mhurhangee/ep-ind-claims huggingface dataset:
Container for foodstuffs, in particular coffee, comprising a central body made of flexible material, a bottom welded to a lower end of said central body, and a lid (20, 39) welded to an upper end of said central body by means of an upper ring (25, 45), made of rigid plastic material, characterized in that it also comprises a lower ring, also made of rigid plastic material, which makes said bottom solid with said central body, wherein the bottom and/or the lid (20, 39) are welded peripherally, respectively, to the lower ring and/or to the upper ring and inside the central body, in an intermediate position between the central body and, respectively, lower ring and/or upper ring.
A chimeric polypeptide capable of specifically activating the translation of a target polynucleotide of interest, which comprises a polypeptide consisting in an amino-acid fragment of the NSP3 protein of sequence SEQ ID N°46, said amino-acid fragment being selected from the group consisting of: - the fragment 150-313 which has the sequence SEQ ID N°35, - any sequence having at least 70 % of identity with said fragment 150-313, and - the fragment 163-313,, wherein said polypeptide is fused to a RNA binding protein. - the fragment 150-313 which has the sequence SEQ ID N°35, - any sequence having at least 70 % of identity with said fragment 150-313, and - the fragment 163-313,, wherein said polypeptide is fused to a RNA binding protein.
A delivery system for an implant comprising: an implant; an elongated member having a distal end and a proximal end; said distal end of said elongated member operable to hold said implant; a tether member connectable to said elongated member and to said implant; a heating member comprising a resistance-type heater coil that is disposed on said elongated member; said heating member having a hollow passage in which at least a portion of said tether member resides; and a first electrical wire connected at a distal end of said heater coil and a second electrical wire connected at a proximal end of said heater coil, wherein said first electrical wire and said second electrical wire supply direct current between said distal end of said heater coil and said proximal end of said heater coil; wherein said hollow passage comprises a first region having a first plurality of loops with a first internal diameter and a second region having a second plurality of loops with a second internal diameter; said tether member being located within said first plurality of loops and said second plurality of loops, and being the only item residing in said hollow passage of said heating member; and wherein said second region is positioned closer to said tether member than said first region, characterised in that said second internal diameter is smaller than said first internal diameter. an implant; an elongated member having a distal end and a proximal end; said distal end of said elongated member operable to hold said implant; a tether member connectable to said elongated member and to said implant; a heating member comprising a resistance-type heater coil that is disposed on said elongated member; said heating member having a hollow passage in which at least a portion of said tether member resides; and a first electrical wire connected at a distal end of said heater coil and a second electrical wire connected at a proximal end of said heater coil, wherein said first electrical wire and said second electrical wire supply direct current between said distal end of said heater coil and said proximal end of said heater coil;
A biological sampling and storage container comprising a top cover and a bottom cover adapted to fit onto each other; and a sampling element having a proximal end onto which the top cover fits and a distal end onto which the bottom cover fits, wherein said sampling element further comprises: a. a sampling container comprising a sampling chamber for accepting the biological sample and characterized in that the sampling element further comprises b. an aliquoting element for dividing said biological sample into smaller parts, removably mounted on and in said sampling container, said aliquoting element comprising a structural element onto which one or more aliquoting chambers are positioned. a. a sampling container comprising a sampling chamber for accepting the biological sample and characterized in that the sampling element further comprises b. an aliquoting element for dividing said biological sample into smaller parts, removably mounted on and in said sampling container, said aliquoting element comprising a structural element onto which one or more aliquoting chambers are positioned.
An organic light emitting display device comprising: an anode electrode on a substrate; an organic emitting layer on the anode electrode; a cathode electrode on the organic emitting layer; an auxiliary electrode electrically connected with the cathode electrode; and a contact electrode that is on a same layer as the auxiliary electrode, the contact electrode horizontally spaced apart from the auxiliary electrode, the contact electrode connected with both the auxiliary electrode and the cathode electrode to connect together the auxiliary electrode and a portion of the cathode electrode that is on a same layer as the auxiliary electrode, wherein the contact electrode includes a first contact electrode and a second contact electrode that is positioned over the first contact electrode, and wherein the second contact electrode includes a step-shaped portion that overlaps a portion of the first contact electrode, the step-shaped portion of the second contact electrode and the overlapped portion of the first contact electrode forming a hollow space between the step-shaped portion of the second electrode and the overlapped portion of the first contact electrode, wherein the anode electrode comprises a first anode electrode and a second anode electrode over the first anode electrode, the second anode electrode directly connected with the first anode electrode via a contact hole, and wherein a portion of the first anode electrode is in a same layer as the auxiliary electrode and the contact electrode. an anode electrode on a substrate; an organic emitting layer on the anode electrode; a cathode electrode on the organic emitting layer; an auxiliary electrode electrically connected with the cathode electrode; and a contact electrode that is on a same layer as the auxiliary electrode, the contact electrode horizontally spaced apart from the auxiliary electrode, the contact electrode connected with both the auxiliary electrode and the cathode electrode to connect together the auxiliary electrode and a portion of the cathode electrode that is on a same layer as the auxiliary electrode, wherein the contact electrode includes a first contact electrode and a second contact electrode that is positioned over the first contact electrode, and wherein the second contact electrode includes a step-shaped portion that overlaps a portion of the first contact electrode, the step-shaped portion of the second contact electrode and the overlapped portion of the first contact electrode forming a hollow space between the step-shaped portion of the second electrode and the overlapped portion of the first contact electrode, wherein the anode electrode comprises a first anode electrode and a second anode electrode over the first anode electrode, the second anode electrode directly connected with the first anode electrode via a contact hole, and wherein a portion of the first anode electrode is in a same layer as the auxiliary electrode and the contact electrode.
Wind-power turbine comprising a generator with a rotor and a protection circuit, the wind-power turbine being a doubly-fed wind turbine and further comprising a power converter and transformer for feeding the rotor of the generator via the power converter, said transformer comprising its neutral connected to the earth and the power converter being a back-to-back topology (AC-DC-AC) comprising a rectifier, an inverter and a DC bus to couple the rectifier and the inverter, characterized in that the protection circuit comprises a filter connected between any point of the DC bus of the wind-power generator converter and earth, the filter being a first-order series filter and consisting of at least one resistor and at least one capacitor.
A waste receiving device comprising a container having on its upper side a container opening enclosed by a container rim, a lid held on the container and pivotally movable about a lid pivot axis between a closed position closing the container opening and an open position exposing the container opening, and a locking device for locking the lid in the closed position, wherein the locking device comprises a locking element fastened to the container rim and positioned below a through opening extending through the container rim, and a housing fastened to the lid using at least one fastening bolt, in which housing a lock and a cover projecting downwards out of the housing are provided, which lock and cover can be pivoted about a lid pivot axis, and a locking device for locking the lid in the closed position, and a swivel hook which, in the closed position of the lid, extends through the through opening and which, in the closed position of the lid, can be swivelled by actuation of the lock between a locking position, in which it engages with the locking element, and an unlocking position, in which it does not engage with the locking element, characterised in that the lid is provided in the region of its lid rim on the underside with a circumferentially formed seal-receiving groove, into which an annular seal is inserted, which in the closed position of the lid rests in a sealing manner on the upper side of the container rim, and in that the at least one fastening bolt extends through the groove base of the seal-receiving groove.
An apparatus for continuously wetting and/or mixing bulk material, in particular flour, with a liquid, in particular water, in order to produce a food mixture such as a dough product, wherein the apparatus comprises a bulk material feeding device for feeding the bulk material into a treatment zone and a liquid feeding device (7; 57; 58) for directly applying the liquid to the bulk material in the treatment zone, wherein the bulk material can be fed into the treatment zone as a curtain by means of the bulk material feeding device, and wherein the liquid can be applied to the curtain completely, at least on the outer surface of the curtain, by means of the liquid feeding device (7; 57; 58), characterized in that the bulk material feeding device is designed as a device for uniformly feeding the bulk material into the treatment zone and comprises a screw conveyor for conveying the bulk material into the treatment zone or a tube with a propeller arranged therein, wherein the screw conveyor or the tube, respectively, is arranged at an angle of at most 10° with respect to a vertical.
A method for characterizing an earth formation (6A, 6B), comprising: making at least one limited aperture measurement of acoustic compressional wave velocity at a frequency from 20 to 100 kHz in a borehole penetrating the earth formation (6A, 6B), and estimating a principal direction of a near field stress in the borehole using the at least one limited aperture measurement; obtaining an indication of a principal direction of a far field stress in the earth formation, wherein the indication of the principal direction of the far field stress is obtained using acoustic cross dipole log data; and using the estimated principal direction of the near field stress, and the indication of the principal direction of the far field stress in the earth formation, for estimating the magnitude of the horizontal principal stress. making at least one limited aperture measurement of acoustic compressional wave velocity at a frequency from 20 to 100 kHz in a borehole penetrating the earth formation (6A, 6B), and estimating a principal direction of a near field stress in the borehole using the at least one limited aperture measurement; obtaining an indication of a principal direction of a far field stress in the earth formation, wherein the indication of the principal direction of the far field stress is obtained using acoustic cross dipole log data; and using the estimated principal direction of the near field stress, and the indication of the principal direction of the far field stress in the earth formation, for estimating the magnitude of the horizontal principal stress.
A conductor assembly of the type which, when conducting current, generates a magnetic field or which, in the presence of a changing magnetic field, induces a voltage, comprising: a conductor having a spiral configuration, positioned along a path in a cylindrical plane, and a support body having grooves or channels formed therein for accommodating the conductor, which conductor extends along an axis central to the cylindrical plane, positions along the path varying in azimuthal angle where: the azimuthal angle of each position is measurable in a plane orthogonal to the axis and relative to a reference point in the plane orthogonal to the axis, the configuration comprises a continuous series of connected turns, T n, for which n is an integer ranging from one to N, each turn, T n, includes a first arc, a second arc and first and second straight segments connected to one another by the first arc, the second arc connects the turn, T n, to an adjoining turn, T n+1 or T n-1, for a given value of n, each of the first and second straight segments in a turn T n is spaced apart from an adjacent straight segment in an adjoining turn T n+1 or T n_1, and characterized in that, for each straight segment in each turn, T n, the azimuthal angle, θ n, defines the position of the straight segment such that all positions along a majority of the length of each straight segment in each turn, T n, conform to the relationship sin m ∗ θ n = n − 1⁄2 N, where m is an integer greater than 0. the azimuthal angle of each position is measurable in a plane orthogonal to the axis and relative to a reference point in the plane orthogonal to the axis, the configuration comprises a continuous series of connected turns, T n, for which n is an integer ranging from one to N, each turn, T n, includes a first arc, a second arc and first and second straight segments connected to one another by the first arc, the second arc connects the turn, T n, to an adjoining turn, T n+1 or T n-1, for a given value of n, each of the first and second straight segments in a turn T n is spaced apart from an adjacent straight segment in an adjoining turn T n+1 or T n_1, and characterized in that, for each straight segment in each turn, T n, the azimuthal angle, θ n, defines the position of the straight segment such that all positions along a majority of the length of each straight segment in each turn, T n, conform to the relationship sin m ∗ θ n = n − 1⁄2 N, where m is an integer greater than 0.
A liquid refill system, preferably for a fragrance composition comprising: a) A child device having a liquid reservoir having a volume (V CR) and an air outlet valve said device having a first portion having a dispensing mechanism and a second portion having a child component of a refill mechanism comprising a child liquid inlet and a child one way liquid inlet refill valve associated therewith; b) A parent device having a liquid reservoir containing a liquid and an optional air inlet valve said device having a first portion having a parent component of a refill mechanism and a liquid outlet having a one way liquid valve, associated therewith, characterized in that said parent device has a pump having a pump volume (V PP), in liquid communication with the parent liquid reservoir via a one way liquid inlet valve and in liquid communication with said liquid outlet said parent device also having a liquid return valve and liquid outlet, wherein the ratio of the volume of the parent pump to the volume of the child reservoir is 12:1 or less. a) A child device having a liquid reservoir having a volume (V CR) and an air outlet valve said device having a first portion having a dispensing mechanism and a second portion having a child component of a refill mechanism comprising a child liquid inlet and a child one way liquid inlet refill valve associated therewith; b) A parent device having a liquid reservoir containing a liquid and an optional air inlet valve said device having a first portion having a parent component of a refill mechanism and a liquid outlet having a one way liquid valve, associated therewith, characterized in that said parent device has a pump having a pump volume (V PP), in liquid communication with the parent liquid reservoir via a one way liquid inlet valve and in liquid communication with said liquid outlet said parent device also having a liquid return valve and liquid outlet, wherein the ratio of the volume of the parent pump to the volume of the child reservoir is 12:1 or less.
A method for decoding a light-based communication (LCom) signal having the characteristic of averaging to idle such that a running average window of any length that is an even multiple of the bit period has an average equal to idle, said method utilizing overlapping raster lines (ROW0,..., ROWN), the method comprising: receiving light data encoded with the LCom signal; storing a portion of the light data in a data buffer as the light data is received; modeling a running average window having a time duration (t AVG) that extends from the beginning of light exposure for a first raster line to an end of light exposure of a Nth raster line (ROWN), wherein the portion of the light data in the data buffer comprises an exiting bit (602a-602d, 702a-702d) exiting from the running average window and an entering bit (604a-604d, 704a-704d) entering in the running average window; determining at least a first portion of a curvature of an output (608a-608d, 708a-708d) of the running average calculation in the moving average window; and determining a value of the entering bit (604a-604d, 704a-704d) in the portion of the light data based at least in part on the curvature. receiving light data encoded with the LCom signal; storing a portion of the light data in a data buffer as the light data is received; modeling a running average window having a time duration (t AVG) that extends from the beginning of light exposure for a first raster line to an end of light exposure of a Nth raster line (ROWN), wherein the portion of the light data in the data buffer comprises an exiting bit (602a-602d, 702a-702d) exiting from the running average window and an entering bit (604a-604d, 704a-704d) entering in the running average window; determining at least a first portion of a curvature of an output (608a-608d, 708a-708d) of the running average calculation in the moving average window; and determining a value of the entering bit (604a-604d, 704a-704d) in the portion of the light data based at least in part on the curvature.
A landing pad comprising: a landing platform; a storage compartment, wherein said landing platform comprises a first door in a normally closed position which when open exposes the interior of said storage compartment such that a package can enter the storage compartment; a second door, being a storage compartment door which gives access to the storage compartment, wherein said second door is attached to said storage compartment; and a storage door lock; characterized in that said landing pad is configured to issue an emergency alert via an alarm and/or a visual indicator based on an emergency, wherein said emergency is a dangerous weather pattern or detection of a potential shooting. a landing platform; a storage compartment, wherein said landing platform comprises a first door in a normally closed position which when open exposes the interior of said storage compartment such that a package can enter the storage compartment; a second door, being a storage compartment door which gives access to the storage compartment, wherein said second door is attached to said storage compartment; and a storage door lock;
A method to amplify sheared DNA with an average length of less than 200 nucleotides comprising the following steps: a. obtaining a biological sample comprising sheared DNA, b. dephosphorylating the sheared DNA in the sample, and c. digesting the resulting DNA using a methylation insensitive restriction enzyme, and d. ligating the digested nucleotide sequences to hairpin looped adapters, and e. removing incompletely ligated products, f. carrying out a bisulphite treatment g. amplifying the resulting nucleotide sequences using primers hybridizing to the adapters. a. obtaining a biological sample comprising sheared DNA, b. dephosphorylating the sheared DNA in the sample, and c. digesting the resulting DNA using a methylation insensitive restriction enzyme, and d. ligating the digested nucleotide sequences to hairpin looped adapters, and e. removing incompletely ligated products, f. carrying out a bisulphite treatment g. amplifying the resulting nucleotide sequences using primers hybridizing to the adapters.
Method of generating a foil separating cut (8a-8j) on a foil of a foiled sheet metal by means of a foil separating tool (20; 30) which is moved with a tool tip (22; 31) resting on the sheet metal along a predetermined path, thereby mechanically generating the foil separating cut (8a-8j) by displacing foil material, characterized in that for forming at least one foil corner (7a-7j) which is detached from the sheet metal, the foil separating cut (8a-8j) has at least one acute-angled spike (9a-9j).
A method for determining on a computer ploidy of a chromosomal segment in a sample of an individual, the method comprising: a. receiving allele frequency data, comprising the amount of each allele present in the sample at each loci in a set of polymorphic loci on the chromosomal segment; b. generating phased allelic information for the set of polymorphic loci by estimating the phase of the allele frequency data; c. generating individual probabilities of allele frequencies for the polymorphic loci for different ploidy states using the allele frequency data, wherein the individual probabilities are generated using a set of models of both different ploidy states and allelic imbalance fractions for the set of polymorphic loci; d. generating joint probabilities for the set of polymorphic loci using the individual probabilities and the phased allelic information by considering the linkage between polymorphic loci on the chromosome segment; and e. selecting, based on the joint probabilities, a best fit model indicative of chromosomal ploidy, thereby determining ploidy of the chromosomal segment, wherein the sample is a blood sample, serum sample, or plasma sample, from an individual suspected of having cancer, and the method further comprises determining based on the selecting, whether copy number variation is present in cells of a tumor of the individual. a. receiving allele frequency data, comprising the amount of each allele present in the sample at each loci in a set of polymorphic loci on the chromosomal segment; b. generating phased allelic information for the set of polymorphic loci by estimating the phase of the allele frequency data; c. generating individual probabilities of allele frequencies for the polymorphic loci for different ploidy states using the allele frequency data, wherein the individual probabilities are generated using a set of models of both different ploidy states and allelic imbalance fractions for the set of polymorphic loci; d. generating joint probabilities for the set of polymorphic loci using the individual probabilities and the phased allelic information by considering the linkage between polymorphic loci on the chromosome segment; and e. selecting, based on the joint probabilities, a best fit model indicative of chromosomal ploidy, thereby determining ploidy of the chromosomal segment,