JP4867432B2 - Liquid crystal device and electronic device - Google Patents

Description

  The present invention relates to a liquid crystal device and an electronic apparatus.

In recent years, in a liquid crystal display device, in the case of a color liquid crystal display device,
It is necessary to display with excellent white balance. A white light emitting diode is often used as a light source of an illumination device used in the color liquid crystal display device. However, since this white light emitting diode has little light having a wavelength of 650 nm or more, which is an orange or red wavelength, when a white light emitting diode is used as a light source, the displayed image is strong in blue and light yellow, and red. It will be displayed very weakly. An illumination device for a color display liquid crystal device in consideration of this problem has been proposed (see, for example, Patent Document 1).

The liquid crystal display device described in Patent Document 1 uses three colors of LEDs, a red LED, a green LED, and a blue LED, as a light source, and compensates for red coloring.
JP 2002-229024 A

However, the illumination device of the color display device described in Patent Document 1 supplements the red LED in addition to the green LED and the blue LED that have been used in the past, and uses three colors of LEDs to compensate for the red color. Although the coloration of all the colors used in the above is improved, the white balance is insufficient because the spectral characteristics of the light transmitted from the color filter are not taken into consideration. As a result, there arises a problem that the color reproducibility is deteriorated.

SUMMARY An advantage of some aspects of the invention is that it provides a liquid crystal device and an electronic apparatus that are good in red color and excellent in white balance.

  In order to achieve the above object, the present invention provides the following means.

The liquid crystal device of the present invention includes a color filter having a plurality of colored layers formed corresponding to a plurality of sub-pixels constituting a pixel, and a first light source having a plurality of peak wavelengths from 430 nm to 630 nm in spectral characteristics. , and a second light source having a peak wavelength in 600Nm～680nm, and a lighting means you irradiates illumination light irradiated from the first light source and the second light source on the color filter, color The transmitted light that passes through the filter has peak wavelengths in three wavelength bands of 380 nm to 480 nm, 480 nm to 600 nm, and 600 nm to 680 nm, respectively, and 2 in at least one of the three wavelength bands. The peak of transmitted light having one peak wavelength and being in the remaining three wavelength bands excluding one of the two peak wavelengths. The peak wavelength of the transmitted light is set in order from the side where the transmittance of the transmitted light is small to the large side, and the peak wavelength of the transmitted light is set in order from the side where the emission luminance of the illumination light is large to the small side It sequentially corresponds to the peak wavelength of light.

In the liquid crystal device according to the present invention, by using a color filter having at least four kinds of colors, color reproducibility is improved and colors existing in the natural world can be faithfully reproduced. Furthermore, the peak wavelength of the transmitted light in the remaining three wavelength bands excluding one peak wavelength out of the two peak wavelengths is the peak wavelength going from the side with the smaller transmittance of the color filter toward the larger side. since the peak wavelength toward the lower side from the side-emitting luminance is large is sequential correspondence, and has excellent white balance.

The liquid crystal device of the present invention, the light source is preferably a fluorescent material for converting a portion of the emitted light into light containing a wavelength different from the wavelength of the light the light emission is applied.

In the liquid crystal device according to the present invention, illumination light having peak wavelengths corresponding to a plurality of colored layers can be obtained with one light source. This makes it possible to obtain excellent color with a simpler configuration.

In the liquid crystal device according to the present invention, for example, in the case of three color filters, 430 nm to 48 nm.
By providing a blue first light source having a peak wavelength of 0 nm and a green first light source having a peak wavelength of 500 nm to 630 nm, and a red second light source having a peak wavelength of 600 nm to 680 nm, according to the transmittance of the red colored layer A second illumination means having a different peak value can be used,
The white balance becomes better.

  An electronic apparatus according to the present invention includes the above-described liquid crystal device.

With this configuration, the liquid crystal device has a color filter with good red color development and excellent white balance, so that an electronic device capable of displaying a clearer image can be provided.

Hereinafter, embodiments of the present invention will be described with reference to the drawings. In addition, in each figure, in order to make each layer and each member the size which can be recognized on drawing, the scale is varied for every layer and each member.
[First Embodiment]
[Overall configuration of liquid crystal device]
FIG. 1 is a plan view showing the structure of the liquid crystal device according to the present embodiment, and FIG.
FIG. 3 is a diagram illustrating a cross-sectional configuration along the line -H ′, FIG. 3 is a diagram illustrating a circuit configuration of the liquid crystal device, FIG. 4 is a diagram illustrating spectral characteristics of a color filter of the liquid crystal device in FIG. These are figures which show the spectral characteristics of the light source unit of a liquid crystal device, and FIG. 6 is a figure which shows the chromaticity of the color filter of a liquid crystal device.

As shown in FIGS. 1 and 2, the liquid crystal device 1 according to the present embodiment includes a sealing material 7 in which a liquid crystal panel 10 including a pair of substrates, a TFT array substrate 4 and a color filter substrate 5 has a substantially rectangular frame shape in plan view. The TN (Twisted Nematic) type liquid crystal layer 8 having a positive dielectric anisotropy is enclosed in a region surrounded by the sealing material 7.

A peripheral parting 9 having a rectangular frame shape in plan view is formed along the inner peripheral side of the sealing material 7, and a region inside the peripheral parting is a display area 100. Moreover, as shown in FIG.
The liquid crystal panel 10 includes a light source unit (illuminating unit) 30 that irradiates light as a backlight.

In the display area 100, pixel areas (pixels) A are provided in a matrix. As shown in FIG. 2, the pixel area A is composed of four sub-pixels B that are the minimum unit of the display area 100.

Further, in the area outside the sealing material 7, the data line driving circuit 101 and the external circuit mounting terminal 1 are provided.
02 is formed along one side (lower side in the figure) of the TFT array substrate 4, and the scanning line driving circuit 104 is formed along two sides adjacent to the one side to constitute a peripheral circuit.

On the remaining one side (illustrated upper side) of the TFT array substrate 4, a plurality of wirings 105 are provided for connecting the scanning line driving circuits 104 on both sides of the display area 100. In addition, an inter-substrate conductive material 106 for providing electrical continuity between the TFT array substrate 4 and the color filter substrate 5 is disposed at each corner of the color filter substrate 5. The liquid crystal device 1 of this embodiment is configured as a transmissive liquid crystal device, modulates light from a light source (not shown) arranged on the TFT array substrate 4 side, and emits it as display light from the color filter substrate 5 side. It is like that.

  FIG. 3 is an equivalent circuit diagram of the liquid crystal device.

As shown in the figure, a plurality of pixel areas A are arranged in a matrix in the display area 100 of the liquid crystal device, and pixel electrodes 11 are arranged in the sub-pixels B of the pixel area A, respectively. . A TFT element 12 is formed on the side of the pixel electrode 11. TFT
The element 12 is a switching element that controls energization to the pixel electrode 11. A data line 6 a is connected to the source side of the TFT element 12. Image data S1, S2,..., Sn are supplied to each data line 6a from, for example, a data line driving element.

A scanning line 3 a is connected to the gate side of the TFT element 12. In the scanning line 3a,
For example, scanning signals G1, G2,..., Gm are pulsed at predetermined timing from the scanning line driving element.
Is to be supplied. Further, the pixel electrode 11 is connected to the drain side of the TFT element 12.

When the TFT element 12 as a switching element is turned on for a certain period by the scanning signals G1, G2,..., Gm supplied from the scanning line 3a, the image signals S1, S2,. Sn is written to the sub-pixel B in the pixel area A through the pixel electrode 11 at a predetermined timing.

Image signals S1, S2,..., Sn written at a predetermined level in the sub-pixel B of the pixel region A are held for a certain period by a liquid crystal capacitor formed between the pixel electrode 11 and a common electrode described later.
In order to prevent the stored image signals S1, S2,..., Sn from leaking, a storage capacitor 14 is formed between the pixel electrode 11 and the capacitor line 3b, and is arranged in parallel with the liquid crystal capacitor. . Thus, when a voltage signal is applied to the liquid crystal, the alignment state of the liquid crystal molecules changes depending on the applied voltage level. As a result, the light source light incident on the liquid crystal is modulated to generate image light.

  Next, details of the liquid crystal panel 10 will be described.

As shown in FIG. 2, a plurality of scanning lines (not shown) and a plurality of data lines (not shown) are formed in a matrix on the surface of the TFT array substrate 4 on the liquid crystal layer 8 side. A pixel electrode 11 is provided for each sub-pixel B in the pixel region A surrounded by the data line. A TFT element 12 is provided at a position where the scanning line and the data line intersect, and each pixel electrode 11 is connected to the data line via the TFT element 12. Accordingly, when a signal is applied to the scanning line and the data line, the TFT element 12 is turned on / off, and the signal is written to the pixel electrode 11. A horizontal alignment film 13 that has been subjected to a rubbing process is formed on the entire surface of the TFT element 12 and the pixel electrode 11.

On the surface of the color filter substrate 5 on the liquid crystal layer 8 side, a color filter 16, an overcoat layer 17, a common electrode 18, and a horizontal alignment film 19 are laminated in this order.

The color filter 16 includes a light shielding portion 16a and red, green, and blue colored portions (colored layers).
16R, 16G, and 16B, and the light shielding portion 16a is formed in a matrix so as to partition the colored portions 16R, 16G, and 16B. The light shielding portion 16a is made of, for example, a black photosensitive resin film. Details of the color filter will be described later.

The alignment films 13 and 19 are rubbed so that the liquid crystal molecules of the liquid crystal layer 8 are horizontally aligned in the initial alignment state.

The pixel electrode 11 and the common electrode 18 are made of a light-transmitting conductive material such as ITO, and the alignment films 13 and 19 are made of polyimide or the like. In addition, TFT
The array substrate 4 and the color filter substrate 5 are light-transmitting substrates made of a transparent material such as glass, for example.

[Color filter]
Next, the configuration of the color filter 16 will be described.

The color filter 16 is formed 3 corresponding to the plurality of sub-pixels B as shown in FIG.
One red colored portion 16R, a green colored portion 16G, and a blue colored portion 16B are sequentially provided, and one pixel region A is configured. Accordingly, each of the RGB colored portions 16R, 16G, and 16B is irradiated with the illumination light emitted from the light source unit 30, thereby observing light in a predetermined wavelength region (predetermined color) included in the illumination light. Permeate to the side. Further, in the color filter 16, such colored portions 16 </ b> B, 16 </ b> R, and 16 </ b> G are formed over the entire display area 100.

  Next, spectral characteristics of the color filter 16 will be described.

As shown in FIG. 4, the wavelength selection characteristics of the three colored portions 16B, 16G, and 16R of blue (Blue), green (Green), and red (Red) of the color filter 16 are long wavelength from the short wavelength side of visible light. It is distributed in order toward the side. Therefore, the color filter 16 selectively transmits the three peak wavelengths with respect to the illumination light emitted from the light source unit 30.

Specifically, the peak wavelength of light transmitted through the blue colored portion 16B is 380 nm to 520 n.
m, the peak wavelength of the light transmitted through the green colored portion 16G is 470 nm to 600 nm, and the peak wavelength of the light transmitted through the red colored portion 16R is 580 nm or more. Also,
The transmittance of the blue colored portion 16B is 68%, and the transmittance of the green colored portion 16G is 77%.
The transmittance of the red colored portion 16R is 95%. That is, the transmittance decreases in the order of the red colored portion 16R, the green colored portion 16G, and the blue colored portion 16B.

The transmittance referred to here indicates the highest transmittance within the peak wavelength. Further, the transmittance of the red colored portion 16R is an average value of the saturated transmittance.

[Light source unit]
Next, the configuration of the light source unit 30 will be described.

The light source unit 30 functions as an illuminating unit of the present invention. Illuminating light including a plurality of peak wavelengths in spectral characteristics is emitted in a uniform amount with respect to the liquid crystal layer 8 and colored portions 16R, 16G, 16B is irradiated with illumination light. As shown in FIG. 2, such a light source unit 30 includes a light source 31 and a light guide plate 32, and uniformly spreads light emitted from the light source 31 inside the light guide plate 32 to illuminate the liquid crystal panel 10. Is emitted. The light source 31 is an LED, and the LED emits blue light (peak wavelength corresponding to the peak wavelength of the colored portion 16B), and more than one type of fluorescent material (colored portions 16R, 16).
A fluorescent material corresponding to the peak wavelength of G) is applied. Further, desired spectral characteristics can be obtained by adjusting the mixing ratio of the fluorescent materials. The light guide plate 32 is made of a resin such as acrylic.

  Next, the spectral characteristics of the light source unit 30 will be described.

As shown in FIG. 5, the light source unit 30 has peak wavelengths in order of blue, green, and red from the short wavelength side to the long wavelength side of visible light.

Specifically, the peak wavelength of light emitted from the light source unit 30 is 430 nm to 500 nm.
nm, 500 nm to 580 nm, and 580 nm to 680 nm.

The peak wavelength of 430 nm to 500 nm of light emitted from these light source units 30 corresponds to the peak wavelength of the light transmitted through the colored portion 16B, and the peak wavelength of 500 nm to 580 nm is
Corresponding to the peak wavelength of light transmitted through the colored portion 16G, the peak wavelengths of 580 nm to 680 nm correspond to the peak wavelength of light transmitted through the colored portion 16R.

The spectral radiance at the peak wavelength of 430 nm to 500 nm is 6500 W / sr / m ^2.
) And the spectral radiance at a peak wavelength of 500 nm to 580 nm is 3000 W / sr / m
² and the spectral radiance at the peak wavelength of 580 nm to 680 nm is 2500 W / sr / m ^2.
It is. That is, the spectral radiance is 430 nm to 500 nm, 500 nm to 580 nm.
, 580 nm to 680 nm in order.

  The light emission luminance referred to here indicates the highest luminance within the peak wavelength.

From the above, the blue colored portion 16 having the smallest transmittance among the colored portions 16R, 16G, and 16B.
B corresponds to 430 nm to 500 nm, which is the peak wavelength with the largest emission luminance, and 430 nm to 50 nm for the green colored portion 16G having the next lowest transmittance after the blue colored portion 16B.
The peak wavelength of 500 nm to 580 nm, which is the next largest emission luminance after 0 nm, corresponds, and the red colored portion 16R having the highest transmittance corresponds to the peak wavelength of 580 nm to 680 nm, which has the lowest surface luminance. Yes.

In the liquid crystal device 1 according to the present embodiment, since the peak wavelength of light emitted from the light source unit 30 corresponds to the peak wavelength of light transmitted through the coloring portions 16R, 16G, and 16B, all colors can be developed. It becomes possible to improve. Furthermore, since the peak wavelength from the color filter 16 toward the smaller side corresponds to the peak wavelength from the light source unit 30 toward the smaller side, the liquid crystal has excellent white balance. Device 1
Can be obtained.

Here, display of a conventional liquid crystal panel (for example, when a light source with low emission luminance is associated with a red colored portion with low transmittance and a light source with high emission luminance is associated with a green colored portion with high transmittance) The chromaticity (dotted line) and the display chromaticity (solid line) of the liquid crystal panel 10 of the present embodiment are compared with the sRGB chromaticity. As shown in FIG. 6, it can be seen that the liquid crystal panel of the present embodiment has a red color close to the standard of sRGB and an excellent white balance as compared with the conventional liquid crystal panel 10.

As the light source unit, in addition to a single light source 31 coated with a fluorescent material corresponding to the colored portions 16R, 16G, and 16B, as shown in FIG. 7A, 2 to 430 nm to 630 nm.
You may provide 1st LED (1st light source) which has one peak wavelength, and 2nd LED (2nd light source) which has a peak wavelength in 600 nm-680 nm. Specifically, the first LED is
It has two peak wavelengths of 430 nm to 480 nm and 480 nm to 630 nm.
Further, the emission luminance distribution of light emitted from the light source unit (light synthesized from the first LED and the light emitted from the second LED) has a peak wavelength as shown in FIG. Is 430 nm to 480 nm, the spectral radiance is 6000 W / sr / m ² , the peak wavelength is 480 nm to 630 nm, the spectral radiance is 1800 W / sr / m ² , and the peak wavelength is 600 nm to 680 nm The spectral radiance is 1700 W / sr / m ² .

When this light source unit is applied to the liquid crystal device 1, a second LED having a peak value corresponding to the transmittance of the red colored portion 16R can be used, and a liquid crystal device with better white balance can be provided. It becomes.

Further, in the present embodiment, the peak wavelength from all the colored portions 16R, 16G, and 16B of the color filter 16 toward the larger side from the smaller transmittance is the peak wavelength toward the smaller side from the larger light emission luminance of the light source unit 30. However, the magnitude relationship between the transmittances of the two colored portions may be reversed and correspond to the magnitude relationship between the light emission luminances of the light source unit 30. As a result, the design becomes easier and the white balance can be improved.
[Second Embodiment]
Next, a second embodiment according to the present invention will be described with reference to FIGS. In each embodiment described below, portions having the same configuration as those of the liquid crystal device 1 according to the first embodiment described above are denoted by the same reference numerals and description thereof is omitted.

The liquid crystal device according to the present embodiment is different from the first embodiment in that the color filter 40 has four colors. That is, as shown in FIG. 8, the color filter 40 includes a light shielding portion 40a and red, emerald green, yellow green, and blue colored portions (colored layers).
40R, 40EG, 40YG, 40B, and the light-shielding portion 40a includes the colored portions 40R, 40E.
G, 40YG, and 40B are partitioned to form a matrix.

The color filter 40 is arranged in the order of the colored portions 40R, 40EG, 40B, and 40YG.

  Next, spectral characteristics of the color filter 40 will be described.

As shown in FIG. 9, the color filter 40 has blue (Bleu), emerald green (
Emerald Green), yellow-green (Yellow Green), red (Red)
The wavelength selection characteristics of the colored portions 40B, 40EG, 40YG, and 40R are sequentially distributed from the short wavelength side to the long wavelength side of visible light. Therefore, the color filter 40 selectively transmits the four peak wavelengths with respect to the illumination light emitted from the light source unit.

Specifically, the peak wavelength of light transmitted through the blue colored portion 40B is 380 nm to 520 n.
m, and the peak wavelength of the light transmitted through the emerald green colored portion 40EG is 470.
The peak wavelength of the light transmitted through the yellowish green colored portion 40YG is 480 nm to 560 nm.
nm to 600 nm, and the peak wavelength of light transmitted through the red colored portion 40R is 580 nm.
That's it.

The transmittance of the blue colored portion 40B is 68%, the transmittance of the emerald green colored portion 40EG is 58%, and the transmittance of the yellow-green colored portion 40YG is 74%. The transmittance of the red colored portion 40R is about 95%. That is, the transmittance decreases in the order of the red colored portion 40R, the yellow-green colored portion 40YG, the blue colored portion 40B, and the emerald green colored portion 40EG.

  The transmittance referred to here indicates the highest transmittance within the peak wavelength.

[Light source unit]
The light source unit (illuminating means) includes a light source and a light guide plate.
B, 4 LED corresponding to the peak wavelength of the light which permeate | transmits the coloring part 40EG, the coloring part 40YG, and the coloring part 40R, ie, 1st LED, 2nd LED, 3rd LED, and 4th LED are comprised.

  Next, spectral characteristics of the light source unit will be described.

As shown in FIG. 10A, each light source of the light source unit has peak wavelengths in order of blue, emerald green, yellow green, and red from the short wavelength side to the long wavelength side of visible light. .

Specifically, the peak wavelength of the first LED is 380 nm to 500 nm, the peak wavelength of the second LED is 480 nm to 600 nm, and the peak wavelength of the third LED is 530 nm to 6 nm.
30 nm, and the peak wavelength of the fourth LED is 580 nm to 700 nm.

Further, the light emission luminance distribution of the light emitted from the light source unit (the light synthesized from the light emitted from the first, second, third, and fourth LEDs) is the first LED as shown in FIG. The peak wavelength of the light emitted from the LED is 380 nm to 480 nm, the spectral radiance is 5000 W / sr / m ² , the peak wavelength of the light emitted from the second LED is 520 nm to 570 nm, and the spectral radiance is 3200 W / sr / m 2. ² and the peak wavelength of the light emitted from the third LED is 570 nm to
600 nm, the spectral radiance is 2900 W / sr / m ² , the peak wavelength of the light emitted from the fourth LED is 630 nm to 680 nm, and the spectral radiance is 2600 W / sr / m ² .

  The light emission luminance referred to here indicates the highest luminance within the peak wavelength.

Here, within the wavelength band of 480 nm to 600 nm, the peak wavelength 470 nm to 560 nm emitted from the emerald green colored portion 40EG of the color filter 40 and the peak wavelength 480 nm to 600 nm emitted from the yellow green colored portion 40YG are included. Two are included.

And among the colored portions 40R, 40YG, 40B, the blue colored portion 4 having the smallest transmittance.
In 0B, the peak wavelength with the highest light emission brightness among the first, third, and fourth LEDs is 38.
0 nm to 500 nm corresponds to the yellowish green colored portion 40YG, which has the next smallest transmittance after the blue colored portion 40B, and corresponds to the peak wavelength 530 nm to 630 nm, which is the next largest emission luminance after 380 nm to 500 nm. In the red colored portion 40R having the highest transmittance,
The peak wavelength with the smallest surface luminance is 580 nm to 700 nm.

In the liquid crystal device according to the present embodiment, four types of coloring portions 40R, 40EG, 40B, and 40YG.
By using the color filter 40 having a color reproducibility is improved compared to the case of three colors,
Colors that exist in nature can be faithfully reproduced. Further, the colored portions 40R, 40YG,
Since the peak wavelength of 40B from the low transmittance side toward the large side corresponds to the peak wavelength from the light emission luminance side of the light source unit 30 toward the small side in order, the liquid crystal device 70 with excellent white balance is obtained. It becomes possible.

Further, since the color filter 40 has two peak wavelengths in the wavelength band of 480 nm to 600 nm, that is, the green wavelength band, it is possible to improve the green reproducibility. With such a configuration, in particular, since the human eye has a high green visibility, more vivid display can be performed.
[Electronics]
FIG. 11 shows the liquid crystal device 1 or the liquid crystal device 70 of the first embodiment or the second embodiment.
It is a figure which shows an example of the electronic device which mounts. A mobile phone 200 shown in FIG. 11 includes the liquid crystal device 1 of the above embodiment as a display unit 201. With such a configuration, since the color filter 16 or the color filter 40 is in a good state, an electronic device capable of displaying a clearer image can be provided.

The technical scope of the present invention is not limited to the above embodiment, and various modifications can be made without departing from the spirit of the present invention.

For example, the color filter 40 has two peak wavelengths of light transmitted through the color filter 40 in the wavelength band of 480 nm to 600 nm, but not limited to this, depending on the transmittance of other colored portions, etc. In addition, a color filter having two peak wavelengths in at least one of the wavelength bands of 380 nm to 480 nm and 600 nm or more may be used.

1 is a diagram illustrating an overall configuration of a liquid crystal device according to a first embodiment of the present invention. FIG. 2 is a cross-sectional view taken along line H-H ′ of the liquid crystal device of FIG. 1. It is a figure which shows the circuit structure of the liquid crystal device which concerns on this embodiment. It is a figure which shows the spectral characteristic of the color filter used for the liquid crystal device of FIG. It is a figure which shows the spectral characteristic of the light source unit used for the liquid crystal device of FIG. It is the figure which compared the chromaticity of the liquid crystal device of this invention, and the chromaticity of the conventional liquid crystal device with sRGB chromaticity. It is a figure which shows the spectral characteristic of the modification of the light source unit of the liquid crystal device of this invention. It is a principal part enlarged view which shows the color filter of the liquid crystal device which concerns on 2nd Embodiment of this invention. It is a figure which shows the spectral characteristic of the color filter used for the liquid crystal device of FIG. It is a figure which shows the spectral characteristic of (a) each light source of the light source unit used for the liquid crystal device of this invention, and (b) the spectral characteristic of the light inject | emitted from a light source unit. It is a perspective view which shows the whole structure of the electronic device of this invention.

Explanation of symbols

1, 70 ... Liquid crystal device, 16, 40 ... Color filter, 16R, 16G, 16B, 40R
, 40YG, 40EG, 40B ... colored portion (colored layer), 30 ... light source unit (illuminating means),
31 ... light source, 200 ... mobile phone (electronic device)

Claims (3)

A color filter having a plurality of colored layers formed corresponding to a plurality of sub-pixels constituting the pixel;
A first light source having a plurality of peak wavelengths in a spectral characteristic range from 430 nm to 630 nm; and a second light source having a peak wavelength in a range from 600 nm to 680 nm. The color filter includes the first light source and the second light source. a lighting means you irradiates illumination light irradiated from
With
The light transmitted through the front Symbol color filter, 380Nm～480nm in spectral characteristics, 480nm~600nm, respectively and having a peak wavelength within the three wavelength bands of 600nm ~680nm, at least one wavelength of said three wavelength bands The band has two peak wavelengths, and the peak wavelengths of the transmitted light in the remaining three wavelength bands excluding one of the two peak wavelengths are from the side where the transmittance of the transmitted light is small. The peak wavelength of the transmitted light set in order toward the larger side sequentially corresponds to the peak wavelength of the illumination light set in order from the higher emission luminance of the illumination light toward the smaller side. Liquid crystal device. The first light source or the second light source is coated with a fluorescent material that converts a part of the emitted light into light having a wavelength different from the wavelength of the emitted light. Item 2. A liquid crystal device according to item 1. An electronic apparatus comprising the liquid crystal device according to claim 1.

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