Abstract: A hybrid organic-inorganic conductive thin film comprising an organic layer and a plurality of inorganic particles is disclosed, wherein the plurality of inorganic particles comprises a plurality of Cu particles that have an average particle size in a range between 20 nm and 45 nm. This hybrid organic-inorganic conductive thin film is allowed to be used as a hole injection layer (HIL) or a hole transport layer (HTL), so as to be applied in the manufacture of QLED element, OLED element, organic photovoltaic element, hybrid inorganic-organic photovoltaic element, O-FET, O-TFT, or photoreceptor. Moreover, experiment data have proved that, compared to the regular OLED element, the OLED element having the HIL made of the hybrid organic-inorganic conductive thin film has a significant enhancement in device efficiency.

Abstract: A manufacturing method of an organic light-emitting diode is provided in the present disclosure. The manufacturing method of the organic light-emitting diode includes steps as follows. A substrate is provided and a layered structure forming step is performed. In the layered structure forming step, an anode layer, a scattering layer, an emissive layer and a cathode layer are sequentially formed on the substrate, so as to obtain an organic light-emitting diode. A material of the scattering layer is a quasicrystalline material.

Abstract: A device for simply determining maximum permissible exposure time (MPE) of retina is disclosed, which principally comprises a light receiving unit and a core processor that is provided with a color temperature determining unit, a luminous flux determining unit and a calculating unit therein. The color temperature determining unit and the luminous flux determining unit are configured for completing a color temperature determination and a luminous flux determination of a light provided by a light source, respectively. The calculating unit is configured for calculating a maximum permissible exposure time (MPE) of retina of the light source based on a use distance and a color temperature and a luminous flux of the light. By using this device, generic users are facilitated to achieve the calculation of any one kind of light's MPE by themselves, without needing to using any spectrometer.

Abstract: Disclosures of the present invention describe a method for inhibiting melatonin secretion. In the present invention, an illumination device is particularly configured for emitting an illumination light with a specific wavelength that is in a range between 581 nm and 590 nm, and a variety of experimental data have proved that the illumination light functions as a melatonin secretion inhibitor. Therefore, the illumination device of the present invention is evidenced to be suitable for use in light therapy, so as to treat seasonal affective disorder (SAD) by way of inhibiting melatonin secretion. Briefly speaking, after a SAD patient receives the irradiation of the illumination light having wavelength ranged in 581-590 nm for a treatment course, the SAD patient is eventually leaded to stay in good spirits and a stable condition of emotion, thereby curing the abnormal symptoms of sleepiness and emotional disorder.

Abstract: Disclosures of the present invention describe a device for measuring retina safety improvement index, comprising: a light receiving unit, a first data processing unit and a second data processing unit. The light receiving unit receives a first visible light and a second visible light that is obtained by letting the first visible light pass through a blue light blocking product. The first data processing unit calculates a first maximum permissible exposure (MPE) of the first visible light and a second MPE of the second visible light. The second data processing unit calculates a retina safety improvement (RSI) index based on the first MPE and the second MPE. As such, by using this device, a consumer is facilitated to know how much eyes-protecting ability does a specific blue light blocking product have, without needing to read any numeric value of blue light filtering percentage and/or unfamiliar spectrogram.

Abstract: A manufacturing method of an organic light-emitting diode is provided in the present disclosure. The manufacturing method of the organic light-emitting diode includes steps as follows. A substrate is provided and a layered structure forming step is performed. In the layered structure forming step, an anode layer, a scattering layer, an emissive layer and a cathode layer are sequentially formed on the substrate, so as to obtain an organic light-emitting diode. A material of the scattering layer is a quasicrystalline material.

Abstract: A device having functionality of eye protection is disclosed, which principally comprises a display main body and a light parameter regulating unit. The light parameter regulating unit is adopted for regulating a color temperature (CT) of a specific light that is radiated from the display main body down to be below 3000K. Moreover, the specific light is eventually regulated down to have a minimum CT of 2000K, and an illuminance of the specific light is steppedly dimmed to be close to 0 lx. Experimental data have proved that, after being applied with the light parameter regulating process, a value of MPE of the specific light is largely increased, and a ratio of MSS is significantly lowered. In addition, when a user is watching the display device, the illuminance of the specific light can also be automatically adjusted to approach an illuminance of an ambient light.

Abstract: A device for simply determining maximum permissible exposure time (MPE) of retina is disclosed, which principally comprises a light receiving unit and a core processor that is provided with a color temperature determining unit, a luminous flux determining unit and a calculating unit therein. The color temperature determining unit and the luminous flux determining unit are configured for completing a color temperature determination and a luminous flux determination of a light provided by a light source, respectively. The calculating unit is configured for calculating a maximum permissible exposure time (MPE) of retina of the light source based on a use distance and a color temperature and a luminous flux of the light. By using this device, generic users are facilitated to achieve the calculation of any one kind of light's MPE by themselves, without needing to using any spectrometer.

Abstract: Disclosures of the present invention describe a device for measuring retina safety improvement index, comprising: a light receiving unit, a first data processing unit and a second data processing unit. The light receiving unit receives a first visible light and a second visible light that is obtained by letting the first visible light pass through a blue light blocking product. The first data processing unit calculates a first maximum permissible exposure (MPE) of the first visible light and a second MPE of the second visible light. The second data processing unit calculates a retina safety improvement (RSI) index based on the first MPE and the second MPE. As such, by using this device, a consumer is facilitated to know how much eyes-protecting ability does a specific blue light blocking product have, without needing to read any numeric value of blue light filtering percentage and/or unfamiliar spectrogram.

Abstract: Disclosures of the present invention describe a method for inhibiting melatonin secretion. In the present invention, an illumination device is particularly configured for emitting an illumination light with a specific wavelength that is in a range between 581 nm and 590 nm, and a variety of experimental data have proved that the illumination light functions as a melatonin secretion inhibitor. Therefore, the illumination device of the present invention is evidenced to be suitable for use in light therapy, so as to treat seasonal affective disorder (SAD) by way of inhibiting melatonin secretion. Briefly speaking, after a SAD patient receives the irradiation of the illumination light having wavelength ranged in 581-590 nm for a treatment course, the SAD patient is eventually leaded to stay in good spirits and a stable condition of emotion, thereby curing the abnormal symptoms of sleepiness and emotional disorder.

Abstract: Disclosures of the present invention describe a method and device for stimulating biological fermentation. In the present invention, a light source is particularly used for stimulating a biological fermentation by supplying an illumination light with a color temperature in a range between 1600K and 4300K. Moreover, a variety of experimental data have proved that, the illumination light is indeed helpful in stimulating the biological fermentation occurring in an object under fermentation so as to enhance a rate of ethanol fermentation. It is worth further explaining that, the method and the device for stimulating biological fermentation can be applied in any one type of fermentation apparatus.

Abstract: Disclosures of the present invention describe a human body-friendly light source constituted by at least one lighting unit and a plurality of color temperature (CT) reducing films stacked to each other. The CT reducing films are connected to a light emission surface of the lighting unit, so as to apply a color temperature reducing treatment to a light emitted from the lighting unit. Exponential data have proved that, two or more stacked CT reducing films exhibit an apparent color temperature reducing effect on the light. Exponential data have proved that, with the increasing of the stack numbers of the CT reducing films, the light is concerted to an orange-white light with color temperature in a range of 1,000-2,500 K, so as to make a sensitivity of melatonin suppression in response to the light be getting lower.

Abstract: Disclosures of the present invention describe a device for measuring melatonin suppression induced by light source. The device consists of a light receiving unit, a pre-processor, a main processor, and a display unit. In the main processor, a first action spectrum generating unit is provided to convert a first light spectrum to first action spectrum, a second action spectrum generating unit is installed for converting a second light spectrum to second action spectrum, and a spectrum integrating unit is configured to produce a total action spectrum by integrating the first action spectrum with the second action spectrum. Therefore, the total action spectrum is evidenced can be used for describing the melatonin suppression power of both a short-wavelength light (<460 nm) and the long-wavelength light by high correctness.

Abstract: Disclosures of the present invention describe a device for measuring melatonin suppression induced by light source. The device consists of a light receiving unit, a pre-processor, a main processor, and a display unit. In the main processor, a first action spectrum generating unit is provided to convert a first light spectrum to first action spectrum, a second action spectrum generating unit is installed for converting a second light spectrum to second action spectrum, and a spectrum integrating unit is configured to produce a total action spectrum by integrating the first action spectrum with the second action spectrum. Therefore, the total action spectrum is evidenced can be used for describing the melatonin suppression power of both a short-wavelength light (<460 nm) and the long-wavelength light by high correctness.

Abstract: Disclosures of the present invention describe a luminance and color temperature tunable (LCTT) tandem OLED, which mainly consists of a transparent conductive substrate, a HTL, a first lighting unit, a first carrier generation unit, a second lighting unit, a second carrier generation unit, a third lighting unit, an ETL, and a cathode electrode. The first lighting unit is designed to emit a cold-white light, a pure-white light or an orange-white light, the second lighting unit is designed to emit a warm-white light, and third lighting unit is designed to emit an orange-white light, a pure-white light or a cold-white light corresponding to the first lighting unit. By such arrangement, it is easy for a user to make the LCTT tandem OLED provide an illumination with user-desirable color temperature and illuminance by using a control interface to electrically drive the three lighting units, either individually or simultaneously.

Abstract: Disclosures of the present invention describe a luminance and color temperature tunable (LCTT) tandem OLED, which mainly consists of a transparent conductive substrate, a HTL, a first lighting unit, a first carrier generation unit, a second lighting unit, a second carrier generation unit, a third lighting unit, an ETL, and a cathode electrode. The first lighting unit is designed to emit a cold-white light, a pure-white light or an orange-white light, the second lighting unit is designed to emit a warm-white light, and third lighting unit is designed to emit an orange-white light, a pure-white light or a cold-white light corresponding to the first lighting unit. By such arrangement, it is easy for a user to make the LCTT tandem OLED provide an illumination with user-desirable color temperature and illuminance by using a control interface to electrically drive the three lighting units, either individually or simultaneously.

Abstract: Disclosures of the present invention describe a luminance and color temperature tunable light source consisting of a plurality of lighting elements and a plurality of light conversion units, wherein parts of the lighting elements are connected with one light conversion unit by a light emission surface thereof. According to the particular design of the present invention, part of the light conversion units comprise only one light conversion film and the other part of the light conversion units comprise two or more light conversion film stacked to each other. By such design, when the lighting elements emit light with high color temperature, the light conversion unit would apply a light conversion process to the light, so as to modulate the color temperature and the luminance of the light. Therefore, the light source proposed by the present invention succeeds in exhibiting a brightness and color temperature individually-tunable function.

Abstract: Disclosures of the present invention describe a human body-friendly light source constituted by at least one lighting unit and a plurality of color temperature (CT) reducing films stacked to each other. The CT reducing films are connected to a light emission surface of the lighting unit, so as to apply a color temperature reducing treatment to a light emitted from the lighting unit. Exponential data have proved that, two or more stacked CT reducing films exhibit an apparent color temperature reducing effect on the light. Exponential data have proved that, with the increasing of the stack numbers of the CT reducing films, the light is concerted to an orange-white light with color temperature in a range of 1,000-2,500 K, so as to make a sensitivity of melatonin suppression in response to the light be getting lower.

Abstract: Disclosures of the present invention describe a smart light source consisting of an illumination module, a driver module, and a controller module. The illumination module are particularly designed to have a plurality of first lighting elements and at least one second lighting element, wherein one or more color temperature (CT) reducing films are disposed on a light emission surface of each of the first lighting elements. The first lights radiated from different first lighting elements are converted to a light resemblance with respect to sunlight in morning sessions, a light resemblance with respect to sunlight in early morning sessions or early evening sessions, an orange-white light, or an orange-red light by the CT reducing films. Moreover, the second lighting element is configured to emit a light resemblance with respect to sunlight in noon sessions or a light resemblance with respect to blue sky sunlight.

Abstract: The present invention mainly discloses a high-efficiency OLED device, comprising: an anode substrate, a hole transport layer (HTL), at least one emission layer (EML), an electron transport layer (ELT), and a cathode layer. In this high-efficiency OLED, LUMO level of the HTL, LUMO level of the EML and LUMO level of the ETL together form a step-like LUMO level, and HOMO level of the HTL, HOMO level of the EML and HOMO level of the ETL also constitute one step-like HOMO level. On the other hand, the electron mobility of the ETL is greater than the EML's electron mobility by at least 2 orders in this high-efficiency OLED. Moreover, a variety of experimental data have proved that, a specific OLED would certainly exhibits outstanding luminance performance as long as the specific OLED is made based on the above-mentioned physical characteristics limitations for the ETL, the EML and the HTL.