JP2016054184A5

JP2016054184A5 -

Info

Publication number: JP2016054184A5
Application number: JP2014178928A
Authority: JP
Filing date: 2014-09-03
Publication date: 2018-04-26
Anticipated expiration: 2034-09-03

Claims

A light emitting device having a light emitting element and a control element,
At least as a light emitting element
Blue semiconductor light emitting device,
Green phosphor, and
Having a red phosphor,
Let the wavelength be λ (nm),
The spectral distribution of the light emitted from the light emitting element in the main radiation direction is Φ _elm (λ), the spectral distribution of the light emitted from the light emitting device in the main radiation direction is φ _SSL (λ),
The light having Φ _elm (λ) does not satisfy at least one of the following conditions I to IV , and the light having φ _SSL (λ) satisfies all of the following conditions I to IV .
Condition I:
The CIE 1976 L ^* a ^* b ^* color space a ^* value and b ^* value of the following 15 types of modified Munsell color charts # 01 to # 15 when the illumination by the target light is mathematically assumed are a ^* _N , b ^* _n (where n is a natural number from 1 to 15)
CIE 1976 L ^* a ^* b ^* color of the 15 kinds of modified Munsell color charts when the illumination with the reference light selected according to the correlated color temperature T (K) of the target light is mathematically assumed When the a ^* value and b ^* value in space are a ^* _nref and b ^* _nref (where n is a natural number from 1 to 15), the saturation difference ΔC _n is
−4.00 ≦ ΔC _n ≦ 8.00 (n is a natural number from 1 to 15)
It is.
Condition II:
The average saturation difference in the target light represented by the following formula (3) is

It is.
Condition III:
When the maximum value of saturation difference in the target light is ΔC _max and the minimum value of saturation difference in the target light is ΔC _min , the maximum value of the saturation difference and the minimum value of the saturation difference The difference | ΔC _max −ΔC _min |
2.00 ≦ | ΔC _max −ΔC _min | ≦ 10.00
It is.
Note that ΔC _n = √ {(a ^* _n ) ² + (b ^* _n ) ² } −√ {(a ^* _nref ) ² + (b ^* _nref ) ² }.
15 kinds of modified Munsell color chart
# 01 7.5 P 4/10
# 02 10 PB 4/10
# 03 5 PB 4/12
# 04 7.5 B 5/10
# 05 10 BG 6/8
# 06 2.5 BG 6/10
# 07 2.5 G 6/12
# 08 7.5 GY 7/10
# 09 2.5 GY 8/10
# 10 5 Y 8.5 / 12
# 11 10 YR 7/12
# 12 5 YR 7/12
# 13 10 R 6/12
# 14 5 R 4/14
# 15 7.5 RP 4/12
Condition IV:
The hue angle in the CIE 1976 L ^* a ^* b ^* color space of the fifteen kinds of modified Munsell color charts when the illumination by the target light is mathematically assumed is θ _n (degree) (where n is 1 to 15) Natural number)
Hue in the CIE 1976 L ^* a ^* b ^* color space of the 15 types of modified Munsell color chart when mathematically assuming illumination with a reference light selected according to the correlated color temperature T of the target light When the angle is θ _nref (degree) (where n is a natural number from 1 to 15), the absolute value of the hue angle difference | Δh _n |
0.00 degrees ≦ | Δh _n | ≦ 12.50 degrees (n is a natural number from 1 to 15)
It is.
However, the Δh _{_n} = θ _n -θ _nref.

  A light emitting device having a light emitting element and a control element,
  At least as a light emitting element
  Blue semiconductor light emitting device,
  Green phosphor, and
  Having a red phosphor,
  Let the wavelength be λ (nm),
  The spectral distribution of the light emitted from the light emitting element in the main radiation direction is Φ _ｅｌｍelm (Λ), the spectral distribution of light emitted from the light emitting device in the main radiation direction is φ _ＳＳＬSSL (Λ)
  Φ _ｅｌｍelm The light having (λ) satisfies all of the following conditions I to IV, φ _ＳＳＬSSL A light emitting device characterized in that light having (λ) also satisfies all of the following conditions I to IV.
Condition I:
  CIE 1976 L of the following 15 types of modified Munsell color charts from # 01 to # 15 when the illumination by the target light is mathematically assumed ^＊* a ^＊* b ^＊* A in color space ^＊* Value, b ^＊* Each value is a ^＊* _ｎn , B ^＊* _ｎn (Where n is a natural number from 1 to 15)
  CIE 1976 L of the 15 types of modified Munsell color charts when the illumination with the reference light selected according to the correlated color temperature T (K) of the target light is mathematically assumed. ^＊* a ^＊* b ^＊* A in color space ^＊* Value, b ^＊* Each value is a ^＊* _{ｎｒｅｆnref} , B ^＊* _{ｎｒｅｆnref} (Where n is a natural number from 1 to 15), the saturation difference ΔC _ｎn But,
  -4.00 ≦ ΔC _{ｎ n} ≦ 8.00 (n is a natural number from 1 to 15)
It is.
Condition II:
  The average saturation difference in the target light represented by the following formula (3) is

It is.
Condition III:
  ΔC is the maximum value of the saturation difference in the target light. _ｍａｘmax , The minimum value of the saturation difference in the target light is ΔC _ｍｉｎmin The difference between the maximum value of the saturation difference and the minimum value of the saturation difference | ΔC _ｍａｘmax -ΔC _ｍｉｎmin |
  2.00 ≦ | ΔC _ｍａｘmax -ΔC _ｍｉｎmin | ≦ 10.00
It is.
  However, ΔC _ｎn = √ {(a ^＊* _ｎn ) ^２2 + (B ^＊* _ｎn ) ^２2 } -√ {(a ^＊* _{ｎｒｅｆnref} ) ^２2 + (B ^＊* _{ｎｒｅｆnref} ) ^２2 }.
  15 kinds of modified Munsell color chart
  # 01 7.5 P 4/10
  # 02 10 PB 4/10
  # 03 5 PB 4/12
  # 04 7.5 B 5/10
  # 05 10 BG 6/8
  # 06 2.5 BG 6/10
  # 07 2.5 G 6/12
  # 08 7.5 GY 7/10
  # 09 2.5 GY 8/10
  # 10 5 Y 8.5 / 12
  # 11 10 YR 7/12
  # 12 5 YR 7/12
  # 13 10 R 6/12
  # 14 5 R 4/14
  # 15 7.5 RP 4/12
Condition IV:
  CIE 1976 L of the 15 kinds of modified Munsell color charts when mathematically assuming illumination by the target light ^＊* a ^＊* b ^＊* The hue angle in the color space is θ _ｎn (Degree) (where n is a natural number from 1 to 15)
  CIE 1976 L of the 15 types of modified Munsell color charts when mathematically assuming illumination with reference light selected according to the correlated color temperature T of the target light ^＊* a ^＊* b ^＊* The hue angle in the color space is θ _{ｎｒｅｆnref} (Degree) (where n is a natural number from 1 to 15), the absolute value of the hue angle difference | Δh _ｎn |
  0.00 degrees ≦ | Δh _ｎn | ≦ 12.50 degrees (n is a natural number from 1 to 15)
It is.
  However, Δh _ｎn = Θ _ｎn −θ _{ｎｒｅｆnref} And

  The light-emitting device according to claim 1 or 2,
  Φ _ｅｌｍelm The light having (λ) does not satisfy the following condition 1, and the φ _ＳＳＬSSL The light having (λ) satisfies the following condition 1.
Condition 1:
  The spectral distribution of the target light is φ (λ), the spectral distribution of the reference light selected according to the correlated color temperature T of the target light is φ _ｒｅｆref (Λ),
  The tristimulus values of the target light are (X, Y, Z),
  A reference light tristimulus value selected according to the correlated color temperature T is expressed as (X _ｒｅｆref , Y _ｒｅｆref , Z _ｒｅｆref )age,
  The normalized spectral distribution S (λ) of the target light and the standardized spectral distribution S of the reference light of the target light _ｒｅｆref (Λ) and the difference ΔS (λ) between these normalized spectral distributions,
  S (λ) = φ (λ) / Y
  S _ｒｅｆref (Λ) = φ _ｒｅｆref (Λ) / Y _ｒｅｆref
  ΔS (λ) = S _ｒｅｆref (Λ) −S (λ)
And define
  The wavelength that gives the longest wavelength maximum value of S (λ) in the wavelength range of 380 nm to 780 nm is λ. _{ＲＬ−ｍａｘRL-max} (Nm), the λ _{ＲＬ−ｍａｘRL-max} Longer than S (λ _{ＲＬ−ｍａｘRL-max} ) / 2, where there is a wavelength Λ4,
  Index A represented by the following formula (1) _ｃｇcg But,
  -10.0 <A _ｃｇcg   ≦ 120.0
And
  On the other hand, the wavelength giving the longest wavelength maximum value of S (λ) in the wavelength range of 380 nm to 780 nm is λ. _{ＲＬ−ｍａｘRL-max} (Nm), the λ _{ＲＬ−ｍａｘRL-max} Longer than S (λ _{ＲＬ−ｍａｘRL-max} ) / 2, where there is no wavelength Λ4,
  Index A represented by the following formula (2) _ｃｇcg But,
  -10.0 <A _ｃｇcg   ≦ 120.0
It is.

  The light-emitting device according to claim 1 or 2,
  Φ _ｅｌｍelm The light having (λ) satisfies the following condition 1 and the φ _ＳＳＬSSL A light-emitting device in which light having (λ) also satisfies the following condition 1.
Condition 1:
  The spectral distribution of the target light is φ (λ), the spectral distribution of the reference light selected according to the correlated color temperature T of the target light is φ _ｒｅｆref (Λ),
  The tristimulus values of the target light are (X, Y, Z),
  A reference light tristimulus value selected according to the correlated color temperature T is expressed as (X _ｒｅｆref , Y _ｒｅｆref , Z _ｒｅｆref )age,
  The normalized spectral distribution S (λ) of the target light and the standardized spectral distribution S of the reference light of the target light _ｒｅｆref (Λ) and the difference ΔS (λ) between these normalized spectral distributions,
  S (λ) = φ (λ) / Y
  S _ｒｅｆref (Λ) = φ _ｒｅｆref (Λ) / Y _ｒｅｆref
  ΔS (λ) = S _ｒｅｆref (Λ) −S (λ)
And define
  The wavelength that gives the longest wavelength maximum value of S (λ) in the wavelength range of 380 nm to 780 nm is λ. _{ＲＬ−ｍａｘRL-max} (Nm), the λ _{ＲＬ−ｍａｘRL-max} Longer than S (λ _{ＲＬ−ｍａｘRL-max} ) / 2, where there is a wavelength Λ4,
  Index A represented by the following formula (1) _ｃｇcg But,
  -10.0 <A _ｃｇcg   ≦ 120.0
And
  On the other hand, the wavelength giving the longest wavelength maximum value of S (λ) in the wavelength range of 380 nm to 780 nm is λ. _{ＲＬ−ｍａｘRL-max} (Nm), the λ _{ＲＬ−ｍａｘRL-max} Longer than S (λ _{ＲＬ−ｍａｘRL-max} ) / 2, where there is no wavelength Λ4,
  Index A represented by the following formula (2) _ｃｇcg But,
  -10.0 <A _ｃｇcg   ≦ 120.0
It is.

  The light-emitting device according to any one of claims 1 to 4,
  Φ _ｅｌｍelm The light having (λ) does not satisfy the following condition 2; _ＳＳＬSSL A light emitting device characterized in that light having (λ) satisfies the following condition 2.
Condition 2:
  The spectral distribution φ (λ) of the target light is the distance D from the black body radiation locus defined by ANSI C78.377. _ｕｖuv But,
  −0.0220 ≦ D _ｕｖuv   <0
It is.

  The light-emitting device according to any one of claims 1 to 4,
  Φ _ｅｌｍelm The light having (λ) satisfies the following condition 2 and the φ _ＳＳＬSSL A light-emitting device in which light having (λ) also satisfies the following condition 2.
Condition 2:
  The spectral distribution φ (λ) of the target light is the distance D from the black body radiation locus defined by ANSI C78.377. _ｕｖuv But,
  −0.0220 ≦ D _ｕｖuv   <0
It is.

  The light-emitting device according to claim 1,
  Φ _ｅｌｍelm The light having (λ) does not satisfy the following condition 3; _ＳＳＬSSL The light having (λ) satisfies the following condition 3.
Condition 3:
  The spectral distribution φ (λ) of the target light is the maximum value of the spectral intensity in the range from 430 nm to 495 nm. _{ＢＭ−ｍａｘBM-max} The minimum value of the spectral intensity in the range of 465 nm to 525 nm is φ _{ＢＧ−ｍｉｎBG-min} When defined as
  0.2250 ≦ φ _{ＢＧ−ｍｉｎBG-min} / Φ _{ＢＭ−ｍａｘBM-max}   ≦ 0.7000
It is.

  The light-emitting device according to claim 1,
  Φ _ｅｌｍelm The light having (λ) satisfies the following condition 3 and the φ _ＳＳＬSSL A light-emitting device in which light having (λ) also satisfies the following condition 3.
Condition 3:
  The spectral distribution φ (λ) of the target light is the maximum value of the spectral intensity in the range from 430 nm to 495 nm. _{ＢＭ−ｍａｘBM-max} The minimum value of the spectral intensity in the range of 465 nm to 525 nm is φ _{ＢＧ−ｍｉｎBG-min} When defined as
  0.2250 ≦ φ _{ＢＧ−ｍｉｎBG-min} / Φ _{ＢＭ−ｍａｘBM-max}   ≦ 0.7000
It is.

  The light-emitting device according to claim 1,
  Φ _ｅｌｍelm The light having (λ) does not satisfy the following condition 4; _ＳＳＬSSL The light having (λ) satisfies the following condition 4.
Condition 4:
  The spectral distribution φ (λ) of the target light is the maximum value of the spectral intensity in the range from 590 nm to 780 nm. _{ＲＭ−ｍａｘRM-max} When defined as _{ＲＭ−ｍａｘRM-max} Gives wavelength λ _{ＲＭ−ｍａｘRM-max} But,
  605 (nm) ≦ λ _{ＲＭ−ｍａｘRM-max}   ≦ 653 (nm)
It is.

  The light-emitting device according to claim 1,
  Φ _ｅｌｍelm The light having (λ) satisfies the following condition 4 and the φ _ＳＳＬSSL Light with (λ)
Also satisfies the following condition 4.
Condition 4:
  The spectral distribution φ (λ) of the target light is the maximum value of the spectral intensity in the range from 590 nm to 780 nm. _{ＲＭ−ｍａｘRM-max} When defined as _{ＲＭ−ｍａｘRM-max} Gives wavelength λ _{ＲＭ−ｍａｘRM-max} But,
  605 (nm) ≦ λ _{ＲＭ−ｍａｘRM-max}   ≦ 653 (nm)
It is.

  The light-emitting device according to claim 1,
  The average of the saturation differences derived from the spectral distribution of the light emitted from the light emitting element in the main radiation direction is represented by SAT. _ａｖｅave (Φ _ｅｌｍelm ),
  The average of the saturation differences derived from the spectral distribution of the light emitted from the light emitting device in the main radiation direction is represented by SAT. _ａｖｅave (Φ _ＳＳＬSSL )
  SAT _ａｖｅave (Φ _ｅｌｍelm ) <SAT _ａｖｅave (Φ _ＳＳＬSSL )
A light emitting device characterized by satisfying the above.

  The light-emitting device according to any one of claims 3 to 11,
  A derived from the spectral distribution of light emitted from the light emitting element in the main radiation direction _ｃｇcg A _ｃｇcg (Φ _ｅｌｍelm ),
  A derived from the spectral distribution of light emitted from the light emitting device in the main radiation direction _ｃｇcg A _ｃｇcg (Φ _ＳＳＬSSL )
  A _ｃｇcg (Φ _ＳＳＬSSL ) <A _ｃｇcg (Φ _ｅｌｍelm )
A light emitting device characterized by satisfying the above.

  The light-emitting device according to any one of claims 5 to 12,
  D derived from the spectral distribution of light emitted from the light emitting element in the main radiation direction _ｕｖuv D _ｕｖuv (Φ _ｅｌｍelm ),
  D derived from the spectral distribution of light emitted from the light emitting device in the main radiation direction _ｕｖuv D _ｕｖuv (Φ _ＳＳＬSSL )
  D _ｕｖuv (Φ _ＳＳＬSSL ) <D _ｕｖuv (Φ _ｅｌｍelm )
A light emitting device characterized by satisfying the above.

The light-emitting device according to claim 1,
The light-emitting device is characterized in that the control element is an optical filter that absorbs or reflects light of 380 nm ≦ λ (nm) ≦ 780 nm.

The light-emitting device according to claim 1,
A light emitting device characterized in that the control element has a function of condensing and / or diffusing light emitted from the light emitting element.

The light emitting device according to claim 15,
A light-emitting device characterized in that the condensing and / or diffusing function of the control element is realized by at least one function of a concave lens, a convex lens, and a Fresnel lens.

The light-emitting device according to claim 1,
An illuminance for illuminating an object with light emitted in the radiation direction from the light emitting device is 5 lx or more and 10,000 lx or less.

  The light-emitting device according to claim 1,
  Φ _ｅｌｍelm The light having (λ) does not satisfy the following condition 5; _ＳＳＬSSL Light with (λ) is
A light emitting device satisfying condition 5.
Condition 5:
  In the spectral distribution φ (λ) of the target light, the φ _{ＢＭ−ｍａｘBM-max} Gives wavelength λ _{ＢＭ−ｍａｘBM-max} But,
  430 (nm) ≦ λ _{ＢＭ−ｍａｘBM-max}   ≤ 480 (nm)
It is.

  The light-emitting device according to claim 1,
  Φ _ｅｌｍelm The light having (λ) does not satisfy the following condition 6; _ＳＳＬSSL A light emitting device characterized in that light having (λ) satisfies the following condition 6.
Condition 6:
  The spectral distribution φ (λ) of the target light is
  0.1800 ≤ φ _{ＢＧ−ｍｉｎBG-min} / Φ _{ＲＭ−ｍａｘRM-max}   ≦ 0.8500
It is.

  The light-emitting device according to claim 1,
  Φ _ｅｌｍelm The light having (λ) does not satisfy the following condition 7, and φ _ＳＳＬSSL The light having (λ) satisfies the following condition 7.
Condition 7:
  The radiation efficiency K (lm / W) in the wavelength range of 380 nm to 780 nm derived from the spectral distribution φ (λ) of the target light.
  210.0 lm / W ≤ K ≤ 290.0 lm / W
It is.

  The light-emitting device according to claim 1,
  Φ _ｅｌｍelm The light having (λ) does not satisfy the following condition 8; _ＳＳＬSSL A light emitting device characterized in that light having (λ) satisfies the following condition 8.
Condition 8:
  The correlated color temperature T (K) of the target light is
  2600 K ≤ T ≤ 7700 K
It is.

  The light-emitting device according to claim 18,
  Φ _ｅｌｍelm The light having (λ) satisfies at least one of the following conditions 6 to 8, and φ _ＳＳＬSSL The light having (λ) is Φ among the following conditions 6 to 8 _ｅｌｍelm If there is a condition that light having (λ) does not satisfy, at least one of them is satisfied.
Condition 6:
  The spectral distribution φ (λ) of the target light is
  0.1800 ≤ φ _{ＢＧ−ｍｉｎBG-min} / Φ _{ＲＭ−ｍａｘRM-max}   ≦ 0.8500
It is.
Condition 7:
  The radiation efficiency K (lm / W) in the wavelength range of 380 nm to 780 nm derived from the spectral distribution φ (λ) of the target light.
  210.0 lm / W ≤ K ≤ 290.0 lm / W
It is.
Condition 8:
  The correlated color temperature T (K) of the target light is
  2600 K ≤ T ≤ 7700 K
It is.

  The light-emitting device according to claim 19,
  Φ _ｅｌｍelm The light having (λ) satisfies at least one of the following condition 5, condition 7, and condition 8, and φ _ＳＳＬSSL The light having (λ) is the Φ among the following conditions 5, 7 and 8 _ｅｌｍelm If there is a condition that light having (λ) does not satisfy, at least one of them is satisfied.
Condition 5:
  In the spectral distribution φ (λ) of the target light, the φ _{ＢＭ−ｍａｘBM-max} Gives wavelength λ _{ＢＭ−ｍａｘBM-max} But,
  430 (nm) ≦ λ _{ＢＭ−ｍａｘBM-max}   ≤ 480 (nm)
It is.
Condition 7:
  The radiation efficiency K (lm / W) in the wavelength range of 380 nm to 780 nm derived from the spectral distribution φ (λ) of the target light.
  210.0 lm / W ≤ K ≤ 290.0 lm / W
It is.
Condition 8:
  The correlated color temperature T (K) of the target light is
  2600 K ≤ T ≤ 7700 K
It is.

  The light-emitting device according to claim 20,
  Φ _ｅｌｍelm The light having (λ) satisfies at least one of the following condition 5, condition 6, and condition 8, and φ _ＳＳＬSSL The light having (λ) is the Φ among the following conditions 5, 6 and 8 _ｅｌｍelm If there is a condition that light having (λ) does not satisfy, at least one of them is satisfied.
Condition 5:
  In the spectral distribution φ (λ) of the target light, the φ _{ＢＭ−ｍａｘBM-max} Gives wavelength λ _{ＢＭ−ｍａｘBM-max} But,
  430 (nm) ≦ λ _{ＢＭ−ｍａｘBM-max}   ≤ 480 (nm)
It is.
Condition 6:
  The spectral distribution φ (λ) of the target light is
  0.1800 ≤ φ _{ＢＧ−ｍｉｎBG-min} / Φ _{ＲＭ−ｍａｘRM-max}   ≦ 0.8500
It is.
Condition 8:
  The correlated color temperature T (K) of the target light is
  2600 K ≤ T ≤ 7700 K
It is.

  The light-emitting device according to claim 21,
  Φ _ｅｌｍelm The light having (λ) satisfies at least one of the following conditions 5 to 7, and φ _ＳＳＬSSL The light having (λ) is Φ among the following conditions 5 to 7 _ｅｌｍelm If there is a condition that light having (λ) does not satisfy, at least one of them is satisfied.
Condition 5:
  In the spectral distribution φ (λ) of the target light, the φ _{ＢＭ−ｍａｘBM-max} Gives wavelength λ _{ＢＭ−ｍａｘBM-max} But,
  430 (nm) ≦ λ _{ＢＭ−ｍａｘBM-max}   ≤ 480 (nm)
It is.
Condition 6:
  The spectral distribution φ (λ) of the target light is
  0.1800 ≤ φ _{ＢＧ−ｍｉｎBG-min} / Φ _{ＲＭ−ｍａｘRM-max}   ≦ 0.8500
It is.
Condition 7:
  The radiation efficiency K (lm / W) in the wavelength range of 380 nm to 780 nm derived from the spectral distribution φ (λ) of the target light.
  210.0 lm / W ≤ K ≤ 290.0 lm / W
It is.

  The light-emitting device according to any one of claims 1 to 25,
  Φ _ｅｌｍelm The light having (λ) satisfies all of the following conditions 5 to 8, and φ _ＳＳＬSSL A light-emitting device characterized in that light having (λ) also satisfies all of the following conditions 5 to 8.
Condition 5:
  In the spectral distribution φ (λ) of the target light, the φ _{ＢＭ−ｍａｘBM-max} Gives wavelength λ _{ＢＭ−ｍａｘBM-max} But,
  430 (nm) ≦ λ _{ＢＭ−ｍａｘBM-max}   ≤ 480 (nm)
It is.
Condition 6:
  The spectral distribution φ (λ) of the target light is
  0.1800 ≤ φ _{ＢＧ−ｍｉｎBG-min} / Φ _{ＲＭ−ｍａｘRM-max}   ≦ 0.8500
It is.
Condition 7:
  The radiation efficiency K (lm / W) in the wavelength range of 380 nm to 780 nm derived from the spectral distribution φ (λ) of the target light.
  210.0 lm / W ≤ K ≤ 290.0 lm / W
It is.
Condition 8:
  The correlated color temperature T (K) of the target light is
  2600 K ≤ T ≤ 7700 K
It is.

The light-emitting device according to any one of claims 1 to 26, wherein:
Φ _ＳＳＬSSL The light having (λ) does not have an effective intensity derived from the light emitting element in a range of 380 nm to 405 nm.

The light-emitting device according to any one of claims 1 to 27,
The blue semiconductor light emitting device has a dominant wavelength λ during pulse driving of the blue semiconductor light emitting device alone. _{ＣＨＩＰ−ＢＭ−ｄｏｍCHIP-BM-dom} Is a light-emitting device having a wavelength of 445 nm to 475 nm.

The light-emitting device according to any one of claims 1 to 28,
The light emitting device according to claim 1, wherein the green phosphor is a broadband green phosphor.

  A light emitting device according to any one of claims 1 to 29,
  The green phosphor has a wavelength λ that gives a maximum value of emission intensity at the time of light excitation of the green phosphor alone. _{ＰＨＯＳ−ＧＭ−ｍａｘPHOS-GM-max} Is 511 nm or more and 543 nm or less,
  Its full width at half maximum W _{ＰＨＯＳ−ＧＭ−ｆｗｈｍPHOS-GM-fwhm} Is a light emitting device characterized by having a thickness of 90 nm to 110 nm.

The light-emitting device according to any one of claims 1 to 30,
The light emitting device substantially does not contain a yellow phosphor.

  The light-emitting device according to any one of claims 1 to 31,
  The red phosphor has a wavelength λ that gives a maximum value of emission intensity at the time of photoexcitation of the single red phosphor. _{ＰＨＯＳ−ＲＭ−ｍａｘPHOS-RM-max} Is 622 nm or more and 663 nm or less,
  Its full width at half maximum W _{ＰＨＯＳ−ＲＭ−ｆｗｈｍPHOS-RM-fwhm} Is a light emitting device characterized by having a thickness of 80 nm to 105 nm.

The light-emitting device according to claim 1,
The blue semiconductor light-emitting element is an AlInGaN-based light-emitting element.

The light-emitting device according to any one of claims 1 to 33,
The green phosphor is Ca _３3 (Sc, Mg) _２2 Si _３3 O _１２12 : Ce (CSMS phosphor), CaSc _２2 O _４4 : Ce (CSO phosphor), Lu _３3 Al _５5 O _１２12 : Ce (LuAG phosphor) or Y _３3 (Al, Ga) _５5 O _１２12 : Ce (G-YAG phosphor).

The light-emitting device according to any one of claims 1 to 34,
The red phosphor is (Sr, Ca) AlSiN _３3 : Eu (SCASN phosphor), CaAlSi (ON) _３3 : Eu (CaSON phosphor) or CaAlSiN _３3 : A light-emitting device containing Eu (CASN phosphor).

  The light-emitting device according to any one of claims 1 to 35,
  The blue semiconductor light emitting device has a dominant wavelength λ during pulse driving of the blue semiconductor light emitting device alone. _{ＣＨＩＰ−ＢＭ−ｄｏｍCHIP-BM-dom} Is an AlInGaN-based light emitting device having a wavelength of 452.5 nm or more and 470 nm or less,
  The green phosphor has a wavelength λ that gives a maximum value of emission intensity at the time of light excitation of the green phosphor alone. _{ＰＨＯＳ−ＧＭ−ｍａｘPHOS-GM-max} Is 515 nm or more and 535 nm or less, and its full width at half maximum W _{ＰＨＯＳ−ＧＭ−ｆｗｈｍPHOS-GM-fwhm} CaSc characterized in that is 90 nm or more and 110 nm or less _２2 O _４4 : Ce (CSO phosphor) or Lu _３3 Al _５5 O _１２12 : Ce (LuAG phosphor),
  The red phosphor has a maximum emission intensity λ at the time of photoexcitation of the single red phosphor. _{ＰＨＯＳ−ＲＭ−ｍａｘPHOS-RM-max} Is 640 nm to 663 nm, and the full width at half maximum W _{ＰＨＯＳ−ＲＭ−ｆｗｈｍPHOS-RM-fwhm} CaAlSi (ON) characterized by having a thickness of 80 nm to 105 nm _３3 : Eu (CASON phosphor) or CaAlSiN _３3 : Eu (CASN phosphor)
A light emitting device characterized by that.

37. The light emitting device according to claim 1, wherein the light emitting device is a packaged LED, a chip-on-board LED, an LED module, an LED bulb, an LED lighting device, or an LED lighting system. .