mhurhangee/patent-ind-claim-en huggingface dataset:
An expression cassette comprising an insulator and a globin gene or a functional portion thereof operably linked to a β-globin locus control region (LCR) region, wherein the insulator comprises: (a) the CTCF binding site sequence set forth in SEQ ID NO: 18, optionally the insulator comprises the nucleic acid sequence set forth in SEQ ID NO: 24 or SEQ ID NO: 25; or (b) the nucleotide sequence set forth in SEQ ID NO:1. (a) the CTCF binding site sequence set forth in SEQ ID NO: 18, optionally the insulator comprises the nucleic acid sequence set forth in SEQ ID NO: 24 or SEQ ID NO: 25; or (b) the nucleotide sequence set forth in SEQ ID NO:1.
A photonic integrated device , comprising: an epitaxial structure comprising a plurality of compound semiconductor layers , wherein the epitaxial structure forms a common waveguide and at least one semiconductor waveguide (410a-410d); a dielectric waveguide based wavelength dependent element disposed within an optical cavity of the photonic integrated device, wherein the dielectric waveguide based wavelength dependent element is optically coupled to the common waveguide and the at least one semiconductor waveguide (410a-410d), wherein the dielectric waveguide based wavelength dependent element is configured to multiplex or diffract an optical signal from the common waveguide or at least one optical signal from the at least one semiconductor waveguide (410a-410d); characterized by a dielectric Bragg stack disposed at a predetermined region of an active structure , wherein the active structure is disposed on a transition waveguide , which is disposed on the common waveguide or on the at least one semiconductor waveguide (410a-410d) of the epitaxial structure, and wherein the active structure is evanescently coupled to the transition waveguide to be coupled to the dielectric waveguide based wavelength dependent element . an epitaxial structure comprising a plurality of compound semiconductor layers , wherein the epitaxial structure forms a common waveguide and at least one semiconductor waveguide (410a-410d); a dielectric waveguide based wavelength dependent element disposed within an optical cavity of the photonic integrated device, wherein the dielectric waveguide based wavelength dependent element is optically coupled to the common waveguide and the at least one semiconductor waveguide (410a-410d), wherein the dielectric waveguide based wavelength dependent element is configured to multiplex or diffract an optical signal from the common waveguide or at least one optical signal from the at least one semiconductor waveguide (410a-410d); characterized by a dielectric Bragg stack disposed at a predetermined region of an active structure , wherein the active structure is disposed on a transition waveguide , which is disposed on the common waveguide or on the at least one semiconductor waveguide (410a-410d) of the epitaxial structure, and wherein the active structure is evanescently coupled to the transition waveguide to be coupled to the dielectric waveguide based wavelength dependent element .
Apparatus comprising a Radio Frequency, RF, port coupled to a cell controller , the RF port being configured to operate functions of a wireless communication standard protocol in a wireless communication system, said cell controller being adapted to perform a first portion of media access control, MAC, functions defined by the wireless communication standard protocol, wherein the RF port is included in a wireless access device, the RF port comprising: an RF module for receiving an RF data signal; and a processor adapted to receive the RF data signal from the RF module and further being adapted to provide a formatted data signal to a wired network interface , wherein the processor is adapted to perform a second portion of other media access control, MAC, functions defined by the wireless communication standard protocol, the second portion of other MAC functions requiring a lower level of processing resources in terms of processor capacity and storage capacity requirements than the first portion of MAC functions, and further wherein: (a) the first portion of MAC functions performed by the cell controller includes at least one MAC function defined by the wireless communication standard protocol, and (b) the cell controller adapted to perform the first portion of MAC functions and the RF port are connected via a switching hub interposed between the cell controller and the RF port , the switching hub being adapted to provide message switching among a wired network connected to the wired network interface , the RF port and the cell controller . an RF module for receiving an RF data signal; and a processor adapted to receive the RF data signal from the RF module and further being adapted to provide a formatted data signal to a wired network interface , wherein the processor is adapted to perform a second portion of other media access control, MAC, functions defined by the wireless communication standard protocol, the second portion of other MAC functions requiring a lower level of processing resources in terms of processor capacity and storage capacity requirements than the first portion of MAC functions, and further wherein: (a) the first portion of MAC functions performed by the cell controller includes at least one MAC function defined by the wireless communication standard protocol, and (b) the cell controller adapted to perform the first portion of MAC functions and the RF port are connected via a switching hub interposed between the cell controller and the RF port , the switching hub being adapted to provide message switching among a wired network connected to the wired network interface , the RF port and the cell controller . (a) the first portion of MAC functions performed by the cell controller includes at least one MAC function defined by the wireless communication standard protocol, and (b) the cell controller adapted to perform the first portion of MAC functions and the RF port are connected via a switching hub interposed between the cell controller and the RF port , the switching hub being adapted to provide message switching among a wired network connected to the wired network interface , the RF port and the cell controller .
Image processing system for enabling a user to navigate through image data having three spatial dimensions by displaying views of the image data, the image processing system comprising: - an image device comprising a display configured to display the views of the image data and an orientation sensor configured to measure an orientation of the image device with respect to a reference orientation for providing rotation data indicative of a device rotation of the image device; - means configured to establish a center of rotation in the image data; and - an image processor configured to establish the views of the image data in relation to the device rotation by, for establishing a current view , being configured to: (i) receive the rotation data from the orientation sensor, (ii) establish a three dimensional view rotation in relation to the device rotation, and (iii) establish the current view in dependence on the three dimensional view rotation around the center of rotation with respect to a reference view , wherein the means for establishing the center of rotation comprises a region of interest detector configured to automatically detecting a region of interest in the image data , and is arranged for establishing the center of rotation in dependence on the detected region of interest . - an image device comprising a display configured to display the views of the image data and an orientation sensor configured to measure an orientation of the image device with respect to a reference orientation for providing rotation data indicative of a device rotation of the image device; - means configured to establish a center of rotation in the image data; and - an image processor configured to establish the views of the image data in relation to the device rotation by, for establishing a current view , being configured to: (i) receive the rotation data from the orientation sensor, (ii) establish a three dimensional view rotation in relation to the device rotation, and (iii) establish the current view in dependence on the three dimensional view rotation around the center of rotation with respect to a reference view ,
Method for producing a recombinant allergen in a Nicotiana benthamiana tobacco plant, comprising the steps of: a) growing the plant aeroponically or hydroponically under LED lighting, then b) agroinfiltrating the plant obtained in a) under vacuum with agrobacteria comprising an expression vector comprising a DNA fragment coding for the recombinant allergen, then c) returning the plants to growth after step b), under the same conditions as for step a), then d) extracting and purifying the recombinant allergen from the aerial parts of the plants produced in step c). a) growing the plant aeroponically or hydroponically under LED lighting, then b) agroinfiltrating the plant obtained in a) under vacuum with agrobacteria comprising an expression vector comprising a DNA fragment coding for the recombinant allergen, then c) returning the plants to growth after step b), under the same conditions as for step a), then d) extracting and purifying the recombinant allergen from the aerial parts of the plants produced in step c).
A method of bonding a first material to a second material , the first material and second material defining a bonding region, the method comprising the steps of: placing a multi-layer interlayer of metallic materials between the first material and the second material to create an assembly, the interlayer having a thickness; heating the assembly to a bonding temperature to produce a liquid in the bonding region; holding the assembly at the bonding temperature for a suitable time until the liquid has isothermally solidified due to diffusion within the interlayer and until a sufficiently homogenized interlayer has been created; and precipitation hardening the interlayer by holding the interlayer at a hardening temperature lower than the bonding temperature for a specified period of time, thereby creating a precipitation-hardened PTLP bond. placing a multi-layer interlayer of metallic materials between the first material and the second material to create an assembly, the interlayer having a thickness; heating the assembly to a bonding temperature to produce a liquid in the bonding region; holding the assembly at the bonding temperature for a suitable time until the liquid has isothermally solidified due to diffusion within the interlayer and until a sufficiently homogenized interlayer has been created; and precipitation hardening the interlayer by holding the interlayer at a hardening temperature lower than the bonding temperature for a specified period of time, thereby creating a precipitation-hardened PTLP bond.
A purity monitor , comprising: a cryo-cooler comprising a nozzle and plumbing components disposed to supply a fluid having a working pressure of up to 10,000 psig (690 bar) to the nozzle, the nozzle being configured to provide for locating substantially all of a pressure drop of the cryo-cooler near an exit thereof; and a piezo-electric crystal microbalance onto which the nozzle sprays fluid and which is configured to measure a mass of non-volatile residue (NVR) left thereon by the spraying, respective temperatures of the fluid and the piezo-electric crystal microbalance being controllable based on a type of the NVR. a cryo-cooler comprising a nozzle and plumbing components disposed to supply a fluid having a working pressure of up to 10,000 psig (690 bar) to the nozzle, the nozzle being configured to provide for locating substantially all of a pressure drop of the cryo-cooler near an exit thereof; and a piezo-electric crystal microbalance onto which the nozzle sprays fluid and which is configured to measure a mass of non-volatile residue (NVR) left thereon by the spraying, respective temperatures of the fluid and the piezo-electric crystal microbalance being controllable based on a type of the NVR.
A powder application device for use in a system for producing a three-dimensional workpiece using a generative layering process, the powder application device comprising: - a spreading member movable across a surface of a carrier for depositing a raw material powder for producing a workpiece by a generative layering method onto the surface of the carrier , and - a powder entrainer which is movable across a carrier plane (E) and which, in the region of a surface facing the carrier plane (E), is provided with a surface profile comprising an entraining element and a passage channel , the entraining element and the passage channel being shaped and arranged in such a way that, with respect to the movement of the powder entrainer across the carrier plane (E), powdery material deposited in front of the powder entrainer on the carrier plane (E) is entrained by the entraining element during a movement of the powder entrainer across the carrier plane (E) in a first direction of movement (R1), and is guided through the passage channel during a movement of the powder entrainer across the carrier plane (E) in a second direction of movement (R2) opposite to the first direction of movement (R1). - a spreading member movable across a surface of a carrier for depositing a raw material powder for producing a workpiece by a generative layering method onto the surface of the carrier , and - a powder entrainer which is movable across a carrier plane (E) and which, in the region of a surface facing the carrier plane (E), is provided with a surface profile comprising an entraining element and a passage channel , the entraining element and the passage channel being shaped and arranged in such a way that, with respect to the movement of the powder entrainer across the carrier plane (E), powdery material deposited in front of the powder entrainer on the carrier plane (E) is entrained by the entraining element during a movement of the powder entrainer across the carrier plane (E) in a first direction of movement (R1), and is guided through the passage channel during a movement of the powder entrainer across the carrier plane (E) in a second direction of movement (R2) opposite to the first direction of movement (R1).
Method for measuring a radio frequency, RF, environment of a vehicle cabin , the method comprising: scanning (S1) an RF environment of the vehicle cabin , the scanning (S1) including measuring (S11) an RF signal, determining (S12) spectral information of the measured RF signal, and determining (S13) a direction and/or a position of a source emitting the measured RF signal; acquiring (S2) three-dimensional visual information of the vehicle cabin ; and storing (S3) the determined spectral information of the measured RF signal, the related direction and/or position of the source emitting the measured RF signal and the acquired three-dimensional visual information of the vehicle cabin in a memory ; overlaying the determined spectral information of the measured RF signal and the acquired three-dimensional visual information of the vehicle cabin based on the determined direction and/or position of the source emitting the measured RF signal; and characterised by displaying the determined spectral information of the measured RF signal and the overlaid three-dimensional visual information of the vehicle cabin in a virtual reality system or an augmented reality system. scanning (S1) an RF environment of the vehicle cabin , the scanning (S1) including measuring (S11) an RF signal, determining (S12) spectral information of the measured RF signal, and determining (S13) a direction and/or a position of a source emitting the measured RF signal; measuring (S11) an RF signal, determining (S12) spectral information of the measured RF signal, and determining (S13) a direction and/or a position of a source emitting the measured RF signal; acquiring (S2) three-dimensional visual information of the vehicle cabin ; and storing (S3) the determined spectral information of the measured RF signal, the related direction and/or position of the source emitting the measured RF signal and the acquired three-dimensional visual information of the vehicle cabin in a memory ; overlaying the determined spectral information of the measured RF signal and the acquired three-dimensional visual information of the vehicle cabin based on the determined direction and/or position of the source emitting the measured RF signal; and characterised by displaying the determined spectral information of the measured RF signal and the overlaid three-dimensional visual information of the vehicle cabin in a virtual reality system or an augmented reality system.
An apparatus for manufacturing a pulp moulded product comprising a three-dimensional core mould which can be immersed into a pulp and washed around by a pulp, respectively, and which is mounted on a carrier plate , wherein the core mould includes openings to which a negative pressure can be applied for sucking in the pulp, a transfer mould which corresponds to the negative mould of the core mould extended by the wall thickness of the pulp moulded product before compacting, and to which a negative pressure can be applied via openings in the transfer mould for taking over the pulp moulded product from the core mould , as well as driving means for moving the core mould and/or transfer mould in order to enable a handing over of the pulp moulded product between the moulds , wherein the openings in the core mould include side walls protruding into the interior of the core mould , and wherein these side walls are each aligned to a large extent at an acute angle to the removal direction of the pulp moulded product when it is removed from the core mould , characterised in that at least a portion of the openings in the core mould are formed as gaps between slats aligned approximately in parallel to one another, wherein the gaps and thus the slats , too, are preferably arranged on those surface sections of the core mould which, viewed with respect to the entire core mould , are aligned steepest relative to the removal direction of the pulp moulded product .
Device for drying printed containers comprising a drivable transport element with container handling stations , wherein the containers accommodated on the container handling stations are moved by the transport element on a movement path between at least one container feed and at least one container discharge , with drying and hardening devices assigned to the container handling stations in order to bring about a hardening and drying reaction on the printed containers , and comprising or capable of being connected to an evaluation unit, wherein at least one sensor is provided, which is configured for the detection of heat energy or thermal radiation which is emitted from the container which has undergone the drying reaction, wherein the drying and hardening devices are configured such as to bring about an exothermic reaction on the printed container , and wherein the sensor is configured such as to detect the heat energy emitted from the container , incurred by the exothermic drying reaction, and the sensor comprises an evaluation unit or the sensor is connected to an evaluation unit, by means of which the degree of drying of the printed container can be determined on the basis of the heat energy detected by the sensor .
An apparatus for correcting for deviation of an ambient magnetic field direction from a reference direction in a marine environment and for correcting measurements by magnetic compasses in seismic streamers towed by a seismic vessel , the apparatus comprising: an instrument assembly vessel configured to move through the marine environment; an inertial reference direction device disposed on the instrument assembly vessel and configured to measure a deviation of an aiming direction of the instrument assembly vessel from the reference direction; a reference magnetic compass disposed on the instrument assembly vessel and configured to measure a direction of the ambient magnetic field direction with respect to the aiming direction of the instrument assembly vessel and to transmit the measured direction; a processor configured to receive the measured deviation and the measured direction and to calculate the deviation of the ambient magnetic field direction from the reference direction using the received measured deviation and direction; and a cable configured to tow the instrument assembly vessel from the seismic vessel at a distance from the seismic streamers that seismic signals and compass signals in the streamers will not affect the measurements in the instrument assembly vessel . an instrument assembly vessel configured to move through the marine environment; an inertial reference direction device disposed on the instrument assembly vessel and configured to measure a deviation of an aiming direction of the instrument assembly vessel from the reference direction; a reference magnetic compass disposed on the instrument assembly vessel and configured to measure a direction of the ambient magnetic field direction with respect to the aiming direction of the instrument assembly vessel and to transmit the measured direction; a processor configured to receive the measured deviation and the measured direction and to calculate the deviation of the ambient magnetic field direction from the reference direction using the received measured deviation and direction; and a cable configured to tow the instrument assembly vessel from the seismic vessel at a distance from the seismic streamers that seismic signals and compass signals in the streamers will not affect the measurements in the instrument assembly vessel .