[go: up one dir, main page]

TWI403485B - Energy remembering pottery magnetism - Google Patents

Energy remembering pottery magnetism Download PDF

Info

Publication number
TWI403485B
TWI403485B TW95137462A TW95137462A TWI403485B TW I403485 B TWI403485 B TW I403485B TW 95137462 A TW95137462 A TW 95137462A TW 95137462 A TW95137462 A TW 95137462A TW I403485 B TWI403485 B TW I403485B
Authority
TW
Taiwan
Prior art keywords
oxidizing
oxide
energy
water
magnetism
Prior art date
Application number
TW95137462A
Other languages
Chinese (zh)
Other versions
TW200817303A (en
Inventor
Ming Zhu Lin
Original Assignee
Ming Zhu Lin
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Ming Zhu Lin filed Critical Ming Zhu Lin
Priority to TW95137462A priority Critical patent/TWI403485B/en
Publication of TW200817303A publication Critical patent/TW200817303A/en
Application granted granted Critical
Publication of TWI403485B publication Critical patent/TWI403485B/en

Links

Landscapes

  • Compositions Of Oxide Ceramics (AREA)

Abstract

This invention is related to a kind of information energy remembering pottery magnetism, its characteristic lies in: Can be divided into (1). The energy memory nature pottery magnetism particle department of message makes up one in order to contain and oxidize silicone, alumina, oxidizing the sodium, oxidizing potassium, magnesium oxidize, oxidizing the calcium, oxidizing titanium, iron oxide rust, oxidizing the manganese and oxidizing the zinc to make up. (2). The energy memory nature pottery magnetism powder department of message makes up one in order to contain and silica, oxidizing alumina, oxidizing the sodium, oxidizing potassium, magnesium oxidize, oxidizing the calcium, oxidizing titanium, iron oxide rust, oxidizing the manganese and oxidizing the zinc to make up. The products of this invention can be used generally adding water standing, the water tower and drinking machine.

Description

訊息能量記憶性陶磁 Message energy memory ceramic

本發明係有關於一種訊息能量記憶性陶磁,尤指應用金屬氧化物的組成份製得訊息能量記憶性陶磁,並能改變水分子結構並得到穩定能量(光量子),使利用光子傳遞訊息又可滲透生物活體內,讓不好的生物活體產生活化代謝有害物質。 The invention relates to a message energy memory ceramic magnetism, in particular to the use of a metal oxide component to obtain a message energy memory ceramic magnetism, and can change the water molecule structure and obtain a stable energy (photon quantum), so that the photon can be transmitted by using photons. Infiltrate the living organism, let the bad living organisms produce activated metabolic harmful substances.

一般能量如遠紅外線、磁石、π能量,需要水裏有物質才能發揮功能,若水裏面沒有物質,那它們絕對沒有發揮空間,所以一般能量電子運動不平衡,不容易產生有效吸收,所以遠紅外線、磁石、π能量可稱為礦物磁場,因為水裏有物質才能產生共鳴、共振例如;逆滲透水中無物質則無法發揮能量。 Generally, energy such as far infrared rays, magnets, and π energy require substances in the water to function. If there is no substance in the water, they absolutely have no space to play. Therefore, the general energy electrons are not balanced, and it is not easy to produce effective absorption, so far infrared rays, Magnets and π energy can be called mineral magnetic fields, because substances in water can resonate and resonate. For example, if there is no substance in reverse osmosis water, energy cannot be exerted.

一般所製得之能量水係經過遠紅外線照射使形成細分子水或微水,另水經過離子能量使形成負離子水或π水或超氧水,上述其簡圖如圖1與圖2。無論細分子水、微水、負離子水或π水或超氧水或電解水,其頻率無法有效鎖定任何目標的波動質,其究因為不夠細化或超微化,如同錄音帶有聲音而不夠清析,亦無法依人們意念而完成內容。 Generally, the energy water produced by the far infrared ray irradiation forms fine molecular water or micro water, and the other water passes through the ion energy to form negative ion water or π water or super oxygen water. The above schematic diagram is shown in FIG. 1 and FIG. 2 . Whether it is fine molecular water, micro water, negative ion water or π water or super oxygen water or electrolyzed water, its frequency can not effectively lock the fluctuation of any target, because it is not refined or ultra-fine, as the recording sounds and is not clear enough Analysis, it is not possible to complete the content according to people's minds.

一般能量水由於處理方式不夠細化及具有準確的訊息,所以在保 存上及效果上會受侷限,例如;具時間性及會衰退,其原因為水經過處理物中沒有能夠固定能量質的訊息及時間性的訊息和針對需要的訊息能量。 In general, energy water is not refined enough and has accurate information. There are limitations in storage and effectiveness, for example; timeliness and decline, because there is no information in the treatment of water that can fix energy quality and time information and energy for the information needed.

本發明主要目的,係要提出一種訊息能量記憶性陶磁發明專利申請,主要係利用金屬氧化物經由攪拌、鍛燒乾燥、降溫、研磨以形成訊息能量記憶性陶磁粉末,爾來並與陶土經造粒、鍛造、降溫而獲得訊息能量記憶性陶磁顆粒,此種具有訊息記憶性陶磁,當投入水中時,會將水分子變的更小,就能轉換成微集團的機能水,又因水的動量與角量,以將水分子改變成一種形態產生,可以將電子激發電場,使圍繞在原子核的電子雲打散,方可以將質子與中子破壞,使水分子得到穩定能量呈現光子(光量子)並能傳遞訊息又可滲透生物活體內,並能使本發明的產品應用在製水機、水塔及飲水機方面。 The main object of the present invention is to provide a patent application for energy storage memory ceramics, mainly by using metal oxides to form a message energy memory ceramic powder by stirring, calcining, drying, cooling, and grinding. Grain, forging, cooling to obtain information energy memory ceramic particles, this kind of information memory ceramic, when put into water, will make water molecules smaller, can be converted into micro-group function water, and because of water Momentum and angular quantity are generated by changing water molecules into a form. The electrons can be excited by an electric field to break up the electron cloud surrounding the nucleus, so that the protons and neutrons can be destroyed, so that the water molecules can obtain stable energy to present photons (photon quantum And can transmit information and penetrate the living organism, and can apply the product of the invention to the water machine, the water tower and the water dispenser.

a‧‧‧氧化矽 a‧‧‧Oxide

b‧‧‧氧化鋁 b‧‧‧Alumina

c‧‧‧氧化鈉 c‧‧‧Sodium oxide

d‧‧‧氧化鉀 D‧‧‧potassium oxide

e‧‧‧氧化鎂 e‧‧‧Magnesium oxide

f‧‧‧氧化鈣 F‧‧‧calcium oxide

g‧‧‧氧化鈦 g‧‧‧Titanium oxide

h‧‧‧氧化鐵 H‧‧‧iron oxide

i‧‧‧氧化錳 i‧‧‧Manganese oxide

j‧‧‧氧化鋅 j‧‧‧Zinc oxide

A‧‧‧混合攪拌 A‧‧‧mixing

B‧‧‧鍛燒乾燥 B‧‧‧ calcination drying

C‧‧‧降溫 C‧‧‧ cooling

D‧‧‧研磨 D‧‧‧ grinding

E‧‧‧具訊息能量記憶性陶磁粉末 E‧‧‧Information energy memory ceramic powder

F‧‧‧具訊息能量記憶性陶磁顆粒 F‧‧‧Information energy memory ceramic particles

A’‧‧‧正常訊息 A’‧‧‧Normal message

B’‧‧‧錯誤訊息 B’‧‧‧Error Message

C’‧‧‧修正波 C’‧‧‧Correct wave

圖1 係為一般能量水之製造圖之一。 Figure 1 is one of the manufacturing diagrams for general energy water.

圖2 係為一般能量水之製造圖之二。 Figure 2 is the second production diagram of general energy water.

圖3 係為本發明製造流程之一。 Figure 3 is one of the manufacturing processes of the present invention.

圖4 係為本發明製造流程之二。 Figure 4 is the second manufacturing process of the present invention.

圖5 係為本發明之訊息能量記憶水之正常訊息圖。 Figure 5 is a normal message diagram of the message energy memory water of the present invention.

圖6 係為不正當錯誤訊息圖。 Figure 6 is a diagram of an improper error message.

圖7 係為本發明之訊息能量水與錯誤訊息所產生訊 息共振所產生修正波之現象圖。 Figure 7 shows the message energy water and error message generated by the present invention. A phenomenon diagram of the corrected wave generated by the resonance.

本發明係為一種訊息能量記憶性陶磁,其中訊息能量水又稱為記憶晶片水,因此水有記憶與訊息,多歸功於記憶性陶磁,因為記憶性陶磁內有具有記憶,可以使水分子的物質重新排列,也可以轉換微物質水,例如;轉換逆滲透水可以變小分子,使水產生訊息可以改變生物磁場,使生物物性還原並游離毒素活化及保鮮,而訊息能量係靠光子傳遞訊息,光子沒有質量永遠保持光速飛行,換言之,訊息能量記憶性陶磁經水的動量與角量,可以將水分子改變成一種形態產生,可以將電子激發電場,使圍繞在原子核的電子雲打散,方可以將質子與中子破壞,使水分子得到穩定能量呈現光子(光量子)並能傳遞訊息又可滲透生物活體內,使活體場穩定而電場才能物性還原,讓不好的生物活體產生活化代謝有害物質。 The invention is a kind of information energy memory ceramic magnetism, wherein the message energy water is also called memory wafer water, so water has memory and information, and most of it is attributed to memory ceramic magnetism, because memory ceramics have memory and can make water molecules Substance rearrangement can also convert micro-material water. For example, switching reverse osmosis water can change small molecules, so that water can generate information that can change the biological magnetic field, restore biological properties and free toxin activation and preservation, while message energy is transmitted by photons. The photon has no quality and always keeps the speed of light flying. In other words, the energy and memory of the message energy can change the water molecule into a form, which can excite the electron to excite the electric field and break up the electron cloud surrounding the atomic nucleus. The protons and neutrons can be destroyed, so that the water molecules can obtain stable energy to present photons (photons) and can transmit information and penetrate the living organisms, so that the living field can be stabilized and the electric field can be reduced, so that the bad living organisms can be activated and metabolized. Harmful Substance.

本發明係為一種訊息能量記憶性陶磁主要是金屬氧化物所組成係可分為: The invention is a kind of information energy memory ceramics mainly composed of metal oxides can be divided into:

(1).記憶性陶磁顆粒:係由氧化矽a(30~60wt%)、氧化鋁b(25~40wt%)、氧化鈉c(0.05~1.5wt%)、氧化鉀d(0.5~2wt%)、氧化鎂e(0.5~1wt%)、氧化鈣f(0.5~1wt%)、氧化鈦g(0.5~1wt%)、氧化鐵h(2.5~5wt%)、氧化錳i(0.01~0.05wt%)及氧化鋅j(0.005~0.05wt%)所組成。 (1). Memory ceramic particles: from yttrium oxide a (30~60wt%), alumina b (25~40wt%), sodium oxide c (0.05~1.5wt%), potassium oxide d (0.5~2wt%) ), magnesium oxide e (0.5~1wt%), calcium oxide f (0.5~1wt%), titanium oxide g (0.5~1wt%), iron oxide h (2.5~5wt%), manganese oxide i (0.01~0.05wt %) and zinc oxide j (0.005~0.05wt%).

(2).記憶性陶磁粉末:係由氧化矽a(30~40wt%)、氧化鋁b(25 ~32wt%)、氧化鈉c(1.5~2wt%)、氧化鉀d(0.1~0.3wt%)、氧化鎂e、(0.8~2wt%)氧化鈣f(0.3~0.5)、氧化鈦g(0.05~0.2wt%)、氧化鐵h(20~22wt%)、氧化錳i(0.008~0.002wt%)及氧化鋅j(1.5~1.8wt%)所組成。 (2). Memory ceramic powder: from yttrium oxide a (30 ~ 40wt%), alumina b (25 ~32wt%), sodium oxide c (1.5~2wt%), potassium oxide d (0.1~0.3wt%), magnesium oxide e, (0.8~2wt%) calcium oxide f(0.3~0.5), titanium oxide g(0.05 ~0.2wt%), iron oxide h (20~22wt%), manganese oxide i (0.008~0.002wt%) and zinc oxide j (1.5~1.8wt%).

本發明訊息能量記憶性陶磁其製造步驟為;(1).首先將氧化矽a(30~60wt%)、氧化鋁b(25~40wt%)、氧化鈉c(0.05~1.5wt%)、氧化鉀d(0.5~2wt%)、氧化鎂e(0.5~1wt%)、氧化鈣f(0.5~1wt%)、氧化鈦g(0.5~1wt%)、氧化鐵h(2.5~5wt%)、氧化錳i(0.01~0.05wt%)及氧化鋅j(0.005~0.05wt%)等成份互相進行混合攪拌A,使各成份的比例相互均勻混合;(2).接續以1100℃~1250℃溫度進行12小時之鍛燒乾燥B,以去除不需要的雜質;(3).再進行降溫C,並將含有重金屬量較高的燒結物質篩選去除;(4).進行研磨D步驟;(5).接著置入容器內再進行氧化後,經過冷卻而完成即可得具訊息能量記憶性陶磁粉末E。 The energy storage magnetic ceramic of the invention has the following steps: (1) firstly oxidizing cerium oxide a (30-60 wt%), alumina b (25-40 wt%), sodium oxide c (0.05-1.5 wt%), oxidation Potassium d (0.5~2wt%), magnesia e (0.5~1wt%), calcium oxide f (0.5~1wt%), titanium oxide g (0.5~1wt%), iron oxide h (2.5~5wt%), oxidation Manganese i (0.01~0.05wt%) and zinc oxide j (0.005~0.05wt%) and other components are mixed and stirred A, so that the proportions of the components are uniformly mixed with each other; (2). Continued at 1100 ° C ~ 1250 ° C temperature 12 hours of calcination and drying B to remove unwanted impurities; (3). Further cooling C, and screening and removing the sintered material containing a higher amount of heavy metals; (4) performing the grinding D step; (5). Then, it is placed in a container and then oxidized, and after cooling, the information energy memory ceramic powder E is obtained.

請參閱圖4所示,(6).將製造流程圖3所製得的具產生訊息能量記憶性陶磁粉末E(70wt%)與陶土(30wt%)相互混合造粒,並經過乾燥鍛燒及降溫,而獲得一具訊息能量記憶性陶磁顆粒F如圖4所示。 Referring to FIG. 4, (6), the energy-memory ceramic powder E (70 wt%) prepared by the manufacture of the flow chart 3 and the clay (30 wt%) are mixed and granulated, and dried and calcined. Cooling down, and obtaining a message energy memory ceramic particles F is shown in FIG.

本發明的具訊息能量記憶性陶磁顆粒,會將水分子變得更小,並能轉換成微集團的機能水,此種水可運用在生物界、農業食品界及生化業,其又具有傳遞訊息又可滲透入生物活體內,其中 訊息如圖5所示為本發明之訊息能量水與錯誤訊息所產生訊息共振所產生修正波現象,其中正橢圓為正常訊息A如圖5所示,而如圖6所示為不正當錯誤訊息B,當訊息能量共振產生C修正波如圖7所示,其修正波C再給予錯誤訊息B之錯誤部份修正,而讓錯誤訊息B恢復成正常訊息A而得到最恰當之改善,如同人體儲存有具有思考型的訊息水與不會思考的訊息水比較其對檢測項目並使用以波動儀器之量子共振分析儀檢儀(QRS,Quantum Resonace Spectro-meter)測量。 The energy storage memory ceramic particle of the invention will make the water molecule smaller and can be converted into the functional water of the micro group, which can be used in the biological world, the agricultural food industry and the biochemical industry, and has the transmission The message can penetrate into the living body, where The message shown in FIG. 5 is a modified wave phenomenon generated by the resonance of the message energy water and the error message generated by the present invention, wherein the positive ellipse is a normal message A as shown in FIG. 5, and the abnormal error message is shown in FIG. B, when the message energy resonance produces a C correction wave as shown in Fig. 7, the correction wave C is given the error part correction of the error message B, and the error message B is restored to the normal message A to obtain the most appropriate improvement, like the human body. The message water with the thinking type and the water that does not think are stored. The water is compared with the detection item and measured by a Quantum Resonace Spectrometer (QRS).

以下實施例說明本發明如下:依據上述製造步驟;首先取氧化矽(40wt%)、氧化鋁(32wt%)、氧化鈉(1.8wt%)、氧化鉀(0.3wt%)、氧化鎂(1.7wt%)、氧化鈣(0.5wt%)、氧化鈦(0.2wt%)、氧化鐵(20.5wt%)、氧化錳(0.3wt%)及氧化鋅(0.025wt%)按比例相互攪拌,並經過高溫1100~1250℃鍛燒乾燥後,另將鍛燒呈黑色物質經過篩選,經過降溫與研磨,再置入容器內進行氧化與冷卻,能獲得訊息能量記憶性陶磁粉末,其取樣量0.01克並經過高溫融熔方式測得如表1所示並顯示出成份數據,再與陶土(30wt%)結合,經過乾造與造粒、緞燒降溫,而獲得訊息能量記憶性陶磁顆粒如取樣量0.03克並經過高溫融熔方式測得出成份數據表2,另再置入加水站的製水機、水塔及飲水機等製水方面。 The following examples illustrate the invention as follows: according to the above manufacturing steps; first taking cerium oxide (40 wt%), alumina (32 wt%), sodium oxide (1.8 wt%), potassium oxide (0.3 wt%), magnesium oxide (1.7 wt%) %), calcium oxide (0.5wt%), titanium oxide (0.2wt%), iron oxide (20.5wt%), manganese oxide (0.3wt%) and zinc oxide (0.025wt%) are stirred in proportion to each other and pass through high temperature After calcination and drying at 1100~1250 °C, the calcined black substance is screened, cooled and ground, placed in a container for oxidation and cooling, and the information energy memory ceramic powder can be obtained. The sample amount is 0.01 g and passes through The high-temperature melting method is measured as shown in Table 1 and shows the composition data, and then combined with clay (30wt%), dried and granulated, satin-cooled, and obtained information energy memory ceramic particles such as sample volume 0.03g After the high-temperature melting method, the component data table 2 is measured, and the water-making machine, the water tower and the water dispenser of the water adding station are placed in the water production.

本發明係為一種訊息能量記憶性陶磁,已符合專利要件,今爰依法提出專利申請。 The invention is a kind of information energy memory ceramics, which has met the patent requirements, and is now filed according to law.

a‧‧‧氧化矽 a‧‧‧Oxide

b‧‧‧氧化鋁 b‧‧‧Alumina

c‧‧‧氧化鈉 c‧‧‧Sodium oxide

d‧‧‧氧化鉀 D‧‧‧potassium oxide

e‧‧‧氧化鎂 e‧‧‧Magnesium oxide

f‧‧‧氧化鈣 F‧‧‧calcium oxide

g‧‧‧氧化鈦 g‧‧‧Titanium oxide

h‧‧‧氧化鐵 H‧‧‧iron oxide

i‧‧‧氧化錳 i‧‧‧Manganese oxide

j‧‧‧氧化鋅 j‧‧‧Zinc oxide

A‧‧‧混合攪拌 A‧‧‧mixing

B‧‧‧鍛燒乾燥 B‧‧‧ calcination drying

C‧‧‧降溫 C‧‧‧ cooling

D‧‧‧研磨 D‧‧‧ grinding

E‧‧‧具訊息能量記憶性陶磁粉末 E‧‧‧Information energy memory ceramic powder

Claims (1)

一種訊息能量記憶性陶磁的製備方法,其方法包括:(1).首先取氧化矽(30~60wt%)、氧化鋁(25~40wt%)、氧化鈉(0.05~1.5wt%)、氧化鉀(0.5~2wt%)、氧化鎂(0.5~1wt%)、氧化鈣(0.5~1wt%)、氧化鈦(0.5~1wt%)、氧化鐵(25~5wt%)、氧化錳(0.01~0.05wt%)及氧化鋅(0.005~0.05wt%)按比例相互攪拌;(2).持續以1100~1250℃下鍛燒12小時鍛燒乾燥,以去除不需要的雜質;(3).再進行降溫,並將含有重金屬量較高的燒結物質篩選去除;(4).研磨成粉末;(5).接著置入容器內再進行氧化後,經過冷卻而完成即可得具訊息能量記憶性陶磁粉末,將經過氧化陶瓷粉末:陶土(70:30)比例相互混合;以及(6).製成顆粒。 A method for preparing energy storage memory ceramics comprises the following steps: (1) first taking yttrium oxide (30-60 wt%), alumina (25-40 wt%), sodium oxide (0.05-1.5 wt%), potassium oxide. (0.5~2wt%), magnesium oxide (0.5~1wt%), calcium oxide (0.5~1wt%), titanium oxide (0.5~1wt%), iron oxide (25~5wt%), manganese oxide (0.01~0.05wt %) and zinc oxide (0.005~0.05wt%) are stirred in proportion to each other; (2). Continuously calcined and dried at 1100~1250 °C for 12 hours to remove unwanted impurities; (3). And filtering and removing the sintered material containing a high amount of heavy metals; (4) grinding into a powder; (5). then placing it in a container and then oxidizing, and cooling to complete the information energy memory ceramic powder , oxidized ceramic powder: clay (70:30) ratio is mixed with each other; and (6). granules.
TW95137462A 2006-10-12 2006-10-12 Energy remembering pottery magnetism TWI403485B (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
TW95137462A TWI403485B (en) 2006-10-12 2006-10-12 Energy remembering pottery magnetism

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
TW95137462A TWI403485B (en) 2006-10-12 2006-10-12 Energy remembering pottery magnetism

Publications (2)

Publication Number Publication Date
TW200817303A TW200817303A (en) 2008-04-16
TWI403485B true TWI403485B (en) 2013-08-01

Family

ID=44769321

Family Applications (1)

Application Number Title Priority Date Filing Date
TW95137462A TWI403485B (en) 2006-10-12 2006-10-12 Energy remembering pottery magnetism

Country Status (1)

Country Link
TW (1) TWI403485B (en)

Families Citing this family (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102731074A (en) * 2012-06-06 2012-10-17 林明助 Information energy memory ceramic

Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TW217999B (en) * 1993-04-07 1993-12-21 Keng-Ching Yang Far infrared ceramic material
JPH10297961A (en) * 1997-04-28 1998-11-10 Life Field Sogo Kenkyusho:Kk Far-infrared ray-radiating body and its production
TWI228537B (en) * 2002-07-23 2005-03-01 Firbest Co Ltd Far-infrared radiating material
TW200521102A (en) * 2003-12-19 2005-07-01 China Petrochemical Dev Corp Composition with far infrared irradiation function and its manufacturing method
TWI248926B (en) * 2003-02-24 2006-02-11 Yi-Cheng Liou Bacterium-inhibiting ceramics manufacturing method

Patent Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TW217999B (en) * 1993-04-07 1993-12-21 Keng-Ching Yang Far infrared ceramic material
JPH10297961A (en) * 1997-04-28 1998-11-10 Life Field Sogo Kenkyusho:Kk Far-infrared ray-radiating body and its production
TWI228537B (en) * 2002-07-23 2005-03-01 Firbest Co Ltd Far-infrared radiating material
TWI248926B (en) * 2003-02-24 2006-02-11 Yi-Cheng Liou Bacterium-inhibiting ceramics manufacturing method
TW200521102A (en) * 2003-12-19 2005-07-01 China Petrochemical Dev Corp Composition with far infrared irradiation function and its manufacturing method

Also Published As

Publication number Publication date
TW200817303A (en) 2008-04-16

Similar Documents

Publication Publication Date Title
Gandomi et al. Simple synthesis and characterization of Li0. 5Fe2. 5O4, LiMg0. 5Fe2O4 and LiNi0. 5Fe2O4, and investigation of their photocatalytic and anticancer properties on hela cells line
Kim Recent developments in lanthanide-doped alkaline earth aluminate phosphors with enhanced and long-persistent luminescence
Haase et al. Upconverting nanoparticles
Wang et al. Large‐scale green synthesis of fluorescent carbon nanodots and their use in optics applications
Norberg et al. Synthesis of colloidal Mn2+: ZnO quantum dots and high-TC ferromagnetic nanocrystalline thin films
Xu et al. Comparison on photoluminescence and magnetism between two kinds of undoped ZnO nanorods
Selvaraju et al. The modification of structural, optical and antibacterial activity properties of rare earth gadolinium-doped ZnO nanoparticles prepared by co-precipitation method
Kakihana Synthesis of high-performance ceramics based on polymerizable complex method
CN104801280A (en) Preparation method for biomass charcoal adsorbent loaded with chitosan magnetic nanoparticles
Streit et al. Red, green, and blue photoluminescence of Ba2SiO4: M (M= Eu3+, Eu2+, Sr2+) nanophosphors
CN101890354A (en) A kind of preparation method of bismuth ferrite photocatalyst
Nunes et al. Tailoring upconversion and morphology of Yb/Eu doped Y2O3 nanostructures by acid composition mediation
Atabaev et al. Cytotoxicity and cell imaging potentials of submicron color‐tunable yttria particles
Tang et al. Structure and photoluminescence properties of Dy3+ doped phosphor with whitlockite structure
CN103952648B (en) Materials, preparation methods and applications for sewage treatment
Ullah et al. Green synthesis of bio-molecule encapsulated magnetic silver nanoparticles and their antibacterial activity
CN107815310A (en) A kind of nitrogen, chlorine codope fluorescent carbon quantum dot preparation method
Wang et al. Microwave synthesis of homogeneous YAG nanopowder leading to a transparent ceramic
TWI403485B (en) Energy remembering pottery magnetism
CN109465010A (en) A kind of preparation and application of magnetism di-iron trioxide-graphitic carbon nano composite material
Agorku et al. Photocatalytic activity of red emission PVA-GdVO4: Eu3+ nanocomposite towards the degradation of Eosin Y in water
Xi et al. Luminescent property of La (OH) 3: Eu3+ nanorod and its decomposed compounds of LaOOH and La2O3
Yu et al. Crystal phase, morphology evolution and luminescence properties of Eu3+‐doped BiPO4 phosphor prepared using the hydrothermal method
Fan et al. Uniform Spheres of α-NaYF4: RE3+ (RE= Eu, Tb, Ce, Er, and Tm): Template-Free Synthesis, Multi-Color Photoluminescence, and Their Application in Cellular Imaging
Koshelev et al. The high-energy milling preparation and spectroscopic characterization of rare-earth ions doped BaY2F8 nanoparticles