidin. contacting a population of semiconductor nanocrystals with a compound having an affinity for the semiconductor nanocrystal to form a distribution of compound-associated nanocrystals; and separating the members of the distribution of compound-associated nanocrystals according to the number of compounds associated with each nanocrystal; and isolating members of the distribution of compound-associated nanocrystals which have exactly one compound associated with a nanocrystal, wherein the isolated semiconductor nanocrystal is monovalent and is associated with exactly one binding site for an affinity tag or affinity target; wherein the compound is a monovalent avidin or a monovalent streptavidin.
A method for operating a bale opener having a stripping element and a safety device for protection against penetration into a hazardous zone of the stripping element, said safety device consisting of sensory safety means, wherein a monitoring region at the front beneath the stripping element is detected and wherein the stripping element is mounted on a stripping tower, characterized in that the safety device is at least one two-dimensional laser scanner on which at least one monitoring region which is adjustable and variable over time is monitored, whereas the laser scanner scans a two-dimensional plane.
Method of estimating a rotor operational parameter (θ,ω) of an electrical machine comprising multiple winding sets (15a,15b,15c,17a,17b,17c) wound to have a phase shift between winding sets, the rotor operational parameter comprising rotor position (θ) and/or rotor speed (ω), the method comprising: deriving, for each winding set (15, 17), a preliminary rotor operational parameter based on a current and a voltage of the respective winding set; calculating for at least two winding sets (15, 17) and for at least one predefined harmonic (h), a rotor operational parameter harmonic correction term based on the preliminary rotor operational parameter (39,θ1,ω1; 41,θ2,ω2) of at least two winding sets (15, 17); calculating for at least one winding set (15, 17), a corrected rotor operational parameter (11, 13, 12, 14) based on the preliminary operational parameter (39, 41) of this winding set and the rotor operational parameter harmonic correction term of this winding set, wherein in particular the corrected rotor operational parameter has the at least one predefined harmonic removed or at least attenuated, characterized in that the at least one predefined harmonic to be attenuated in the corrected rotor operational parameter include the harmonic h_k = 2π/(nγ) (1 + 2k/(n-1)), wherein n is the number of winding sets and γ is the winding set phase shift between the winding sets, k is an integer equal or larger than 0, wherein the number of phases is three. deriving, for each winding set (15, 17), a preliminary rotor operational parameter based on a current and a voltage of the respective winding set; calculating for at least two winding sets (15, 17) and for at least one predefined harmonic (h), a rotor operational parameter harmonic correction term based on the preliminary rotor operational parameter (39,θ1,ω1; 41,θ2,ω2) of at least two winding sets (15, 17); calculating for at least one winding set (15, 17), a corrected rotor operational parameter (11, 13, 12, 14) based on the preliminary operational parameter (39, 41) of this winding set and the rotor operational parameter harmonic correction term of this winding set, wherein in particular the corrected rotor operational parameter has the at least one predefined harmonic removed or at least attenuated, characterized in that the at least one predefined harmonic to be attenuated in the corrected rotor operational parameter include the harmonic h_k = 2π/(nγ) (1 + 2k/(n-1)), wherein n is the number of winding sets and γ is the winding set phase shift between the winding sets, k is an integer equal or larger than 0, wherein the number of phases is three.
A combination linear and rotating actuator configured to run and control a pair of doors on an air conditioning housing with a single motor, the assembly comprising: a foundation structure, a powered circular gear rotatable back and forth about a gear axis A fixed relative to said foundation structure, a first actuator member having a straight toothed rack engaged with one side of said gear and a semicircular toothed rack engageable with said gear, a second actuator member having a straight toothed rack engaged with an opposite side of said gear and a semicircular toothed rack engageable with said gear, linear guide tracks (26,28) engageable between the actuator members (38,40) and said foundation structure to guide said actuator members (38,40) in a reversible linear path parallel with and toward one another as said gear rotates in one direction until said actuator member semi-circular toothed racks (46,48) concurrently engage said gear, and, slide locks on said actuator members (38,40) mutually interfitting as said semi-circular toothed racks (46,48) engage said gear to lock said actuator members (38,40) to and around said gear, said locked actuator members (38,40) moving in a reversible rotating path with said gear as said gear continues to rotate. a foundation structure, a powered circular gear rotatable back and forth about a gear axis A fixed relative to said foundation structure, a first actuator member having a straight toothed rack engaged with one side of said gear and a semicircular toothed rack engageable with said gear, a second actuator member having a straight toothed rack engaged with an opposite side of said gear and a semicircular toothed rack engageable with said gear, linear guide tracks (26,28) engageable between the actuator members (38,40) and said foundation structure to guide said actuator members (38,40) in a reversible linear path parallel with and toward one another as said gear rotates in one direction until said actuator member semi-circular toothed racks (46,48) concurrently engage said gear, and, slide locks on said actuator members (38,40) mutually interfitting as said semi-circular toothed racks (46,48) engage said gear to lock said actuator members (38,40) to and around said gear, said locked actuator members (38,40) moving in a reversible rotating path with said gear as said gear continues to rotate.
A module for a modular conveyor chain, comprising a link portion made of sheet metal that includes a substantially elongate conveying body, the conveying body having a central hinge loop on one longitudinal side thereof and a pair of offset hinge loops on an opposite longitudinal side thereof that are interspaced to receive the central hinge loop of a link portion of a consecutive module therebetween, wherein the hinge loops extend from the conveying body and loop with their free ends back towards a bottom face of the conveying body around a hinge receiving space, so that consecutive modules can be hingedly coupled by a hinge pin passing axially through aligned hinge receiving spaces of their cooperating hinge loops, characterized in that the central hinge loop or the offset hinge loops are distanced with their free end(s) from a bottom face of the conveying body to form a through pass aperture through which a hinge pin held in the hinge receiving space(s) of the hinge loops of another module may pass substantially transversely to its axis into or out of its hinge receiving space, and the other than the central hinge loop or the offset hinge loops are distanced with their free end(s) from the bottom face of the conveying body to form a blocking skirt through which a hinge pin held in the hinge receiving space(s) of the hinge loops of another module can not pass transversely to its axis into or out of its hinge receiving space.
A method performed by a system for mapping multimedia broadcast multicast services, comprising: mapping a plurality of multicast transport channels, MCHs, to a plurality of multicast/broadcast single frequency networks, MBSFNs, (420, 430, 440) such that any one of the MBSFNs (420, 430, 440) has only one MCH and further where each one of the MCHs is different, wherein a multicast control channel, MCCH, portion of a multimedia broadcast multicast service, MBMS, transmission includes a primary MCCH, P-MCCH, portion containing information related to a secondary MCCH, S-MCCH, portion, and the S-MCCH portion containing information related to receiving at least one of a plurality of multicast traffic channels, MTCHs,, wherein, when the S-MCCH portion and at least one of the MTCHs are transmitted in the same one of the MBSFNs, (420, 430, 440) the S-MCCH portion and the at least one of the MTCHs are mapped to the same MCH, and wherein, when information in the P-MCCH portion is specific to a single cell, the P-MCCH portion is mapped to a transport channel which is specific to that cell, and which is different from the MCH to which the S-MCCH portion is mapped, wherein the transport channel is either a cell-specific MCH or a downlink shared channel, DL-SCH, and wherein, when one of the MBSFNs (420, 430, 440) does not overlap with any of the other MBSFNs (420, 430, 440) and when counting of users interested in the MBMS transmitted in the one of the MBSFNs (420, 430, 440) is not performed, information or a pointer to the location of the information that would otherwise be carried in the P-MCCH portion is carried in a broadcast control channel, BCCH. wherein a multicast control channel, MCCH, portion of a multimedia broadcast multicast service, MBMS, transmission includes a primary MCCH, P-MCCH, portion containing information related to a secondary MCCH, S-MCCH, portion, and the S-MCCH portion containing information related to receiving at least one of a plurality of multicast traffic channels, MTCHs,, wherein, when the S-MCCH portion and at least one of the MTCHs are transmitted in the same one of the MBSFNs, (420, 430, 440) the S-MCCH portion and the at least one of the MTCHs are mapped to the same MCH, and wherein, when information in the P-MCCH portion is specific to a single cell, the P-MCCH portion is mapped to a transport channel which is specific to that cell, and which is different from the MCH to which the S-MCCH portion is mapped, wherein the transport channel is either a cell-specific MCH or a downlink shared channel, DL-SCH, and wherein, when one of the MBSFNs (420, 430, 440) does not overlap with any of the other MBSFNs (420, 430, 440) and when counting of users interested in the MBMS transmitted in the one of the MBSFNs (420, 430, 440) is not performed, information or a pointer to the location of the information that would otherwise be carried in the P-MCCH portion is carried in a broadcast control channel, BCCH.
Deployable mast with independent spontaneous deployment comprising at least one elementary structural unit (10, 10a, 10b, 10c) which has a longitudinal deployment axis X, the elementary structural unit comprising two platforms, a lower platform and an upper platform, respectively, which are parallel with a plane YZ which is orthogonal to the axis X and N levels (E1,...Ei, Ei+1..., EN) which are stacked one above the other parallel with the longitudinal deployment axis X, where N is greater than 1 and where i is between 1 and N-1 and each level (Ei) comprises at least three flexible longitudinal tape-springs, the N levels being fixed together in pairs by means of connection platforms which are parallel with the YZ plane, characterised in that two contiguous lower and upper levels (Ei, Ei+1) are offset angularly relative to each other by means of a rotation about the deployment axis X, the tape-springs of the lower level (Ei) being interposed between the tape-springs of the upper level (Ei+1).
An endoscope hood to be mounted on an insertion side end of an endoscope, the endoscope hood comprising: a cylindrical exterior portion; and a disc portion provided in contact with an inner surface of the exterior portion and formed in a flat surface, wherein the exterior portion and the disc portion are formed integrally or separately, characterized in that at least the disc portion is made of a hydrogel, the hydrogel includes a hydrogel formed by using only a hydrophilic monomer, or a hydrogel formed by adding a hydrophobic monomer, a crosslinkable monomer or both to a hydrophilic monomer, a thickness of the exterior portion is 0.1 mm to 1.0 mm, a thickness of the disc portion is 0.01 mm to 0.5 mm, and each of a moisture content of the exterior portion and a moisture content of the disc portion is 20 wt% to 70 wt%. a cylindrical exterior portion; and a disc portion provided in contact with an inner surface of the exterior portion and formed in a flat surface, wherein the exterior portion and the disc portion are formed integrally or separately, characterized in that at least the disc portion is made of a hydrogel, the hydrogel includes a hydrogel formed by using only a hydrophilic monomer, or a hydrogel formed by adding a hydrophobic monomer, a crosslinkable monomer or both to a hydrophilic monomer, a thickness of the exterior portion is 0.1 mm to 1.0 mm, a thickness of the disc portion is 0.01 mm to 0.5 mm, and each of a moisture content of the exterior portion and a moisture content of the disc portion is 20 wt% to 70 wt%.
A flexible Ethernet, FlexE, frame forwarding method, comprising: receiving, S301, a first frame through a FlexE client input channel; obtaining, S302, a first channel identifier used to indicate the FlexE client input channel and a first subchannel identifier carried in the first frame, wherein the first subchannel identifier is used to indicate a logical subchannel of the FlexE client input channel; searching, S303, a preset forwarding table based on the first channel identifier and the first subchannel identifier to obtain a second channel identifier and a second subchannel identifier, wherein the second channel identifier is used to indicate a FlexE client output channel, and the second subchannel identifier is used to indicate a logical subchannel of the FlexE client output channel; and forwarding, S304, the first frame based on the second channel identifier and the second subchannel identifier. receiving, S301, a first frame through a FlexE client input channel; obtaining, S302, a first channel identifier used to indicate the FlexE client input channel and a first subchannel identifier carried in the first frame, wherein the first subchannel identifier is used to indicate a logical subchannel of the FlexE client input channel; searching, S303, a preset forwarding table based on the first channel identifier and the first subchannel identifier to obtain a second channel identifier and a second subchannel identifier, wherein the second channel identifier is used to indicate a FlexE client output channel, and the second subchannel identifier is used to indicate a logical subchannel of the FlexE client output channel; and forwarding, S304, the first frame based on the second channel identifier and the second subchannel identifier.
A method for synchronizing presentation of a dynamic data set to a plurality of nodes (100, 150, 150', 150"), the method comprising: (a) generating, by a consumer node (150, 150', 150") in a plurality of nodes (100, 150, 150', 150"), a plurality of data packets (312, 314, 316) representing a change to a dynamic data set; (b) receiving, by a host node in the plurality of nodes (100, 150, 150', 150"), the plurality of data packets (312, 314, 316); (c) transmitting, by the host node to a synchronization engine, the received plurality of data packets (312, 314, 316); (d) generating, by the synchronization engine, metadata information (310, 320, 330) representing the difference between the dynamic data set and the plurality of data packets (312, 314, 316); and (e) transmitting, by the synchronization engine to the plurality of nodes (100, 150, 150', 150"), the generated metadata information (310, 320, 330) followed by at least one of the plurality of data packets (312, 314, 316) represented in the metadata information and wherein the synchronization engine transmits to at least one of the plurality of nodes (100, 150, 150', 150") a stream of data packets (312, 314, 316) represented in the metadata information (310, 320, 330), which is different from the stream of data packets (312, 314, 316) the synchronization engine received from the host node. (a) generating, by a consumer node (150, 150', 150") in a plurality of nodes (100, 150, 150', 150"), a plurality of data packets (312, 314, 316) representing a change to a dynamic data set; (b) receiving, by a host node in the plurality of nodes (100, 150, 150', 150"), the plurality of data packets (312, 314, 316); (c) transmitting, by the host node to a synchronization engine, the received plurality of data packets (312, 314, 316); (d) generating, by the synchronization engine, metadata information (310, 320, 330) representing the difference between the dynamic data set and the plurality of data packets (312, 314, 316); and (e) transmitting, by the synchronization engine to the plurality of nodes (100, 150, 150', 150"), the generated metadata information (310, 320, 330) followed by at least one of the plurality of data packets (312, 314, 316) represented in the metadata information and wherein the synchronization engine transmits to at least one of the plurality of nodes (100, 150, 150', 150") a stream of data packets (312, 314, 316) represented in the metadata information (310, 320, 330), which is different from the stream of data packets (312, 314, 316) the synchronization engine received from the host node.