95 results about "Light dispersion" patented technology

Chromatic dispersion compensation is performed in one or more pluggable optical transceiver (POT) devices operating within an intensity-modulated direct-detection (IMDD) optical network. Compensation is performed within each POT using an electrical and / or optical chromatic dispersion module which are controlled by a set of parameters. A network computing device includes a computer processor and a host management interface for communicating with the POT. In the event of a link failure, the computer processor determines a second set of parameters to control the one or more dispersion compensation module(s) of the POT. The second set of parameters are different from a first set of parameters used to control the one or more compensation module(s) in the case of a first optical path. The computer processor causes the POT to use the second set of parameters in place of the first set of parameters.

The present invention discloses a multi-component gas concentration detection system, which relates to the field of gas concentration detection, and comprises: a light source, which is used for emitting detection light covering the absorption wave band of a target gas; the light splitting assembly is used for dispersing the detection light and at least splitting the detection light into a first light beam and a second light beam; the air chamber is provided with an optical signal detection module and an acoustic signal detection module; the first light modulator is used for carrying out wavelength selection and modulation on the second light beam; wherein the first light beam is received by the light signal detection module to form an absorption spectrum detection light path; the second light beam is absorbed by the gas to be detected and then excites a sound wave signal through a photoacoustic effect, and the sound wave signal is received by the sound signal detection module to form a photoacoustic spectrum detection light path. By adopting the scheme, synchronous detection of multi-component gas, compactness of a detection structure and high-sensitivity detection of low-concentration gas can be considered.

Some implementations herein relate to a light dispersion device for use with a solar panel assembly. An improved method for a solar structure has been provided. In some implementations, the device may include a transparent or translucent material having a surface configured with a light-diffusing pattern. In addition, the device may include where the light-diffusing pattern is adapted to scatter and redistribute incoming sunlight to enhance illumination beneath the solar panel assembly. The device may include where the light dispersion device is positioned between individual solar panels or attached to the underside of the solar panels.

DEPCT68 The welding method disclosed here includes a procedure for applying laser light for... Inspect the workpiece at an angle while varying the amount of light dispersion. The process of determining the correction value for the amount of light scattering based on intensity. Laser backlight for inspection and workpiece welding process. Laser light is applied to the workpiece so that the amount of light scattering is adjusted. The correction value is zero in the welding method as disclosed, laser light for inspection. It is scanned in a direction approaching the laser emission point for time-based monitoring. The amount of light scattering will be zero during the laser application process for... Inspect the workpiece. From the results, determine the welding method, welding system, and possible adjustments. Improvements to the accuracy of laser beam focusing control for welding were provided;

The application discloses a whole light-emitting transdermal optical fiber puncture device, which comprises a rod-shaped puncture component for puncture and a light-emitting optical fiber arranged in the puncture component; the end and the side wall of the light-emitting optical fiber are both light-transmitting; the light-emitting optical fiber is provided with reflecting lenses at two ends to form an optical resonant cavity, so that light dispersion is formed in the light-emitting optical fiber; the light emitted by the light-emitting optical fiber can penetrate the side wall of the puncture component; the puncture component comprises a split rod part and a puncture needle; the rod part is made of a light-transmitting material. The light-emitting optical fiber with the light-transmitting end and side wall and the reflecting lenses at the end form the optical resonant cavity, so that the light entering the light-emitting optical fiber forms light dispersion and the light-emitting optical fiber uniformly emits light. The light emitted by the light-emitting optical fiber can penetrate the side wall of the puncture component and act on the tumor, so that the area of photodynamic chemical reaction is increased and the treatment efficiency is improved.

The utility model discloses an optical module of a fluorescence immunoassay analyzer, which simplifies the structure, reduces the cost and improves the detection efficiency. The device comprises an optical circuit board, an LED, a PD, an excitation shell, a receiving shell, an optical fiber, a plano-convex lens, an optical filter and a dichroscope, the optical circuit board is provided with a row of LEDs and a row of PDs, and the number of the LEDs is equal to that of the PDs; the excitation shell and the receiving shell respectively cover the LED and the PD; the excitation shell is provided with an output hole, and the receiving shell is provided with an input hole for connecting an optical fiber; a first channel communicated to the output hole is arranged in the excitation shell corresponding to the LED, and a second channel communicated to the input hole is arranged in the receiving shell corresponding to the PD; plano-convex lenses are arranged at the output hole and the input hole; each LED and each PD are correspondingly provided with a pair of plano-convex lenses and an optical filter; a plurality of dichroscopes are arranged in the first channel and the second channel, light concentration is achieved between the LED and the output hole through the dichroscopes, and light dispersion is achieved between the input hole and the PD through the dichroscopes.

The utility model relates to the technical field of jumper fibers, in particular to a jumper fiber convenient to identify. According to the technical scheme, the optical fiber jumper comprises a jumper wire and connecting plugs, the two ends of the jumper wire are fixedly connected with the connecting plugs, a light guide pipe is fixedly installed in the jumper wire, the two ends of the light guide pipe are located at the positions, close to the two connecting plugs, of the exterior of the jumper wire, and light barriers are fixedly installed at the positions, close to the two ends of the light guide pipe, of the exterior of the jumper wire. And light dispersion plates are fixedly mounted on the sides, close to the light guide pipe, of the outer surfaces of the two light barriers. According to the utility model, when the jumping fiber trend and the connecting plug are searched, the jumping fiber trend and the connecting plug can be rapidly and conveniently identified, and the working efficiency is improved.

An imaging method of a coherent Raman scattering imaging device based on spectral progressive scanning according to the present invention includes a synchronous two-color light source, a nonlinear amplification and spectral broadening module, a spectral progressive scanning control module, a linear amplification module, a beam combining and sample detection module, and a data processing module. The present invention does not require tuning a laser oscillator, nor does it require time scanning. By controlling the seed light and pump light of the nonlinear amplifier, adjusting parameters such as the dispersion, power, chirp of the seed light, and the pump power of the amplifier, the spectral evolution of the nonlinear amplifier is dynamically adjusted, so that it gradually transitions from a narrow spectrum to a wide spectrum, and from covering a single Raman peak to progressively covering multiple Raman peaks. This spectral progressive scanning coherent Raman light source can achieve simultaneous imaging of multiple chemical bonds, has a fast scanning speed, a flexible imaging method, and combines high spectral resolution and a wideband detection range, and also provides a new way to eliminate noise in coherent Raman scattering imaging.

The utility model relates to an optical teaching experiment platform, which comprises a color experiment device, a light splitting experiment device, a lens imaging device and a refraction and reflection experiment device, wherein the color experiment device is used for carrying out experiment teaching of related knowledge of color synthesis of light, the light splitting experiment device is used for decomposing white light into light with different wavelengths through a light dispersion element, and the lens imaging device is used for carrying out experiment teaching of related knowledge of convex lens imaging. The refraction and reflection experiment device is used for carrying out experiment teaching of light reflection and refraction related knowledge. Compared with the prior art, the optical teaching aid systematically integrates basic optical knowledge, expanded optical knowledge and frontier optical knowledge related to middle schools, and can endow optical teaching with more intuitive principle display and more interesting operation experience.

The invention relates to high-fog and high-light-transmittance diffusion resin and a preparation method thereof, and belongs to the technical field of high polymer materials. A mixed system with certain refraction and scattering effects is formed by utilizing the incompatibility between polypropylene and polycarbonate, and the surface of talcum powder is coated with organic silicon and polypropylene chain segments, so that the nucleating effect of the talcum powder can be exerted, the transparency and mechanical strength of the material are improved, and the mechanical property of the material is improved. The compatibility of the talcum powder and a resin system can also be improved, the dispersion uniformity of the talcum powder is further improved, so that the light transmission uniformity and the mechanical property are improved, and the organic silicon layer and the polypropylene layer coated on the surface of the talcum powder can enable light to be refracted and penetrated for multiple times, so that the light dispersion effect and the dodging and light transmission effects are improved.

Method for generating a frequency-modulated transmit signal (8) for a transmitting device (5) of a detection device (2) for transmitting the frequency-modulated transmit signal (8) into an environment (3) of the detection device (2), comprising the steps: - Generating a frequency comb (11) using an optical mode-locked source (10) of the transmitting device (5); - Filtering of at least one frequency line (12) in the generated frequency comb (11) by means of a first optical filter device (13) of the transmitting device (5); and - Generating the frequency-modulated transmit signal (8) by means of a photodiode (14) of the transmitting device (5) as a function of the filtered frequency comb (15), wherein the frequency-modulated transmit signal (8) is generated proportionally to the frequency difference to the filtered frequency line (12), wherein at least two frequency lines (12) are brought closer together by means of an optical dispersive element (18) of the transmitting device (5) or at least two frequency lines (12) are pulled further apart by means of an optical dispersive element (18) of the transmitting device (5), wherein the dispersive element (18) is arranged in the beam path after the first optical filter device (13) or the dispersive element (18) is arranged in the beam path before the first optical filter device (13).

The invention provides a color film substrate and a display module. The color film substrate comprises a substrate body, a color resistance layer arranged on one side of the substrate body and at least one light dispersion layer, the light dispersion layer is arranged on the side, away from the substrate body, of the color resistance layer, and / or the light dispersion layer is arranged between the color resistance layer and the substrate body; the light dispersion layer is configured to reduce light rays in the direction perpendicular to the substrate base plate from entering the substrate base plate. According to the display device, the light dispersion layer is arranged on the light incident side of the substrate, the light dispersion layer is used for reducing the light entering the substrate in the direction perpendicular to the substrate, the proportion of direct light in display light can be reduced, the proportion of oblique light in the display light can be increased, the brightness difference between the display light is reduced, and the display effect of the display device is improved. Therefore, the intensity of the display light received by the human eyes is uniform, the phenomenon that the brightness of the liquid crystal display device is not uniform during display is reduced, and the phenomenon of Sparkling is reduced.

This invention relates to the field of LED packaging technology, specifically to an LED packaging structure with same-side die bonding. Multiple first and second chips are respectively disposed in a first mounting area and a second mounting area on opposite sides of a substrate, and electrical connections are achieved using a circuit layer. This avoids the limitation on the size of the first chip that can be mounted when the first and second chips are arranged on the same side of the substrate, as is the case with traditional methods. By concentrating multiple first chips used for light mixing in the first mounting area on the same side of the substrate, the light-emitting area is more concentrated. Simultaneously, the wire bonding distance is significantly shortened, the number of wires is reduced, and sufficient space is freed up to install larger-sized light-emitting chips, thereby effectively improving the overall brightness. It also avoids the light dispersion phenomenon caused by the mixing of chips and ICs in traditional solutions. Combined with short-pitch circuit connections, it improves the mixing consistency of different colors of light, further enhancing the electrical reliability and optical performance of the packaging structure.

The utility model relates to the technical field of lighting equipment, and discloses a horizontal light scattering LED lamp which comprises a lamp shell, an LED lamp body is installed at the bottom end of the lamp shell, an LED main control board is installed in the lamp shell, supporting strips are fixedly connected to the two sides and the two ends of the front end of the lamp shell, light barriers are arranged outside the supporting strips, and the light barriers are connected with the LED main control board. The inner side of the light barrier is fixedly connected with a light scattering piece, the light barrier is fixedly connected with a C-shaped buckle, a positioning bolt is installed on the C-shaped buckle, and heat dissipation openings are formed in the two sides of the lamp shell. According to the LED lamp capable of horizontally dispersing light, the horizontal heat dissipation effect of the lamp is improved through the light dispersing cover, the light barrier outside the lamp shell can be adjusted according to the heat dissipation requirement, during adjustment, the light barrier is rotated to a proper installation angle firstly, the C-shaped buckles on the light barrier rotate on the supporting strips, then the light barrier can be positioned by rotating and tightening the positioning bolts, and therefore the light dispersion effect is improved. The light barrier can be directly detached from the supporting strip, and the problem that the horizontal light scattering effect is poor is solved.

The utility model relates to the technical field of new materials, in particular to a new material technology research and development workbench which comprises a fixing plate, the upper end of the fixing plate is fixedly connected with a first connecting frame, the inner wall of the first connecting frame is rotatably connected with a threaded rod, and the rod wall of the threaded rod is sleeved with a sliding block in a threaded mode. The upper end of the first connecting frame is fixedly connected with a gear motor, the output end of the gear motor is fixedly connected with one end of a threaded rod, the outer wall of the sliding block is fixedly connected with a connecting plate, the lower end of the connecting plate is fixedly connected with a plurality of illuminating lamps corresponding to one another in position, and the upper end of the fixing plate is fixedly connected with a workbench body. On one hand, light dispersion can be avoided, illumination is more concentrated and effective, the illumination effect and visibility are improved, on the other hand, the situation that a user is dizzy due to the fact that the user directly looks at the illumination lamp can be effectively avoided, and then the working comfort and working efficiency are improved.

Described are targets for use in optical tracking, as well as related methods. A target comprises a plurality of light dispersers, optically coupled to at least one light source. The light dispersers are illuminated for detection and tracking by a tracking system. In some implementations, the at least one light source is optically coupled to the plurality of light dispersers by a plurality of light directors. In other implementations, the at least one light source includes a plurality of light sources positioned within or proximate to the plurality of dispersers. In some implementations, dispersers are lenses; in some implementations, dispersers are light scattering elements. Targets include or are coupled to a power source. In some implementations, targets include additional electrical components which utilize power from the power source.

The invention discloses an energy-saving illuminating lamp capable of intelligently switching light colors, and relates to the technical field of illuminating lamps. The illuminating lamp comprises a support, the top of the support is fixedly connected with an illuminating lamp body, the outer wall of the illuminating lamp body is fixedly connected with a plurality of cooling fins, and the top of the illuminating lamp body is provided with a light color switching assembly used for switching light colors. The side, close to the light color switching assembly, of the illuminating lamp body is fixedly connected with light-transmitting glass used for transmitting light, and a light color switching eye protection device is arranged on the side face of the illuminating lamp body. According to the light color switching eye protection device, through the arrangement of the light color switching eye protection device, the semi-arc ring, the track frame, the sliding blocks and other assemblies are matched, the two sliding blocks located on one side of the light-transmitting glass move to drive the arc-shaped protection plate to move, and the arc-shaped protection plate moves slowly so that the switched light color can be emitted out; and the problem of visual discomfort caused by abrupt light source change is avoided.

The utility model belongs to the technical field of water cups, and particularly discloses a double-layer water cup with a built-in acousto-optic function, which comprises an outer-layer shell, an inner-layer container body is arranged on the inner side of the outer-layer shell, the outer-layer shell is detachably connected with the inner-layer container body, and a light-emitting component is arranged in the outer-layer shell; the light-emitting assembly comprises a light-emitting source, the light-emitting source is arranged at the bottom of the outer-layer shell, one end of the light-emitting source is connected with a plurality of light guide columns, the tops of the light guide columns are connected with acrylic light guide plates, and the outer wall of each acrylic light guide plate is provided with shading aluminum foil. According to the utility model, through the combined design that the bottom luminous source is matched with the light guide column and the acrylic light guide plate, the light is uniformly conducted to the hollow pattern area of the outer-layer shell by utilizing a total reflection principle, so that the problems of local over-brightness and dim edge caused by light dispersion of the traditional SMD LED are avoided; the shading aluminum foil further restrains the light path to ensure complete shadow coverage and consistent brightness.

A system and method are provided for spectral shaping of light from a broadband source including multiple wavelengths. The system includes a beam splitter (BS) to receive and transmit an input beam, a dispersive element to disperse the input beam into dispersed beams separated by wavelength, and optic-elements to direct the dispersed beams onto a spatial light modulator (SLM). The SLM selectively modulates the dispersed beams reflected from the SLM, and the optic elements transmit a 0th-order of the reflected light through the dispersive element, which recombines the beams to form a reflected beam directed toward the BS. The BS separates the reflected beam from the input beam and directs it to an optical output of the system. The SLM includes multiple electrostatically deflectable reflective ribbons suspended over a reflective surface of a substrate, wherein the ribbons are separated by a distance equal to a width of the ribbons.

A Raman spectroscopy apparatus is disclosed, the Raman spectroscopy apparatus comprising: an optical input (16); an optical device selector (32), (33) arranged to selectively position a pair of optical devices (30a), (34a) selected from a set of different pairs of optical devices, such that the pair of optical devices (30a), (30b), (30c), (30d); (34a), (34b), (34c), (34d) disperses incident light received by the optical input (16) into a spectrum; and a photodetector (24) arranged to detect the spectrum. Selecting a different pair of optical devices (30a), (30b), (30c), (30d) from the group; (34a), (34b), (34c), (34d) change the spectrum that can be detected by the photodetector (24).

The utility model provides full-automatic packaging equipment for traditional Chinese medicine decoction pieces, and relates to the technical field of product packaging, the full-automatic packaging equipment comprises a placement frame and a full-automatic packaging mechanism, the full-automatic packaging mechanism is installed on the inner side of the placement frame, and through the arrangement of the full-automatic packaging mechanism, a laser cutter can emit laser to conduct hot melting cutting on a plastic packaging bag, and the full-automatic packaging equipment is used for packaging the traditional Chinese medicine decoction pieces. The existing laser cutting knife can be used for precisely cutting the plastic bag, melting does not need to be worried about, the frosted light blocking glass can block laser emitted by the laser cutting knife, so that the phenomenon that the laser irradiates the placement frame is avoided, the frosted light blocking glass achieves the operation through the light scattering effect of the frosted light blocking glass, and the operation is convenient. The bag conveying motor drives the rubber rolling shaft to rotate, plastic bags arranged on the outer sides of the total magnets in a sleeving mode are drawn, so that the effect of conveying the plastic bags is achieved, the total magnets are stacked in the middle through the rubber rolling shaft, and the total magnets can be firmly attracted between the two positioning magnets through the magnetic attraction effect.

The utility model relates to lighting device technical field, concretely relates to a classroom intelligent lighting device based on internet of things, including shell and the LED lamp lighting main part of setting in the inner wall of shell, the top of shell is fixed and installed with fixed disc at both ends, through adjusting assembly, the meshing drive of gear and arc gear bar, the sliding guide of gyro wheel in arc rail recess, thereby realize angle deflection adjustment of driving LED lamp lighting main part, control lighting equipment light projection to the specific area of classroom, can focus light on the platform area when the lighting equipment in class, enhance the lighting definition of teacher and board book, adjust the angle and make light illumination evenly cover the whole desk area, can the lighting pertinence and comfort level under different teaching scene, avoid the platform area or desk area in classroom because of light dispersion and the insufficient brightness.

An example imaging component can include: a light dispersing element or light dispersing portion that is configured to split an incident light beam into a plurality of secondary light beams, wherein each of the plurality of secondary light beams is associated with a particular wavelength; a plurality of lenses that are each configured to collimate and direct one of the plurality of secondary light beams along a respective optical path within the imaging component; and a recombining element or recombining portion comprising a plurality of pickoff mirrors that is configured to: (i) recombine the plurality of secondary light beams into a recombined light beam, and (ii) direct the recombined light beam to an image sensor.

The source selection module includes an adjustable diffractive element including a plurality of pixels. The source selection module also includes a light dispersing element configured to receive the first light and the second light. The light dispersing element distributes the first light over the first pixel to generate zero and non-zero order diffraction. The light dispersing element also spatially distributes the second light over the second pixel to generate zero and non-zero order diffraction. The source selection module includes a continuously variable filter including a first region and a second region. The zeroth order of the first light received by the first region and the zeroth order of the second light received by the second region are transmitted or reflected. A non-zero order of the first light is blocked outside the first region, and a non-zero order of the second light is blocked outside the second region.

To provide a light dispersion element having high mass productivity, and an optical unit, a spectrometer, and a spectroscopic system equipped with the same, and a method for manufacturing the light dispersion element.SOLUTION: A light dispersion element 20 comprises: a tabular scale body 21; and a film 23 provided on one side of the scale body 21, for performing at least one of reflection and absorption of light which is the object of analysis. The film 23 defines a plurality of slits 25 or a strip-shaped reflection plane. The optical unit includes the light dispersion unit 20, an incidence slit forming member for forming an incidence slit that transmits light which is radiated to the light dispersion element 20, and a photoelectric conversion element. The spectrometer includes the optical unit and an arithmetic unit. The spectroscopic system includes the optical unit and an arithmetic device. A method for manufacturing the light dispersion element 20 includes: providing the scale body 21; forming the film 23 on one side of the scale body 21; and removing a section of the formed film 23 that constitutes the plurality of slits 25.SELECTED DRAWING: Figure 3

1. The name of the design product: intelligent holder (double-axis stable U-shaped). 2. The use of the design product: the design product is used for long-distance strong sound and strong light dispersion in the security field, and for monitoring and transmitting sound and video image content. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

The invention discloses an optical monomer and a preparation method and application thereof, the structural general formula of the optical monomer is shown in the specification, R is a sulfur-containing group, and the sulfur-containing group is selected from one of the following groups: C2-C5 alkyl substituted by at least two sulfur, phenyl substituted by two sulfur, biphenyl substituted by two sulfur and naphthyl substituted by two sulfur. According to the optical monomer provided by the invention, thioether bonds existing in molecules greatly increase the electron cloud density and polarizability in unit volume, and the refractive index of the optical monomer is improved; a sulfur heterocyclic structure in the optical monomer can effectively improve the rigidity of the whole compound and improve the toughness of molecules; thioether bonds do not have characteristic absorption in visible light and near-infrared regions, influence on dispersion of visible light is small, transparency of the whole compound can be improved, and the Abbe number of the optical monomer is increased; the sulfydryl groups at the two ends of the molecule in the optical monomer can be used as reactive functional groups to react with other active functional groups such as isocyanate groups.

The present application belongs to the technical field of spectral analysis optical instrument, disclose a kind of monochromator of controllable output light beam and programmable control method, to solve the problem of slow response, low precision, poor flexibility of existing monochromator relying on mechanical adjustment.The monochromator includes incident optical unit, spectrometer unit, imaging coupling unit and programmable control output unit arranged in order along the direction of light beam transmission;Incident optical unit is used to input matched polychromatic light beam, spectrometer unit is used to disperse polychromatic light into spatially separated monochromatic light beam, imaging coupling unit is used to focus and couple different wavelength light beam to corresponding light beam channel, and programmable control output unit is used to control the on-off, power and timing of each fiber channel independently.The present application has no mechanical moving parts, and can realize programmable output of monochromatic light with specific wavelength, specific power and specific timing, with fast response speed, high precision and high integration.

This invention relates to the field of liquid crystal display technology, and more particularly to a liquid crystal composition and its application. The liquid crystal composition provided by this invention contains a diacetyl group compound, which, while exhibiting low light dispersion and high transmittance, also possesses excellent properties such as low rotational viscosity, high elastic constant, good low-temperature miscibility, and fast response speed. It can be used in fast-response liquid crystal displays of various display modes, and can significantly improve the display effect of liquid crystal displays when applied to VA, IPS, or FFS mode displays, especially suitable for IPS and FFS mode liquid crystal displays.

The invention discloses a spectrometer based on a metasurface lens and electronic equipment. The spectrometer comprises an optical fiber interface, the metasurface lens and a photoelectric detector. The fiber interface is used for connecting fibers; the metasurface lens is used for guiding, splitting and dispersing the incident light of different wavelengths accessed from the optical fiber interface, and focusing the incident light of different wavelengths to different positions of a detection plane; a photodetector is configured to receive light from the metasurface lens at the detection plane. The optical fiber interface is connected with the optical fiber, and optical signals of all wavebands can be received only through one interface; compared with the prior art, multi-channel, broadband and high-resolution spectral measurement can be realized only by adopting one metasurface lens, the complexity of a system is greatly reduced, the size of the whole spectrograph is greatly reduced, the requirements of miniaturization, broadband, high resolution and high sensitivity are met, and the cost and the process difficulty are also reduced.