32 results about "Electron resonance" patented technology

An antenna and shield apparatus for detecting phenomenal signals using nuclear and electronic resonance detection technology, comprising: a transmit and receive antenna, an electric field shield 60 and an outer shield 52. The antenna is a multiple parallel loop transmit-receive antenna forming a main coil assembly 11 having a plurality of loop segments 20 optionally interconnected by connectors in the form of conducting bars 10, relays 16, or nothing. The electric field shield 60 comprises an inner sleeve of conducting material 60, 68 disposed on the inside of the coil assembly 11 for shielding the electric field emanating from the coil assembly 11 from the target volume circumscribed by the assembly. The outer shield 52 comprises a central screen portion 55, waveguides 57 at either end thereof and a sloping channel portion for interconnecting the two. The coil assembly 11 and the electric field shield 60 are housed within the outer shield 52.

A conductive organic compound device structure suitable for constituting an electronic device, such as an organic EL device, is formed by including a pair of oppositely spaced electrodes, and a carrier transporting layer disposed between the electrodes and in contact with one of the electrodes. The carrier transporting layer comprises a conductive organic compound having a π-electron resonance structure in its molecule. In the device, the π-electron resonance structure plane of the conductive organic compound in the carrier transporting layer is aligned substantially parallel to surfaces of the electrodes. The conductive organic compound is preferably a conductive liquid crystal, such as a discotic liquid crystal or a smectic liquid crystal, and a layer thereof is included in the device, preferably by vacuum deposition.

The present disclosure methods and systems that provide heat, via at least Photon-Electron resonance, also known as excitation, of at least a particle utilized, at least in part, to initiate and/or drive at least one catalytic chemical reaction. In some implementations, the particles are structures or metallic structures, such as nanostructures. The one or more metallic structures are heat at least as a result of interaction of incident electromagnetic radiation, having particular frequencies and/or frequency ranges, with delocalized surface electrons of the one or more particles. This provides a control of catalytic chemical reactions, via spatial and temporal control of generated heat, on the scale of nanometers as well as a method by which catalytic chemical reaction temperatures are provided.

The invention discloses a closed-loop control method for a nuclear-spin self-compensation point of an SERF atomic-spin top. According to the method, an amplitude-frequency characteristic curve and a phase-frequency characteristic which respond to an alternating current magnetic field of a gyroscope are firstly measured, the resonant frequency and the resonant frequency phase position correspondingto an alkali metal electron resonance peak are found out, a longitudinal compensation offset magnetic field is dynamically adjusted in a frequency closed-loop manner or a phase position closed-loop manner, and the alkali metal electron resonance peak is controlled to be unchanged in real time, so that the longitudinal magnetic field sensed by alkali metal electrons is constant, and the closed-loop control of the nuclear-spin self-compensation point is realized. According to the method, the influence caused by the fluctuation of a longitudinal environmental magnetic field and an inert gas nucleon longitudinal magnetic field to the alkali metal electrons can be reduced, signal fluctuation and coupling errors during the measurement of double-shaft angular rate of the SERF atomic-spin top arerestrained, and the linearity degrees of precision and calibration factors of the gyroscope are increased.

The invention relates to a laser scanning electric atom resonance carbon-hydrogen catalysis method and a relative device. The inventive carbon-hydrogen catalysis device comprises a frame, a laser radiation array, a dense metal network, and a nuclear magnetic resonance tunnel. The invention is characterized in that the liner of frame is arranged with an insulated layer; two ends of the frame are arranged with an inlet and an outlet; the frame is arranged with the first laser radiation array, a laser radiation reflected refraction plate, a dense metal network, the second laser radiation array and a nuclear magnetic resonance tunnel. The dense metal network is connected with high-frequency electricity. The dense metal network is contacted with ferrite particles. The invention can utilize the laser technique and ferrite technique into the treatment of carbon-hydrogen medium, and the magnetic medium generated by the abrasion between the copper network in high-frequency electromagnetic field and ferrite magnet vibration can release more energy in burnt, and the seal function of copper ion can improve the environment protection. The invention can be used in petrol device and gas device.

A light (2) emitting system (1) includes an optical cavity (10) having at least one optical mode and including at least one transmissive reflector (12), a first set (20) of quantum wells (21, 22) and elements (31, 32, 33) of electrical injection of the quantum wells of the first set. The quantum wells of the first set are arranged so that at least one of their electronic resonances is a strong coupling regime with an optical mode of the optical cavity and emits a light according to a mixed exciton-polariton mode. The optical cavity further includes a second set (40) of quantum wells (41, 42, 43, 44, 45) arranged outside of the direct range of the elements of electrical injection and arranged in relation to the quantum wells of the first set so that at least one of their electronic resonances is in a strong coupling regime with the mixed exciton-polariton mode of the optical cavity.

The invention discloses a method for measuring residual magnetism in a shielding barrel based on an in-situ magnetometer, and is suitable for testing the residual magnetism in the shielding barrel of an atomic sensor. The method comprises the steps of firstly, applying a static magnetic field, a modulation magnetic field, pumping light and detection light to enable an atom magnetometer to work in a magnetic resonance state; demodulating a magnetometer signal, extracting a direct-current component of the magnetometer signal by using a low-pass filter to obtain the residual magnetism in the transverse direction, namely the direction perpendicular to a static magnetic field, and applying a direct-current compensation magnetic field in the transverse direction to compensate the residual magnetism to zero; and carrying out residual magnetism measurement and compensation under different detection light intensities, so that it is found that the output value of a compensation magnetic field linearly changes along with the detection light intensities, and the intercept of a straight line on a longitudinal axis is the value of the transverse actual residual magnetism after light frequency shift is eliminated. The electronic resonance frequency is measured by using a magnetic field frequency sweeping method, and the change of the resonance frequency after the static magnetic field direction and the left and right rotation of the pumping light are turned at the same time is measured, and the longitudinal actual residual magnetism can be obtained by dividing the change by two times of the alkali metal gyromagnetic ratio. According to the present invention, an external sensor is not needed, and the design of the atom sensor is greatly facilitated.

A method of calculating an electron resonance spectra data value for each of one or more chemical constituents. In one embodiment, one or more potential electron capture orbitals is identified for each of the one or more chemical constituents; an electron orbital wavefunction is determined for each of the one or more potential electron capture Orbitals; and a theoretical electron resonance spectra data value is generated for each of the one or more chemical constituents. In another embodiment, a theoretical electron resonance spectra data value may be used to identify an unknown chemical constituent.

The invention belongs to a diamond film planar field emission cathode applied to plate display and its making method. It includes: a substrate, where a measuring metal electrode is deposited on one surface of the substrate and a measuring lead wire is connected with them; there is a diamond film layer on the other surface of the substrate; a metal silicide transition layer is situated between the substrate and diamond film layer. Its making method includes: firstly making a metal silicide transition layer on one surface of the substrate; then adopting various traditional methods to grow a diamond film on the metal silicide, because it is difficult in directly growing diamond film on the metal silicide, normally nucleating at bias voltage and then growing the diamond film; adopting spurting or depositing process to deposit 300-1000 nm thick Au electrode on the other surface of the substrate. The metal silicide transition layer provides two interface barriers tunneled by electron resonance, thus realizing high-density electron injection. And the making method is easy to spread.

Particles emitted by radio-isotopic by-products of nuclear fission are used as a power source at the cathode of a magnetron system. Particles include high energy electrons having a large associated EMF. In the system a radial electrical vector E, between the cathode and anode, interacts with an axial magnetic vector B vector to produce an E×B force that rotates the particles about the system axis. These emissions are within a set range of velocities. The angular velocity and geometry of a rotating field, known as a space charge wheel (SCW), may be modulated by an external RF inputs to cavities of an anode block and the use of concentric biasing grids between the cathode and anode block. The SCW induces LC values into cavities of the anode, exciting them and producing electrons resonance which may be used to generate power.

A method for improving photo-thermal excitation micro-cantilever beam vibration energy conversion efficiency by using a local plasmon structure comprises steps of: preparing the local plasmon structure on the micro-cantilever beam and acquiring a vibration signal emitted by photo-excited micro-cantilever beam vibration. The metal nanoparticles convert the absorbed light energy into the kinetic energy of electron resonance, and further convert the kinetic energy into the vibration energy of the lattices by means of the scattering of the lattices on electrons. The metal nanoparticles can also increase the effective mass of the micro-cantilever beam so as to increase the quality factor of the micro-cantilever beam, thereby improving the detection accuracy and the resolution of a micro-cantilever beam sensor. In addition, the micro-cantilever beam combining the plasmon can also be used as an optical power meter with excellent performance to achieve a limit of detection up to pm/nW. The method solves the low vibration efficiency of the photo-excited micro-cantilever beam, is simple and convenient, and has a great practical value to the development and application of the photo-excited micro-cantilever beam vibration.

The invention provides a D-type double-core photonic crystal fiber double-parameter plasma sensor. An optical fiber SPR sensor comprises a D-type photonic crystal optical fiber with an open annular channel and a curved side wall; a fiber core, an air hole, a metal film, a TiO2 layer, a temperature-sensitive medium, a liquid analyte and a perfect matching layer are comprised. The photonic crystal fiber is formed by arranging a fiber core of the photonic crystal fiber and air holes with the same size, a substrate material is quartz, one air hole in the middle of the fiber core is filled with a temperature-sensitive medium PDMS, and the outer ring thereof is coated with a metal film; and the metal film and the TiO2 layer are arranged on an open annular plane. The refractive index of the temperature-sensitive medium changes along with the change of the temperature, meanwhile, free electrons on the surface of a nanogold layer resonate to generate an absorption peak, the resonant wavelength of the absorption peak deviates, the temperature sensing measurement is realized by observing the deviation process of the resonant wavelength, and the surface plasmon resonance principle is adopted. The sensor is high in sensitivity, wide in detection range and high in corrosion resistance.

A method for detecting an analyte includes first to third steps. The first step is distributing a sample containing a bead modified with a host molecule that is specifically bound to the analyte in a microchannel using a syringe pump. The second step is irradiating the sample with non-resonant light that is light outside a wavelength range of electronic resonance of the bead. The third step is detecting the analyte based on a signal from a camera that receives the light from the sample.

Embodiments relate to a layered material (having a substrate, at least a buffer layer, with zero or more growth layers) that has been intercalated via a process that decouples (physically and electronically) the buffer layer from the substrate, thereby resulting in the creation of few-atom thick metal layers that exhibit a range of optical properties, including plasmonic or electronic resonance, that enables superior optical (e.g. Raman) detection of molecules.

The invention relates to a preparation method of a micro-well structure SPRi chip, a product and application thereof, and belongs to the field of biological detection. The preparation method comprisesthe following steps: firstly, growing a polydopamine film with the thickness of 15-100 nm on a gold film chip, and then placing a mask to form the micro-well structure SPRi chip under the irradiationof ultraviolet light. Efficient SPRi multi-component detection and parallel analysis can be realized, surface electron resonance waves are converged in a detection area (micro-well), the SPRi detection intrinsic sensitivity of the area is improved, meanwhile, background signals are reduced, in addition, a micro-array dot matrix with a clear area is further constructed, and extraction and analysisof detection signals are facilitated.