59 results about "Orange light" patented technology

The invention provides a biaxially oriented nylon light conversion film as well as a preparation method and application thereof. A nylon / flaky nano silicon dioxide blend is used as a supporting layer, a nylon / boric acid functionalized terbium metal organic framework material blend is used as a variable light conversion characteristic layer, and the two-way stretching nylon light conversion film is obtained through synchronous two-way stretching. The film has dripping and variable light conversion characteristics, and can convert ultraviolet light into red orange light or blue light.

The invention discloses a heterojunction agricultural light conversion film, and belongs to the technical field of agricultural light conversion films, and the heterojunction agricultural light conversion film comprises the following steps: 1, weighing raw materials CsCl, MnCl2 (H2O) 4 and SbCl3 according to the stoichiometric ratio of each element, putting the weighed raw materials into an agate mortar, adding deionized water, mixing and grinding, taking out the raw materials, and carrying out vacuum sealing and packaging; and 2, fully mixing the heterojunction luminescent material obtained in the step 1 with Ecoflex-0030 silica gel in proportion, pouring the mixture into a special mold, baking in a drying box, and demolding to obtain the heterojunction agricultural light conversion film. According to the heterojunction agricultural light conversion film with the structure, the obtained light conversion film can effectively utilize solar energy, can improve the light conversion efficiency and is harmless to the environment. Meanwhile, due to the formation of the heterojunction, the red orange light emission intensity of the material is improved, and the growth and development of plants and the accumulation of organic matters are promoted.

The invention discloses a preparation method and application of a triarylethene photochromic material with multicolor switching, and relates to the technical field of organic functional materials. The material provided by the invention mainly comprises a series of derivatives of a dual photochromic material system. On the basis of a triarylethene system, a naphthopyran structure is fused to construct an organic dual photochromic system; different colors appear after one material is excited, and the color gradually changes along with time lapse. After an excitation source is removed, the color gradually changes from red to orange, then changes to yellow and finally recovers to a colorless state. And the material can be obviously changed from colorless to orange photochromic under the excitation of visible light, and the photochromic effect can be realized at a relatively low concentration.

A compensation method of optical lens includes: providing a lens body with an optical filter, with the lens body having an interference light absorbance portion through which a light beam to pass; providing a first green-confusion absorbance region on the interference light absorbance portion, with the first green-confusion absorbance region having a first blue-green absorbance peak portion; providing a second yellow orange-confusion absorbance region on the interference light absorbance portion, with the second yellow orange-confusion absorbance region having a second yellow-orange absorbance peak portion; and the first blue-green absorbance peak portion absorbing at least one blue-green light while the second yellow-orange absorbance peak portion absorbing at least one yellow-orange light to provide red and green chroma enhancement in vision.

The present invention discloses a heterojunction agricultural light-conversion film, which belongs to the technical field of agricultural light-conversion films, and comprises the following steps: step one, weighing raw materials CsCl, MnCl2(H2O)4, and SbCl3 according to the stoichiometric ratio of each element, putting the weighed raw materials into an agate mortar, adding deionized water, mixing and grinding, and taking out the vacuum sealing package after completion; step two, using the heterojunction luminescent material obtained in step one and Ecoflex‑0030 silica gel to fully mix in proportion, pour into a special mold, bake in a drying oven, and demould to obtain a heterojunction agricultural light-conversion film. The present invention adopts a heterojunction agricultural light-conversion film of the above structure, and the obtained light-conversion film can effectively utilize solar energy, can improve light conversion efficiency and is harmless to the environment. At the same time, due to the formation of the heterojunction, the red-orange light emission intensity of the material is improved, which promotes plant growth and development and organic matter accumulation.

The application discloses a hydrogen-bonded organic framework material and a preparation method and application thereof; the hydrogen-bonded organic framework material comprises an organic ligand and an organic solvent molecule, and a chemical formula of the hydrogen-bonded organic framework material is [(L) x (G) y ], wherein L is 1,3,6,8-tetra (4-methoxyphenyl) pyrene, G represents a good solvent; x=1-2, and y=1-4. In the HOFs construction, different solvent molecules are introduced, a hydrogen-bonded organic framework material with adjustable multi-color light emitting characteristics of fluorescence and phosphorescence is constructed, the material is controlled from blue light to blue-green light to yellow-orange light, and the fluorescence and the phosphorescence are controlled in the hydrogen-bonded organic material containing different solvents. The application provides a new way for constructing multi-emitting materials by using a single molecule platform.

1. The name of the design product: street lamp (orange light). 2. The use of the design product: for lighting. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: perspective view.

The utility model relates to the technical field of simulation flame fireplaces, in particular to a simulation flame fireplace with 3D aerial imaging, which comprises a fireplace box body, transparent plates are mounted on the surfaces of the fireplace box body, control buttons are mounted on the surface of a mounting base, simulation charcoal is mounted in the fireplace box body, and the simulation charcoal is mounted in the mounting base. Simulation wood charcoal is arranged in the fireplace box body, simulation flame bodies are arranged on the surfaces of the simulation wood charcoal, semi-transparent imaging screens are installed on the inner walls of the fixing boxes, one ends of the semi-transparent imaging screens extend into the fireplace box body, multi-color lamp bead plates are arranged in the fixing boxes, ultra-transparent film-coated acrylic plates are installed in the fireplace box body, and the multi-color lamp bead plates and the ultra-transparent film-coated acrylic plates are arranged in the fixing boxes. The ultra-transparent coated acrylic plates are respectively positioned on two sides of the simulation charcoal, and are symmetrically distributed by taking the simulation charcoal as a center. According to the simulation flame fireplace with the 3D aerial imaging function, under the action of the LED lamp bead plate, orange light emitted by the simulation charcoal can flicker, and the vivid combustion effect can be achieved between the simulation charcoal and the simulation flame body.

A compensation method of optical lens includes: providing a lens body with an optical filter, with the lens body having an interference light absorbance portion through which a light beam to pass; providing a first green-confusion absorbance region on the interference light absorbance portion, with the first green-confusion absorbance region having a first blue-green absorbance peak portion; providing a second orange-confusion absorbance region on the interference light absorbance portion, with the second orange-confusion absorbance region having a second orange absorbance peak portion; and the first blue-green absorbance peak portion absorbing at least one blue-green light while the second orange absorbance peak portion absorbing at least one orange light to provide red chroma enhancement in vision.

1. The name of the design product: cultural and creative ornament (Orange light collector). 2. The use of the design product: an ornament for display. 3. The design features of the design product: in shape. 4. The picture or photo that best indicates the design features: perspective view.

The utility model relates to the technical field of flame detection, in particular to an optical flame detection device which mainly comprises a blue light sensor, an orange light sensor, an exclusive OR circuit module and a main control unit, the blue light sensor is connected with the exclusive OR circuit module through a first amplification comparison unit, and the orange light sensor is connected with the main control unit through a second amplification comparison unit. And the orange light sensor is connected with the XOR circuit module through the second amplification comparison unit. Through the above structure, the blue light sensor and the orange light sensor collect light signals, the amplification and comparison unit is used for receiving and amplifying measured values of the blue light sensor and the orange light sensor, through the light characteristics of real flame, the amplified analog quantity is compared with a standard value, and a digital quantity signal for a subsequent circuit to make logic judgment is output. True value logic or false value logic is output through the XOR circuit module to obtain a final flame recognition result, so that the recognition accuracy of current flame detection is improved as much as possible, and the false alarm rate is reduced.

The application discloses an iridium complex and an iridium complex / natural polymer composite material and a preparation method and application thereof, relates to the technical field of organic photoelectric functional materials, and solves the problem of traditional iridium complex aggregation fluorescence quenching at high concentration or in solid state, significantly improves the aggregation-induced emission effect, and optimizes the hydrophobicity, film uniformity and photophysical properties of the composite material, so that high-intensity stable light emission of adjustable (yellow light to orange light) is realized under 365 nm ultraviolet excitation.

The invention discloses an orange light interactive reading framework and a working method thereof, and relates to the technical field of computers. The method comprises a view layer, an architecture layer, a service layer, a persistence layer, a communication layer and a security processing layer, the view layer is provided with a component library comprising an interface element component and a custom component; the architecture layer comprises a bottom layer library and a basic library; the view layer controls data communication, rendering and updating among the components by calling an interface of the architecture layer; the business layer comprises a functional component, a data storage library, engineering setting, global search and skin theme switching; the persistent layer comprises a binary file, static resources of the content distribution network and server data; the communication layer communicates with the service layer through a component; and the security processing layer ensures application and data security through various encryption and verification means. According to the method, an abstract programming concept can be converted into visual learning experience through an innovative interactive reading structure, and the programming learning efficiency and the knowledge absorption rate of a user are effectively improved.

This invention relates to an orange-light-emitting zinc oxide quantum dot based on high fluorescence quantum yield. It is synthesized in situ by adding a red fluorescent dye potassium hydroxide methanol mixture to an anhydrous methanol solution of zinc acetate and directly precipitating the particles at 62-64°C. The resulting zinc oxide composite nanomaterial has long-wavelength emission and high fluorescence quantum yield. It can be used as a phosphor in laser diodes to achieve white light emission, thus broadening the application of zinc oxide in optoelectronic devices.

The invention provides a wavelength-switchable and tunable all-fiber visible light laser. The wavelength-switchable and tunable all-fiber visible light laser comprises a pump laser, a first dichroscope, a single-mode gain fiber, a second dichroscope and a coupling distance regulation and control device, pump light output by the pump laser is directly coupled into the single-mode gain optical fiber through the first dichroscope and is absorbed by the single-mode gain optical fiber to generate fluorescent light, and the fluorescent light is transmitted to the second dichroscope, is reflected back to the output end of the single-mode gain optical fiber through the second dichroscope and then is coupled back to the single-mode gain optical fiber. The fluorescence is reflected and amplified for multiple times to form laser which is output through the output optical fiber; and the second dichroscope is arranged on the coupling distance regulation and control device and is used for regulating and controlling the coupling distance between the output end of the single-mode gain optical fiber and the second dichroscope so as to realize laser wavelength switching and tuning. According to the invention, flexible switching among cyan light, orange light and red light can be realized, tuning of respective wavelength ranges can be realized, and the device has the characteristics of fast switching speed and wide tuning range.

The invention discloses an iridium complex, an iridium complex / natural polymer composite material as well as a preparation method and application of the iridium complex / natural polymer composite material, and relates to the technical field of organic photoelectric functional materials. According to the present invention, the problem of aggregation fluorescence quenching of the traditional iridium complex under the high concentration or the solid state is solved, the aggregation-induced emission effect is significantly improved, the hydrophobicity, the film forming uniformity and the photophysical property of the composite material can be optimized, and the adjustable (yellow light to orange light) high-intensity stable light emission can be achieved under the 365 nm ultraviolet excitation.

The invention provides a pixel structure, a display panel, a display device and a display method, the pixel structure comprises a plurality of repetitive units, and each repetitive unit comprises an orange sub-pixel, a red sub-pixel, a green sub-pixel and a blue sub-pixel; the display method comprises the following steps: in a first display mode, controlling red sub-pixels, green sub-pixels and blue sub-pixels in a repeating unit in the display device to be turned on, and controlling orange sub-pixels in the repeating unit to be turned off; in the second display mode, the orange sub-pixels, the green sub-pixels and the blue sub-pixels in the repeating units are controlled to be turned on, the red sub-pixels in the repeating units are controlled to be turned off, the first display mode is a conventional display mode, and the second display mode is a night vision display mode. In the night vision display mode, red light is replaced by orange light, the night vision compatible function of the Micro LED display screen can be achieved, and when the Micro LED display screen is applied to the aviation field, the flight safety can be improved.

The invention discloses a semi-polar surface GaN film prepared based on Van der Waals epitaxy and a semiconductor device. The semi-polar surface GaN film is prepared based on Van der Waals epitaxy through the following steps: preparing semi-polar (11-22) surface aluminum nitride as a substrate; preparing a nitrogen-doped graphene layer; the nitrogen-doped graphene layer is a single layer of graphene, and the nitrogen-doped graphene layer is transferred to the semipolar (11-22) surface aluminum nitride; and growing a GaN thin film on the nitrogen-doped graphene layer through Van der Waals epitaxy to obtain the semi-polar surface GaN thin film. According to the preparation method for preparing the semi-polar surface GaN thin film based on Van der Waals epitaxy, the semi-polar surface GaN thin film is prepared by adopting the semi-polar AlN substrate based on remote epitaxy in Van der Waals epitaxy, and the nitrogen-doped graphene is adopted, so that the prepared semi-polar surface GaN can eliminate a polarization effect and can be used for preparing the semi-polar surface GaN thin film. And a key material basis is provided for high-performance green light / yellow orange light LEDs, lasers and power electronic devices.

Optical device filtering blue, green, yellow, and orange light, particularly for eyeglasses. Optical device, with or without visual correction, comprising at least one light-blocking device under standard transmittance study conditions (ISO 8980-3, ISO 12312-1:2013, ISO 12312-1, ISO 9050) and with a reference light source conforming to the white light standards defined by the International Commission on Illumination, such that: more than 76% of the light is blocked in the wavelength range of 380 to 500 nanometers or more than 41% of the light is blocked in the range of 500 to 650 nanometers. This filtering is achieved using a dielectric multilayer coating or at least one absorbing, reflective, or interfering material.The device is intended for use only during the physiological nighttime periods outside of the user's sleep, as defined in the description, and for numerous physiological benefits, also indicated in the description. Figure for the summary: Fig. 7.

1. The name of the design product: atmosphere lamp (small orange lamp). 2. The use of the design product: for lighting. 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 a Dahongpao tea sunning, withering and tedding all-in-one machine which comprises a box body, and the box body is sequentially provided with a sunning layer, a withering layer and a tedding layer from top to bottom; an open box body structure is arranged above the sunning layer, a group of openable leaf turning plates are arranged at the bottom of the box body, and every two adjacent leaf turning plates are in lap joint with each other; a foldable movable frame is arranged at the top of the sunning layer, a photovoltaic panel is laid above the movable frame, and an infrared light irradiation light source irradiating the sunning layer is installed below the movable frame; an orange light irradiation light source is arranged at the top of the withering layer, the photovoltaic panel is connected with a storage battery, and the storage battery is electrically connected with the infrared light irradiation light source and the orange light irradiation light source; a cold and hot air unit is further arranged. According to the device, automatic operation of sunning, withering and tedding of the Dahongpao tea can be realized, the labor intensity is reduced, and the sunning, withering and tedding effects of the Dahongpao tea can be improved.

The invention belongs to the technical field of light conversion films, and particularly relates to a rare earth light conversion agricultural film for tomato planting and a preparation method and application thereof. The thin film is of a five-layer co-extrusion structure, the core is a rare earth light conversion layer, Sr5 (PO4) 3Cl: Eu < 2 + > blue light fluorescent powder and Y2O3: Eu < 3 + > red light fluorescent powder which are subjected to multistage surface modification are contained in the rare earth light conversion layer, 280-400 nm ultraviolet light and 500-600 nm green and yellow light in sunlight can be efficiently converted into 430 + / -10 nm blue light and 610-660 nm red and orange light, and the tomato photosynthetic absorption peak is accurately matched. By optimizing the ratio of blue and red fluorescent powder and adopting titanate / silane / PE-g-MAH multi-stage modification, the dispersity and stability are improved, and an outer weather-proof, double-antifogging and inner heat-preservation anti-dripping functional layer is integrated, so that the light transmittance is remarkably improved, and the service life is prolonged. After the film is covered, the photosynthetic efficiency can be enhanced, fruit setting is promoted, the fruit shape is improved, the malformed fruit rate is reduced, the sugar degree and quality are improved, meanwhile, the greenhouse temperature is increased by 3-5 DEG C, and tomato yield increasing, quality improving, early maturing, energy saving and consumption reducing are achieved.

1.The name of the design product: necklace (summer orange light). 2.The use of the design product: for wearing decoration and collection. 3.The design points of the design product: in shape. 4.The picture or photo that best shows the design points: perspective view 1. 5.The bottom view is not a common view when in use, and the bottom view is omitted. 6.The model in the design picture is a background and does not belong to the content of the claimed design.

The invention provides a filter film which has a high blue light hazard blocking effect and can maintain a display effect, and an optical protection sheet body using the filter film. The filter film is a light absorption layer formed by mixing a plurality of dyes on a transparent substrate, and the light absorption layer comprises a first light absorption dye and a second light absorption dye. The first light-absorbing dye absorbs more than or equal to 50% of blue light ranging from 435 nm to 440 nm. The second light-absorbing dye absorbs more than or equal to 40% of red orange light ranging from 580 nm to 630 nm, and the central wavelength ranges from 590 nm to 610 nm. Therefore, the color temperature after the blue light wave band is filtered out is directly compensated through absorption of the red orange light wave band with the peak value of 600 nm, and a complex three-primary-color toning experiment is not needed at all.

The application provides a kind of based on nitrogen-doped carbonized polymer dots, preparation method and application thereof.The based on nitrogen-doped carbonized polymer dots in the application can be blended with silicone sol in any proportion, and has different fluorescence performance.The mass ratio of the based on nitrogen-doped carbonized polymer dots to the silicone sol in the application has a wide control range, and by simply adjusting the mass ratio of the based on nitrogen-doped carbonized polymer dots to the silicone sol or selecting LED chips with different emission wavelengths, a full-color light-emitting multicolor LED that can emit blue light, green light, yellow light, orange light, red light and white light can be obtained.

Side marker light (10-1 to 10-5, 14, 58, 78) for mounting on a side wall of a vehicle, in particular a commercial vehicle (2), wherein the side marker light (10-1 to 10-5, 14, 58, 78) comprises: - a case back (18, 66, 82), - a light disk (16, 60, 80) which is connected to the housing rear (18, 66, 82), wherein the light disk (16, 60, 80) has a first light emission area (28), - at least one first LED (40, 70, 92) which is mechanically connected to the housing rear (18, 66, 82) and is designed to emit first light into a first solid angle area through the first light emission area (28), wherein the first light emitted from the first light emission area (28) is entirely or predominantly yellow-orange light, - a second light emission area provided in the lower part of the side marker lamp (10-1 to 10-5, 14, 58, 78), and - at least one second LED (44, 72, 94) which is mechanically connected to the rear of the housing (18, 66, 82) and is designed to emit second light through the second light emission area into a second solid angle area directed downwards or obliquely downwards.

The utility model provides a multifunctional floor lamp which comprises a lamp holder assembly, and the lamp holder assembly comprises a lamp holder frame penetrating up and down, an upper light-emitting light source installed in the lamp holder frame, lenses installed at the positions of LED lamp beads of the upper light-emitting light source, and an upper light-transmitting panel installed at an opening in the top of the lamp holder frame; the lamp holder assembly further comprises a grating plate, the grating plate is arranged between the upper light-emitting light source and the upper light-transmitting panel in a clamped mode, each lens extends into a grating of the corresponding grating plate, and the grating plate can reflect glare on the edge of each lens. The lamp holder assembly further comprises an orange light source and a red light source, a light source containing groove is formed in one end of the lamp holder frame, a first opening is formed in one side wall of the light source containing groove, a second opening is formed in the groove bottom of the light source containing groove, the orange light source is arranged at the first opening, and the red light source is arranged at the second opening.

The present invention relates to a lighting device (4) comprising at least three LEDs (7, 8, 9), each LED (7, 8, 9) being selected solely from the group comprising: - a first LED (7) emitting green light with a nominal wavelength between 513 nanometers and 543 nanometers, - a second LED (8) emitting amber light with a nominal wavelength between 583 nanometers and 605 nanometers, and - a third LED (9) emitting red-orange light with a nominal wavelength between 610 nanometers and 635 nanometers, the lighting device (4) comprising M first LEDs (7), N second LEDs (8) and P third LEDs (9), with N ≥ 1, M ≥ 1 and P ≥ 1. The invention also relates to an outdoor lamppost comprising at least one such lighting device (4). Figure for the abridged version: Fig. 3

1. Name of the Design Product: Graphical User Interface for Gas-Electric Dual-Function Stove Used in Electronic Devices. 2. Use of the Design Product: An electronic device. 3. Design Key Points of the Design Product: Lies in the graphical user interface. 4. Picture or Photo Best Showing the Design Key Points: The front view of Design 1. 5. Design 1 is designated as the basic design. 6. Uses of the graphical user interface: Design 1 is mainly used for gas-electric dual-purpose stoves. The power-on state of Design 1 is the main view interface of Design 1, the power-off state of Design 1 is the interface change state diagram 1 of Design 1, and clicking the power button to enter the standby state is the interface change state diagram 2 of Design 1; Design 2 is mainly used for gas-electric dual-purpose stoves. The power-on state of Design 2 is the main view interface of Design 2, the power-off state of Design 2 is the interface change state diagram 1 of Design 2, and clicking the power button to enter the standby state is the interface change state diagram 2 of Design 2. After clicking the plus and minus buttons to set the fire power level, it starts to work. During the working state, the orange light bar shows a breathing effect, which is the interface change state diagram 3 of Design 2. Clicking the timing button to start the timing setting, and the working duration can be adjusted by the plus and minus buttons, which is the interface change state diagram 4 of Design 2. When the timed work ends, it is the interface change state diagram 5 of Design 2. After the work ends, the orange light bar remains fully lit; Design 3 is mainly used for gas-electric dual-purpose stoves. The power-on state of Design 3 is the main view interface of Design 3, the power-off state of Design 3 is the interface change state diagram 1 of Design 3, and clicking the power button to enter the standby state is the interface change state diagram 2 of Design 3. Clicking the soup-making button to enter the soup-making mode for work is the interface change state diagram 3 of Design 3. During the working state, the orange light bar shows a breathing effect; Design 4 is mainly used for gas-electric dual-purpose stoves. The power-on state of Design 4 is the main view interface of Design 4, the power-off state of Design 4 is the interface change state diagram 1 of Design 4, and clicking the power button to enter the standby state is the interface change state diagram 2 of Design 4. Clicking the stewing button to enter the stewing mode for work is the interface change state diagram 3 of Design 4. During the working state, the orange light bar shows a breathing effect; Design 5 is mainly used for gas-electric dual-purpose stoves. The power-on state of Design 5 is the main view interface of Design 5, the power-off state of Design 5 is the interface change state diagram 1 of Design 5, and clicking the power button to enter the standby state is the interface change state diagram 2 of Design 5. Clicking the braising button to enter the braising mode for work is the interface change state diagram 3 of Design 5. During the working state, the orange light bar shows a breathing effect; Design 6 is mainly used for gas-electric dual-purpose stoves. The power-on state of Design 6 is the main view interface of Design 6, the power-off state of Design 6 is the interface change state diagram 1 of Design 6, and clicking the power button to enter the standby state is the interface change state diagram 2 of Design 6. Clicking the one-key high-fire button to enter the 9th gear fire power level to start work is the interface change state diagram 3 of Design 6. During the working state, the orange light bar shows a breathing effect; Design 7 is mainly used for gas-electric dual-purpose stoves. The power-on state of Design 7 is the main view interface of Design 7, the power-off state of Design 7 is the interface change state diagram 1 of Design 7, and clicking the power button to enter the standby state is the interface change state diagram 2 of Design 7. Clicking the sauce-reduction trusteeship button to enter the sauce-reduction trusteeship work is the interface change state diagram 3 of Design 7. During the working state, the orange light bar shows a breathing effect;Design 8 is for a gas-electric dual-purpose stove. The power-on state of Design 8 is the front view interface of Design 8. The shutdown state of Design 8 is the interface change state diagram 1 of Design 8. Clicking the power button to enter the standby state is the interface change state diagram 2 of Design 8. Clicking the constant temperature mode button to enter the constant temperature mode selection state is the interface change state diagram 3 of Design 8. The selected item keeps flashing. Clicking the plus / minus button to set the temperature of the constant temperature mode is the interface change state diagram 4 of Design 8. Clicking the start / pause button to enter the preheating state of the constant temperature mode is the interface change state diagram 5 of Design 8. After reaching the set temperature, it enters the working state of the constant temperature mode, which is the interface change state diagram 6 of Design 8. Under the working state, the orange light bar shows a breathing effect; Design 9 is for a gas-electric dual-purpose stove. The power-on state of Design 9 is the front view interface of Design 9. The shutdown state of Design 9 is the interface change state diagram 1 of Design 9. Clicking the power button to enter the standby state is the interface change state diagram 2 of Design 9. Long-pressing the child lock button to lock the screen is the interface change state diagram 3 of Design 9. At this time, touching other buttons is invalid.;