156results about How to "Strong luminescent peak" patented technology

A manganese and titanium co-doped fluorine magnesium germanate luminescent material has a chemical formula of aMgO-bMgF2-cGeO2: dMn<4+>, eTi<4+>, wherein aMgO-bMgF2-cGeO2 is a matrix, manganese element and titanium element are activation elements, a is 1-6, b is 0.05-2, c is 0.5-3, d is 0.01-0.05, and e is 0.005-0.03. In an electroluminescence (EL) spectrum of a luminescent thin film prepared by the manganese and titanium co-doped fluorine magnesium germanate luminescent material, a wavelength region of 650 nm has very strong luminescence peaks, and the luminescent thin film can be used in a thin-film electroluminescent display. The invention also provides a preparation method and application of the manganese and titanium co-doped fluorine magnesium germanate luminescent material.

The invention discloses a samarium-doped rare earth borate luminous film which has a chemical formula of MeBO3:xSm<3+>, wherein x is more than or equal to 0.01 and less than or equal to 0.05, MeBO3 is a matrix, the samarium element is an active element, and Me is Y, La, Gd or Lu. The samarium-doped rare earth borate luminous film has high luminous peaks at the positions of 638nm and 727nm in an electroluminescent spectrum (EL) and can be applied to a thin-film electroluminescent display. The invention also provides a preparation method and application of the samarium-doped rare earth borate luminous film.

The invention provides a europium-doped gadolinium molybdate luminescent material. The chemical formula of the europium-doped gadolinium molybdate luminescent material is Gd2(MoO4)3:xEu3+, wherein x is more than or equal to 0.002 and less than or equal to 0.09. The electroluminescent spectrum (EL) of a luminescent film prepared by the europium-doped gadolinium molybdate luminescent material has a strong luminescent peak at the 613nm wavelength areas and the luminescent film can be applied in a film electroluminescent display. The invention also provides a preparation method of the europium-doped gadolinium molybdate luminescent material, a europium-doped gadolinium molybdate luminescent film, a preparation method thereof and a film electroluminescent device.

The invention relates to a red-light niobium zincate luminescent material. A chemical formula of the red-light niobium zincate luminescent material is Me(3-x)ZnNb2O9:xPr<3+>, wherein x is 0.01 to 0.08, Me is at least one selected from calcium, strontium and barium, and Pr<3+> is an activating element. In an electroluminescent (EL) spectrum of a luminescent thin film made from the red-light niobium zincate luminescent material, luminescent peaks in the wavelength region of 611nm are very strong, so that the red-light niobium zincate luminescent material can be applied to a thin-film electroluminescent display. The invention further provides a preparation method for the red-light niobium zincate luminescent material and an application of the red-light niobium zincate luminescent material.

The invention provides a samarium-doped alkaline-earth niobium zincate luminescent material of which the chemical formula is Me[3-x]ZnNb2O9:xSm<3+>,Me[3-x]ZnNb2O9, wherein Me[3-x]ZnNb2O9 is the matrix, Sm<3+> is an active element, x is 0.01-0.05, and Me is one of calcium, strontium and barium. The light-emitting film prepared from the samarium-doped alkaline-earth niobium zincate luminescent material has strong light-emitting peaks at the wavelength of 638nm and 727nm in the electroluminescent spectrum (EL), and thus, is applicable to film electroluminescent display devices. The invention also provides a preparation method and application of the samarium-doped alkaline-earth niobium zincate luminescent material.

A chemical formula of a europium-doped calcium silicate luminescent material is CaAl2Si2O8:xEu3+, wherein 0.0005<=x<=0.09. In an electroluminescence spectrum (EL) of an illuminant film made of the europium-doped calcium silicate luminescent material, strong luminescent peaks exist in wavelength areas of 590 nm and 620 nm, and good excitation of green light and blue light can be obtained. The invention further provides a preparation method of the europium-doped calcium silicate luminescent material, a europium-doped calcium silicate luminescent film, a preparation method of the europium-doped calcium silicate luminescent film and a film electroluminescence device.

The invention relates to a europium-terbium co-doped zirconium phosphate luminescent material. The europium-terbium co-doped zirconium phosphate luminescent material has a chemical formula of MZr4-x-yP6O24:xEu<3+>, yTb<3+>, wherein M is Ca, Ba or Sr, x is more than or equal to 0.02 and less than or equal to 0.1, and y is more than or equal to 0.01 and less than or equal to 0.04. The electroluminescent spectrum (EL) of a luminescent film prepared from the europium-terbium co-doped zirconium phosphate luminescent material has very strong photoluminescence peaks in areas of which the wavelengths are 510nm and 610nm, and the luminescent film can be applied to film electroluminescent displays. The invention also provides a preparation method and application of the europium-terbium co-doped zirconium phosphate luminescent material.

The invention relates to a cerium-doped alkaline earth gallate luminescent material. The cerium-doped alkaline earth gallate luminescent material has the chemical formula represented by MeGa2O4:xCe<3+>, wherein x is 0.01-0.05 and Me is zinc ion, magnesium ion, calcium ion, strontium ion or barium ion. In electroluminescent spectra (EL) of a luminescent film prepared from the cerium-doped alkaline earth gallate luminescent material, a strong luminescent peak is present at 610nm wavelength region and can be applied in thin film electroluminescent displays. The invention also provides a preparation method and an application of the cerium-doped alkaline earth gallate luminescent material.

The invention provides a europium-terbium-codoped rare earth silicate luminescent material with a chemical formula of LaaGdbLucSiO5: xEu2+, yTb3+, wherein LaaGdbLucSiO5 is a matrix, a europium ion and a terbium ion are active elements, x is in a range of 0.01 to 0.05, y is in a range of 0.005 to 0.03, a is in a range of 0 to 2, b is in a range of 0 to 2, c is in a range of 0 to 2, and a+b+c is equal to 2. In the electroluminescent spectrum (EL) of a luminescent film prepared from the europium-terbium-codoped rare earth silicate luminescent material, strong luminescent peaks appear at zones with wavelength of 480 nm and 580 nm, and the luminescent film is applicable to a thin-film electroluminescent display. The invention further provides a preparation method and application of the europium-terbium-codoped rare earth silicate luminescent material.

The invention provides an europium-erbium double-doped zinc selenide luminescent material with a chemical formula of ZnSe:xEu<3+>,yEr<3+>, wherein x is 0.01-0.05, y is 0.01-0.06, ZnSe is a matrix, and Eu<3+> and Er<3+> ions are active elements. In an electroluminescence spectrum (EL) of a luminescent thin film prepared with the europium-erbium double-doped zinc selenide luminescent material, strong luminescence peaks can be found at 490nm and 580nm wavelength zones. The material can be used in a thin-film electroluminescent display device. The invention also provides a preparation method and an application of the europium-erbium double-doped zinc selenide luminescent material.

The invention belongs to the field of photoelectric light-emitting films, and discloses a cerium-terbium co-doped borophosphate light-emitting film and a preparation method thereof as well as an organic electroluminescence device. A chemical general formula of the light-emitting film is Sr(PO4)x(BO3)1-x:mCe<3+>, nTb<3+>, wherein Sr(PO4)x(BO3)1-x is a matrix, Ce<3+> and nTb<3+> are doping elements; x ranges from 0.4-0.8, m ranges from 0.012-0.036, and n ranges from 0.011-0.054. According to the invention, the cerium-terbium co-doped borophosphate light-emitting film is prepared by a magnetron spluttering device, has strong light-emitting peaks in wavelength regions of 490 nm and 510 nm, and is a development material of the electroluminescence device.

The invention belongs to the field of luminescent materials, and discloses a titanium-doped strontium thio-aluminate luminescent film, a preparation method thereof, and an organic electroluminescent device. The luminescent film has a chemical general formula of SrAl2S4:xTi<+4>, wherein SrAl2S4 is a substrate, Ti is a doped element, and x ranges from 0.002 to 0.132. According to the invention, a magnetron sputtering equipment is adopted for preparing the titanium-doped strontium thio-aluminate luminescent film. The film has strong luminescence peak in a 530nm wavelength region, and is a development material of electroluminescent devices.

The invention belongs to the field of photoelectric materials, and discloses praseodymium-doped indium silicate luminescent film, a preparing method thereof and an electroluminescent device. The general chemical formula of the luminescent film is MeIn<2-x>Si2O8:xPr<3+>, wherein the MeIn<2-x>Si2O8 is a substrate, the Pr<3+> is an activating optical ion and is the luminescent center of the luminescent film, the Me is selected from Mg, Ca, Sr or Ba, and the x is 0.01-0.05. In an electroluminescence (EL) spectrum of the luminescent film, a strong luminescence peak is formed at 625 nm.

The invention provides a europium doped aluminosilicate luminescent material, a luminescent film and a film electroluminescent display device as well as preparation methods thereof. The europium doped aluminosilicate luminescent material has a chemical structural formula of MeAl2-xSi2O8:xEu<3+>, wherein MeAl2-xSi2O8 is a matrix, Eu is an activated element, Me is selected from one or more of Mg, Ca, Sr, Zn and Ba, and the value of x is 0.01-0.05. The europium doped aluminosilicate luminescent material can be used for preparing a europium doped aluminosilicate luminescent film. The europium doped aluminosilicate luminescent film can be used for preparing the film electroluminescent display device. The electroluminescent spectrum of the europium doped aluminosilicate luminescent film has strong photoluminescence peaks around 580nm and 620nm.

The invention discloses a cerium-terbium co-doped calcium sulfate luminous film with chemical formula of Ca(1-x-y)SO4:xCe<3+>, yTb<3+>, wherein 0.01<=x<=0.05, 0.01<=y<=0.08, Ca(1-x-y)SO4 is the matrix, and the cerium element and terbium element are active elements. In the electroluminescence spectrum (EL) of the cerium-terbium co-doped calcium sulfate luminous film, strong luminescence peaks appear at the positions of 490nm and 510nm, and the cerium-terbium co-doped calcium sulfate luminous film can be applied to a film electroluminescent display. The invention also provides a preparation method of the cerium-terbium co-doped calcium sulfate luminous film and an application thereof.

Europium- terbium- co-doped aluminium niobate luminescent materials are provided. The general chemical formula of the materials is MeAl<1-x-y>NbO5:xEu<3+>,yTb<3+>, wherein the MeAl<1-x-y>NbO5 is a matrix, the Eu<3+> and the Bi<3+> are activating elements, the x is 0.01-0.08, the y is 0.01-0.06, and the Me is one of calcium, strontium and barium. In an electroluminescence spectrum (EL) of luminescent film prepared from one of the materials, strong luminescence peaks are obtained at 490 nm and 510 nm. The materials can be used in thin film electroluminescence displays. A preparing method and applications of the europium- terbium- co-doped aluminium niobate luminescent materials are also provided.

The invention relates to a europium-erbium double-doped zirconium dioxide light-emitting film. The chemical formula of the europium-erbium double-doped zirconium dioxide light-emitting film is ZrO2:xEu<3+>, yEr<3+>, wherein x is more than or equal to 0.01 and less than or equal to 0.05, y is more than or equal to 0.01 and less than or equal to 0.06, ZrO2 is a matrix, and an europium element and an erbium element are activated elements. The europium-erbium double-doped zirconium dioxide light-emitting film disclosed by the invention has very high light-emitting peaks in the 490 nanometer position and 580 nanometer position of an EL (Electroluminescent Spectrum), thereby being applied to a film electroluminescent display. The invention also provides a preparation method and application of the europium-erbium double-doped zirconium dioxide light-emitting film.

The invention provides a cerium / europium-codoped alkaline-earth niobium zincate luminescent material of which the chemical formula is Me[3-x-y]ZnNb2O9:xCe<3+>,yEu<3+>, wherein x is 0.01-0.05, y is 0.01-0.08, and Me is selected from at least one of calcium, strontium and barium. The light-emitting film prepared from the cerium / europium-codoped alkaline-earth niobium zincate luminescent material has strong light-emitting peaks at the wavelength of 490nm and 560nm in the electroluminescent spectrum (EL), and thus, is applicable to film electroluminescent display devices. The invention also provides a preparation method and application of the cerium / europium-codoped alkaline-earth niobium zincate luminescent material.

The invention provides a europium-erbium co-doped yttrium oxysulfide luminescent material, a luminescent film, a film electroluminescent display device as well as preparation methods thereof. The europium-erbium co-doped yttrium oxysulfide luminescent material has a chemical structural formula of Y2O2S:xEu<3+>, yEr<3+>, wherein Y2O2S is a matrix, Eu<3+> and Er<3+> ions are activated elements, the value of x is 0.01-0.05, and the value of y is 0.01-0.06. The europium-erbium co-doped yttrium oxysulfide luminescent material can be used preparing a europium-erbium co-doped yttrium oxysulfide luminescent film. The europium-erbium co-doped yttrium oxysulfide luminescent film can be used for preparing the film electroluminescent display device. The electroluminescent spectrum of the europium-erbium co-doped yttrium oxysulfide luminescent film has strong photoluminescence peaks around 490nm and 580nm.

The invention relates to a cerium and terbium codoped borophosphate light-emitting film with the chemical formula of Me3BP3O12: xCe<3+>, yTb<3+>, wherein 0.01<=x<=0.05, 0.01<=y<=0.08, Me3BP3O12 is a substrate, the cerium element and the terbium element are active elements, and Me is Mg, Ca, Sr or Ba. The cerium and terbium codoped borophosphate light-emitting film has a rather strong light emitting peak within the wavelength regions of 490nm and 510nm in an electroluminescence spectrum (EL), and can be applied to a film electroluminescent display. The invention also provides a preparation method and application of the cerium and terbium codoped borophosphate light-emitting film.

A titanium and magnesium codoped alumina luminescent thin film has a chemical formula of Al2O3:xTi<4+>, yMg<2+>, wherein alumina is a matrix, titanium element and magnesium element are activation elements, x is greater than or equal to 0.01 and is less than or equal to 0.08, and y is greater than or equal to 0 and is less than or equal to 0.06. In an electroluminescence (EL) spectrum of the titanium and magnesium codoped alumina luminescent thin film, a wavelength region of 410 nm has very strong luminescence peaks, and the titanium and magnesium codoped alumina luminescent thin film can be used in a thin-film electroluminescent display. The invention also provides a preparation method and application of the titanium and magnesium codoped alumina luminescent thin film.

An alkaline-earth sulfide luminescent material has the chemical formula of MeS:xCe3+, wherein x ranges from 0.01 to 0.08, Me is selected from magnesium element, calcium element, strontium element and barium, and Ce3+ ions are activated elements. The EL (electroluminescent) spectrum of a luminescent film made of the alkaline-earth sulfide luminescent material has strong luminescent peaks in a 540nm wavelength area, and the luminescent film can be applied to a film electroluminescent display. The invention further provides a preparation method and an application of the alkaline-earth sulfide luminescent material.

The invention belongs to the field of light-emitting films, and discloses a titanium-manganese codoped yttrium oxide light-emitting film and a preparation method thereof, and an electroluminescence device. The light-emitting film has the molecular formula as follows: Y2O3:xTi<4+>, yMn<4+>, wherein Y2O3 is a matrix; Ti<4+> and Mn<4+> are activated ions and are used as a light-emitting center in the film; the value of x ranges from 0.01 to 0.05; the value of y ranges from 0.01 to 0.08. The titanium-manganese codoped yttrium oxide light-emitting film disclosed by the invention has a strong light-emitting peak at the position of 430 nm in an electroluminescence spectrum (EL).

The invention provides a niobate-based luminescent energy storage material with high energy storage density and a preparation method thereof. The material includes a top electrode, a deposition medium, a substrate and a bottom electrode. The preparation method is as follows: raw materials PbO, SrCO 3 、Na 2 CO 3 , Nb 2 o 5 and SiO 2 After grinding, heating and melting, it is formed into a sheet in a mold, and after heat treatment of controllable crystallization, a disc energy storage target is obtained; BeO, BeCl, Nb 2 o 5 and Sm 2 o 3 After being ground, heated and melted, it is formed into a sheet in a mold, and after a controllable crystallization heat treatment, a disc light-emitting target is obtained; the energy storage material and the light-emitting material are respectively deposited on the surface of the substrate, and then through the photoresist process and magnetic Controlled sputtering, the surface of the substrate is plated with gold to form the top electrode, the bottom surface of the substrate is plated with aluminum to form the bottom electrode, and a niobate-based luminescent energy storage material with high energy storage density is formed.

The invention provides a fluorine / copper-codoped alkaline earth sulfide light-emitting material of which the chemical formula is MeS:xCu<2+>,yF<->, wherein x is 0.01-0.05, y is 0.01-0.06, and Me is zinc ion, magnesium ion, calcium ion, strontium ion or barium ion. In the electroluminescent spectrum (EL) of the light-emitting film prepared from the fluorine / copper-codoped alkaline earth sulfide light-emitting material, the 430nm-wavelength region has strong light-emitting peak, and thus, the fluorine / copper-codoped alkaline earth sulfide light-emitting material can be applied to film electroluminescent displays. The invention also provides a preparation method and application of the fluorine / copper-codoped alkaline earth sulfide light-emitting material.

The invention belongs to the field of photoelectric luminescent films, and discloses a samarium-doped strontium sulfate luminescent film, a preparation method thereof, and an organic electroluminescent device; the general chemical formula of the luminescent film is Sr1-xSO4:xSm3+, wherein Sr1-xSO4 is a matrix, and Sm is the doping element; the value range of x is 0.001-0.005. According to the invention, the samarium-doped strontium sulfate luminescent film is prepared by magnetron sputtering equipment, has very strong luminescent peaks in both 638-nm and 727-nm wavelength zones, and is a developing material for electroluminescent devices.

The invention provides a manganese doped cerium antimonate light-emitting material with the chemical formula of CeSb5O14:xMn4+, wherein 0.01<=x<=0.08. An electroluminescent (EL) spectrum of a light-emitting thin film prepared from the manganese doped cerium antimonate light-emitting material has strong light-emitting peaks in a 520nm wavelength area, and good green light to blue light excitation can be achieved. The invention further provides a preparation method of the manganese doped cerium antimonate light-emitting material, a manganese doped cerium antimonate light-emitting thin film, a preparation method thereof and a thin film electroluminescent device.

A titanium doped alkaline earth borophosphate luminescent thin film has a chemical formula of Me(PO4)x(BO3) 1-x:yTi<4+>, wherein x is greater than or equal to 0.1 and is less than or equal to 0.4, y is greater than or equal to 0.01 and is less than or equal to 0.06, Me(PO4)x(BO3) 1-x is a matrix, titanium element is an activation element, and Me is Mg, Ca, Sr or Ba. In an electroluminescence (EL) spectrum of the titanium doped alkaline earth borophosphate luminescent thin film, a wavelength region of 410 nm has very strong luminescence peaks, and the titanium doped alkaline earth borophosphate luminescent thin film can be used in a thin-film electroluminescent display. The invention also provides a preparation method and application of the titanium doped alkaline earth borophosphate luminescent thin film.

The invention relates to a praseodymium-doped molybdate light emitting film. The chemical formula of the praseodymium-doped molybdate light emitting film is MeMoO4:xPr<3+>, wherein x is greater than or equal to 0.01 and less than or equal to 0.08, Me is Mg, Ca, Sr or Ba, MeMoO4 is a matrix and praseodymium element is an active element. In an electroluminescence spectrum (EL) of the praseodymium-doped molybdate light emitting film, strong light emitting peaks are presented in the 611nm wavelength area and can be applied to a thin film electroluminescence display. The invention also provides a preparation method and application of the praseodymium-doped molybdate light emitting film.

The invention discloses a europium and terbium-co-doped vanadite luminescent thin film and a preparation method and application thereof. The chemical general formula of the material of the europium and terbium-co-doped vanadite luminescent thin film is Me3(VO4)2: xEu<3+>, yTb<3+>, wherein Me3(VO4)2 is a matrix, a Eu element and a Tb element are active elements, x is 0.01-0.05, y is 0.01-0.04, and Me is Mg, Ca, Sr or Ba. In an electroluminescence spectrum (EL) of the europium and terbium-co-doped vanadite luminescent thin film (Me3(VO4)2: xEu<3+>, yTb<3+>), very strong luminescence peaks occur in 490nm and 510nm wavelength regions, and the europium and terbium-co-doped vanadite luminescent thin film can be applied to a thin film electroluminescent device. The invention further discloses a preparation method of the europium and terbium-co-doped vanadite luminescent thin film, the thin film electroluminescent device using the europium and terbium-co-doped vanadite luminescent thin film and a preparation method of the thin film electroluminescent device.