mhurhangee/ep-ind-claims huggingface dataset:
An imaging system comprising: a detection subsystem including a focal plane array, FPA, coupled to a read-out integrated circuit, ROIC,, the ROIC being configured to activate a portion of the FPA in a selected pattern during an integration period, wherein the FPA includes a plurality of unit cells and a selected pattern is a pattern of individual unit cells, and wherein the ROIC is configured to activate individually each unit cell of the plurality of unit cells in the portion of the FPA according to the pattern of individual unit cells; an optical scanning subsystem including an optical source and a solid-state liquid crystal waveguide, the solid-state liquid crystal waveguide being configured to steer optical radiation generated by the optical source within a field of view, FOV, of the detection subsystem and synchronously over an area of a scene to be imaged that corresponds to the individually activated unit cells, and not over an area of the scene to be imaged that corresponds to inactive unit cells; and an adaptive polymer lens assembly positioned at an aperture of the imaging system shared by the detection subsystem and the optical scanning subsystem, the adaptive polymer lens assembly being configured to simultaneously adjust an optical magnification of the optical scanning subsystem and the detection subsystem. a detection subsystem including a focal plane array, FPA, coupled to a read-out integrated circuit, ROIC,, the ROIC being configured to activate a portion of the FPA in a selected pattern during an integration period, wherein the FPA includes a plurality of unit cells and a selected pattern is a pattern of individual unit cells, and wherein the ROIC is configured to activate individually each unit cell of the plurality of unit cells in the portion of the FPA according to the pattern of individual unit cells; an optical scanning subsystem including an optical source and a solid-state liquid crystal waveguide, the solid-state liquid crystal waveguide being configured to steer optical radiation generated by the optical source within a field of view, FOV, of the detection subsystem and synchronously over an area of a scene to be imaged that corresponds to the individually activated unit cells, and not over an area of the scene to be imaged that corresponds to inactive unit cells; and an adaptive polymer lens assembly positioned at an aperture of the imaging system shared by the detection subsystem and the optical scanning subsystem, the adaptive polymer lens assembly being configured to simultaneously adjust an optical magnification of the optical scanning subsystem and the detection subsystem.
A method of providing one or more enhanced communication features during a communication, the method comprising: detecting a destination identifier for a communication sent by a first device, the destination identifier being an identifier associated with a second device; detecting a source identifier for the communication sent by the first device, the source identifier being an identifier associated with the first device; establishing a connection between the first device and the second device; sharing, by the connection, at least one of at least a first call-enhancing element with the first device and at least a second call-enhancing element with the second device, each call-enhancing element being associated with at least one of the source identifier and the destination identifier, wherein: the first call-enhancing element comprises first content data including at least one of first audio content, first visual content, and first interactive content, and the second call-enhancing element comprises second content data different from the first content data, the second content data including at least one of first second content, first second content, and second interactive content; and exchanging, by a separate connection from the connection by which the first call-enhancing element and the second call-enhancing element are shared, communication data between the first device and the second device. detecting a destination identifier for a communication sent by a first device, the destination identifier being an identifier associated with a second device; detecting a source identifier for the communication sent by the first device, the source identifier being an identifier associated with the first device; establishing a connection between the first device and the second device; sharing, by the connection, at least one of at least a first call-enhancing element with the first device and at least a second call-enhancing element with the second device, each call-enhancing element being associated with at least one of the source identifier and the destination identifier, wherein: the first call-enhancing element comprises first content data including at least one of first audio content, first visual content, and first interactive content, and the second call-enhancing element comprises second content data different from the first content data, the second content data including at least one of first second content, first second content, and second interactive content; and the first call-enhancing element comprises first content data including at least one of first audio content, first visual content, and first interactive content, and the second call-enhancing element comprises second content data different from the first content data, the second content data including at least one of first second content, first second content, and second interactive content; and exchanging, by a separate connection from the connection by which the first call-enhancing element and the second call-enhancing element are shared, communication data between the first device and the second device.
A portable device (100, 500) for controlling an external device, the portable device comprising: a first microphone (110-1. 510-1) configured to be disposed in one surface of the portable device and configured to receive an audio signal including a user voice uttered by a user; a second microphone (110-2, 510-2) configured to be disposed on the other surface opposite to the one surface of the portable device and configured to receive an audio signal including the user voice; a signal processing unit configured to process the audio signals; a communication unit configured to communicate with the external device; and a processor configured to identify a user utterance distance between the portable device and the user based on the audio signals received through the first and second microphones, control the signal processing unit to process only the audio signal received through one of the first and second microphones disposed relatively further away from the user than the other when it is identified that the user utterance is a short distance utterance, and control the communication unit to transmit the processed audio signal to the external device; characterized in that the processor is configured to identify that the user utterance distance is the short distance utterance when an amplitude of each of the audio signals received through the first and second microphones is a preset threshold value or more. a first microphone (110-1. 510-1) configured to be disposed in one surface of the portable device and configured to receive an audio signal including a user voice uttered by a user; a second microphone (110-2, 510-2) configured to be disposed on the other surface opposite to the one surface of the portable device and configured to receive an audio signal including the user voice; a signal processing unit configured to process the audio signals; a communication unit configured to communicate with the external device; and a processor configured to identify a user utterance distance between the portable device and the user based on the audio signals received through the first and second microphones, control the signal processing unit to process only the audio signal received through one of the first and second microphones disposed relatively further away from the user than the other when it is identified that the user utterance is a short distance utterance, and control the communication unit to transmit the processed audio signal to the external device; characterized in that the processor is configured to identify that the user utterance distance is the short distance utterance when an amplitude of each of the audio signals received through the first and second microphones is a preset threshold value or more.
A collector for a condenser with a tube-shaped wall which encloses an interior space, with a closed tube end and with an open and closable tube end for inserting an insert into the collector, with a lateral projection for placing the collector against an adjacent collecting tube of a condenser, with two overflow openings (8, 9) for the fluid connection of the interior space of the collector to an interior space of the collecting tube, wherein the collector is integrally formed of a flow-moulded part, wherein the wall of the collector has an area which is substantially in the form of a circular segment, wherein the lateral projection has a concave area which serves for the placement against an adjacent collecting tube, wherein the lateral projection is divided into spaced-apart areas (110, 111), wherein one area extends in the axial direction adjacent to the closed tube end and one area extends in the axial direction adjacent to the open end, wherein the collector has an area with a recess between two areas of the lateral projection, wherein the collector does not have any contact surface for the placement against the adjacent collecting tube in the area of the recess, wherein the tube-shaped wall has an axial area with increased wall thickness at its open tube end, wherein the overflow openings (8, 9) are formed in the axial area with increased wall thickness and in a lateral projection adjoining this area, and wherein further two holding elements (205, 206) are provided which are formed protruding from the wall and which are integrally produced with the collector by means of flow-moulding.
A method for performing a quantitative Next-Generation Sequencing assay, comprising: providing a sample including one or more unknown nucleic acids to be sequenced, wherein each unknown nucleic acid in the sample has a concentration of about 10 2 -10 7 copies/ml; adding to the sample a known quantity of an internal quantification standard; preparing the sample including the internal quantification standard for sequencing; sequencing the unknown nucleic acids and the internal quantification standard in the sample to generate a sequencing data; counting the number of sequencing reads in the sequencing data set originating from the unknown nucleic acid(s) and the internal quantification standard; and normalizing the sequencing data set by NORM = No. of Sequencing Reads * (F / Observed No. of Sequencing Reads Originating from the Internal Quantification Standard) and calculating an input quantity of the unknown nucleic acid in the by IQT = Normalized No. of unknown nucleic acid sequencing reads originating from the unknown nucleic acid * (Input Quantity of internal quantification standard / F), wherein 'F' is a fixed minimum expected number of the internal quantification standard sequencing reads. providing a sample including one or more unknown nucleic acids to be sequenced, wherein each unknown nucleic acid in the sample has a concentration of about 10 2 -10 7 copies/ml; adding to the sample a known quantity of an internal quantification standard; preparing the sample including the internal quantification standard for sequencing; sequencing the unknown nucleic acids and the internal quantification standard in the sample to generate a sequencing data; counting the number of sequencing reads in the sequencing data set originating from the unknown nucleic acid(s) and the internal quantification standard; and normalizing the sequencing data set by NORM = No. of Sequencing Reads * (F / Observed No. of Sequencing Reads Originating from the Internal Quantification Standard) and calculating an input quantity of the unknown nucleic acid in the by IQT = Normalized No. of unknown nucleic acid sequencing reads originating from the unknown nucleic acid * (Input Quantity of internal quantification standard / F), wherein 'F' is a fixed minimum expected number of the internal quantification standard sequencing reads.
A method for manufacturing a sheet having a fine shape transferred thereon comprising the steps of: placing a sheet-like material made from a thermoplastic resin between an imprint mold having an imprinting surface provided with the fine shapes of texture and an intermediate base; and pressing the imprint mold and the intermediate base in a direction toward the sheet-like material by a pair of pressing plates (3, 8) so that the fine shapes of texture are imprinted on the sheet-like material, wherein the sheet-like material is pressed such that, when pressing force of the pressing plates (3, 8) is maximized, an imprinting pressure difference is present in an imprinting surface of the imprint mold, a maximum imprinting pressure section is present in the imprinting surface, and a portion where the imprinting pressure has a minimum value is not present in the imprinting surface; and the intermediate base has an imprinting surface having a fine a texture so that the fine shapes of texture are imprinted on a surface opposed to the intermediate base of the sheet-like material, and wherein the pressing process is carried out such that, when pressing force of the pressing plates (3, 8) is maximized, an imprinting pressure difference is present in an imprinting surface of the intermediate base, a maximum imprinting pressure section is present in the imprinting surface, and a portion where the imprinting pressure has a minimum value is not present in the imprinting surface. placing a sheet-like material made from a thermoplastic resin between an imprint mold having an imprinting surface provided with the fine shapes of texture and an intermediate base; and pressing the imprint mold and the intermediate base in a direction toward the sheet-like material by a pair of pressing plates (3, 8) so that the fine shapes of texture are imprinted on the sheet-like material, wherein the sheet-like material is pressed such that, when pressing force of the pressing plates (3, 8) is maximized, an imprinting pressure difference is present in an imprinting surface of the imprint mold, a maximum imprinting pressure section is present in the imprinting surface, and a portion where the imprinting pressure has a minimum value is not present in the imprinting surface; and the intermediate base has an imprinting surface having a fine a texture so that the fine shapes of texture are imprinted on a surface opposed to the intermediate base of the sheet-like material, and wherein the pressing process is carried out such that, when pressing force of the pressing plates (3, 8) is maximized, an imprinting pressure difference is present in an imprinting surface of the intermediate base, a maximum imprinting pressure section is present in the imprinting surface, and a portion where the imprinting pressure has a minimum value is not present in the imprinting surface.
A concertina device for connecting and closing the space between two articulated units of an articulated bus, which comprises two parts: an upper part having an inverted "U" shape and a closing bottom with a "U" shape, the upper part comprising a plurality of first bands, made with a concertina profile, made of flexible material, joined together one alongside the other, equipped with a plurality of first stiffening frames and forming a tunnel having an upper wall and two side walls for connecting together two carriages of a vehicle,the concertina device further comprising a plurality of second bands made of flexible material, joined together one alongside the other, equipped with a plurality of second stiffening frames and forming the cited closing bottom for closing the tunnel, wherein the closing bottom is removably connectable to the upper part and comprises a lower wall, which is opposite the upper wall of the tunnel and two side walls, which are laterally alongside the side walls of the tunnel and in contact inside the side walls of the tunnel and wherein in the zone in which the side walls of the closing bottom are laterally alongside the side walls of the tunnel, the concertina has a double layer formed by the first and second bands (7, 13) the concertina device being characterized in that the first stiffening frames and the second stiffening frame are joined together by fastening means and in that at each first stiffening frame, the lower strip of the tunnel has a slot through which the first stiffening frame is connected and fixed to the corresponding second stiffening frame.
A nucleic acid for use in DNA assembly, wherein the nucleic acid comprises at least one methylation-protectable restriction element, the methylation-protectable restriction element comprising: - a type IIS restriction enzyme recognition sequence; and - a DNA methylase recognition sequence, wherein the type IIS restriction enzyme recognition sequence and the DNA methylase recognition sequence overlap such that the base methylatable by the DNA methylase lies within the type IIS restriction enzyme recognition sequence, wherein the DNA methylase recognition sequence is not identical to or enclosed by the type IIS restriction enzyme recognition sequence, and wherein the DNA methylase recognition sequence does not overlap with the sequence that would form the overhang end sequence generated by the type IIS restriction enzyme. wherein the nucleic acid further comprises an opposing non-protectable type IIS restriction enzyme recognition sequence provided on the opposing side of the cut site of the methylation-protectable restriction element thereby forming a truncating composite element, wherein the opposing type IIS restriction enzyme recognition sequence of the truncating composite element is arranged to direct the type IIS restriction enzyme to cut the nucleic acid at a site that is within the recognition sequence of the type IIS restriction enzyme recognition sequence of the methylation-protectable restriction element, and/or within the nucleotides between the cut site and the recognition sequence of the type IIS restriction enzyme recognition sequence of the methylation-protectable restriction element. - a type IIS restriction enzyme recognition sequence; and - a DNA methylase recognition sequence, wherein the type IIS restriction enzyme recognition sequence and the DNA methylase recognition sequence overlap such that the base methylatable by the DNA methylase lies within the type IIS restriction enzyme recognition sequence, wherein the DNA methylase recognition sequence is not identical to or enclosed by the type IIS restriction enzyme recognition sequence, and wherein the DNA methylase recognition sequence does not overlap with the sequence that would form the overhang end sequence generated by the type IIS restriction enzyme. wherein the nucleic acid further comprises an opposing non-protectable type IIS restriction enzyme recognition sequence provided on the opposing side of the cut site of the methylation-protectable restriction element thereby forming a truncating composite element, wherein the opposing type IIS restriction enzyme recognition sequence of the truncating composite element is arranged to direct the type IIS restriction enzyme to cut the nucleic acid at a site that is within the recognition sequence of the type IIS restriction enzyme recognition sequence of the methylation-protectable restriction element, and/or within the nucleotides between the cut site and the recognition sequence of the type IIS restriction enzyme recognition sequence of the methylation-protectable restriction element.
An aqueous solution preparation comprising sodium glutamate at a concentration of 10 mM, sorbitol, polysorbate 80 at a concentration from 0.5 mg/mL to 2.0 mg/mL, and an anti-CD40 antibody at a concentration from 100 mg/mL to 120 mg/mL, wherein the solution preparation has a pH of from 4.75 to 4.8 and the antibody comprises a heavy chain consisting of an amino acid sequence from Q at position 27 to K at position 474 in SEQ ID NO: 1, and a light chain consisting of an amino acid sequence from A at position 23 to C at position 235 in SEQ ID NO: 2, wherein the solution is from 200 to 400mOsm.
A fully human antibody of an IgG class or an antibody fragment thereof that binds to an IGF1R epitope with a binding affinity of at least 10 -6 M, wherein said antibody, or antibody fragment thereof, comprises a heavy chain variable domain comprising an amino acid sequence that is at least 95% identical to either SEQ ID NO. 17 or SEQ ID NO. 21 and comprises a light chain variable domain comprising an amino acid sequence that is at least 95% identical to either SEQ ID NO. 18 or SEQ ID NO. 22; or comprises a heavy chain comprising complementarity determining regions (CDRs) as set forth in the amino acid sequence of SEQ ID NO. 17 or SEQ ID NO. 21, and comprises a light chain comprising CDRs as set forth in the amino acid sequence of SEQ ID NO. 18 or SEQ ID NO. 22.
Cooking device with a component (11, 12) that heats up during operation and a cooling air fan, with which the component (11, 12) is cooled, and with at least one heat pipe and with a control unit, wherein the cooling air fan and the heat pipe are connected to the control unit and are controlled by these, wherein in a cooling air fan after-run time, while the component (11, 12) is in the switched-off operating state, the component (11, 12) in its switched-off operating state is cooled at least temporarily in the cooling air fan after-run time at least proportionately by at least the heat pipe, characterised in that in the cooling air fan after-run time, while the component (11, 12) is switched off, the cooling air fan is switched off or is operated with a reduced speed of a fan wheel of the cooling air fan.
A composition comprising methylsulfonylmethane for use in a method of treatment of a subject comprising administering a therapeutically effective amount of MSM to the subject, wherein the treatment comprises: (a) inhibiting a drug resistant bacterial pathogen other than Mycobacterium tuberculosis in or on the subject in the presence of a drug to which the pathogen is resistant, wherein the drug is a beta-lactam antibiotic, or (b) sensitizing a bacterial pathogen other than Mycobacterium tuberculosis in or on the subject to a drug to which the pathogen is resistant, wherein the drug is a beta-lactam antibiotic, or (c) inhibiting a drug sensitive bacterial pathogen other than Mycobacterium tuberculosis in or on the subject from developing drug resistance, wherein the drug is a beta-lactam antibiotic and wherein the composition further comprises a therapeutically effective amount of beta-lactam antibiotic. (a) inhibiting a drug resistant bacterial pathogen other than Mycobacterium tuberculosis in or on the subject in the presence of a drug to which the pathogen is resistant, wherein the drug is a beta-lactam antibiotic, or (b) sensitizing a bacterial pathogen other than Mycobacterium tuberculosis in or on the subject to a drug to which the pathogen is resistant, wherein the drug is a beta-lactam antibiotic, or (c) inhibiting a drug sensitive bacterial pathogen other than Mycobacterium tuberculosis in or on the subject from developing drug resistance, wherein the drug is a beta-lactam antibiotic and wherein the composition further comprises a therapeutically effective amount of beta-lactam antibiotic.