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TWI307381B
TWI307381B TW94105156A TW94105156A TWI307381B TW I307381 B TWI307381 B TW I307381B TW 94105156 A TW94105156 A TW 94105156A TW 94105156 A TW94105156 A TW 94105156A TW I307381 B TWI307381 B TW I307381B
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nano
plastic
shock
wave
plastics
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TW94105156A
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TW200630545A (en
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Kun-Shu Zhang
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Zhang Yong Qing
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1307381 九、發明說明: 【發明所屬之技術領域】 ,據自創之奈米科學原理,利用粒徑1000nm以下之碳、金屬、 金屬氧化物、陶瓷或礦物等奈米粉體取代習用之塑料增強劑或填 充料’並將上述奈米粉體適量與塑料共混,以生成奈米塑料,並 利用塑料加工成型法製成電風顧奈米防震、強化扇輪塑料葉片。 【先前技術】1307381 IX. Description of the invention: [Technical field to which the invention belongs], according to the principle of nanotechnology, the use of nano-powders of carbon, metal, metal oxide, ceramic or mineral with a particle size of 1000 nm or less to replace conventional plastic reinforcing agents. Or the filler 'and the right amount of the above nano-powder is blended with the plastic to form a nano-plastic, and the plastic processing method is used to make the electric wind-proof nano-shock and strengthen the fan wheel plastic blade. [Prior Art]

當風扇輪全速轉動時,其葉片與空氣相撞擊,並發 別傳入空氣和葉片;傳人空氣的震波即產生空中較弱噪音, 進人紐’終至麵式固定處,造成扇座與 擊 較㈣音,其巾震麟触賴(例如電腦 lpu)之衫響頗大,亟需加以改進的情形。 【發明内容】 研奈米物理理論時發現,凡奈米材料與塑料之 震和增強祕強度之功能,遂將此原理利用 於電巧用奈米防震、強化扇輪塑料葉壯,兹說明如下·· 不米尺寸材料所呈現迥於常規材料的特性,目前尚缺 無法解釋外’研發功正陷於财巾況^ 作在摸索中前進_境;可發掘《材料 頸。如克’則乾式研磨法製造奈米粉體所遭遇· :女=式技術瓶頸獲得突破,則不僅奈米粉體的功能 象他4 開之別知其然柯知其所以然的麵奈米現 所遭遇之技術瓶 之可行性 5 $07381 • 粉體之技術革新以及發現可大 轉^:縮:面原子的面積比率甚高。本 關係,會出現缺少I價電生表^原子因曝露於外界 球,因受日昭而:5:ί表面殘鍵為自由基。環顧人類居住的地 、相摩擦生電、ί果水流上升過程中’水汽與空氣 響周遭帶負電的大義奎㈣工二滅—不水私體形成,就立即向其 都帶有表面吸ί電於巧’、所以奈米體的表面通常 實奈米表Φ吸著電子的存/、^^制时近奈米體即可證 所以表面的存在。由於表面殘鍵多屬強力的共價鍵, ,料具結晶結構^米1而是處於束缚狀態。設若材 •最高能位〇稍高“ί3)中,如價帶⑵When the fan wheel rotates at full speed, its blades collide with the air, and the incoming air and the blades are sent out; the shock wave of the transmitted air generates a weaker noise in the air, and enters the new end to the surface fixed position, causing the fan seat to hit (4) The sound of the towel, which is shocked by the shock of the towel (such as the computer lpu), is quite loud and needs to be improved. [Summary of the Invention] In the physics theory of Yannai, it is found that the function of the vibration of the nano-materials and the plastics and the enhancement of the secret strength, 遂 use this principle in the nano-earthquake with electric shock and strengthen the plastic wheel of the fan wheel. · The characteristics of conventional materials are not present in the non-meter-sized materials. At present, there is still a lack of explanation. The research and development work is in the state of financial resources. Such as gram 'then dry grinding method to make nano-powder encountered · : female = type technical bottleneck to achieve breakthrough, not only the function of nano-powder like his 4 open, knowing why it is known that the face of the face is now encountered The feasibility of the technical bottle 5 $07381 • The technical innovation of the powder and the discovery can be greatly changed. ^: Shrinking: The area ratio of the surface atoms is very high. In this relationship, there will be a lack of an I-valent electric meter. The atom is exposed to the outside ball, because of the Japanese: 5: ί surface residual bond is a free radical. Looking around the land where people live, the frictional electricity generation, the water flow in the process of rising water vapor and air ringing, the negative electricity of the big Yikui (four) work two off - no water private body, immediately with a surface to absorb electricity Yu Qiao', so the surface of the nano-body is usually a solid nanometer Φ absorbing electrons in the storage /, ^ ^ system when the near-nano body can prove the existence of the surface. Since the surface residual bond is mostly a strong covalent bond, the material has a crystalline structure ^m 1 but is in a bound state. Set the material • The highest energy level is slightly higher in “ί3), such as the price band (2)

體)電n型半導體中的電子(施 癱型米吸著電子存在於材料表面,而N 及者電子的能位就進入傳導帶.第一 g a)^表面 -的能位超過㈣功函數Φ值材=面吸著電子 狀態,並遺㈣位成為表面自由基,然後表面、*、面成為游離 取電子並釋放能量。根據本案發I人研究遭 及者電子有下列多種方式吸收能並發生能位變化r $未表面 6 1307381 (1) 光子撞擊引起導電或游離作用; (2) 低頻光反射及高頻光透射作用·’ (3) 粒子撞擊引起導電或游離作用: (4) 吸收電磁波生熱作用; ⑸傳導熱和幅射糾起導電或游離作用; (6)電场牵引起導電或游離作用; 超音壓力波)引起導電或游離作用; 做(超音速拉力糾1起導電或雜作用; ⑻气劇_職剌鱗f ; ίίίΐΐίΐ垂直的靜態電場和磁場之感應引起導電增強作用. no、L弓單性波(音波和超音波)引起導電或游離作用;, (12)摩擦引起導電或游離作用。 , 雷早有諸多奇異特性’均因帶負電的表面吸著 起。这二各種不關態能並起能位變遷或游離化所引 表面現象;⑸分散作用;⑹高折先苹 反气遮*作用隨材!^徑變小而起藍 性率;⑴)南熱導率;(⑵高比熱;(⑶防火 米於ΪίΙΪίΓ 性;〇9)吸音性;⑽毛細管現象;(21)奈 ,如體膠等共混起架橋作用併使強度增加、導電率上升、阻 ===(22)非磁性材料出現強磁性;(23)奈米磁性體的迴異磁 予特,;(24)巨磁電阻現象;(25)生物晶片的工作原理;(26)活性炭 =菌作用;(27)性質奇異的奈米碳管;(28)奈米金屬粉體呈黑 ^;(29)奈米金屬粉體的電阻呈現負溫度係數;(3〇)絨毛保溫功 =;(31)尖端(奈米)放電現象;(32)強力的摩擦去污殺菌作用;(33) 用;(34)吸震作用;㈤奈米線具強力網捕功能;⑽奈米導 波官;(37)低溫超導電現象。此外’尚有許多借助奈米現象的應用 7 1307381 例’諸如:微電子元件、微機雷、台匕 和第Υ21)_ΐ:ίΐ料37項特性中編號第(34)號吸震作用 和橋強化作用的原理為依據。 -縣表面積上有Ns個配位不足的懸鍵’並假設每 ,則球狀奈_之吸著電子Electron in an electric n-type semiconductor (the smear-type absorbing electrons are present on the surface of the material, and the energy of the N and electrons enters the conduction band. The first ga)^the surface-level energy exceeds the (four) work function Φ The value = surface absorbs the electronic state, and the (four) position becomes a surface free radical, and then the surface, *, and surface become free electrons and release energy. According to the present case, the electrons of the person in the study have the following ways to absorb energy and change the energy level. r $No surface 6 1307381 (1) Photon impact causes conduction or free action; (2) Low-frequency light reflection and high-frequency light transmission ' (3) Conductive or free action caused by particle impact: (4) absorption of electromagnetic wave heat generation; (5) conduction heat and radiation to correct conduction or free action; (6) electric field traction to conduct conduction or free action; supersonic pressure wave ) causing conduction or free action; doing (supersonic force correction 1 conduction or miscellaneous action; (8) gas drama _ occupation scale f; ίίίΐΐί vertical static electric field and magnetic field induction cause conduction enhancement. no, L bow single wave (sonic and ultrasonic) cause conduction or free action; (12) friction causes conduction or free action. , Ray has many singular characteristics' both due to the negatively charged surface. The surface phenomenon caused by the change or dissociation of energy level; (5) Dispersion; (6) The high-definition first anti-gas cover * effect with the material! ^ The diameter becomes smaller and the blueness rate; (1)) the south thermal conductivity; (2) high specific heat; ((3) Fireproof rice in ΪίΙΪίΓ; 〇9 (10) Capillary phenomenon; (21) Nai, such as body rubber and other blends to bridge the bridge and increase the strength, electrical conductivity, resistance === (22) non-magnetic materials appear strong magnetic; (23) nano Magnetic reversal magnetism, (24) giant magnetoresistance phenomenon; (25) working principle of biochip; (26) activated carbon = bacteria action; (27) singular carbon nanotubes; (28) The metal powder of the rice is black ^; (29) the electrical resistance of the nano metal powder exhibits a negative temperature coefficient; (3 〇) the thermal insulation work of the villi; (31) the tip (nano) discharge phenomenon; (32) the strong friction (34) used; (34) shock absorption; (5) nanowire with strong net catching function; (10) nano-guided wave; (37) low-temperature superconducting phenomenon. In addition, there are many ways to use the nano phenomenon Application 7 1307381 Examples [such as: microelectronic components, microcomputer mines, Taiwanese and Υ21) _ΐ: ΐ 37 37 37 37 37 37 37 37 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 - There are Ns dangling bonds with insufficient coordination on the surface area of the county and assuming that each is spheroidal

Nd 3N, r (1) 材料之彳Γ=)式表7^表面吸著電子體密度恆與奈米 大’。尺寸成反關,即材料顆崎小,表面吸著t子體密度愈 率度Τ ί熱平衡情形下,量E之表面吸著電子的機 羊/(稱為Fermi-Dirac分佈函數)為 /(E) 1Nd 3N, r (1) Material 彳Γ =) Table 7^ Surface absorbing electron density is constant with nanometer'. The size is reversed, that is, the material is small, and the surface is absorbing the density of the t-body. 热 In the case of thermal equilibrium, the machine that absorbs electrons on the surface of the amount E is (or called the Fermi-Dirac distribution function) is / ( E) 1

g-(E^)/kT ⑵ e(E-H)/kT+1 因為(E //)>>kT;式中k為Boitzman常數,#為Fermi能。又 月b篁介於E與E+dE間之單位體積狀態數切⑻dE為 1 r λ -, 3/2 (3) 鄉)dE= 1?[争 W、 道性ί中me為電子之有效質量,h= h^,h為Plank常數。傳 導帶單位體積之電子數队為 1寻 |00 N〇- JEg ^(Ε)/(Ε)άΕ = 2(2πιηθ^2)3/26-(Ε8·^τ 8 1307381G-(E^)/kT (2) e(E-H)/kT+1 Since (E //)>>kT; where k is the Boitzman constant and # is Fermi. Month b篁 is the number of unit volume states between E and E+dE. (8) dE is 1 r λ -, 3/2 (3) Township) dE = 1? [W, W, ί, me is effective for electrons Mass, h = h^, h is the Plank constant. The number of electrons per unit volume of the conduction band is 1 finder |00 N〇- JEg ^(Ε)/(Ε)άΕ = 2(2πιηθ^2)3/26-(Ε8·^τ 8 1307381

Nc = n〇e -(Ε-μ)^Τ n〇 = 2(27tmekTh-2)3/2 (4) (5) 今假設進入傳導帶的電子全部來自表面吸著電子。令^ 總表面吸著電子密度;N〗和N〗分別代表已進入傳導帶和^代表 有基態能位之表面吸著電子密度。由於基態能位Ea=Eg_Ed=原Nc = n〇e -(Ε-μ)^Τ n〇 = 2(27tmekTh-2)3/2 (4) (5) It is assumed that the electrons entering the conduction band all come from the surface absorbing electrons. Let the total surface absorb the electron density; N and N respectively represent the occluded electron density of the surface that has entered the conduction band and represents the ground state energy level. Since the ground state energy level Ea=Eg_Ed=original

Nd _n ^ _ 丄、d Nd = Nd/(^Eg-Ed-p) = —1+e(Eg-Ed^)/kfNd _n ^ _ 丄, d Nd = Nd/(^Eg-Ed-p) = —1+e(Eg-Ed^)/kf

NdNd

Nd = Nd - Nd°= i+e_(Eg-E_/kT (6) 因為eu_Eg+Ed)/kT >> l ’所以(6)式可簡化為 V NdNd = Nd - Nd°= i+e_(Eg-E_/kT (6) because eu_Eg+Ed)/kT >> l ’ so equation (6) can be simplified to V Nd

NdNd

g-(Eg-Ed-p)/kT ⑺ (8) (9)G-(Eg-Ed-p)/kT (7) (8) (9)

注意N〗=Nc關係’於是合併(4)和⑺二式得 e_(E^)/kT = (Nd/n〇)1/2e-Ed/2kTNote that N ==Nc relationship' then merges (4) and (7) with the formula e_(E^)/kT = (Nd/n〇)1/2e-Ed/2kT

將(8)式代入(4)式,即得表面傳導電子密度為 Nc = (n〇Nd)1/2e'Ed/kT (9)式綱:奈米尺寸醜緣體不僅具有 枓顆粒愈小(Nd愈大)和溫度(τ)較、,而且材 導體。 “(η°較大)時,即可變成金屬 9 1307381 面户f需 發。已知表面_子逃離表 示。今考慮動量介於内第二, 面積之電子發射率為 朝Z方向(垂直於表面)單位 (10) r )dl>xdl>ydi>z =: n(I>, r) d8dl>ydi>z n〇, r)= h3 (11) 於是表面發射電流密度為 j =ieVxn(?, ?)(!?= %-ί-οο i-〇〇 iE^dM^zds--!- 11 e(e-Ef)/kT (12) 式中e為電子之荷電量’ Ef為金屬之Fermi能。利用(ε — Ef)> > kT條件,簡化後積分之,得 卜 ATV· (13) A =47rmekT2h·3 =120amp/cm2-deg2 (14) Φ = E〇- Ef (15)Substituting equation (8) into equation (4), the surface conduction electron density is Nc = (n〇Nd) 1/2e'Ed/kT (9) Formula: The nanometer size ugly body not only has smaller ruthenium particles. (The larger Nd) and the temperature (τ), and the material conductor. "(η° is larger), it can become metal 9 1307381. The surface is required to be sent. It is known that the surface _ sub-escape is represented. Now consider the momentum second, the electron emissivity of the area is toward the Z direction (perpendicular to Surface) unit (10) r ) dl > xdl > ydi > z =: n (I >, r) d8dl > ydi > zn 〇, r) = h3 (11) Then the surface emission current density is j = ieVxn (?, ?)(!?= %-ί-οο i-〇〇iE^dM^zds--!- 11 e(e-Ef)/kT (12) where e is the charge of the electron 'Ef is the metal Fermi Can use the (ε - Ef) > kT condition to simplify the post-integration, and get the ATV· (13) A =47rmekT2h·3 =120amp/cm2-deg2 (14) Φ = E〇- Ef (15)

Ef = ~^(37r2Nc)2/3 (16) 10 1307381 综觀(13)〜(16)諸式結果’即知溫度τ愈高、奈米材料 愈小(Nc愈大)時,熱放射電流密度愈大。 ’ 熱放射餘的發生,騎示絲絲奸麟㈣,並 表面自由基。 心田 塑料是由分子味小的單體行強鍵共價結合,成為線性 惟鍵較不易發生’即使有侧鍵也屬弱鍵結 :所以-旦丈熱力作用,側鍵就較容易受破壞受損。 =奈米防震、強化扇輪歸葉片的紐雖是歸,惟_ 不米顆粒㈣,此共混物在其加工流動難會生熱,致使 =粒表面吸著電子起游離,並遺留表面自由基,會強力^^ ^鏈’而成為長鏈間的架橋物,遂使塑料結構起變化,由長鍵 …構變成為網狀聚合物,使塑料的材料強度大幅提升。 田案也糊上述奈料料37項雜中編號第⑼)吸震作 嫌,震波阻抗的奈米粉體⑵與較低震波阻^的= (3)相結合之混合物作為吸震材料體⑴,如三圖所示。一 進^吸震材料,則震波(壓力波)就在兩種物質界面行反射^用。 J震波在原物質的震波速度Usi、f點速度& 二m二反射穿人作用,此時反射震波速度為1^1,穿 得震波速度為ik,如弟四圖所^根據質量和動量守恒關係分別 P 1 U S1 + Ρ οι Usi = 0 , (17) P2 - P, =β' Us. (Up2 - Upi), (18) Pi =ρ οι Usi Upi , (19) p2 =ρ 02 Us2 Up2, (20) 式中心、一為震波未到時的質量密度,運用(17)至⑽式,即求 得: 11 1307381Ef = ~^(37r2Nc)2/3 (16) 10 1307381 Looking at the results of (13)~(16) equations, the higher the temperature τ and the smaller the nanomaterial (the larger the Nc), the hot radiation current The greater the density. ‘The occurrence of heat radiation, riding a silky traitor (four), and surface free radicals. Xintian plastic is a combination of strong molecular bonds with small molecular weight, which becomes a linear only bond. It is not easy to occur. Even if there is a side bond, it is a weak bond. Therefore, the side bond is more susceptible to damage. damage. =Nylon shockproof, strengthen the fan wheel to return to the blade of the new is the return, but _ not rice particles (four), this blend in its processing flow is difficult to heat, resulting in = particle surface absorbing electrons to free, leaving surface free The base will be strong ^^^chain' and become a bridge between the long chains. The plastic structure will change, and the long bond will become a network polymer, which will greatly improve the material strength of the plastic. The field case also pastes the above-mentioned Nai material, 37 miscellaneous number (9) shock absorption, the combination of the shock wave impedance of the nano-powder (2) and the lower seismic resistance = (3) as the shock-absorbing material body (1), such as three The figure shows. When a shock absorber material is entered, the shock wave (pressure wave) is reflected at the interface between the two substances. J shock wave in the shock velocity of the original material Usi, f point velocity & two m two reflection wear, the reflection shock velocity is 1 ^ 1 at this time, the shock velocity is ik, such as the fourth figure ^ conservation according to mass and momentum The relationship is P 1 U S1 + Ρ οι Usi = 0 , (17) P2 - P, =β' Us. (Up2 - Upi), (18) Pi =ρ οι Usi Upi , (19) p2 =ρ 02 Us2 Up2 , (20) The center of the formula, and the mass density of the shock wave when it is not reached, using (17) to (10), that is: 11 1307381

Up2 2poiUsi Upl = —---- polUsi + p02Us2 (21) p2 2p〇2Us2 Pi = poiUsi + p02Us2 (22) 利用(21)和(22)式可分析震波吸收體的震波吸收能力。考慮 下列兩種情形:Up2 2poiUsi Upl = —---- polUsi + p02Us2 (21) p2 2p〇2Us2 Pi = poiUsi + p02Us2 (22) The shock absorption capacity of the shock absorber can be analyzed using equations (21) and (22). Consider the following two scenarios:

1)當震波從祕震波阻抗(ρ()1 Usi)的塑料進人較高震波阻抗 (p〇2 Ik)的奈米顆粒時,因p〇2 Us2>p〇i Usi關係,即得上> Pi,、Ik <> Ik。此結果表示反射波為如第四圖所示之震波(壓 力波)。就能量觀點而言,奈米材料顆粒具有將壓力波之能送 還塑,’使之壓力增大,目此具有增加壓祕能的作用,惟 因塑料和奈米爾4均為凝態,壓縮率甚小,所以壓縮耗能效 果不包。 11 =雜較冑震她抗(pc)l Usi)的奈米齡進人較低震波阻 抗(~US2)的塑料時,因^ Usi>一Us2關係,即得:Ρ2 <Ρι;1) When the shock wave enters the high-shock impedance (p〇2 Ik) nanoparticle from the plastic of the tremor wave impedance (ρ()1 Usi), it is due to the relationship between p〇2 Us2>p〇i Usi > Pi,, Ik <> Ik. This result indicates that the reflected wave is a shock wave (pressure wave) as shown in the fourth figure. From the energy point of view, the nano-material particles have the ability to send the pressure wave energy back, 'to increase the pressure, so as to increase the pressure secret energy, but the plastic and the nemir 4 are both condensed, the compression ratio Very small, so the compression energy effect is not included. 11 = Miscellaneous 胄 她 她 她 她 她 她 她 她 她 她 她 她 Us Us Us Us Us Us Us Us Us Us Us Us Us Us Us Us Us Us ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~ ~

。此結果表示反射波為如第五圖所示之稀釋波(拉力 奈米顆粒表面發生拉力_,首當其衝的奈米表面 子就會被逼拉離表面,並在拉引過程中,表面吸著電 =P因能位提升甚至起游離作用而大量吸收能。 震“電風扇用奈米防震、強化扇輪塑料葉片,,之吸 傳統吸震體’係利用奈米材料表面吸著電子之能位 料體^籍狗用來有效吸收震動能,並^在吸震過程中,吸震材 Ύ瑕的體積形狀保持不變。 12 Ϊ307381 【實施方式】 將粒控lOOOnm以下、l〇%wt.以上之碳、金屬、金屬氧化物、 ,究或礦物等奈米粉體取代塑料之增強劑和填充料,並將上述奈 米粉體適量與塑料(包括:合成橡膠、樹脂及熱塑性塑膠)共混 以生成奈米塑料’然後利用塑料加工成型法製成各型電風扇用奈 米防震、強化扇輪塑料葉片。 【圖式簡單說明】 龙二_亂為奈米表面吸著電子的能位圖。 職: (1)---傳導帶,(2)-一價帶,(3)——能隙, 0一一價帶最高能位為零,. This result indicates that the reflected wave is a dilution wave as shown in the fifth figure (the tensile force occurs on the surface of the larval particle, and the first surface of the nanoparticle is forced to pull away from the surface, and during the pulling process, the surface is galvanically charged. =P A large amount of energy can be absorbed due to the energy level increase or even the free action. The vibration "electrical fan with nano-shock, strengthen the fan wheel plastic blade, and the traditional shock absorber" is the use of nano-material surface to absorb the energy of the material. The body dog is used to effectively absorb the vibration energy, and the volume shape of the shock absorber material remains unchanged during the shock absorption process. 12 Ϊ307381 [Embodiment] The carbon of the particle control below 100om, l〇%wt. Nano-powders such as metals, metal oxides, and minerals replace plastic reinforcing agents and fillers, and blend the above-mentioned nano-powder with plastics (including synthetic rubber, resin and thermoplastic) to form nano-plastics. 'Then use the plastic processing method to make nanometer shockproof and strengthen the fan wheel plastic blades for various types of electric fans. [Simple diagram of the diagram] The dragon 2 _ chaos is the energy map of the surface of the nanometer absorbing electrons. )--- Conductive band, (2) - one price band, (3) - energy gap, 0 to one price with the highest energy level is zero,

Ea表面吸著電子的基態能位,The surface of Ea attracts the ground state energy of the electron,

Eg傳導帶的最低能位, E 傳導帶的最高能位,Ed=Eg~Ea。 為:金屬表面傳導電子之能位圖。The lowest energy level of the Eg conduction band, the highest energy level of the E conduction band, Ed=Eg~Ea. It is: the energy level map of the electron conduction on the metal surface.

①---傳導帶,②--真空, ③~ -表面。 名二圖為:奈米吸震材料體。 圖號: 1---奈米吸震材料體。 以下之碳、金屬、金屬氧化物、陶 2 ―-較高震波阻抗粒徑1000nm 堯或礦物等奈米級粉粒。 3---較低震波阻抗之塑料。 1307381 紐峨_舰續綠!纽抗奈米顆 趣: 1 塑料, 2—奈米顆粒, 3——界面, Ρ<η塑料原有密度, Ρ'---受震壓後之塑料密度, Ρζ—~反射後之震波壓力, ^si---反射之震波速度,1---conducting belt, 2--vacuum, 3~-surface. The second picture is: nano-shocking material body. Drawing No.: 1---Nylon shock absorbing material body. The following carbon, metal, metal oxide, ceramic 2 - high-order seismic impedance particle size 1000nm 尧 or mineral-grade nano-sized particles. 3---Plastic with lower seismic impedance. 1307381 纽峨_船续绿!纽抗奈米 Interest: 1 plastic, 2—nano particles, 3—interface, Ρ<η plastic original density, Ρ'---the density of plastic after shock, Ρζ—~ shock wave pressure after reflection, ^si---reflection wave velocity,

Up2一-反射後質點速度, |〇02奈米顆粒原有密度, Pi---反射前之震波壓力,Up2 - the particle velocity after reflection, | 〇 02 nanometer particle original density, Pi - shock wave pressure before reflection,

Usi---原有震波速度’Usi---original shock velocity

Upi---反射前質點速度, US2-一奈米顆粒震波速度。Upi---pre-reflection particle velocity, US2-one nanometer particle shock velocity.

JI互凰為:震波從較較高震波阻抗的奈米顆粒進入低震波阻抗的 塑料時所發生的反射狀態。 職: 1—-奈米顆粒, 2塑料, 3---界面, P or ---奈米顆粒原有密度, P〇2-―塑料原有密度, P 1- —受震壓後之奈米顆粒密度, Pi一-反射前之震波壓力 P2— -反射後之震波壓力, Usi一-原有震波速度, U;, 反射震波速度, US2---塑料内震波速度, Upi— —反射前質點速度, UP2---反射後質點速度。 【主要元件符號說明】 14JI mutual phoenix is the reflection state of the shock wave when the nanoparticle of the higher seismic impedance enters the plastic of low seismic impedance. Position: 1—nano granules, 2 plastics, 3---interface, P or --- nanoparticle original density, P〇2-―plastic original density, P 1-—after shock Rice particle density, Pi-pre-reflection seismic wave pressure P2 - shock wave pressure after reflection, Usi--presence seismic velocity, U;, reflection shock velocity, US2---plastic internal shock wave velocity, Upi - before reflection Particle velocity, UP2---the velocity of the particle after reflection. [Main component symbol description] 14

Claims (1)

1307381 、申請專利範圍: 撼顧奈米防震、強化扇輪塑料葉片生成法,係依 論’凡奈米材料與塑料(包括:合成橡膠、樹脂 膠)之混合體均具有強力吸震和增麵料強度之功 :氫1此侍利用粒徑1000nm以下、10%wt•以上之碳、金屬、金 樹或礦物等奈米級粉體與塑料(包括:合成橡膠、 型二i造ΐΞϊ)共混’生成奈米塑料,並利用塑料加工成 各型電風扇用奈米防震、強化扇輪塑料葉片。1307381, the scope of application for patents: In consideration of nano-earthquake-proof and enhanced fan-blade plastic blade generation method, it is based on the combination of “Wan Nai material and plastic (including: synthetic rubber, resin glue), which has strong shock absorption and fabric strength. The work of hydrogen 1 This kind of nano-sized powders such as carbon, metal, gold tree or minerals with a particle size of 1000 nm or less and 10% wt• or more are blended with plastics (including: synthetic rubber, type II). The nano-plastics are produced, and the plastics are processed into nano-earthproof and enhanced fan-wheel plastic blades for various types of electric fans. 1515
TW094105156A 2005-02-22 2005-02-22 A shock-absorbing and strength-reinforced fan blades made of nano-plastics material TW200630545A (en)

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