
GB1014952A Improvements in electroluminescent
<PICT:1014952/C4-C5/1> An electroluminescent element, consisting of a metal, e.g. chrome-iron electrode 1 on which is formed a reflection layer 2 of titanium dioxide embedded in glass and underlying the electroluminescent layer 3 of, e.g. copper-activated zinc sulphide embedded in a low melting-point glass, and an electrode of conductive tin oxide of such a thickness that it is

(PDF) Electroluminescent Textile for Therapeutic Applications
Titanium dioxide was used as an ion storage layer and a carbon containing dispersion was used for the counter electrode on a polyester rip-stop fabric.
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Intermediate layer in electroluminescent arrangements
Electroluminescent arrangements constructed from polymers with the intermediate layers according to the invention operate at low d.c. voltages. In addition to the simple and cheap production by blade-application of the layer, the luminescence colour can be controlled by varying the chromophoric modules. To obtain the titanium dioxide sol
Cited by: 74

Composite dielectrics for low voltage electroluminescent
Titanium dioxide has an excessive dielectric loss. Some typical values for the dissipation factor (which measures dielectric lossiness) are for alumina, 0.001 or less; for titanium dioxide, around 0.01, for ZnS, around 0.005. (Since these values are heavily dependent on process parameters, they should be regarded only as rough indicators.)
Cited by: 31

US5917279A Intermediate layer in electroluminescent
US5917279A US08/745,999 US74599996A US5917279A US 5917279 A US5917279 A US 5917279A US 74599996 A US74599996 A US 74599996A US 5917279 A US5917279 A US 5917279A Authority US United States Prior art keywords layer electroluminescent particles nano tio Prior art date 1995-11-20 Legal status (The legal status is an assumption and is not a legal
Cited by: 74[PDF]

Review Article: Atomic layer deposition for oxide
2021-9-30 · oxide, hafnium oxide, and titanium oxide as well as mixtures of those were also used as the dielectric layers of a double-insulator electroluminescent device.4,5 However, because of the required down-scaling of semiconductor device dimen-sions, ALD grown nanoscale thin films have found new applications in metal oxide semiconductor field

HUANG Fuqiang-北京大学海洋研究院 pku.edu.cn
2018-7-15 · Huang FQ, Fan CW, Electroluminescent phosphor ZnS:Cu,Br,Cl making better. CM-1345 (USPatent) 19. Huang Fuqiang, Lv Xujie, a semiconductor compound porous titanium dioxide hollow sphere material and preparation method thereof(201010152118.8)
[PDF]

Overview of doctoral theses on Atomic Layer Deposition
2019-7-31 · 1994;Mikko Ritala;Atomic layer epitaxy growth of titanium, Fruitfulium and hafnium dioxide thin films;English 1996;Markku Ylilammi;Preparation and analysis of thin film electroluminescent devices;English 1997;S. D. Dubrovenskii;Synthesis of vanadium titanium oxide nanostructures on the surface of silica gel and

黄富强(中国科学院上海硅酸盐研究所研究员)_百度百科
个人简历研究兴趣科研成果代表性论文专利情况·2010年-:北京大学化学与分子工程学院,教授, 博士生导师·2003年-:中国科学院上海硅酸盐研究所,研究员,博士生导师·2002年-2003年:美国宾夕法尼亚大学材料工程和科
痛失巨擘!深切缅怀我院杰出校友、兼职教授邹德慈院士
2020-12-29 · 中国共产党的优秀党员,忠诚的共产主义战士,中国城市规划学会名誉理事长、中国工程院院士、中国城市规划设计研究院原院长、我院杰出校友、兼职教授邹德慈同志因病医治无效,于2020年12月28日23点28分在北京逝世,享年87岁。. 邹德慈院士从事工程科技工作

Composite dielectrics for low voltage electroluminescent
Titanium dioxide has an excessive dielectric loss. Some typical values for the dissipation factor (which measures dielectric lossiness) are for alumina, 0.001 or less; for titanium dioxide, around 0.01, for ZnS, around 0.005. (Since these values are heavily dependent on process parameters, they should be regarded only as rough indicators.)

electroluminescent phosphor powder, electroluminescent
A wide variety of electroluminescent phosphor powder options are available to you, such as coating pigment, ink pigments.You can also choose from titanium, iron oxide electroluminescent phosphor powder,As well as from inorganic pigment, {2}, and {3}. There are 86 electroluminescent phosphor powder suppliers, mainly located in Asia.

(PDF) Electroluminescent Textile for Therapeutic Applications
Titanium dioxide was used as an ion storage layer and a carbon containing dispersion was used for the counter electrode on a polyester rip-stop fabric.

Visible emission from electroluminescent devices using an
Visible emission from electroluminescent devices using an amorphous AlN:Er 3+ thin-film phosphor
[PDF]

Review Article: Atomic layer deposition for oxide
2021-9-30 · oxide, hafnium oxide, and titanium oxide as well as mixtures of those were also used as the dielectric layers of a double-insulator electroluminescent device.4,5 However, because of the required down-scaling of semiconductor device dimen-sions, ALD grown nanoscale thin films have found new applications in metal oxide semiconductor field

Method of preparing fluoroplogopite phosphor GTE
1993-2-1 · We claim: 1. A method of making a green-emitting titanium-activated fluorophlogopite phosphor having a platelet particle morphology and having the general formula KMg 3 (Si 3 Al)O 10 F 2:Ti, comprising the steps of: combining potassium carbonate, aluminum oxide, magnesium oxide, silicon dioxide, potassium hexafluorosilicate, and titanium dioxide in amounts

ELECTROLUMINESCENT DEVICE COMPRISING A
An electroluminescent device includes a layer including a transition metal oxide doped with a trivalent rare earth metal. The transition metal oxide has the general formula, M x i (M ii O y) z where M i is a Group IIA element or a group IIIB element, M ii is a transition metal, O is oxygen and the subscripts x, y and z denote the number of each of the elements depending on the

Phosphor layers for electroluminescent panels and
20 ml of linseed oil was injected into a stoppered glass vial and flushed with dry nitrogen. Titanium iso-propoxide was injected into the vial to give a mixture of 10% by weight. The mixture was mixed on a roller for 1 hour and then slurried with an electroluminescent phosphor powder in the ratio of 2:7 w:w to the binder.
[PDF]

Overview of doctoral theses on Atomic Layer Deposition
2019-7-31 · 1994;Mikko Ritala;Atomic layer epitaxy growth of titanium, Fruitfulium and hafnium dioxide thin films;English 1996;Markku Ylilammi;Preparation and analysis of thin film electroluminescent devices;English 1997;S. D. Dubrovenskii;Synthesis of vanadium titanium oxide nanostructures on the surface of silica gel and

Microstructure and electroluminescent performance of
Zinc sulfide (ZnS) doped with manganese (Mn), ZnS:Mn, is widely recognized as the brightest and most effective electroluminescent (EL) phosphor used in current thin film electroluminescent (TFEL) devices. ZnS acts as a host lattice for the luminescent activator, Mn, leading to a highly efficient yellow-orange EL emission, and resulting in a wide array of applications in

electroluminescent phosphor powder, electroluminescent
A wide variety of electroluminescent phosphor powder options are available to you, such as coating pigment, ink pigments.You can also choose from titanium, iron oxide electroluminescent phosphor powder,As well as from inorganic pigment, {2}, and {3}. There are 86 electroluminescent phosphor powder suppliers, mainly located in Asia.

Metalorganic chemical vapor deposition of titanium
Titanium dioxide (TiO2) and strontium titanate (SrTiO 3) are promising candidates as high dielectric constant (epsilon) materials in emerging dynamic random access memory capacitors and electroluminescent displays, and as gate insulator in complementary metal-oxide-semiconductor devices. This thesis focuses on the development of chemical vapor deposition

(PDF) Electroluminescent Textile for Therapeutic Applications
Titanium dioxide was used as an ion storage layer and a carbon containing dispersion was used for the counter electrode on a polyester rip-stop fabric.

Visible emission from electroluminescent devices using an
Visible emission from electroluminescent devices using an amorphous AlN:Er 3+ thin-film phosphor
[PDF]

Review Article: Atomic layer deposition for oxide
2021-9-30 · oxide, hafnium oxide, and titanium oxide as well as mixtures of those were also used as the dielectric layers of a double-insulator electroluminescent device.4,5 However, because of the required down-scaling of semiconductor device dimen-sions, ALD grown nanoscale thin films have found new applications in metal oxide semiconductor field

The potential of diatom nanobiotechnology for
The insertion of other metal oxide materials such as titanium or germanium dioxide into the nanostructure of the diatom frustule could potentially be utilized to fabricate new dye-sensitized solar cells, nanostructured battery electrodes, and electroluminescent display devices. The exploitation of diatom nanobiotechnology for the development of

ELECTROLUMINESCENT DEVICE COMPRISING A
An electroluminescent device includes a layer including a transition metal oxide doped with a trivalent rare earth metal. The transition metal oxide has the general formula, M x i (M ii O y) z where M i is a Group IIA element or a group IIIB element, M ii is a transition metal, O is oxygen and the subscripts x, y and z denote the number of each of the elements depending on the

Microstructure and electroluminescent performance of
Zinc sulfide (ZnS) doped with manganese (Mn), ZnS:Mn, is widely recognized as the brightest and most effective electroluminescent (EL) phosphor used in current thin film electroluminescent (TFEL) devices. ZnS acts as a host lattice for the luminescent activator, Mn, leading to a highly efficient yellow-orange EL emission, and resulting in a wide array of applications in

Phosphor layers for electroluminescent panels and
20 ml of linseed oil was injected into a stoppered glass vial and flushed with dry nitrogen. Titanium iso-propoxide was injected into the vial to give a mixture of 10% by weight. The mixture was mixed on a roller for 1 hour and then slurried with an electroluminescent phosphor powder in the ratio of 2:7 w:w to the binder.

成果及论文 有机光电材料与器件课题组 X-MOL
Lei, S.; Fan, L., Red Phosphorescent Carbon Quantum Dot Organic Framework-Based Electroluminescent Light-Emitting Diodes Exceeding 5% External Quantum Efficiency. Journal of the American Chemical Society 2021, 143 (45), 18941-18951.