TWI330657B - Super-low fouling carboxybetaine materials and related methods - Google Patents
Super-low fouling carboxybetaine materials and related methods Download PDFInfo
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- TWI330657B TWI330657B TW95128045A TW95128045A TWI330657B TW I330657 B TWI330657 B TW I330657B TW 95128045 A TW95128045 A TW 95128045A TW 95128045 A TW95128045 A TW 95128045A TW I330657 B TWI330657 B TW I330657B
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- Prior art keywords
- beet
- sbma
- carboxybetaine
- polymer
- substrate
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!33〇657 九、發明說明: 【發明所屬之技術領域】 本發明係有關一種超低生物分子黏附的磺基甜菜鹼和緩基甜!33〇657 IX. Description of the invention: [Technical field to which the invention pertains] The present invention relates to a sulfobetaine and a slow-sweet sweetness adhered to an ultra-low biomolecule
鹼和綾基甜菜驗材料之表面的製備方法、以及具有超低生物分子 黏附表面的裝置。 【先前技術】 抗蛋白質吸附表面(surface resistance t〇 pr〇tdn ads〇rpti〇n)在許 多應用上非常重要’例如可應用在船體塗層、植入生物體内材料、 生物醫學麟及生物制II、生物分離和祕傳遞上。舉例而言, 船舶的生物污垢物會引起包括因增加拖拽而導致推進燃料的損失 及船舶速度和里彳i能力的降低等問題。許多親水性表面可以減少 蛋白質吸附。然而’這絲面常从以防止不希望有的細胞、細 菌或其他微生__。即絲面上存在少量的蛋自質於也可以 導致不需要的污垢黏附和增殖。例如,為了表現出好的血液相容 性,維蛋白原的吸附要低於5_1〇ng/cm2,以抑制血小板黏附, 物黏附的表面或材料對於發展環保、 漆、具有優越相容性之生物材料、以 =些應用f要超魅物分子_表面。無污染材舰使塗有該 才料的表面無法靖賴雜蛋自。抗蛋㈣制和抗細胞/微生 器的發展是非常重要。 '防污或無污染之船舶用油 以及具有高特異性之生物感測 防污塗料是三丁基錫(TBT)類油 海河口和碼頭低水位交換區之非 傳統上,應用於船舶的最佳防污塗 漆。隨著對TBT在特別是例如沿海、 ’ TBT防污塗料已被包括 目標海洋生物效應上的環額注之增加 1330657 美國在内的很多國豕限制使用。當前市場上的不含ΤΒτ之防污漆 是以例如銅顆粒或氧化亞銅之無錫生物殺傷劑為主要成分。因為 這些油漆會將銅濾出到水中,而這些生物殺傷劑對海洋環境有 害,因而它們的應用受到高度限制。無毒去污(f〇uling_rdease)的矽 氧烷和氟化塗料在這種情況下發展起來。然而,這些塗料僅對高 速移動的絲有效。然而污垢大衫易地在靜態㈣構、或在接 近陸地的大海巾緩慢移動之姉上產生,_這些麵的應用極A method for preparing a surface of a base and a sulfhydryl beet test material, and a device having an ultra-low biomolecule adhesion surface. [Prior Art] The surface resistance t〇pr〇tdn ads〇rpti〇n is very important in many applications. For example, it can be applied to hull coating, implanted biomaterials, biomedical linings and organisms. System II, biological separation and secret transfer. For example, the ship's biofouling can cause problems including propulsion fuel loss due to increased drag and the reduction in ship speed and capacity. Many hydrophilic surfaces reduce protein adsorption. However, this silk is often used to prevent unwanted cells, bacteria or other micro-organisms. That is, the presence of a small amount of egg on the silk surface can also cause unwanted dirt adhesion and proliferation. For example, in order to exhibit good blood compatibility, the adsorption of retinoin is less than 5_1 ng/cm2 to inhibit platelet adhesion, and the surface or material to which the substance adheres is environmentally friendly, lacquer, and has excellent compatibility. Material, to some applications f to super masculine molecules _ surface. The non-polluting material ship makes it impossible for the surface coated with the material to be used for the eggs. The development of anti-egg (4) and anti-cell/micro-vibrators is very important. 'Anti-fouling or non-polluting marine oils and bio-sensing anti-fouling coatings with high specificity are unconventional for tributyltin (TBT) oil-sea estuary and dock low water exchange area, the best protection for ships Stained paint. With the increase in the number of TBTs in the TBT in particular, for example, coastal, 'TBT antifouling coatings have been included in the target marine biological effects, 1330657 US is restricted. The anti-stain paints on the market today are mainly composed of tin-free biocides such as copper particles or cuprous oxide. Because these paints filter out copper into the water, and these biocides are harmful to the marine environment, their use is highly limited. Non-toxic decontaminants (f〇uling_rdease) of oxane and fluorinated coatings developed in this case. However, these coatings are only effective for high speed moving yarns. However, the dirt coat is easy to produce on the static (four) structure, or on the slow movement of the sea towel near the land, _ the application of these faces
受限制。目前仍需要環保無污染的塗料,使料微生物無法黏附 在其上。 各種聚合物已在生物醫學倾域用作生物相容材料。缺而, 有少數備選物認為是“無污染材料“超低生物分子黏附材 料’’。聚乙私二醇(PEG)類材料是—般敎量使㈣無污染材 料。PEG或寡聚乙稀乙二醇(咖)改性表面對抗非特異性蛋白吸^ 性已經制歧地。認為郎排斥效離 是PEG聚合物抗蛋白質吸附的一個原因。對〇eg自組裝單層 (self-assembled m〇n〇layers,SAMs)的研究顯*,若表面要且曰有抗; 白質吸_能力,财需要具有射的咖齡_度,並且圍 繞著〇職緊密結合的水層主要負責強的水合斥力。然而,觸 或〇職團可以姆快速地自氧化,特別是存在氧和過渡金屬離 子的It況T巾大夕數生物化學相關的溶液含有過渡金屬離子。 此外’接枝PEG刷狀(brush)聚合物在室溫下顯示出抗蛋白質性,伸 是在35似上失去帥縣_⑽斥雜。因此除 之外的其絲污㈣是料有意義。 顧膽鹼(PC)類聚合物或表面已經顯示可以減少蛋白質吸 1330657 ^附。它們被視為是仿生防污材料,因為它們含有可在細胞膜外層 .發現的磷酸膽鹼首基。與磷酸膽鹼類材料有關的大部分工作集中 . 在磷酸膽鹼基團位於側鏈的甲基丙烯醯氧基乙基磷酸膽鹼(撕(:) - 類共聚物上,例如甲基丙烯醯氧基乙基磷酸膽鹼和甲基丙烯酸正 丁酯(BMA)的共聚物。商業上,mpc類共聚物已經應用在隱形眼 鏡。另一種方法是在金上形成磷酸膽鹼-封端的自組裝單層。已經 報導的甲基-封端的自組裝單層,對纖維蛋白原的吸附占單層的 18%低。磷酸膽鹼類材料的水合作用也被認為是其阻礙蛋白質吸附 修 的原因。然而,磷酸酯基團對水解反應敏感,並且例如2-甲基丙烯 醯氧基乙基磷酸膽鹼之磷酸膽鹼單體對濕度敏感,因而不便於合 成和處理。因此我們希望發展除了磷酸膽鹼外的新型材料,以使 用於需要長期材料穩定性的應用方面。 與磷酸膽鹼類聚合物類似’磺基甜菜鹼聚合物屬於聚甜菜鹼聚 合物,其中陽離子和陰離子基團均在相同的單體殘基上。與MPC 相比,磺基甜菜鹼甲基丙烯酸酯(SBMA)較容易合成和處理。然 而,石黃基甜菜驗曱基丙烯酸醋聚合物的抗污能力被認為比鱗酸膽 馨驗聚合物低。因為先前大多數對縣甜紐曱基丙烯酸酯聚合物 的研究集中於它們與其他疏水性單體的共聚物上,以便將磺基甜 菜驗甲基丙烯酸醋連接到基材上或提供機械強度,而將續基甜菜 驗作為無污染材料或生物相容材料的潛能低估了。 由於段間聚胺g旨(segmented polyurethanes,SPU)的優異機械性 月b,因此使其成為一種廣泛使用的生物材料,特別是使用於心血 官裝置。-系列研究報告顯示藉由表面接枝、聚摻合⑦咖· blending)、或互穿網狀結構聚合物(interpenetratingp〇lymer 7 1330657 networks, IPNs),可以改進段間聚胺酯與]UPC類聚合物的生物相容 ' 性。Ishihara及其同事進行了MPC/段間聚胺酯薄膜的廣泛研究, • 與原先的段間聚胺酯相比,該MPC /段間聚胺酯薄膜可以形成穩定 ' 的乂聯網路結構’而有效地減少血小板的黏附。請參閱Morimoto, K. 等人 ’ Biomaterials 23:4881-87, 2002; Morimoto,K.等人, Biomaterials 25:5353-61,2004。因為MPC單體對濕度靈敏,因此希 望能發展出MPC/段間聚胺酯薄膜以外的具有超低生物分子黏附 特性之新型段間聚胺酯類材料。 • 因此有對超低生物分子黏附材料的需求。超低生物分子黏附材 料可用於製備超低生物分子黏附表面,作為船體、植入式生物材 料、生物醫學診斷感測器和藥物傳遞的塗層。本發明的目標將在 下面闡述。 【發明内容】 本發明提供一種超低生物分子黏附的磺基甜菜鹼和羧基甜菜 驗材料;超低生物分子黏附表面與製備塗有超低生物分子黏附石黃 基甜菜驗和敌基甜菜驗的表面之方法;以及具有超低生物分子黏 附表面的農置。 方Φ,本發明提供—種表面塗有續基甜菜驗或叛基甜菜驗材 料的基材。縣材表面上職有1縣甜祕或減甜菜驗材 料絲面沒有大於約i nm2的缺陷,並且纖維蛋白原的吸附係低 於約30ng/cm2。在一個實施例中,表面的纖維蛋白原吸附係低於 約lOr^g/cm2。在-個實施例中,表面的纖維蛋白原吸附係低於約$ ng/cm。在—個實施例中’表面的纖維蛋白原吸附係低於觸 ng/cm ° 1330657 在一個實施例中,磺基甜菜鹼材料是聚磺基甜.菜鹼。磺基甜菜 鹼材料可以由一種或多種選自磺基甜菜鹼丙烯酸酯、磺基甜菜鹼 丙稀醯胺、礦基甜菜驗乙稀基化合物'確基甜菜驗環氧化物、及 其混合物的單體來製備。 在一個實施例中,幾基甜菜驗材料是聚叛基甜菜驗。竣基甜菜 鹼材料可以由一種或多種選自羧基甜菜鹼丙烯酸酯、羧基甜菜鹼 丙烯醢胺、敌基甜菜驗乙烯基化合物、繞基甜菜驗環氧化物、及 其混合物的單體來製備。 在一個實施例中,磺基甜菜鹼材料是包括聚磺基甜菜鹼的二嵌 段共聚物。在一個實施例中,該二嵌段共聚物包括聚環氧丙烷。 在一個實施例中,磺基甜菜鹼材料是一種互穿網狀結構聚合 物。在一個實施例中,羧基甜菜鹼材料是一種互穿網狀結構聚合 物。該互穿網狀結構聚合物可包括選自聚氨酯、石夕氧烷、聚酯、 聚乙烯和聚醯胺所成組群的聚合物。 在一個實施例中,續基甜菜驗材料是包括至少一種聚磺基甜菜 驗或聚竣基甜菜驗的聚摻物(polymer blench。 在另一個方面’本發明提供一種表面塗有磺基甜菜鹼或羧基甜 菜驗聚合物的基材,而該聚合物係連接到與該表面共價柄合的單 層上。在一個實施例中,磺基甜菜鹼或羧基甜菜鹼聚合物係以共 價鍵連接到單層。在一個實施例中,單層是自組裝單層。在一個 實施例,聚合物是聚磺基甜菜鹼。在另一個實施例中,聚合物是 聚羧基甜菜鹼。在一個實施例中,基材的表面包括磺基甜菜鹼或 羧基甜菜鹼聚合物’而該磺基甜菜鹼或羧基甜菜鹼聚合物係以共 價鍵連接到在該表面上形成單層之固定式化合物上。 9 A在另一方面,本發明提供一種交聯的聚合物水凝膠。在一個實 %例中’錢膠是交聯的科基甜紐水凝膠。在另-個實施例 中,水凝膠是交聯的聚缓基甜菜驗水凝膠。 再方面,本發明提供一種超低生物分子黏附表面的製備方 法。在-個實施例中,該方法包括⑷在基材表面上形成自由基引 發劑封端的單層;和(b)在自由基引發劑封端的單層上聚合一單 體’ ^中该單體是續基甜菜驗或鲮基甜菜驗。該單體可以選自磺 二甜菜驗丙稀酸自旨、續基甜菜驗丙婦醯胺、續基甜菜鹼乙婦基化 :物’、基甜菜驗環氧化物、及其混合物所成組群,或可以選自 絲甜菜鹼丙烯_旨、絲甜級丙棘胺、絲甜菜驗乙稀基 化合物、雜甜級魏錄、及其齡物 施例中,該單層是自組裝單層。 辟在個實 在-個實施例中,該方法包括⑻在基材表面上形成經基封端的 平層;(b)將該減封端的單層轉化為自由基引發劑封端的單層; 和(C)在自由基引發劑單層上聚合一單體。該單體可以是如上所述 的%基甜菜驗或叛基甜菜驗,而該單層可以是自組裝單層。 在另-個實施例中,該方法包括⑻在基材表面形成絲封端的 單層;_第-種二嵌段共聚物處理親基封端的單層;和⑹用 第二種二紐共聚麵理該絲封端的單層。在—個實施例中, 第-種二嵌段共聚物包括[疏水性單體]Γ喪段·[親水性 物。在-個實施财m段共㈣包括[環氧秘^段 •[續基甜菜鹼曱基丙烯酸酯]m共聚物。在一個實施例中,第二種二 嵌段共聚物包括[疏水性單體]Γ紐_[親水性單體]n共聚物。在一個 實施例中’第二種二嵌段共聚物包括[環氧丙垸]丨·歲段_[續基甜菜 1330657 驗3甲基丙湘_n共聚物。對這些聚合物而·Τ·,1是.1G至3G的整數, m是10至刚的整數,岐職⑽的整數,且m大於n。 同時,本發明提供製備低生物分子黏附表面用的新嵌段共聚 斗勿。 、 在其他方面,本發明提供具有超低生物分子黏附表面的裝置和 ^料。該裝置和材料的表面包括縣甜菜驗錢基甜菜驗材料的 單層’其中该表面沒有大於約!皿2的缺陷,且其中該表面對纖維 蛋白原的吸附係低於約30ng/cm2。代表性的裝置和材料包括可植 入i1 生材料、㈣眼鏡、活體喊翻、船體、組織支架、可植入 性醫藥器材、触、非病毒基因送遞載體、顆粒和油漆。在一個 實施例中本發明提供—船體,該船體塗有包含具有超低生物分 子黏附表面之顆粒的油漆,其中該表面包括—層雜甜菜驗或叛 基甜菜驗材料,其中該表面沒有大於約】細2的缺陷,且其中該表 面的纖維蛋白原吸附係低於約30ng/cm2。 【實施方式】 本發明提供超低生物分子_表面;製備超低生物分子黏附表 面用的材料;低生物分子黏附表面的製備方法;以及使用超低生 物分子黏附表面的方法。該超低生物分子黏附表面包含續基甜菜 鹼和羧基甜菜鹼材料。 本發明提供超低生物分子黏附表面。本文使用的術語“超低生 物分子黏附表面”係指抗蛋白質吸附的表面。抗蛋白質吸附的超 低生物分子細表面也晴會抗細胞細、抗細g和其他微生物 黏附、與抗生物膜形成。 本發明的超低生物分子黏附表面是以一種或多種材料處理而 二面超低5。餘處理表面以提供超低生物分子細表面的 =材料包括兩性離子材料。兩性離子材料是電中性材料,其典 ,地匕括等讀正電荷和負電荷。用於製備本發明超低生物分子 的代表性兩性離子材料包括雜甜菜鹼材料(硫酸根負電 何和域正電荷)和幾基甜菜驗材料齡負電荷和錢基正電荷)。 料㈣1面’本發明提供一種表面塗有續基甜菜鹼或幾基甜菜驗材 基材表面上具有單層㈣基甜菜驗或麟甜菜驗材 其糾^面被至)一層元全單層卿monolay er)的績基甜菜驗或缓 基甜釆鹼材料所覆蓋。該單層可為自組裝單層。 t發明表面的優點為續基甜菜鹼或絲甜菜驗材料的密度控 的二二表面塗料的密度控制良好是本發面的特徵。若塗料 7、度控制良好,則可舒表面低生物分子黏_特性。本文使 並好”係指表面塗有至少—層完全單層的塗 nm2)。、質上/又有缺陷(亦即,沒有—個缺陷是大於約1 益、、亏本九“缺陷,,定義為沒有被無污染塗層材料(例如 的表面區域。—般說來,當表面材料層的缺陷尺 白質_能力有關時,缺陷尺寸越小,則 本發明密度控制良好之代表__销 附表面C括其表面中沒有—個_A_ln 陷均低於約lrnn2)。 U !母個缺 本發明的超低生物分子黏附表面包含密 ,或甜菜驗塗料。本翻的表*具有ϋ白i吸附Γ。二 蛋白質吸附性的-娜根叫崎嶋分子黏= 1330657 面上每一單位面積所吸附的纖維蛋白原重量,。本發明表面的纖維 蛋白原吸附係低於約30ng/Cm2。在一個實施例中,表面的纖維蛋 白原吸附係低於約lOng/cm2。在一個實施例中,表面的纖維蛋白 原吸附係低於約5 ng/cm2。在一個實施例中,表面的纖維蛋白原吸 附係低於約0.3 ng/cm2 ° ' 本發明代表性超低生物分子黏附表面的纖維蛋白原吸附係低 於約30ng/cm2。在一個實施例中,在塗有磺基甜菜鹼材料的表面 上,其對纖維蛋白原的吸附係低於約30ng/cm2。在另一個實施例 中,在塗树細級材料的表面上,諸_蛋自原的吸附係 低於約IGng/on2。在另-個實施财,在塗有魏甜菜驗材料的 表面上,其對纖維蛋白原的吸附係低於約5ng/cm2。在另一個實施 例中,在塗料基甜紐材料的表面上,其對纖維蛋白原的吸附 係低於約0.3 ng/cm2。在-個實施例中,在塗有叛基甜菜驗材料的 表面上,其對纖維蛋白原的吸附係低於約3〇ng/cm2。在另一個實 施例中,在塗有羧基甜菜鹼材料的表面上,其對纖維蛋白原的吸 附係低於約10 ng/cm2。在另一個實施例中,在塗有縣甜菜驗材 料的表面上,麟纖輕自制。在另一個 實施例中,在塗有齡甜菜驗材料的表面上,其對纖維蛋白原的 吸附係低於約0.3 ng/cm2。 “在-個實施例中,該續基甜菜驗材料是聚確基甜菜驗。礦基甜 菜驗材料可以由-種或多種選自續基甜菜驗丙烯酸醋'確基甜菜 驗丙稀_、雜贿驗乙職化合物、德雜驗環氧二物木 及其混合物所成組群的單體來製備。 在-個實施例中,該敌基甜菜驗材料是聚絲甜菜鹼。竣基甜 1330657 菜驗材料可以由一種或多種選自竣基甜菜驗丙烯酸酷、叛基甜菜 鹼丙烯醯胺、羧基甜菜鹼乙烯基化合物、羧基甜菜鹼環氧化物、 及其混合物所成組群的單體來製備。 在一個實施例中,該磺基甜菜鹼材料是包括聚磺基甜菜鹼的二 嵌段共聚物。在一個實施例中’該二嵌段共聚物包括聚環氧丙烧。 在一個實施例中’該石黃基甜菜驗材料是一種互穿網狀結構聚合 物。在一個實施例中,該羧基甜菜鹼材料是一種互穿網狀結構聚 合物。该互穿網狀結構聚合物可以包括選自聚氨醋、石夕氧烧、聚 酯、聚乙烯、和聚醯胺所成組群的聚合物。 在一個實施例中,該磺基甜菜鹼材料是包括至少一種聚磺基甜 采驗或聚竣基甜采驗的聚捧物(polymerblend)。 使用本文所描述的材料和方法可以提供多種超低生物分子黏 附的表面。可峨予超低污的代表性表面包括金屬和金屬氧化物 表面、陶絲面、合成和天然、聚合物表面、玻璃表面、玻璃纖維 表面、郭彳絲面、和叫粒之材面。絲性天然聚合物 表面包括縣、纖祕自和其他適合於喊卫程技術使用的碳水 化口物表面。以碳為主之代表性材料表面包括碳纖維、奈米管和 中空的球(bulky ball)表面。 另個方面’本發明提供製備超低生物分子黏附表面用的材 料。適合的·包細雜子㈣,#其刻錄辦(例如以灶 價鍵輕合於表喊__練面),纽絲面具有抗蛋 附性。 、 本文使㈣偏轉物’’縣兩誠多種在結構或構造上 八不同雖u物鏈的密城合。兩種或多觀合物係經物 c S ) 1330657 理混合而形成聚推物。 .、 代表性兩性離子材料包括由兩性離子單體衍生的聚合物。本發 明使用的適合材料包括磺基甜菜鹼聚合物和羧基甜菜鹼聚合物。 石寅基甜菜鹼聚合物包括磺基甜菜鹼單元,並且可由聚合適宜的反 應性續基甜菜驗單體而生成。縣甜菜㈣合物包括絲甜菜驗 單元,並且可由聚合適宜的反應性羧基甜菜鹼單體而生成。 本發明的表面係塗有續基甜菜驗和羧基甜菜驗聚合物材料。 續基甜英臉聚么物 磺基甜菜鹼聚合物係藉由原子轉移自由基聚合反應(站〇111 tmnsfer* mdieal polymerization,ATRP)而接枝到引發劑封端的疏水 層上。该基材表面塗有引發劑封端的疏水層。然後續基甜菜鹼單 體在該單層上進行聚合反應而在該基材表面上形成磺基甜菜鹼聚 合物塗層。係藉由該單層末端的自由基引發劑來引發原子轉移自 由基聚合反應。 在一個實施例中’磺基甜菜鹼聚合物係藉由原子轉移自由基聚 合反應而接枝到引發劑封端的自組裝單層上。該基材表面塗有自 由基引發劑封端的自組裝單層。然後磺基甜菜鹼單體在該自組裝 單層上進行聚合反應而在該基材表面上形成績基甜菜驗聚合物塗 層。係藉由該自組裝單層末端的自由基引發劑來引發原子轉移自 由基聚合反應。 自由基封端的自組裝單層可藉由一步(〇ne_step)或兩步 (two-step)方法來形成。在一步方法中,經由共價鍵結或非共價鍵 結而將自由基引發劑封端的分子連接到表面上而形成引發劑封端 的自組裝單層。在兩步方法中,經由共價鍵結或非共價鍵結而將 15 1330657 f能基11封端的分子連接縣面上而形成錄細封端的自組裝 單層。隨後湘化學反應rfij將該官能基__自組裝單層轉變 為引發劑封端的自組裝單層。利用固定式引發劑在表面上進行確 基甜菜驗單體的聚合反應而在表面上形成續基甜菜驗聚合物層。 代表性引發劑封端的自組料層和錄封端的自組裝單層的合成 將於實_1找明,麟纽第—圖。將代祕縣甜菜驗聚合 物接枝到引發紐蓋的表面’將於實施例2愧明並請參閱第二 圖。 在控制良好的引發劑形成之後且利用活性聚合技術(living polymerization techniques)自基材表面生長聚合物鍵之後即可獲 得超低生物分子_絲面。儘管代紐的方法描料特定組又 分’但是可以理解本發明的基材表面可以是各種表面,官能基團 =的自組料層可以是任何適合於轉換成自由基引發劑目的之 官能基團’而表面上之引發劑封端的自組裝單層可以是各種自由 基引發劑,且本發明的塗料可包括各種績基甜菜鹼聚合物。 用於本發日_表面包括塗金基材表面和朗表面。—般可以理 解其他表面也可聽本發_方法而作為本發_表面。 兩種方法可用於將原子轉移自由基聚合反應之引發劑固定到 基材表社,如第-圖所示。—種方法是製備硫醇封端的引發劑, Λ、';後使硫醇連制基材^上㈣剌發劑封端的自組裝單層。 另:個方法是使疏基醇連接到基材表面上而形成經基封端的自組 裝單層,、、':後引發織團係藉由炫基齒與經基的反應而接枝到該 表面上。在自由基引發劑封端的自組裝單層表面上之雜甜菜驗 單體,N-(3-石黃丙基)姑(甲基丙_氧基乙基)姻-二甲基麵菜 (S ) 1330657 驗(SBMA) ’可在室溫下進行聚合反應,而反應介質可以是水或其 他極性溶劑,並且磺基甜菜驗聚合物產品的分子量是可予以控制。 藉由原子轉移自由基聚合反應來聚合SBMA之後,蛋白質吸附 大巾田降至0.02 nm以下(0.1% ml或〇 3 ng/cm2的纖維蛋白原吸 附X請參見第五A圖)。也可利用表面電漿共振技術(surface pias_Restricted. There is still a need for environmentally friendly, non-polluting coatings that prevent microbes from adhering to them. Various polymers have been used as biocompatible materials in biomedical applications. In the absence of a few alternatives, it is considered to be “non-polluting material” ultra-low biomolecular adhesion material'. Polyethylene glycol (PEG) materials are generally used to make (4) non-polluting materials. The surface modification of PEG or oligoethylene glycol (coffee) has been discriminated against non-specific protein absorption. It is believed that lang repulsive efficacies are a cause of PEG polymers against protein adsorption. The study of self-assembled m〇n〇layers (SAMs) is obvious, if the surface is resistant and resistant; the white matter absorbs _ ability, the financial needs to have the age of the shot, and surrounds The water layer that is closely combined with dereliction of duty is mainly responsible for strong hydration repulsion. However, the contact or defamation group can rapidly auto-oxidize, especially in the presence of oxygen and transition metal ions. The biochemical-related solution contains transition metal ions. In addition, the grafted PEG brush polymer showed anti-protein resistance at room temperature, and the extension was lost on the 35th _(10) repellent. Therefore, the dirt (four) except for it is meaningful. A choline (PC)-based polymer or surface has been shown to reduce protein uptake by 1330657^. They are considered biomimetic antifouling materials because they contain a phosphorylcholine head group found in the outer layer of the cell membrane. Much of the work involved in phosphorylcholine-based materials. On the side of the chain of methacryloxyethylphosphocholine (tearing (:)-type copolymers, such as methacrylic acid oxime Copolymer of oxyethylphosphocholine and n-butyl methacrylate (BMA). Commercially, mpc-based copolymers have been used in contact lenses. Another method is to form phosphorylcholine-capped self-assembly on gold. Monolayer. The methyl-terminated self-assembled monolayer has been reported to have a low adsorption of fibrinogen of 18% of the monolayer. The hydration of phosphorylcholine materials is also considered to be the cause of hindering protein adsorption repair. However, the phosphate group is sensitive to the hydrolysis reaction, and the phosphorylcholine monomer such as 2-methacryloxyethylphosphocholine is sensitive to humidity and thus inconvenient to synthesize and handle. Therefore, we hope to develop phosphoric acid in addition to A new material other than choline for applications requiring long-term material stability. Similar to phosphorylcholine polymers, 'sulfobetaine polymers are polybetaine polymers in which cationic and anionic groups are present. All of them are on the same monomer residue. Compared with MPC, sulfobetaine methacrylate (SBMA) is easier to synthesize and process. However, the anti-fouling ability of sulphur-based acryl-based vinegar polymer is It is considered to be lower than the bismuth phthalocyanine polymer because most of the previous studies on the county sweet thiol acrylate polymer focused on their copolymers with other hydrophobic monomers in order to test the sulfo bene methacrylic acid. The vinegar is attached to the substrate or provides mechanical strength, while the potential to test the sulphur beet as a non-contaminating or biocompatible material is underestimated. Due to the excellent mechanical month b of segmented polyurethanes (SPU) , thus making it a widely used biomaterial, especially for use in cardiovascular devices. - Series of studies report by surface grafting, poly blending, or interpenetrating polymer (interpenetratingp) 〇lymer 7 1330657 networks, IPNs), can improve the biocompatibility of interstage polyesters with ]UPC polymers. Ishihara and colleagues conducted extensive research on MPC/inter-segment polyurethane films. • Compared with the original inter-segment polyurethane, the MPC/inter-block polyurethane film forms a stable '乂 network structure' and effectively reduces platelet adhesion. . See Morimoto, K. et al. 'Biomaterials 23:4881-87, 2002; Morimoto, K. et al., Biomaterials 25:5353-61, 2004. Because MPC monomers are sensitive to humidity, it is desirable to develop new interstage polyurethanes with ultra-low biomolecular adhesion properties other than MPC/inter-segment polyurethane films. • There is therefore a need for ultra-low biomolecular adhesion materials. Ultra-low biomolecular adhesion materials can be used to prepare ultra-low biomolecular adhesion surfaces for hulls, implantable biomaterials, biomedical diagnostic sensors, and drug delivery coatings. The object of the present invention will be explained below. SUMMARY OF THE INVENTION The present invention provides an ultra-low biomolecule-attached sulfobetaine and carboxyl beet test material; an ultra-low biomolecule adhesion surface and preparation of an ultra-low biomolecule-attached yellow-based beet test and an enemy beet test a method of surface; and a farm with an ultra-low biomolecule adhesion surface. The square Φ, the present invention provides a substrate coated with a continuous beet test or a tick beet test material. On the surface of the county, there is a county sweet or reduced beet test. The silk surface has no defects greater than about i nm2, and the adsorption of fibrinogen is less than about 30 ng/cm2. In one embodiment, the surface has a fibrinogen adsorption system of less than about 1 Or^g/cm2. In one embodiment, the surface fibrinogen adsorption system is less than about $ ng/cm. In one embodiment, the surface fibrinogen adsorption system is below the contact ng/cm ° 1330657. In one embodiment, the sulfobetaine material is polysulfo sweetener. The sulfobetaine material may be derived from one or more selected from the group consisting of sulfobetaine acrylates, sulfobetaine acrylamides, ore based beetyl compounds, sulphur beet epoxides, and mixtures thereof Body preparation. In one embodiment, the beet test material is a polyphenol beet test. The mercapto betain base material can be prepared from one or more monomers selected from the group consisting of carboxybetaine acrylate, carboxybetaine acrylamide, vinyl beet vinyl compound, rhodamine ben oxide, and mixtures thereof. In one embodiment, the sulfobetaine material is a two-block copolymer comprising a polysulfobetaine. In one embodiment, the diblock copolymer comprises polypropylene oxide. In one embodiment, the sulfobetaine material is an interpenetrating network polymer. In one embodiment, the carboxybetaine material is an interpenetrating network polymer. The interpenetrating network polymer may comprise a polymer selected from the group consisting of polyurethane, oxalate, polyester, polyethylene, and polyamidamine. In one embodiment, the sucrose beet test material is a polymer blench comprising at least one polysulfone beet test or poly phthalocyanine test. In another aspect, the invention provides a surface coated with sulfobetaine Or a substrate of a carboxyl beet polymer, and the polymer is attached to a monolayer covalently conjugated to the surface. In one embodiment, the sulfobetaine or carboxybetaine polymer is covalently bonded. Connected to a single layer. In one embodiment, the single layer is a self-assembled monolayer. In one embodiment, the polymer is a polysulfobetaine. In another embodiment, the polymer is a polycarboxybetaine. In embodiments, the surface of the substrate comprises a sulfobetaine or a carboxybetaine polymer' and the sulfobetaine or carboxybetaine polymer is covalently bonded to a fixed compound that forms a monolayer on the surface. 9 A In another aspect, the present invention provides a crosslinked polymer hydrogel. In one embodiment, the 'keng gum is a crosslinked copolysaccharide hydrogel. In another embodiment , hydrogel is cross-linked poly-sweet beet In still another aspect, the present invention provides a method of preparing an ultra low biomolecular adhesion surface. In one embodiment, the method comprises (4) forming a free radical initiator capped monolayer on a surface of the substrate; and (b) The monomer is polymerized on a single layer of a free radical initiator capping. The monomer is a sucrose beet test or a sulphur based beet test. The monomer may be selected from the group consisting of sulfonate beet and acrylic acid. Beet test for gynecamine, succinyl betaine, sulphate, sulphate, and mixtures thereof, or may be selected from the group consisting of silk betaine propylene In the amine, the silk beet test compound, the hetero sweet grade Weilu, and the ageing embodiment thereof, the single layer is a self-assembled monolayer. In one embodiment, the method comprises (8) on the substrate Forming a base-terminated flat layer on the surface; (b) converting the reduced-end monolayer into a free-radical-terminated monolayer; and (C) polymerizing a monomer on the free radical initiator monolayer. The body may be a % based beet test or a rebel test as described above, and the single layer may be a self-assembled single In another embodiment, the method comprises (8) forming a silk-terminated monolayer on the surface of the substrate; treating the parent-capped monolayer with the first-type diblock copolymer; and (6) copolymerizing the second two-bond with the second The silk-terminated monolayer is treated. In one embodiment, the first-type diblock copolymer includes a [hydrophobic monomer] Γ 段 segment [[hydrophilic substance. [Epoxy group] [renewed betaine methacrylate] m copolymer. In one embodiment, the second diblock copolymer includes [hydrophobic monomer] Γ _ [hydrophilic monomer ] n copolymer. In one embodiment, the 'second diblock copolymer includes [epoxypyrene] 丨·years _[renering beet 1330657 test 3 methyl propyl _n copolymer. For these polymerizations物····, 1 is an integer of .1G to 3G, m is an integer from 10 to just, an integer of 岐(10), and m is greater than n. At the same time, the present invention provides a novel block copolymer for the preparation of low biomolecule adhesion surfaces. In other aspects, the present invention provides devices and materials having ultra-low biomolecular adhesion surfaces. The surface of the device and material includes a single layer of county beet test-based beet test material 'where the surface is not greater than about! Defects of dish 2, and wherein the surface has an adsorption to fibrinogen of less than about 30 ng/cm2. Representative devices and materials include implantable i1 raw materials, (4) glasses, live shivering, hulls, tissue scaffolds, implantable medical devices, touch, non-viral gene delivery vehicles, granules, and paints. In one embodiment the invention provides a hull coated with a paint comprising particles having an ultra-low biomolecule adhesion surface, wherein the surface comprises a layer of beet test or a rebel test material, wherein the surface is absent A defect greater than about [fine 2], and wherein the surface has a fibrinogen adsorption system of less than about 30 ng/cm2. [Embodiment] The present invention provides an ultra-low biomolecule_surface; a material for preparing an ultra-low biomolecule adhesion surface; a preparation method of a low biomolecule adhesion surface; and a method of adhering a surface using an ultra-low biomolecule. The ultra low biomolecular adhesion surface comprises a contiguous betaine and a carboxybetaine material. The present invention provides an ultra low biomolecular adhesion surface. The term "ultra-low biomolecular adhesion surface" as used herein refers to a surface that is resistant to protein adsorption. The anti-protein adsorption ultra-low biomolecules have a fine surface which is resistant to cell fineness, anti-fine g and other microbial adhesion, and formation of anti-biofilm. The ultra-low biomolecular adhesion surface of the present invention is treated with one or more materials and is ultra-low on both sides. The material that is treated to provide a fine surface for ultra low biomolecules includes zwitterionic materials. Zwitterionic materials are electrically neutral materials, which read positive and negative charges. Representative zwitterionic materials useful in the preparation of the ultra low biomolecules of the present invention include heterobetaine materials (sulfate negative and positive domain charge) and several base beet test material negative charge and positive k-charge. (4) 1 side 'The present invention provides a surface coated with a contiguous betaine or a few beet substrate. The surface of the substrate has a single layer (four) based beet test or Lin beet test material. The monolay er) is covered by the beet test or the slow-base sweet base material. The single layer can be a self-assembled monolayer. The advantage of the surface of the invention is that the density control of the dibasic coating of the polyglycoline or the silk beet test material is well characterized by the present invention. If the coating is well controlled, the surface can be low in bio-molecular viscosity. In this context, "good" means that the surface is coated with at least a completely single layer of coating nm2. It is qualitatively/defective (ie, no defect is greater than about 1 benefit, and at least 9 defects), definition In the case of a non-contaminating coating material (for example, a surface area, in general, when the defect of the surface material layer is related to the ability, the smaller the defect size, the better the density control of the present invention is __ pin attached surface C. There is no _A_ln trap in the surface which is lower than about lrnn2. U! The parental lack of the ultra-low biomolecule adhesion surface of the invention contains dense, or beet paint. The table of this turn* has chalky adsorption. Γ. Two protein-adsorbing-Nagan is called rugged molecular viscosity = 1330657 The weight of fibrinogen adsorbed per unit area on the surface. The fibrinogen adsorption system on the surface of the present invention is less than about 30 ng/cm2. In one embodiment, the surface has a fibrinogen adsorption system of less than about 10 ng/cm<2 > In one embodiment, the surface has a fibrinogen adsorption system of less than about 5 ng/cm<2>. In one embodiment, the surface fibrinogen The adsorption system is less than about 0.3 ng/cm2 °'. The present invention The fibrinogen adsorption system of the representative ultra-low biomolecule adhesion surface is less than about 30 ng/cm. In one embodiment, the adsorption of fibrinogen to the surface coated with the sulfobetaine material is less than about 30 ng/cm2. In another embodiment, on the surface of the coated fine-grained material, the adsorption system of the egg-origin is less than about IGng/on2. In another implementation, the material is coated with Wei beet. On the surface, its adsorption to fibrinogen is less than about 5 ng/cm2. In another embodiment, the adsorption of fibrinogen to the surface of the coating-based sweetener material is less than about 0.3 ng/ Cm2. In one embodiment, the adsorbent to fibrinogen is less than about 3 ng/cm2 on the surface coated with the reneke beet test material. In another embodiment, the carboxy beet is coated. On the surface of the alkali material, its adsorption to fibrinogen is less than about 10 ng/cm2. In another embodiment, on the surface coated with the county beet test material, the fiber is lightly self-made. In another embodiment In the adsorption of fibrinogen on the surface of the coated beet test material The system is less than about 0.3 ng/cm2. "In one embodiment, the contiguous beet test material is a poly gin beet test. The ore-based beet test material may be selected from - or a variety of vinegar vinegar selected from the group The base beet test propylene, the bribery test compound, the devil test epoxy dimer wood and a mixture thereof are prepared as a group of monomers. In one embodiment, the enemy beet test material is Polyester betaine. Mercapto sweet 1330657 Vegetable test material can be one or more selected from the group consisting of thiol beet, acrylic acid, ruthenium betaine acrylamide, carboxybetaine vinyl compound, carboxybetaine epoxide, and The mixture is prepared as a group of monomers. In one embodiment, the sulfobetaine material is a diblock copolymer comprising a polysulfobetaine. In one embodiment, the diblock copolymer comprises polyglycidazole. In one embodiment, the zeolitic beet test material is an interpenetrating network polymer. In one embodiment, the carboxybetaine material is an interpenetrating network polymer. The interpenetrating network polymer may comprise a polymer selected from the group consisting of polyurethane, terracotta, polyester, polyethylene, and polyamine. In one embodiment, the sulfobetaine material is a polymer blend comprising at least one polysulfo sweet or polydecyl sweet test. A variety of ultra low biomolecularly adhered surfaces can be provided using the materials and methods described herein. Representative surfaces that can be rendered ultra-low fouling include metal and metal oxide surfaces, ceramic surfaces, synthetic and natural, polymeric surfaces, glass surfaces, fiberglass surfaces, gutta percha, and granules. Silky natural polymer surfaces include prefectures, secrets, and other surfaces that are suitable for use in the hydration process. Representative carbon-based materials include carbon fibers, nanotubes, and bulky ball surfaces. Another aspect 'The present invention provides a material for preparing an ultra-low biomolecule adhesion surface. Suitable for the package of fine (four), # its burning office (for example, with the stove key lightly in the table shouting __ training surface), the neon surface has anti-egg attachment. In this paper, (4) Deflections ’ County’s two kinds of different structures or structures are different. The two or more compounds are mixed by a compound c S ) 1330657 to form a polymer. . Representative zwitterionic materials include polymers derived from zwitterionic monomers. Suitable materials for use in the present invention include sulfobetaine polymers and carboxybetaine polymers. The sulphate-based betaine polymer includes a sulfobetaine unit and can be formed by polymerizing a suitable reactive sucrose beet monomer. The county beet (tetra) compound includes a silk beet test unit and can be produced by polymerizing a suitable reactive carboxybetaine monomer. The surface of the present invention is coated with a continuous beet test and a carboxyl beet polymer material. The sulfobetaine polymer is grafted onto the initiator-terminated hydrophobic layer by atom transfer radical polymerization (Station 111 tmnsfer* mdieal polymerization, ATRP). The surface of the substrate is coated with an aqueous layer that is terminated by an initiator. The contiguous betaine monomer is then polymerized on the monolayer to form a sulfobetaine polymer coating on the surface of the substrate. The atom transfer free radical polymerization is initiated by a free radical initiator at the end of the monolayer. In one embodiment, the 'sulfobetaine polymer is grafted onto the initiator-terminated self-assembled monolayer by atom transfer radical polymerization. The surface of the substrate is coated with a self-assembled monolayer capped with a free radical initiator. The sulfobetaine monomer is then polymerized on the self-assembled monolayer to form a primate beet polymer coating on the surface of the substrate. The atom transfer free radical polymerization is initiated by a free radical initiator at the end of the self-assembled monolayer. The free-radically terminated self-assembled monolayer can be formed by a one-step (two-step) or two-step method. In a one-step process, a free-radical-terminated molecule is attached to the surface via covalent bonding or non-covalent bonding to form an initiator-terminated self-assembled monolayer. In a two-step process, a 15 1330 657 f-energy-terminated molecule is attached to the county via a covalent bond or a non-covalent bond to form a self-assembled monolayer of the capped end. Subsequently, the chemical reaction rfij converts the functional group __ self-assembled monolayer into an initiator-terminated self-assembled monolayer. A continuous beet polymer layer is formed on the surface by a polymerization of a beet monomer on a surface using a fixed initiator. The synthesis of the self-assembled monolayers of the representative initiator-terminated self-assembled layer and the capped end will be found in the actual _1. Grafting the sugar beet test polymer from the Dessert County to the surface of the trigger cap will be described in Example 2 and please refer to the second figure. Ultra low biomolecules - silk surface can be obtained after the well-controlled initiator formation and by the use of living polymerization techniques to grow polymer bonds from the surface of the substrate. Although the method of Dyna's method draws a specific group, it is understood that the surface of the substrate of the present invention may be various surfaces, and the self-assembled layer of the functional group = may be any functional group suitable for conversion to a radical initiator. The initiator-terminated self-assembled monolayer on the surface can be a variety of free radical initiators, and the coatings of the present invention can include a variety of base betaine polymers. Used on this date _ surface includes gold coated substrate surface and rough surface. In general, you can understand other surfaces and listen to the _ method as the hair _ surface. Two methods can be used to immobilize the initiator of the atom transfer radical polymerization to the substrate, as shown in the figure. One method is to prepare a thiol-terminated initiator, Λ, '; after the thiol is connected to the substrate (4) the self-assembled monolayer capped by the hair styling agent. Another method is to connect the base alcohol to the surface of the substrate to form a self-assembled monolayer which is terminated by the base, and the post-initiation of the weave is grafted to the substrate by the reaction of the base tooth with the base. On the surface. The beet test monomer on the surface of the self-assembled monolayer capped by a free radical initiator, N-(3-石黄propyl) gu (methyl propyl-oxyethyl) oxa-dimethyl ketone (S) 1330657 The test (SBMA) 'polymerization can be carried out at room temperature, and the reaction medium can be water or other polar solvent, and the molecular weight of the sulfone beet polymer product can be controlled. After polymerization of SBMA by atom transfer radical polymerization, the protein adsorption of the large towel field is reduced to below 0.02 nm (0.1% ml or 〇 3 ng/cm 2 of fibrinogen adsorption X, see Figure 5A). Surface plasma resonance technology (surface pias_
reS〇nance,SPR)來測量溶菌酶和牛血清蛋白(BSA)的吸附,並發現 其吸附程度類似於纖維蛋白原的吸附。利用上述方法,可獲得以 控制良好的聚(SBMA)刷來覆蓋的超低生物分子黏附之表面。聚 (SBMA)接枝的基材是穩定的,而其可由在室溫下將實施例製備的 塗有聚(SBMA)之表面置於空氣中或浸潰於水中超過一個月而仍 不失去該基材超低污特性的事實,獲得證實。 引發劑自組裝單層的量對後續的表面聚合反應和蛋白質吸附 是重要的。表面上未鍵合的引發劑量影響纖維蛋白原的吸附(第丄 圖)。以合適溶劑處理引發劑自組裝單層是獲得超低生物分子軸 表面的必需轉。在實酬巾,自組裝單層係藉由在小心清潔表 面之後,於室溫下將塗金基材浸泡於純硫醇的乙醇溶液中而繁 鍵合㈣制之百分比與5丨發劑溶液濃度成正二 夕2自組裝單層而論’如果弓I發劑自組裝單層僅用純 縣鍵合俩分子。因騎俩分子1而 好的溶劑(參見第—圖),所以如果引發劑自电 裝早層在以乙_洗之後,再以THF潤洗,這些 ,、 就可以完全除去。原子力顯微鏡(AFM)圖 ,σ =〜刀子 和區域以外,金上㈣㈣自姆單縣了錄材的缺陷 金表面的羽單層上沒有未鍵合俩分子(第:、二,其表不在 c: s ) 17 表面聚合反應之後,聚合物的厚度從12nm聽法喃圓光度 儀(ellipsometry)準確·的太厚厚度。第八圖顯示在具有不同聚合 物厚度的兩個聚合表面上之纖維蛋白原吸附的表面電浆共振波長 偏移差值。由存在有未鍵合硫醇的表面所引發之較厚聚合物層會 有-些纖維蛋白原吸附(波長偏移〇.9nm),其相當於6%ml的纖維 蛋白原吸附。由不存在有未鍵合硫醇的表面所引發之聚合物層僅 會有極低的蛋白質吸附。未鍵合硫醇分子可引發厚聚合物膜的形 成。-般相信在兩性離子基團之間經由鏈内部和鏈間之離子接觸 所引起的強烈分子間相互作用,導致厚聚合物膜脫水並因而有 蛋白質的吸附。 磺基甜菜驗聚合物刷生長快速。第八圖顯示聚合物厚度為不同 SBMA浪度之聚合時間的函數。反應的犯隱濃度為〇」μ,聚合 物膜厚度在反應開始時快速增加,在約8nm時變平,此時可能反 應終止。反應的SBMA濃度為〇_3M,厚度在約12nm時變平(第八 圖)。較高濃度的反齡導致細上形成厚且獨勻㈣合物膜。 杈長的反麟财至可轉致整個溶液的凝膠化,這使得難以用 麵光度法測置膜厚度。溴化銅比啶(CuBr/BpY)錯合物係用來 催化《合反應。第八圖細示在聚⑽祖後層的表面上由spR 測量的纖維蛋白原_。這顯示财具有聚合物膜厚度為Η〗 mn的表面可高度地抗纖維蛋白原的吸附。 —用於本發明f備縣甜菜驗聚合物的代紐單體包括續基甜 菜驗甲基丙稀酸醋(SBMA)、續基甜菜驗丙烯酸醋、石黃基甜菜驗丙 細酿胺、縣甜祕乙雜化合物、雜縣驗環氧化物 、以及 /、他”有祕、異氰酸根、氨基或絲㈣細菜驗化合物。 1330657 代表性聚合方法是原子轉移自由基聚合反應、可逆型加成-分 4鏈轉移(RAFT)聚合反應、和自由基聚合反應。任何用於聚合反 應的習知自由基引發劑皆可用於實現本發明。用於標準熱或光化 學自由基聚合反應的代表性引發劑包括過氧化苯甲醯、2,2,偶氮_ 雙Ο甲基丙醯腈)、和苯偶姻曱基醚。用於原子轉移自由基聚合反 應的代表性引發劑包括院基鹵,例如演代異丁醯漠(ΒΙΒβ)。用於 可逆型加成-分裂鏈轉移聚合反應的代表性引發劑(即具有鏈可逆 試劑(CTA)的自由基引發劑)包括硫储基硫基化合物。 在-個實_巾,含料基甜祕部分(例如聚⑽基甜菜驗 f基丙稀酸醋))與疏水性部分(例如聚(環氧丙烧))的定義明確 之二嵌段共《係吸附於塗有烧基封端的自組裝單層(如甲基 (CH3)-封端的自組裝單層)的表面上。在此實施例中,疏水性聚合 ^片斷鏈結到疏水性表面’而親水性雜甜菜鹼部分暴露於溶^ 於定義明確之含料基甜菜鹼的二嵌段共聚物的合成係 於實_3中說明,並請參見第九圖。 …卜有適合自組襄單層的表面之外,塗有其他疏水材料的表面 (或爪水性表面)可用來黏附本發明共聚物。 後參物分子黏附表面係在二嵌段共聚物吸附於基材表面之 可性的方法制具雜枝分·材表面,一般 π r的基材表面可是各種表面,表面上阳-封端的自组 聚是各種疏水基封端的自組裝單層,本發明的二嵌段丑 手产的長度的確基甜菜驗類親水性部分和任何触 水性部分組成,而二嵌段共聚物可•何適二 c: s ) 1330657 如第九圖所示’二嵌段共聚物的共聚合反應是可逆的氧化還原 步驟,經由此步驟,過渡金屬化合物用作為函素原子的載體而將 單體依序連接至不具官能基的大分子引發劑。在該合成中,具有 大分子引發劑(聚(環氧丙烷)_Br)的聚(環氧丙烷)係藉由使單羥基類 聚(丙一醇)與2_溴代異丁醯溴反應而製得。對於具有11200分子量 的磺基甜菜鹼甲基丙烯酸酯(SBMA)之聚合反應而言,續基甜菜鹼 單體(SBMA)係在環氧丙院_Br和催化劑QiBr存在下聚合獲得共聚 物。聚(環氧丙烧)與聚(SBMA)形成之二錄共聚物的結構由丨職 磁共振(NMR)光譜表徵。典型的環氧丙烧後段_績基甜菜驗甲基 丙烯酸酯35光譜見第十圖。 將清潔的塗金基材浸泡於HS(CH2)8CH3溶液中而使甲基封端 的自組裝單層軸於塗金的玻璃紐上。織絲(環氧丙烧)與聚 (續基甜菜鹼甲基⑽_旨)形成之二紐共聚物溶職延於基材 表面上,隨_緩衝溶液沖洗,除去吸附不緊的共聚物。該實施 例中’將_蛋白賴倾型系統,崎估塗有物理吸附共聚物 ,表面上之蛋白質吸附。蛋白質吸附量係定義為蛋白質吸附前後 疋義的兩個基線之間的差值。第十—圖顯示典型的共聚物A吸附的 SPR感應圖,隨後原位評估纖維蛋白原的吸附。 進行疏水性CHr自組裝單層表面對定義明綠之二嵌段共聚物 聚(環氧丙烧)-嵌段-聚(續基甜菜驗甲基丙稀酸醋)的物理吸附。為 控制物理吸附共聚物的表面集積密度,合成了三種不同的錯基甜 菜驗甲基丙烯酸賴嵌段共聚物(係指環氧丙烧—段-續基甜菜 驗甲基丙烯酸S旨2Q、環氧丙燒2。_嵌段-續基甜菜驗曱基丙烯酸醋”、 和環氧丙烧2。_礙段·續基甜菜驗甲基丙稀酸醋5。)。在聚(環氧丙烧) c S ) 20 1330657 的鍵長度保持恒定下,聚(績基甜菜鹼曱基丙烯酸酯)的鏈長度係藉 由原子轉移自由基聚合反應在環境溫度下的依序加成之單體來控 制。三種聚(環氧丙院)喪段-聚(續基甜菜鹼曱基丙烯酸醋)共聚物 的合成參數和平均分子量概括於表一中。reS〇nance, SPR) was used to measure the adsorption of lysozyme and bovine serum albumin (BSA), and it was found to be similar to the adsorption of fibrinogen. Using the above method, it is possible to obtain an ultra-low biomolecular adhesion surface covered with a well-controlled poly(SBMA) brush. The poly(SBMA) grafted substrate is stable, and it can be placed in air or impregnated in water for more than one month at room temperature without damaging the poly(SBMA) coated surface. The fact that the substrate has ultra-low fouling properties has been confirmed. The amount of initiator self-assembled monolayer is important for subsequent surface polymerization and protein adsorption. The unbonded initiating dose on the surface affects the adsorption of fibrinogen (Fig. 3). Self-assembled monolayers of the initiator treated with a suitable solvent are necessary to obtain an ultra-low biomolecular axis surface. In the real-purpose towel, the self-assembled monolayer is prepared by carefully immersing the surface of the gold-coated substrate in a pure mercaptan in ethanol at room temperature, and the percentage of the complex bonding (4) and the concentration of the 5 deuterium solution are Zheng Er Xi 2 self-assembled monolayers. If the bow I hair agent self-assembled single layer only uses pure county bonding two molecules. Since the solvent is good for taking the two molecules (see the figure), if the initiator is washed with THF from the early layer of the electric charge, it can be completely removed. Atomic force microscopy (AFM) map, σ = ~ knife and region outside, gold on (four) (four) from Mdan County recorded a defect on the gold surface of the plume on the monolayer without unbonded two molecules (the first: second, its table is not c : s ) 17 After surface polymerization, the thickness of the polymer is too thick and accurate from the 12 nm ellipsometry. Figure 8 shows the surface plasma resonance wavelength shift difference for fibrinogen adsorption on two polymeric surfaces with different polymer thicknesses. The thicker polymer layer initiated by the surface with unbonded thiols will have some fibrinogen adsorption (wavelength shift 〇.9 nm), which corresponds to 6% ml of fibrinogen adsorption. The polymer layer initiated by the absence of a surface with unbonded thiols has only very low protein adsorption. Unbonded thiol molecules can initiate the formation of thick polymer films. It is generally believed that strong intermolecular interactions between zwitterionic groups via ionic contact between the interior of the chain and between the chains result in dehydration of the thick polymer film and thus adsorption of the protein. The sulfobee polymer brush grows fast. Figure 8 shows the polymer thickness as a function of polymerization time for different SBMA waves. The density of the reaction is 〇"μ, and the thickness of the polymer film rapidly increases at the beginning of the reaction, flattening at about 8 nm, at which point the reaction may terminate. The SBMA concentration of the reaction was 〇_3 M and the thickness was flattened at about 12 nm (Fig. 8). The higher concentration of the opposite age results in the formation of a thick and uniform (tetra) film on the fine. The long-term anti-lining can turn the gelation of the entire solution, which makes it difficult to measure the film thickness by surface photometry. Copper bromide pyridine (CuBr/BpY) complex is used to catalyze the "combination reaction. The eighth figure details fibrinogen as measured by spR on the surface of the poly(10) ancestral layer. This shows that the surface having a polymer film thickness of Η mn can be highly resistant to fibrinogen adsorption. - The substitute monomer used in the beet assay of the f county of the present invention comprises a sequel beet test methyl acrylate vinegar (SBMA), a sucrose beet test acryl vinegar, a scutellaria beet test acrylonitrile, a county Sweet and secret compound, miscellaneous epoxide, and /, "mystery, isocyanate, amino or silk (4) fine vegetables. 1330657 Representative polymerization method is atom transfer radical polymerization, reversible addition In-segment 4-strand transfer (RAFT) polymerization, and free radical polymerization. Any conventional free radical initiator used in the polymerization can be used to carry out the invention. Representative for standard thermal or photochemical free radical polymerization Sex initiators include benzammonium peroxide, 2,2, azo-bisindole methyl propyl carbonitrile, and benzoin decyl ether. Representative initiators for atom transfer radical polymerization include yards. Halogens, for example, derivatized isoindole (ΒΙΒβ). Representative initiators for reversible addition-splitting chain transfer polymerization (ie, free radical initiators with chain reversible reagents (CTA)) include sulfur storage sulfur Base compound. In a real _ towel, containing the base of sweetness The fraction (for example, poly(10)-based beet-tested f-acrylic acid vinegar) and the hydrophobic portion (for example, poly(glycidyl)) are defined by the two-block copolymer. On the surface of a single layer (such as a methyl (CH3)-capped self-assembled monolayer). In this embodiment, the hydrophobic polymeric link is attached to the hydrophobic surface and the hydrophilic heterobetaine is partially exposed to dissolution. The synthesis of the diblock copolymer of the well-defined betaine-containing betaine is illustrated in the actual _3, and please refer to the ninth figure. ...There is a surface suitable for the self-assembled monolayer, coated with other hydrophobic The surface of the material (or the aqueous surface of the claw) can be used to adhere the copolymer of the present invention. The adhesion surface of the post-parameter molecule is attached to the surface of the substrate by the diblock copolymer, and the surface of the branch is generally made. The surface of the substrate of π r may be various surfaces, and the surface-positive-capped self-assembly is a self-assembled monolayer of various hydrophobic groups, and the length of the diblock ugly hand of the present invention is determined by the hydrophilic portion of the sugar beet and Any part of the water-repellent part, and the diblock copolymer can be s ) 1330657 As shown in the ninth figure, the copolymerization of the diblock copolymer is a reversible redox step, via which the transition metal compound is sequentially attached to the non-functional monomer using a carrier as a functional atom. a macroinitiator of a base. In this synthesis, a poly(propylene oxide) having a macroinitiator (poly(propylene oxide)-Br) is obtained by reacting a monohydroxy group (propanol) with a 2-bromo group. The reaction of butyl bromide with bromine is carried out. For the polymerization of sulfobetaine methacrylate (SBMA) having a molecular weight of 11,200, the contiguous betaine monomer (SBMA) is based on propylene oxide and catalyst. The copolymer was obtained by polymerization in the presence of QiBr. The structure of the di-recorded copolymer formed by poly(epoxypropane) and poly(SBMA) was characterized by a magnetic resonance (NMR) spectrum. The typical epoxidized post-stage _ _ base beet test methyl acrylate 35 spectrum see the tenth figure. The clean gold-coated substrate was immersed in a solution of HS(CH2)8CH3 to form a methyl-terminated self-assembled monolayer on a gold-coated glass. The two-copolymer formed by the weaving (glycidyl) and the poly(supply betaine methyl (10)_) is dissolved on the surface of the substrate, and is washed with the buffer solution to remove the copolymer which is not adsorbed. In this example, the protein-based protein was adsorbed on the surface by a physical adsorption copolymer. The amount of protein adsorption is defined as the difference between the two baselines before and after protein adsorption. The tenth-figure shows a typical SPR-induced SPR induction map, followed by an in situ assessment of fibrinogen adsorption. The physical adsorption of the hydrophobic CHr self-assembled monolayer surface to the definition of the green diblock copolymer poly(glycidyl)-block-poly (renering beet methyl acrylate) was carried out. In order to control the surface accumulation density of the physically adsorbed copolymer, three different miscellaneous beet methacrylic acid lysate block copolymers were synthesized (referred to as propylene-propylene-segment-sequence beet methacrylic acid S) 2Q, ring Oxypropyl propylene 2. _ block - contiguous beet 曱 丙烯酸 acryl vinegar", and propylene cyanate 2. _ 段 segment · continued base beet test methyl acrylate vinegar 5.). The length of the bond of c S ) 20 1330657 is kept constant, and the chain length of poly(Ginebetaine thiol acrylate) is the monomer of sequential addition by atom transfer radical polymerization at ambient temperature. Control. The synthetic parameters and average molecular weights of the three poly(ethylene oxide) cascading-poly(trans-betaine thioglycolic acid vinegar) copolymers are summarized in Table 1.
表一、三種聚(環氧丙炫XPPO)-嵌段-聚(續基甜菜鹼甲基丙稀 整醋)(P(SBMA)共聚物的反應條件和平均分子量 溶劑[SBMA] [PPOBr]反應時 --間(hr) Mi,gpc c MJMn 6490 1.232 11183 1.255 15114 1.353Table 1, three kinds of poly(epoxypropanol XPPO)-block-poly(renering betaines methyl propylene vinegar) (P (SBMA) copolymer reaction conditions and average molecular weight solvent [SBMA] [PPOBr] reaction Time--(hr) Mi,gpc c MJMn 6490 1.232 11183 1.255 15114 1.353
A B C 組成 (DPn6) P〇20~SBMA20 PO20-SBMA35 P〇20-SBMASn (10 ml) (g) 曱醇 2.0 甲醇 2.0 曱醇 2.0 358.0 143.2 71.6 24 24 24 β引發劑的比率:Cu(I)Br : bpy的比率為1: l :2 △DPn是聚合度。 是平均分子量,Mw/Mn是製備的共聚物聚合度的分散性 (polydispersities)。ABC composition (DPn6) P〇20~SBMA20 PO20-SBMA35 P〇20-SBMASn (10 ml) (g) sterol 2.0 methanol 2.0 sterol 2.0 358.0 143.2 71.6 24 24 24 β initiator ratio: Cu(I)Br : bpy ratio is 1: l : 2 ΔDPn is the degree of polymerization. It is an average molecular weight, and Mw/Mn is the dispersibility of the degree of polymerization of the prepared copolymer.
當聚(SBMA)鏈較長時’聚(SBMA)/PP〇的鏈長比率越高,二嵌 段共聚物的結構越不對稱。兩步反應路徑(第九圖)提供的pp〇_嵌段 -聚(SBMA)共聚物具有控制的分子量(从n)和多分散性从=! 2 〜1.35)。低多分散性意指控制極佳的聚合精確度。第十二圖顯示 獲得分子量為6500〜15000的三種聚合物具有低多分散性。在第十 二圖中,共聚物A、B和C共聚物分別表示p〇2〇_嵌段·δΒΜΑ2〇、ρ〇2。-嵌段-SBMA35和ΡΟμ嵌段-Sbma%。可以預期三種SBMA類嵌段共 t物具有不同的集積岔度和蛋白質吸附行為。共聚物和蛋白質的 21 1330657 吸附量係由SPR獲得。 .* 將0.005至h^APPO-嵌段-聚(SBMA)溶液濃度對表面集 積密度的影響以及蛋白質的吸附予以測定。從第十三圖可以看 ’出’蛋白質吸附係依共聚物層的化學性質和結構(亦即SBMA表面 搶度和(SBMA)ZPPO比率)而定’而SBMA表面密度和 比率係由⑻PPQH聚(SBMA)在额巾触度(Cpp_部_) 和(b)聚(SBMA)的體積分率(ν〇1_ ―)叫麵)]而定。在低 鲁 Cpp〇_嵌段-聚(SBMA)(例如Cppo-級聚{sbma}低於0.〇2mg/mL)下,對較高f聚 θβμα}的PPO-SBMA二嵌段共聚物而言蛋白質吸附會降低,這是由 於較高的SBMA表面覆蓋。相反地,在較高^舰〜麵)下,較 低/^sbma}的PPO-嵌段-聚(SBMA)二嵌段共聚物上的蛋白質吸附會 迅速降低。對於較低分子量的共聚物A而言,當Cp_.__ 大於0.03mg/ml時,蛋白質吸附非常低(3ng/cm2)。對共聚物c而 s,在較覓範圍Cppo-嵌段p。丨内,蛋白質吸附保持在較高程度 (2〇·3 ng/cm2)。儘管不想受假設限制,但是一般相信這是因為較大 φ WSBMA片斷在自身之間會產生空隙,因而無法充分地覆蓋表面, 而導致蛋白質的吸附。 PPO-嵌段-聚(SBMA)的表面集積密度在表面抗蛋白質吸附能 力方面扮演重要角色。第十四圖顯示纖維蛋白原在各種PP〇_嵌段_ 聚(SBMA)塗層(CPPO負段-聚(SBMA) = 1 .〇 mg/mi)表面吸附的spR减應 圖。纖維蛋白原對塗有共聚物A和B的表面吸附極低,而對塗有共 聚物c的表面吸附較高。這應歸於由大分子尺寸的共聚物c形成的 表面集積缺陷(surface packing defect)增加。當塗有共聚物c的表面 用較小分子量的共聚物A回填時(參見第十五圖),蛋白質的吸附也 22 C S ) 1330657 ^付極低。雜絲示,較高的麟蛋自原謂麟於較高分子 里4物吸附會產生較〶的表面空缺,而這些空腔可以用較小分 子量的共聚物予以回填。 含有SBMA的絲物,如果表面紐嫩密度高,職蛋白質吸 附性理想。可藉由測量三種不同分子量⑽奶〜別⑽)和維8 〜10.9)的蛋白質(纖維蛋白原、BSA和溶菌酶)在共聚物a上的吸附 而可進一步評估抗各種蛋白質吸附的沾嫩類共聚物。第十六圖顯 示所有三種蛋白質在共聚物A上的吸附低於〇·25 nm(約3.7 ng/cm2) ° 對於嵌段共聚物,磺基甜菜鹼部分代表性單體包括磺基甜菜鹼 甲基丙烯酸醋(SBMA)、續基甜菜驗丙稀酸g旨、續基甜菜驗丙稀醯 胺、磺基甜菜鹼乙烯基化合物、磺基甜菜鹼環氧化物、和其他具 有羥基、異氰酸根、氨基或羧基之磺基甜菜鹼化合物。任何疏水 性聚合物鏈可以用作本發明共聚物的疏水性部分。代表性疏水性 部分包括聚環氧丙院(PPO)、聚甲基丙稀酸醋、聚丙稀酸醋類、聚 丙烯醯胺、聚酯、聚醚、聚氨酯和聚醯胺。 在一個實施例中,聚(SBMA)塗層的製備將於實施例5中說明。 該實施例說明聚SBMA的製備,它可以單獨使用或加入標準油漆中 以減少生物污染或提高生物相容性。該聚合物係藉由使SBMA和 AIBN反應’隨後加入曱基丙烯酸月桂酯而製得。過濾該產品並以 99g/L的濃度分散於二曱笨中。酵素結合免疫吸附測定(ELISA)顯 示蛋白質在聚SBMA塗層表面的吸附減少8〇%以上(結果顯示於第 十七圖中)。船舶生物污垢分析顯示聚SBMA塗層明顯地減少海洋 微生物的沈澱(參見第十九至第二十一圖)。 23 1330657 入環氧類油漆以減 以實施例5所述之方法製備的聚SBMA可加 少生物污垢。表二列出代表性配方的組分。 表二、代表性聚涂廢配方The higher the chain length ratio of the poly(SBMA)/PP〇 when the poly(SBMA) chain is longer, the more asymmetric the structure of the two-block copolymer. The two-step reaction pathway (Fig. 9) provides a pp〇_block-poly(SBMA) copolymer with controlled molecular weight (from n) and polydispersity from =! 2 to 1.35). Low polydispersity means controlling excellent polymerization accuracy. Figure 12 shows that the three polymers having a molecular weight of 6500 to 15000 have low polydispersity. In the fifteenth graph, the copolymers A, B and C copolymers represent p〇2〇_block·δΒΜΑ2〇, ρ〇2, respectively. - Block-SBMA35 and ΡΟμ block-Sbma%. It is expected that the three SBMA-like block co-t species have different accumulation densities and protein adsorption behaviors. The amount of 21 1330657 adsorption of copolymers and proteins was obtained from SPR. .* The effect of the concentration of 0.005 to h^APPO-block-poly(SBMA) solution on the surface bulk density and the adsorption of the protein were determined. From the thirteenth figure, it can be seen that the 'extracted' protein adsorption system depends on the chemical nature and structure of the copolymer layer (ie SBMA surface stimuli and (SBMA) ZPPO ratio) and the SBMA surface density and ratio are determined by (8) PPQH poly( SBMA) is determined by the frontal touch (Cpp_part_) and (b) poly (SBMA) volume fraction (ν〇1_ ―). A PPO-SBMA diblock copolymer of higher f-poly-ββμα} at low Cpp〇_block-poly(SBMA) (eg, Cppo-grade poly{sbma} below 0.〇2 mg/mL) Protein adsorption is reduced due to higher SBMA surface coverage. Conversely, at higher (ship-to-face), protein adsorption on PPO-block-poly(SBMA) diblock copolymers with lower /^sbma} is rapidly reduced. For the lower molecular weight copolymer A, protein adsorption was very low (3 ng/cm2) when Cp_.__ was greater than 0.03 mg/ml. For the copolymer c and s, in the relatively 觅 range Cppo-block p. In the sputum, protein adsorption is maintained at a high level (2〇·3 ng/cm2). Although not intended to be limited by assumptions, it is generally believed that this is because larger φ WSBMA fragments create voids between themselves and thus do not adequately cover the surface, resulting in adsorption of proteins. The surface-accumulation density of PPO-block-poly(SBMA) plays an important role in surface anti-protein adsorption capacity. Figure 14 shows the spR subtraction of fibrinogen adsorbed on various PP〇_block_poly(SBMA) coatings (CPPO negative-poly(SBMA) = 1 .〇 mg/mi). Fibrinogen has a very low adsorption on the surface coated with copolymers A and B, and a higher adsorption on the surface coated with copolymer c. This is due to an increase in surface packing defects formed by the macromolecular size copolymer c. When the surface coated with copolymer c is backfilled with a smaller molecular weight copolymer A (see Figure 15), the adsorption of the protein is also 22 C S ) 1330657 ^ very low. According to the hybrid yarn, the higher lining of the lining of the lining of the higher numerator will result in a more vacant surface vacancy, and these cavities can be backfilled with a smaller molecular weight copolymer. Silk containing SBMA, if the surface is high density, the protein is ideal for adsorption. The adsorption of various proteins against the adsorption of various proteins can be further evaluated by measuring the adsorption of proteins (fibrinogen, BSA and lysozyme) on three different molecular weights (10) milk ~ (10) and vitamins 8 to 10.9). Copolymer. Figure 16 shows that the adsorption of all three proteins on copolymer A is less than 〇·25 nm (about 3.7 ng/cm2) ° For block copolymers, some of the representative monomers of sulfobetaine include sulfobetaine A. Acrylic vinegar (SBMA), sucrose beet, acrylic acid, sulphur beetamine, sulfobetaine vinyl compound, sulfobetaine epoxide, and others with hydroxyl, isocyanate A sulfobetaine compound of an amino group or a carboxyl group. Any hydrophobic polymer chain can be used as the hydrophobic portion of the copolymer of the present invention. Representative hydrophobic moieties include polyepoxypropylene (PPO), polymethacrylic acid vinegar, polyacrylic acid vinegar, polyacrylamide, polyester, polyether, polyurethane, and polyamine. In one embodiment, the preparation of a poly(SBMA) coating will be illustrated in Example 5. This example illustrates the preparation of polySBMA, which can be used alone or in standard paints to reduce biofouling or improve biocompatibility. The polymer was prepared by reacting SBMA with AIBN' followed by the addition of lauryl methacrylate. The product was filtered and dispersed in a weight of 99 g/L. The enzyme-binding immunosorbent assay (ELISA) showed a decrease in the adsorption of protein on the surface of the poly-SBMA coating by more than 8% (the results are shown in Figure 17). Marine biofouling analysis showed that the polySBMA coating significantly reduced the precipitation of marine microorganisms (see Figures 19 to 21). 23 1330657 Poly SBMA prepared by the method described in Example 5 in an epoxy-based paint can reduce biofouling. Table 2 lists the components of a representative formula. Table 2, representative poly coating waste formula
聚SBMA分散體是聚SBMA以99g/L濃度分散在二曱苯中,環氧 樹脂是70- 80%的環氧樹脂溶液,而Ti〇2、Fe2〇3和炭黑為顏料。該 配方中’添加劑係由有機黏土結構化試劑 agent)、矽石觸變劑所組成。交聯劑是聚醯胺,它與環氧樹脂在環 境溫度下反應。藉由刷塗或喷塗法,將液態無污染塗料塗在環氧 底漆基材上。酵素結合免疫吸附測量顯示纖維蛋白原的吸附明顯 減少,且Helegan線蟲的沈積減少50%以上。 互穿網狀結缉y厶物 另一個方面’本發明提供塗有互穿網狀結構聚合物(IpN)的超低 生物分子黏附表面。本文使用的術語“互穿網狀結構聚合物’’ 24 < S ) 1330657 (IPN)係指包括兩種或多種網狀結構的聚合物,該等網狀結構在分 子層級上至少部分父錯(Interlace),但彼此不是以共價鍵鍵結並 且除非化學鍵斷裂否則不能分開。 在一個實施例中,含有%基甜菜驗聚合物的互穿網狀結構聚合 物係藉由使磺基甜菜鹼單體穿透進第二種材料基質,並使該單體° 進行聚合反應而獲得。第二種材料可以與該穿透化合物相同或不 同。含有磺基甜菜鹼聚合物和段間聚胺酯(SPU)的代表性互穿網狀 結構聚合物將於實施例6中說明,並請參見第三圖。 具有抗蛋白質吸附性及高機械強度的互穿網狀結構聚合物係藉 由用交聯的磺基甜菜鹼曱基丙烯酸酯(SBMA)聚合物對段間聚胺 酉曰進行改性而製付。SPU係用作基質組分,以增強互穿網狀結構聚 合物膜的機械強度,而聚(SBMA)係用以減少互穿網狀結構聚合物 膜的蛋白質吸附。如第三圖所示,SPU膜用溶劑蒸發法製備。然 後,將SPU膜浸於含有SBMA單體、曱基丙烯酸2_乙基己基酯 (EHMA)單體、甘油l,3-diglycerolate二丙烯酸酯(GDGDA)交聯劑和 光引發劑的培養溶液中。SBMA係藉由以可見光照射之光聚合反應 而進行聚合’以產生互穿網狀結構聚合物膜。 調節培養溶液的總濃度(或培養濃度)以便獲得最佳結果。SBMA 單體比例(mol%)定義為SBMA單體莫耳數除以培養溶液中SBMA 和EHMA單體的總莫耳數。該實施例中,SBMA單體比率調節在〇 和100 mol%之間以優化互穿網狀結構聚合物的製備條件,GDGDA 固定為1.0xl(T2m〇l/L。為消除副反應,光引發劑(例如莰醌 (camphorquinone)和4-(N,N-二曱基氨基)苯甲酸乙酯)在黑暗中、氮 氣保護下加入培養溶液中。至於光聚合反應,用可見光(λ=4〇〇_5〇〇 25 1330657 nm)照射SPU膜形成互穿網狀結構聚合物膜。然後根據本領域技 術人員已知的沿用已久的後處理方法來清潔互穿網狀結構聚合物 膜,以除去未反應的單體。互穿網狀結構聚合物膜的化學組成深 度剖面係由共焦拉曼顯微鏡確定。在互穿網狀結構聚合物膜上吸 附的蛋白質量係藉由酵素結合免疫吸附法(ELISA)來測定。 互穿網狀結構聚合物的製程一般可以分為兩個階段。第一階段 與較紐的培養時間有關。在該階段中,從培養溶液擴散入spu基質 的聚(SBMA)量主要係由SPU溶脹度控制。第二階段與較長培養時 間有關。在該階段中’ SPU基質内的聚(SBMA)量係由spu膜内之 SBMA的溶解度來決定。因此,可以預期在互穿網狀結構聚合物的 製備上溶劑極性扮演極重要角色,而溶劑極性具有折衷(trade_〇ff) 性質。最初在較低極性溶劑中培養,將引起較高的spu溶脹(或較 夕的SBMA擴散入基質中或降低蛋白質吸附)。然而長期培養之 後,它也將降低SPU膜内的SBMA溶解度(或減少SPU基質内SBMA 富集的區域或較高的蛋白質吸附)。培養溶液應該能夠溶脹疏水性 φ SPU並溶解親水性聚(SBMA),需要一種合適的溶劑極性來獲得功 效最佳之互穿網狀結構聚合物膜。 互穿網狀結構聚合物膜上吸附的蛋白質量係依培養條件而定, 其中培養條件包括溶劑極性、培養時間、SBMA單體比率和培養濃 度。在較高極性混合溶劑中長培養時間製備的互穿網狀結構聚合 物具有極低的蛋白質吸附,其表示當SPU膜内之SBMA單元的分佈 控制良好時,含有聚(SBMA)的互穿網狀結構聚合物具有高的抗非 特異性蛋白吸附性。 在每一製備的互穿網狀結構聚合物臈上的蛋白質吸附係使用聚 26 1330657 本乙烯(ps)作為參比基材,並利用酵素結合免疫吸附法來進行評 估。第二十二圖係各種樣品相對於聚苯乙烯的蛋白質吸附之關係 圖。請參見第二十二圖,與PS或未改性的spu膜相比,互穿網狀 結構聚合物膜上的蛋白質吸附明顯減少。在未改性的S PU膜上吸附 的人類Fg是PS上的82%。互穿網狀結構聚合物膜上的蛋白質吸附 與聚(HEMA)水凝膠相似或甚至比聚(HEMA)水凝膠更低,而互穿 網狀結構聚合物膜比聚(HEMA)具有更佳的機械性能。最低蛋白質 吸附的互穿網狀結構聚合物膜係藉由2〇〇c下在含有95v〇1%甲醇和 5 vol%水的溶液中培養SPU膜(TECOFLEX 60)24小時而獲得,溶液 中SBMA單體莫耳百分比為7〇m〇i% ’而培養濃度為2 〇111〇丨几。聚 (SBMA)水凝膠也用於對比。能夠看出,在聚(SBMA)上吸附的蛋 白貝僅1.5%,指出聚(SBMA)可以具有高的抗非特異性蛋白吸附 性。結果顯示包含聚(SBMA)和SPU的互穿網狀結構聚合物具有低 蛋白吸附性的同時,亦可維持其機械強度。 互穿網狀結構聚合物的抗非特異性蛋白吸附能力係強烈地依賴 於它們製備使用的溶劑極性。互穿網狀結構聚合物樣品的抗非特 異性蛋白吸附性係由SH;溶脹度和SPU膜内SBMA的溶解度之間 的平衡來決定。長培養時間後,互穿網狀結構聚合物的抗非特異 性蛋白吸附性主要地係由SPU膜内的SBMA溶解度來決定。較佳以 較高極性的溶劑製備較低蛋白質吸附的互穿網狀結構聚合物樣 品。長培養時間過程中藉由含有高極性SBMA的較高極性溶劑使 SPU臈溶脹之後,更多SBMA可以滲透入SPU膜中,形成SPU基質 内之SBMA-富集區域。對於較短培養時間,互穿網狀結構聚合物 上蛋白質吸附的減少主要由SPU溶脹度來決定。較低極性溶劑使 27 < S ) SPU膜溶脹更多,而容許更多SBMA擴散入膜内導致最初蛋白質 吸附的減少。該實補巾,溶劑極性對製備的互穿峨結構聚合 物膜上蛋白質吸_少的影響’主·制三麵型的培養溶二 (極性依序降低)作為研究之用:甲醇大於乙醇/曱醇,後者大於 異丙醇/甲醇。 、 如第二十三A圖所示’在較高極性溶劑(即甲醇)中培養的互穿網 狀結構聚合物膜24小時後觀察到相比由較低極性混合溶劑(即乙醇The polySBMA dispersion was polySBMA dispersed in diphenylbenzene at a concentration of 99 g/L, the epoxy resin was 70-80% epoxy resin solution, and Ti〇2, Fe2〇3 and carbon black were pigments. In this formulation, the 'additive is composed of an organic clay structuring agent) and a vermiculite thixotropic agent. The crosslinker is a polyamine which reacts with the epoxy resin at ambient temperature. A liquid, non-contaminating coating is applied to the epoxy primer substrate by brushing or spraying. Enzyme-bound immunosorbent measurements showed a significant decrease in fibrinogen adsorption and a 50% reduction in Helegan nematode deposition. Interpenetrating mesh 缉 厶 Another aspect The present invention provides an ultra low biomolecular adhesion surface coated with an interpenetrating network polymer (IpN). The term "interpenetrating network polymer" as used herein refers to a polymer comprising two or more network structures which are at least partially parental at the molecular level. (Interlace), but not bonded to each other by a covalent bond and cannot be separated unless the chemical bond is broken. In one embodiment, the interpenetrating network polymer containing the % based beet polymer is obtained by making the sulfobetaine The monomer is penetrated into the second material matrix and the monomer is polymerized. The second material may be the same as or different from the penetrating compound. The sulfobetaine polymer and the interstage polyurethane (SPU) A representative interpenetrating network polymer will be described in Example 6, and please refer to the third figure. An interpenetrating network polymer having anti-protein adsorption and high mechanical strength is crosslinked by The sulfobetaine thiol acrylate (SBMA) polymer is modified by modifying the interstage polyamine oxime. The SPU is used as a matrix component to enhance the mechanical strength of the interpenetrating network polymer film. Poly (SBMA) is used to reduce Protein adsorption of the network structure polymer film. As shown in the third figure, the SPU film was prepared by solvent evaporation method. Then, the SPU film was immersed in the SBMA monomer, 2-ethylhexyl acrylate (EHMA). In a culture solution of a monomer, a glycerol 1,3-diglycerolate diacrylate (GDGDA) crosslinking agent and a photoinitiator. SBMA is polymerized by photopolymerization by visible light irradiation to produce an interpenetrating network polymer. Membrane. Adjust the total concentration (or culture concentration) of the culture solution for best results. The SBMA monomer ratio (mol%) is defined as the number of SBMA monomer moles divided by the total number of SBMA and EHMA monomers in the culture solution. In this example, the SBMA monomer ratio is adjusted between 〇 and 100 mol% to optimize the preparation conditions of the interpenetrating network polymer, and the GDGDA is fixed at 1.0xl (T2m〇l/L. To eliminate side reactions, light The initiator (for example, camphorquinone and ethyl 4-(N,N-didecylamino)benzoate) is added to the culture solution under the protection of nitrogen in the dark. For photopolymerization, visible light (λ=4) 〇〇_5〇〇25 1330657 nm) illuminating the SPU film to form an interpenetrating network junction Polymer film. The interpenetrating network polymer film is then cleaned according to well-established post-treatment methods known to those skilled in the art to remove unreacted monomers. The chemical composition of the interpenetrating network polymer film The depth profile is determined by confocal Raman microscopy. The amount of protein adsorbed on the interpenetrating network polymer membrane is determined by enzyme-bound immunosorbent assay (ELISA). The process of interpenetrating network polymer can generally be It is divided into two stages. The first stage is related to the incubation time of the New Zealand. In this stage, the amount of poly(SBMA) diffused from the culture solution into the spu matrix is mainly controlled by the SPU swelling degree. The second phase is related to longer incubation times. The amount of poly(SBMA) in the 'SPU matrix at this stage is determined by the solubility of SBMA in the spu film. Therefore, it is expected that the solvent polarity plays a very important role in the preparation of the interpenetrating network polymer, and the solvent polarity has a trade-off (trade_〇ff) property. Initial incubation in a less polar solvent will result in higher spu swelling (or SBMA diffusion into the matrix or reduced protein adsorption). However, after long-term incubation, it will also reduce SBMA solubility in the SPU membrane (or reduce SBMA enrichment in the SPU matrix or higher protein adsorption). The culture solution should be capable of swelling the hydrophobic φ SPU and dissolving the hydrophilic poly(SBMA), requiring a suitable solvent polarity to obtain the most effective interpenetrating network polymer film. The amount of protein adsorbed on the interpenetrating network polymer film depends on the culture conditions, including the solvent polarity, the culture time, the SBMA monomer ratio, and the culture concentration. The interpenetrating network polymer prepared in a longer polarity culture time in a higher polarity mixed solvent has a very low protein adsorption, which means that the poly(SBMA) interpenetrating network is included when the distribution of the SBMA unit in the SPU film is well controlled. The structural polymer has high resistance to non-specific protein adsorption. The protein adsorption system on each of the prepared interpenetrating network polymer crucibles used poly 26 1330657 ethylene (ps) as a reference substrate and was evaluated by enzyme-bound immunosorbent assay. The twenty-second graph is a plot of protein adsorption for various samples relative to polystyrene. Referring to Figure 22, protein adsorption on the interpenetrating network polymer film is significantly reduced compared to PS or unmodified spu films. The human Fg adsorbed on the unmodified S PU membrane was 82% on the PS. Protein adsorption on interpenetrating network polymer membranes is similar to or even lower than poly(HEMA) hydrogels, while interpenetrating network polymer membranes have more properties than poly(HEMA) Good mechanical properties. The lowest protein-adsorbed interpenetrating network polymer membrane was obtained by culturing SPU membrane (TECOFLEX 60) in a solution containing 95v〇1% methanol and 5 vol% water for 24 hours at 2〇〇c, SBMA in solution. The percentage of monomeric moie is 7〇m〇i% ' and the culture concentration is 2 〇111〇丨. Poly (SBMA) hydrogels were also used for comparison. It can be seen that the protein shell adsorbed on poly(SBMA) is only 1.5%, indicating that poly(SBMA) can have high resistance to non-specific protein adsorption. The results show that the interpenetrating network polymer comprising poly(SBMA) and SPU has low protein adsorption while maintaining its mechanical strength. The anti-non-specific protein adsorption capacity of interpenetrating network polymers is strongly dependent on the polarity of the solvent used in their preparation. The anti-non-specific protein adsorption of the interpenetrating network polymer sample is determined by the balance between SH; the degree of swelling and the solubility of SBMA in the SPU film. After a long incubation period, the anti-non-specific protein adsorption of the interpenetrating network polymer is primarily determined by the solubility of SBMA in the SPU membrane. It is preferred to prepare a lower protein adsorbed interpenetrating network polymer sample in a more polar solvent. After swelling the SPU(R) by a higher polarity solvent containing highly polar SBMA during long incubation times, more SBMA can penetrate into the SPU membrane to form an SBMA-enriched region within the SPU matrix. For shorter incubation times, the reduction in protein adsorption on the interpenetrating network polymer is primarily determined by the degree of SPU swelling. The lower polar solvent swells the 27 <S) SPU membrane more, while allowing more SBMA to diffuse into the membrane resulting in a reduction in initial protein adsorption. The effect of the solvent polarity on the protein absorption on the prepared interpenetrating polymer structure membrane. The main solution of the three-sided culture solution (the polarity is sequentially reduced) is used for research: methanol is greater than ethanol/ Sterol, the latter being larger than isopropanol/methanol. , as shown in Figure 23A, the interpenetrating network polymer film cultured in a higher polarity solvent (i.e., methanol) was observed after 24 hours compared to a lower polarity mixed solvent (i.e., ethanol).
/甲醇和異丙醇/甲醇)製備的膜,前者蛋白質吸附較少。一般相信 在較長培養射’較冑雜溶繼境下更乡犯嫩單元可以分配入 SHJ膜中’因為SBMA單體在極性溶劑(甲醇)中溶解更好,導致卿 基質的SBMA-富集區域的形成因而提供更佳的抗蛋白質吸附能 力。培養時間足夠久,可達到溶脹SPU膜和培養溶液之間的平衡, 而導致SPU膜内的較高SBma單體分配。因此,若培養時間長,則 較佳以更高的極性環境來獲得SPU膜嘯嫩富集區域的形成, 以減少蛋白質的吸收。這也解釋了為什麼藉由加人更強極性溶劑Membranes prepared with /methanol and isopropanol/methanol), the former has less protein adsorption. It is generally believed that in the longer culture shots, the more sinister units can be partitioned into the SHJ membrane because of the better dissolution of the SBMA monomer in the polar solvent (methanol), resulting in SBMA-enrichment of the Qing matrix. The formation of the region thus provides better resistance to protein adsorption. The incubation time is long enough to achieve a balance between the swollen SPU membrane and the culture solution, resulting in higher SBma monomer distribution within the SPU membrane. Therefore, if the culture time is long, it is preferable to obtain the formation of the SPU film squeezing and enriching region in a higher polar environment to reduce protein absorption. This also explains why by adding a stronger polar solvent
(即5 vd%·備的絲峨結騎合物摩财)可以進一步減 ^對非特異性蛋白的吸附,如第二十二圖所示。膽雅純甲醇中 衣備之聰·1細隱錢較佳。因域林能娜PU膜,所 =純水不是製備互穿離結_合_良聽劑。含有% ν〇ι%甲 ==%水的溶劑顯然是spu溶脹和s職溶解度之間的良好 折衷溶劑。 ,義7^SPU^對轉時_變侧係。結果顯示最 跡乙辦輯異轉情)可娜刪更迅 、牙、·’結構聚合物在製備過程巾之溶脹比(%)定義為製備的 28 1330657 互穿網狀結構聚合細和未改性SPU膜之間的直 性㈣膜的直徑。能夠看&,當SPU膜浸入乙醇/甲醇(或里丙醇/ 曱嚇液中2小時後,其可迅速溶脹至最大。spu膜浸入甲醇溶液 中24小時之後也獲得了_職,但是,該麵行為係與蛋 白質吸附的減少有關。如第二十三A圖所#,與浸泡於甲醇溶液中 之SPU膜相比’浸泡於乙醇/曱醇(或異丙醇/甲醇)溶液中之卿膜 在第-個2小時_蛋白質吸附量減少更快。然而,與在甲醇溶液 中製備的樣品相比,乙醇/?醇(或異丙醇/情)溶液中製備的互穿 網狀結構聚合物樣品上之蛋白質吸附量的減少在24小時之後並不 明顯。即使較低極性的溶劑(例如異丙醇)可 快地渗入SPU基質中,但SBMA在SPU膜内之異丙醇富集區^ 解度並不佳。這級地指出,碰_度對於使更乡sbma渗入 SPU動重要,且SPU_^_極輯於衫SBMA溶解於 SPU基質關樣扮演重要肖色。在長培養咖後更高極性的溶劑 可以最終促使SBMA滲人SPU歸内,但是它們在動力學上使spu 膜溶脹較慢。g)此’具有巾間紐的合適溶縦麟作為互穿網 狀結構聚合物製_之培養毅,以使互穿網狀結構聚合物製程 上的動力學和熱力學之間達到平衡。 培養溶液的總濃度亦可影響SPU膜内SBMA單元的分散。此實 施例中,濃度在0.1和3.Gm()l/L之間變化,評估不同培養濃度下製 備的各種互穿網狀結構聚合無對蛋白質的吸附。如第二十四圖 所示’觀察到社Gmol/L的濃度時蛋白f吸附有效減少。對於更 低浪度的培養洛液(低於0.5 mol/L),由於互穿網狀結構聚合物膜内 缺乏SBMA·富倾域職’齡啦穿峨結構聚合物膜有更高 (S > 29 1330657 的蛋白質贿。轉在綠度雜(大於2 G md/L)巾的互穿網 狀、Her物膜,互穿網狀結構聚合物膜對蛋白質吸附的抗性沒 有進步的改it ’目為含有高帶電SBMA的高濃縮培養溶液的溶劑 行為改變了。如第二十五A圖所示,因為在心‘溶液情況下, 較少溶劑分子可以用來溶脹SPU膜及促進沾祖滲入spu膜内所 以與由0.5 mol/L溶液製備的互穿網狀結構聚合物膜相比,由1〇 m〇l/L總濃度鱗純製互穿戦結構聚合_在第一似小 時内對降低蛋白質的吸附更慢。然而培養24小時後,觀察至似 mol/L溶液對降低蛋白質吸附更有效。互穿網狀結構聚合物製備 中,比較溶紐的變化和隨著蛋自質靖變化的重量增加是重要 互穿網狀結構聚合㈣備過程巾重量增加(%)定料製備的互 穿網狀結構聚合_和未改性SPU叙間的乾重紐除以未改性 SPU膜的乾重。從第二十五_可以看出製備的互穿網狀結構聚合 物膜的溶脹比、重量增加和蛋白質吸_相互_。結果清楚地 顯示’第二十五B圖中溶脹比增加和重量增加對應於第二十五 中隨培養時間增長蛋白質吸附的降低。該結果也表示,單體組分 實際上擴散人spu膜,並在互穿峨結構聚合__成sbm^_ 畐集區域。 第二十六圖顯示不同SBMA單體比率在2〇τ培養溶液中對互穿 網狀結構聚合物膜上蛋白質吸_影響,培養時間物小時, 養濃度為1 mol/L。隨著SBMA單體比率在培養溶液巾的增加^ 白質吸瞬低。當莫耳比率SBMA/E繼為7:3時,蛋白^吸 少達到最大值。該結果顯示,具有較高SBMA單體比率的培養溶液 導致互穿網狀結構聚合物膜内形成更多抗蛋白質吸附的聚 30 < S ) 1330657 (SBMA)-富集區域。該結果也表明,溶液中包括一些甲基丙稀酸 乙基己基醋(EHMA)單元可以提高SPU和聚(SBMA)之間的親合 性。因此,極佳地控制SBMA對EHMA的莫耳比率對於spu膜内 SBMA_富集區域的分散和具有極低蛋白質吸附的優異互穿網狀結 構聚合物結構形成是重要的。 共焦拉曼光s普(confocal Raman spectroscopy)用來表徵互穿網狀 結構聚合物膜。典型的光譜示於第二十七圖中,聚(SBMA)中的s_c 化學鍵在拉曼偏移605 cm 1處觀察到,此項偏移出現在互穿網狀結 構聚合物膜表面0和20微米深度’但沒有出現在未改性spu膜,此 即才曰出t(SBMA)實際上已渗入SPU膜内。如上所述,蛋白質吸附 的減少顯示出時間依賴性行為(第二十三A圖和第二十五a圖),並 且此處有溶脹比和重量增加變化相對蛋白質吸附變化的相互關係 (第一十五B圖)。對於1M激度的小分子SBMA,SBMA物理吸附應 相當迅速地發生。這些事實及拉曼光譜顯示,SBMA不是簡單地吸 附在SPU膜表面上,而是滲入SPU基質内。 用於製備互穿網狀結構聚合物的磺基甜菜鹼聚合物的代表性單 體包括確基甜菜鹼甲基丙烯酸醋(SBMA)、績基甜菜驗丙烯酸酯、 續基甜菜驗丙烯醯胺、確基甜菜驗乙烯基化合物、項基甜菜驗環 氧化物和其他具有羥基、異氰酸根、氨基或羧基之磺基甜菜鹼。 代表性基材包括聚氨酯、矽氧烷、聚酯、聚乙烯、聚醯胺和特氟 隆(TEFLON)。 羧基甜菜鹼聚合物 除磺基甜菜鹼聚合物之外,羧基甜菜鹼聚合物也用於製備超低 生物分子黏附表面。 1330657 山縣?<合物鋪域子轉移自由絲合反應而接制引發劑封 端的疏水層上。基材表面塗有引發劑封端的疏水層。然後,績基 ,菜驗單體在該單層上進行聚合反應而在級表面上形成確基甜 菜驗聚合餘層。原子轉移自由絲合反應係由單層末端的自由 基引發劑所引發。 在個實施例中,本發明提供一種例如聚(羧基甜菜驗)(即聚 (CBMA))之羧基甜菜鹼聚合物類的塗層材料。一個方法中,具有 活f·生s此基®峨基甜菜驗聚合物係藉由表面引發的原子轉移自 由基聚合反應而接枝雌有引發細表面上。在另—個方法中,(ie, 5 vd%·Prepared silk 峨 骑 合物 合物 ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) ) In the succinct pure methanol, the clothing is tight. Because of the domain Linneng PU film, = pure water is not prepared for interpenetrating _ _ _ good hearing agent. A solvent containing % ν〇ι% A ==% water is clearly a good compromise between spu swell and s job solubility. , Yi 7 ^ SPU ^ on the turn _ change side system. The results show that the most traced B-transformation is different.) Kona is more rapid, teeth, and the swelling ratio (%) of the structural polymer in the preparation process towel is defined as the preparation of the 28 1330657 interpenetrating network structure fine and unchanged. Straightness between the SPU films (iv) Diameter of the film. It can be seen &, when the SPU membrane is immersed in ethanol/methanol (or propylene glycol/intimidation solution for 2 hours, it can swell rapidly to the maximum. The spu membrane is also immersed in the methanol solution for 24 hours, but also obtained the job, however, This surface behavior is related to the reduction of protein adsorption. As shown in Fig. 23A, it is 'immersed in ethanol/nonanol (or isopropanol/methanol) solution compared with SPU membrane soaked in methanol solution. In the first 2 hours, the amount of protein adsorption decreased more rapidly. However, compared with the sample prepared in methanol solution, the interpenetrating network structure prepared in ethanol/alcohol (or isopropanol/information) solution The reduction in protein adsorption on the polymer sample is not apparent after 24 hours. Even if a less polar solvent (such as isopropanol) can quickly penetrate into the SPU matrix, isopropyl alcohol is enriched in the SPU membrane. The degree of solution is not good. This level indicates that the touch _ degree is important for making the sbma infiltrate into the SPU, and the SPU_^_ polar album plays an important role in the SPU matrix. After the higher polarity of the solvent can finally cause SBMA to infiltrate the SPU, but they are in the kinetics The spu membrane is slowed to swell. g) This is a suitable kiln with a towel lining as an interpenetrating network polymer to improve the kinetics of the interpenetrating network polymer process. A balance is reached between thermodynamics. The total concentration of the culture solution can also affect the dispersion of the SBMA unit within the SPU membrane. In this example, the concentration was varied between 0.1 and 3. Gm () l / L, and the adsorption of various interpenetrating network structures prepared at different culture concentrations was evaluated without protein adsorption. As shown in Fig. 24, protein f adsorption was effectively reduced when the concentration of Gmol/L was observed. For lower-wave cultures (less than 0.5 mol/L), the lack of SBMA in the interpenetrating network polymer film is higher in the polymer film (S > 29 1330657 Protein bribe. Trans-through mesh, Her film, green interpenetrating (greater than 2 G md / L) towel, interpenetrating network polymer film resistance to protein adsorption has not improved 'The behavior of the solvent in the highly concentrated culture solution containing highly charged SBMA has changed. As shown in Figure 25A, because in the case of the heart solution, less solvent molecules can be used to swell the SPU film and promote infiltration. In the spu film, compared with the interpenetrating network polymer film prepared from the 0.5 mol/L solution, the interpenetrating structure of the interpenetrating structure is obtained from the total concentration of 1 〇m〇l/L _ in the first hour. Reducing the adsorption of protein is slower. However, after 24 hours of culture, it is observed that the mol/L solution is more effective in reducing protein adsorption. In the preparation of interpenetrating network polymer, the change of the lysate and the change of the self-quality of the egg The weight gain is important for interpenetrating network structure polymerization (4) preparation process towel weight increase (%) The dry weight of the interpenetrating network structure prepared by the fixed material and the unmodified SPU is divided by the dry weight of the unmodified SPU film. From the twenty-fifth, it can be seen that the interpenetrating network structure is prepared. The swelling ratio, weight increase, and protein absorption of the film were clearly shown. The results show that the increase in swelling ratio and the weight increase in the twenty-fifth B chart correspond to a decrease in protein adsorption in the twenty-fifth with increasing culture time. The results also indicate that the monomer component actually diffuses the human spu film and polymerizes in the interpenetrating structure __ into the sbm^_ 畐 region. The twenty-sixth graph shows that the ratio of different SBMA monomers is in the 2 〇 culture solution. The effect of protein adsorption on the interpenetrating network polymer film, the incubation time is 1 mol / L. With the increase of the SBMA monomer ratio in the culture solution towel, the white matter absorption is low. When the molar ratio is When SBMA/E is 7:3, the protein absorption is less than the maximum. The results show that the culture solution with higher SBMA monomer ratio leads to more anti-protein adsorption polymerization in the interpenetrating network polymer film. 30 < S ) 1330657 (SBMA) - enrichment area. The results also indicate that some methyl methacrylate ethyl hexyl vinegar (EHMA) units are included in the solution to increase the affinity between SPU and poly(SBMA). Therefore, it is important to optimally control the molar ratio of SBMA to EHMA for the dispersion of the SBMA_rich region in the spu film and the formation of an excellent interpenetrating network structure with very low protein adsorption. Confocal Raman spectroscopy is used to characterize interpenetrating network polymer films. A typical spectrum is shown in Figure 27, where the s_c chemical bond in poly(SBMA) is observed at a Raman shift of 605 cm 1 , which occurs on the surface of the interpenetrating network polymer film 0 and 20 The micron depth 'but does not appear in the unmodified spu film, which is why the t (SBMA) actually penetrates into the SPU film. As described above, the decrease in protein adsorption shows time-dependent behavior (Twenty-third A and twenty-fifth a), and there is a correlation between the swelling ratio and the change in weight and the change in protein adsorption (first ten) Figure 5B). For small molecule SBMA with 1M excitation, SBMA physical adsorption should occur quite rapidly. These facts and Raman spectroscopy show that SBMA is not simply adsorbed onto the surface of the SPU membrane but penetrates into the SPU matrix. Representative monomers for the preparation of the sulfobetaine polymer of the interpenetrating network polymer include succinyl betaine methacrylate (SBMA), zeal beet acrylate, reneke beet acrylamide, The beet beet test vinyl compound, the term beet test epoxide and other sulfobetaines having a hydroxyl group, an isocyanate group, an amino group or a carboxyl group. Representative substrates include polyurethanes, decanes, polyesters, polyethylenes, polyamines, and Teflon. Carboxyl Betaine Polymers In addition to sulfobetaine polymers, carboxybetaine polymers are also used to prepare ultra low biomolecular adhesion surfaces. 1330657 Mountain County? <Combination of the domain is transferred to the hydrophobic layer of the initiator capping free silk reaction. The surface of the substrate is coated with an aqueous layer that is terminated by an initiator. Then, the substrate and the monomer are subjected to polymerization on the monolayer to form a confirmatory sweet layer on the surface of the substrate. The atom transfer free silk fission reaction is initiated by a free radical initiator at the end of the monolayer. In one embodiment, the present invention provides a coating material such as poly(carboxy bene) (i.e., poly(CBMA)) carboxybetaine polymer. In one method, the base 峨 甜菜 based beet polymer is grafted onto the fine surface by surface-initiated atom transfer free radical polymerization. In another method,
竣基甜菜料合物類的雙功驗錄料是絲甜紐類水凝膠。 代表性具有活性官能細的無污雜基甜紐聚合㈣製備將於 實施例7中說明,並請參見第四圖。 兩性離子聚羧基甜菜鹼材料係將聚羧基甜菜鹼聚合物接枝到表 面上或藉由製備聚羧基甜菜驗類水凝膠而製得。塗有聚羧基甜菜 鹼的表面或水凝膠具有高抗蛋白性或高抗細胞黏附性。 超低生物分子黏附羧基甜菜鹼表面可藉由活性聚合技術,以控 制方式自表面生長聚叛基甜菜驗聚合物鏈而製得。此實施例中, 超低生物分子黏附表面係藉由表面引發的原子轉移自由基聚合反 應,將聚缓基甜菜驗曱基丙稀酸g旨(Cbma)接枝到塗有引發劑的 基材表面而製得。溴代異丁酸ω_巯基十一烷基酯是由溴代異丁醯 溴和毓基十一烷基醇反應合成。引發劑係藉由將金基材浸泡於含 有溴代異丁酸ω-巯基十一烷基酯溶液中,以自組裝方式而固定於 金基材上。一種CBMA單體’ 2-幾基-Ν,Ν·二甲基-Ν-(2’-甲基丙稀 醯氧基乙基)乙胺内鹽,係藉由使2_(ν,Ν,-二甲基氨基)曱基丙烯酸The double-acting test material for the sulfhydryl beet compound is a silk sweetener hydrogel. A representative non-staining-based sweetener polymerization with a reactive functionality (iv) preparation will be illustrated in Example 7, and see the fourth figure. The zwitterionic polycarboxybetaine material is obtained by grafting a polycarboxybetaine polymer onto a surface or by preparing a polycarboxy beet test hydrogel. Surfaces or hydrogels coated with polycarboxybetaine have high protein resistance or high cell adhesion. The surface of the ultra-low biomolecules adhering to the carboxybetaine can be obtained by controlled polymerization from the surface-grown polyphenol beet test polymer chain by living polymerization techniques. In this embodiment, the ultra-low biomolecule adhesion surface is grafted onto the substrate coated with the initiator by surface-initiated atom transfer radical polymerization. Made from the surface. Omega-decylundecyl bromide isobutyrate is synthesized by the reaction of bromoisobutyl bromo and decyl undecyl alcohol. The initiator was fixed to the gold substrate by self-assembly by immersing the gold substrate in a solution containing ω-mercapto undecyl bromoisobutyrate. A CBMA monomer '2-amino-indole, Ν·dimethyl-indole-(2'-methyl propylene methoxyethyl) ethylamine inner salt by making 2_(ν, Ν, - Dimethylamino)mercaptoacrylic acid
32 1330657 乙醋離丙内醋反應而合成。CBMA單體U由原子轉移自由基聚合 反應由自由基引發劑封端的自組裝單層接枝。,二吡啶 (BPY)分則側化劑和配體。反·轉在室溫及溫和條件下於 甲醇和水混合溶針進行。典_原子轉移自由絲合反應聚合 之後’均㈣祕甜菜縣合物碰紐縣面上。根據擴圓光 度法’測定聚合物層厚度約為1〇〜15 am。 二種不同蛋白質:人類纖維蛋白酶原(34〇kD,pI=5 5),溶菌酶 (14kD,PI=12),和人類絨毛膜促性腺激素(hCG,37k〇,pl=4 5) 在聚(CBMA)接枝表面上的吸附顯示減少到〇3ng/cm2以下(或波長 偏移低於0.02 nm,其值為SPR感測器的檢測極限),如第二十八圖 所示。因此’聚(CBMA)接枝的表面具有高度抗蛋白質吸附性。 用於製備本發明羧基甜菜鹼聚合物的代表性單體包括羧基甜菜 鹼甲基丙烯酸酯,如2-羧基-耶_二曱基鄉甲基丙烯醯氧基乙 基)乙胺内鹽;麟甜菜驗丙烯酸g旨;絲甜菜驗㈣醯胺;叛基 甜菜鹼乙烯基化合物;羧基甜菜鹼環氧化物;和其他具有羥基、 異氰酸根、氨基或羧基之羧基甜菜鹼。 羧基甜菜鹼聚合物可藉由包括原子轉移自由基聚合反應、可逆 型加成-分裂鏈轉移聚合法和自由基聚合法的聚合方法來製備。可 使用任何用於聚合的常規自由基引發劑。 聚(CBMA)或聚(SBMA)可以藉由表面引發的原子轉移自由基 聚合反應塗布在玻璃表面上。標準玻璃基材是清潔的基材,然後 浸於含有2_溪_2·曱基-則-[(三曱氧基曱魏基)丙基]_丙醯胺溶液 中。基材自浸潰溶液中移出,漂洗和乾燥。SBMA(或CBMA)在固 定式引發劑的兩種基材上,存在CuBr和2,2,_二吡啶存在下經過表 1330657 面引發的原子轉移自由基聚合反應聚合。實施例9描述並且在第二 十九圖中說明了在玻璃載片上藉由表面引發的原子轉移自由基聚 合反應製備聚SBMA (或聚CBMA)。 酶結合免疫吸附測定顯示在聚SMB A (或聚CBMA)接枝的表面 上蛋白質吸附明顯減少。在聚合物接枝的玻璃樣品上吸附的纖維 蛋白原低於在標準玻璃樣品上吸附的4%。在聚SBMA接枝的表面 上,用綠藻孢子培養6小時後,發現沒有藻類孢子或藻類黏附。對 照的玻璃樣品上覆有綠藻。 另一個方面中,本發明提供交聯的聚合物水凝膠。在一個實施 例中,本發明提供交聯的聚(83_)水凝膠。在另一個實施例中, 本發明提供交聯的聚(CBMA)水凝膠。 交聯的聚(SBMA)水凝膠如實施例4描述製備。透明水凝膠藉由 加入SBMA單體到四甘醇二曱基丙烯酸酯(Tegdma)中隨後由焦 亞硫酸鈉和過硫酸銨引發自由基聚合而製備。聚合之後,根據本 領域規定程式製備凝膠,除去殘留化學品。如上所的聚(SBMA>K 凝膠述具有低蛋白質吸附和低内皮細胞黏附。 交聯的聚(CBMA)水凝膠如實施例8描述製備。透明水凝膠藉由 加入CBMA單體到四甘醇二曱基丙烯酸酯(TEGDMA)中隨後由焦 亞硫酸鈉和過硫酸銨引發自由基聚合而製備。聚合之後根據本 領域已知的公認的程式製備凝膠,除去殘留化學品。水凝膠衝壓 成圓片。樣品在黏連蛋白溶液中培養’和用牛主動脈内皮細胞 (B^ECs)培養。結果顯示’聚(CBMA)水凝膠本身高度抗細胞黏附, 並谷易改性以引入用於細胞黏附的蛋白質。 另一方面,本發明提供低生物分子黏附表面的製備方法。在一 34 1330657 個實施例中,該方法包括(a)在基材表面上形成自由基引發劑封端 的單層,以及(b)在自由基引發劑封端的單層上使單體進行聚人反 應’其中單體是磺基甜菜鹼或羧基甜菜鹼。單體可選自續基甜菜 鹼丙烯酸酯、磺基甜菜鹼丙烯醯胺、磺基甜菜鹼乙烯基化合物, 石頁基甜菜鹼環氧化物及其混合物所成組群,或可選自羧基甜菜鹼 丙烯酸酯、羧基甜菜鹼丙烯醯胺、羧基甜菜鹼乙烯基化合物、羧 基甜菜鹼環氧化物及其混合物所成組群。在一個實施例中,該單 層是自組裝單層。 在-個實關中’該方法包括⑻在基材表面上形成絲封端的 單層;(b)將該羥基封端的單層轉化為自由基引發劑封端的單層; 以及(〇在自由基引發鮮層上使單體進行聚合反應。單體可^如 上所述的績基甜菜驗或缓基甜菜驗,單層可是自組裳單層。 在另-個實_巾,财法包括⑻在紐絲形成錄封端的 單層;(b)用第-種二嵌段共聚物處理該烷基封端的單層;以及⑷ 用第二種二嵌段共聚物處理該院基封端的單層。在一個實施例 中’第-種三紐共聚物包括[疏水性單體]广敌段_[親水性單體]m ^物。在-個實施例中,第一種二嵌段共聚物包括[環氧丙^广 嵌段[續基甜菜驗甲基丙晞酸机共聚物。在—個實施例中,第二 種一=段共聚物包括[疏水性單體礙段[親水性單體]。共聚物。在 $貫加例中’第一種一嵌段共聚物包括[環氧丙烧]「欲段[續基 甜菜鹼甲基丙稀酸酿]η共聚物。對於這些聚合物,设川〜3〇的整 數,m是Κ)〜励的整數,„是1()〜5()的整數,和爪大於η。 在衣備超低生物分子細表面的方財,表_提供表面超低 污的材料處理’或在表面上顧提絲面超低生物分子黏附表面 35 1330657 的塗層。 , —種方法中,提供超低污的表面職料處理(例如化合物或聚合 —物):該材料提供表面超低污。該方法中,表_一定量材料處理 /提供表面超低污。提供表面超低污效果的材料施用於表面該 效果絲面猎㈣共價侧或藉由鍵合作时難物共價的離 子,靜電的,配位化合物形成)。 該方法的-個實施例中,基材表面被洗蘇和清潔,然後浸泡入 超低污塗層材·液巾—段關。錢,賴得的絲超低污材 料的基材表面予以洗滌並乾燥。該方法可以重複若干次。 該方法的另-個實施财,基材表面被絲和清潔,然後浸泡 入烧基硫醇溶射。·第-種二後段絲物溶錢延到塗有疏 水性材料(例如自組裝單層)的基材表面上隨後用緩衝溶液沖洗, 除去吸附不緊的共聚物。然後第二種二嵌段共聚物溶液流延到塗 有第-種二叙段共聚物的基材表面上,隨後用緩衝溶液沖洗除去 吸附不緊的共聚物。 • 在另一個方法中,提供超低污的表面用一種或多種材料和工藝 處理,形成提供表面超低生物分子黏附的表面塗層。該方法中, 聚合物塗層係利用活性聚合技術接枝到表面上,控制條件下從表 面上生長聚合物鏈提供超低生物分子黏附表面。 又 基材表面上聚合物材料的紐可以藉由任何常規的聚合方法, 例如原子轉移自由基聚合反應、可逆型加成_分裂鍵轉移^合反應 和自由基聚合反應完成。紐表面上自組裝單層是一種優異表面 聚合平臺。其他疏水材料(或疏水性表面)也是適合的。在一個實施 例中’聚合物纟自自基將綱端的自喊單㉟接枝。基材表面 36 封端的自組裝單層。然後,單體在自組裝單層 本=^的超低生物分子黏附表面和材料可以用於船舶應用, 提供下列裝置娜,=叫目此n面,本發明 黏附材H*"、米顆粒)·將表面改性為包括本發明超低生物分子 黏1 材枓,或由本發财法製備其表面; 黏附的油漆:將表面改性為包括本發明超低生物分子 黏附材枓’或由本發明方法製備其表面; 料縣之油漆的船體:以本㈣超魅齡子黏附材 枓將其表面改性,或由本發财賴備其表面; 改性,或 :==;:r生物分子黏附_其表 m測111树_做物分伟晴 或由本發明方法製備其表面; 離生==生物分離用裝置’例如用於微生物懸浮液、激素分 白折㈣^及細胞刀離、廢水處理、低聚糖生物反應器、蛋 程的薄骐:以本發明超低生物分綱材料將 y、表面改性,或由本發财法製備其表面; 可植入感測n :以本翻超低生物分子_材料將其表面改 37 1330657 性,或由本發明方法製備其表面; 皮下感測器:以本發明超低生物分子 或由本發明方錄備其表面; H表面改性, 植入物,例如乳房填充物,堝形植入物 ==生物分伽㈣嶋刪,㈣㈣法H發 組織支架··以本發明舰生物分子軸谢 由本發明綠t備其絲; 、,、表岐性,或 ^入性醫療ϋ材,例如人侧節、人造心臟.。 _器、左心室辅助醫療裝置(_)、動脈接枝 嫩彻細,或由本^ 方法製備其表面,以及 J療f置’二耳朵引流管、人工哺乳管、青光眼引流管、腦 積水“裔、角膜鏡(keratoprostheses)、神經導管、導尿管、组織 ^合劑、傷口敷料、和X射線導向器:以本發明超低生物分子黏附 材料將其表面改性,或由本發明方法製備其表面。 下列實施例_以說明本發明目的^非敎_本發明。 實施例 實施例1 代表性引紐自組裝單層迪紐mi.組裝單層:自紐y罝 層Μ備和引發劑的固定 SPR玻璃切片或石夕片藉由電子束蒸發在真空下用促進黏附的鉻 38 1330657 *層(厚度2_和表面細胞質基因組活性金層(48㈣塗層。自植裝 -單層製備之前,基材用純乙醇洗務,在UV光下清潔,並用水和純 乙醇洗/V、自組裝單層藉由室溫下小^清潔表面後將金塗層基材 浸泡於硫醇的純乙醇溶液帽成。該實施财,兩種自組裝單層 形成於基材上:引發劑漠代異丁酸ω•絲十一燒基酿⑴自組裝單 層(引發劑自組裝單層或Br-自組裝單層)和Un_十一醇(2)自 組裝單層(OH-自組裝單層)(參見第一圖)。 為製備金表面上的引發劑自組料層並比較它們對聚合和蛋白 _ 肢賴影響,試驗了各魏度的1麵和清潔方法。即使不列 舉’ ImM 1的純乙醇溶賴來浸泡基材24小時。基材賴乙醇漂 洗’隨後THF漂洗並在氮氣流下乾燥。 為製備羥基-封端的自組裝單層,金基材浸泡於1111河2的乙醇溶 液中24小時,然後,基材用乙醇漂洗並在氮氣流下乾燥。經基封 端的自組裝單層金絲細BB錢氣賴和無水·下反應(第 一圖)。該反應中,塗覆自組裝單層的金基材在251乾燥ΤΗρ和 2.1 mL吡啶(26.5 mmol)中培養,然後輕輕攪拌下滴加3丨此 鲁 BIBB(25 mmo1)。自色沈殿很可能是反應初始階段形成的吼咬氫漠 酸鹽。反應之後’基材用卿、乙醇和據子水順序洗蘇,並氮 氣流下乾燥。 實施例2 歷_代表性確基盘菜鹼聚合物椿枯邕涂右爿丨發劑的表面 SB_MA聚合在乾燥箱中,氮氣保護下將QiBr和具有固定式引發 劑的基材置於反應管中。取出用橡膠墊片塞密封的該管。然後使 用注射器’將含有SBMA和Βργ的脫氣溶液(純水和曱醇以1:1體積 39 1330657 比)在氮氣保護下轉入該管。反應之後,除去基材並用乙醇和水漂 洗,樣品保持在水中過夜。通常用磷酸鹽緩衝溶液(ph〇sphate buffered saline,PBS)漂洗,其也應用於除去測試前未鍵合的聚合 物(參見第二圖)。 尽和胥白質吸附蛋白質吸附採用定制的表面電漿共振(spr) 感測器基於波長問號(Interrogation)測定。SPR切片附著於棱鏡基體 上’光學接觸使用折射指數匹配液(Cargille)4定。實驗中,具有 兩個獨立平行流槽的雙槽流(channel flow)池用於貯存液體樣品。 螺形壓縮泵(Ismatec)用於轉移液體樣品到雙流槽池。纖維蛋白原的 1.0 mg /mL PBS (0.15 M,PH7.4)溶液以〇.〇5 mL/分鐘流速流延在表 面上。 表面敏感的SPR檢測器用來監測蛋白質-表面間的即時相互作 用。該實施例中,波長偏移用來測量表面濃度(單位面積品質)的改 變。纖維蛋白原在HSiCHJ^CH3自組裝單層上的吸附量(15邮波 長偏移)作為單層(ML)。由於蛋白質吸附在測量表面上引起的波長 偏移藉由在HSiCHJbCH3自組裝單層上的偏移標準化為%ML。如 果在分析表面上蛋白質的吸附量大於在HSfHAsCH3自組裝單層 上的吸附量,%ML可以大於1〇〇〇/0。 線光電子能譜(XPS)合奮居沾功早b; 分切自組 裝單層製備的方法與SPR切片相同。XPS分析使用裝有單色器Αι Κα X射線源的Surface Science Instruments(SSI)S-Probe進行。發射 電子的能量用半球形能量分析器在5〇〜丨5〇 ev能量範圍内測量。 表面上的元素組成由測量(survey)掃描確定。全部資料集中在55。 表面標準偏離角。結合能(BE)定標由cis譜中設置在285 〇 eV的最 40 < S > 1330657 大峰值參比。每一批中進行多個樣品分析,平均數值。高解析度 的Cls譜使用Shirley背景扣除和系列高斯峰調和。資料分析軟體 來自 Service Physics, Inc,Inc.。 趟圓光度法_橢圓光度法使用分光鏡橢圓計(Sentech SE-850, OmbH) 〇樣品製備與xpS實驗相同。在vis區域内,五個單獨的點 以二個不同的入射角(5〇 ’ 60和70度)測量。相同批的金塗層切片藉 由UV-臭氧清潔器清潔2〇分鐘,用乙醇和Millipore水洗滌,並用氣 氣乾燥。裸露金塗層切片用作參比。研究的膜厚度使用Cauchy layer model確定,其採用1.45的折射指數。 疲寨模式原子力顯撒鏡(TM-AFM) TM-AFM金基材藉由高真 空蒸發器(BOC Edwards Auto306)約10_7托下蒸汽沈積金於新劈開 雲母(Asheville-SchoonmaherMicaCo.)上而製備。沈積之前,雲母 基材由輻射器加熱器預熱到325°C 2小時。蒸發速度為 nm/s ’金膜的預定厚度約200nm。金塗層基材使用之前在氏框架 下退火1分鐘。全部TM-AFM圖像使用裝有E掃描器的Nanoscope Iv (Veeco, CA) AFM獲得。使用共振頻率約270 kHz、力恒定為20〜i 00 N/m和沖頭頂半徑為5〜⑺啦的別懸臂(TESP,DI)。 實施例3 表性含有碏某甜苹岭的清晰二嵌埒杜肀铷 主溶液中SBMA嵌段丼苹的皁j碑該控制聚合反應藉由原子轉 移自由基t合反應方法獲得(第一圖)。二嵌段共聚物的共聚合是可 逆的氧化還原過程,該過程中過渡金屬化合物用作鹵素原子的载 體以順序連接單體到單官能的大分子引發劑上。具有大分子引發 劑(PPO-Br)的PPO藉由單羥基類聚丙二醇與2_漠代異丁醯溴在四32 1330657 Acetone was synthesized by reaction with propylene glycol. The CBMA monomer U is grafted by a free radical initiator-bound self-assembled monolayer by atom transfer radical polymerization. , dipyridine (BPY) fractional sideing agent and ligand. Reverse rotation was carried out at room temperature under mild conditions in a mixed solution of methanol and water. Code_Atom Transfer Free Silky Reaction Polymerization After the average (four) secret beet county compound hit the New County. The thickness of the polymer layer was determined to be about 1 〇 to 15 am according to the roundness photometry. Two different proteins: human fibrinogen (34〇kD, pI=5 5), lysozyme (14kD, PI=12), and human chorionic gonadotropin (hCG, 37k〇, pl=45) The adsorption on the (CBMA) graft surface was shown to be reduced below 〇3 ng/cm2 (or the wavelength shift was below 0.02 nm, which is the detection limit of the SPR sensor), as shown in Figure 28. Thus the 'CBMA' grafted surface is highly resistant to protein adsorption. Representative monomers for use in the preparation of the carboxybetaine polymers of the present invention include carboxybetaine methacrylates, such as 2-carboxy-yttrium-2-methylideneoxyethyl)ethylamine inner salt; Beet test acrylic acid; silk beet test (four) decylamine; ruthenium betaine vinyl compound; carboxybetaine epoxide; and other carboxy betaine with hydroxyl, isocyanate, amino or carboxyl group. The carboxybetaine polymer can be produced by a polymerization method including atom transfer radical polymerization, reversible addition-split chain transfer polymerization, and radical polymerization. Any conventional free radical initiator for polymerization can be used. Poly(CBMA) or poly(SBMA) can be coated on the surface of the glass by surface initiated atom transfer radical polymerization. The standard glass substrate is a clean substrate which is then immersed in a solution containing 2_溪_2·曱----((tridecyloxyfluorenyl)propyl]-propanamide. The substrate is removed from the impregnation solution, rinsed and dried. SBMA (or CBMA) is polymerized by atom transfer radical polymerization initiated by the surface of Table 1330657 on the two substrates of the fixed initiator in the presence of CuBr and 2,2,-dipyridine. Example 9 describes and in the twenty-ninth figure illustrates the preparation of polySBMA (or polyCBMA) by surface initiated atom transfer radical polymerization on a glass slide. Enzyme-binding immunosorbent assays showed a significant decrease in protein adsorption on the surface of poly-SMB A (or poly-CBMA) grafts. The fibrinogen adsorbed on the polymer grafted glass sample was less than 4% adsorbed on the standard glass sample. On the poly-SBMA grafted surface, after incubation with Chlorella spores for 6 hours, no algal spores or algae adhesion was observed. The glass sample of the control was covered with green algae. In another aspect, the invention provides a crosslinked polymer hydrogel. In one embodiment, the invention provides a crosslinked poly(83-) hydrogel. In another embodiment, the invention provides a crosslinked poly(CBMA) hydrogel. The crosslinked poly(SBMA) hydrogel was prepared as described in Example 4. The transparent hydrogel was prepared by adding SBMA monomer to tetraethylene glycol dimethacrylate (Tegdma) followed by initiation of free radical polymerization by sodium metabisulfite and ammonium persulfate. After polymerization, the gel is prepared according to procedures defined in the art to remove residual chemicals. The poly(SBMA>K gel as described above has low protein adsorption and low endothelial cell adhesion. The crosslinked poly(CBMA) hydrogel was prepared as described in Example 8. The transparent hydrogel was added to the CBMA monomer by four. Glycol dimercapto acrylate (TEGDMA) is subsequently prepared by free radical polymerization initiated by sodium metabisulfite and ammonium persulfate. After polymerization, the gel is prepared according to well-established procedures known in the art to remove residual chemicals. The pellets were cultured in the adhesion protein solution and cultured with bovine aortic endothelial cells (B^ECs). The results showed that the poly(CBMA) hydrogel itself is highly resistant to cell adhesion and is easily modified to introduce Proteins for Cell Adhesion. In another aspect, the present invention provides a method of preparing a low biomolecular adhesion surface. In one embodiment, 34 1330657, the method comprises (a) forming a free radical initiator capping on the surface of the substrate. a single layer, and (b) a monomerization reaction on a single layer of a free radical initiator capping wherein the monomer is a sulfobetaine or a carboxybetaine. The monomer may be selected from the group consisting of a contiguous betaine acrylate, Sulfo sweet Alkali acrylamide, sulphobetaine vinyl compound, sulphate betaine epoxide and mixtures thereof, or may be selected from the group consisting of carboxybetaine acrylate, carboxybetaine acrylamide, carboxybetaine ethylene The base compound, the carboxybetaine epoxide, and mixtures thereof are grouped together. In one embodiment, the monolayer is a self-assembled monolayer. In a practice, the method includes (8) forming a silk seal on the surface of the substrate. a single layer of the end; (b) converting the hydroxyl-terminated monolayer into a monolayer capped with a free radical initiator; and (the monomer is subjected to a polymerization reaction on the free radical initiating fresh layer. The monomer may be as described above) The performance of the base beet test or the slow-based beet test, the single layer may be a self-assembled single layer. In another - a real towel, the financial method includes (8) forming a single layer at the recording end of the yarn; (b) using the second type The segment copolymer treats the alkyl terminated monolayer; and (4) treats the clathrin-capped monolayer with a second diblock copolymer. In one embodiment, the 'first-type three-copolymer includes a hydrophobic number Body] a large enemy segment _ [hydrophilic monomer] m ^ material. In an embodiment, The first diblock copolymer comprises [epoxy propylene] [continued beet test methyl propyl phthalate copolymer. In one embodiment, the second copolymer includes [hydrophobicity Monomer block [hydrophilic monomer]. Copolymer. In the first example, the first monoblock copolymer includes [epoxypropane] "segment [sequential betaine methyl acrylate) η copolymer. For these polymers, set an integer of ~3〇, m is an integer of Κ)~, „is an integer of 1()~5(), and the claw is larger than η. The surface of the fine surface of the molecule, the surface of the material provides the surface of the ultra-low-staining material treatment or the surface of the ultra-low biomolecular adhesion surface of the surface of the 35 1330657 coating, a method to provide ultra-low-stained surface Treatment (eg compound or polymer): This material provides ultra-low surface contamination. In this method, the table _ a certain amount of material is processed / provides surface ultra-low fouling. A material that provides an ultra-low-surface effect on the surface is applied to the surface of the silky surface (4) on the covalent side or by covalently co-operating ions, electrostatic, coordination compounds formed by the bond. In one embodiment of the method, the surface of the substrate is washed and cleaned, and then soaked in an ultra-low-stained coating material/liquid towel. Qian, the surface of the substrate of the ultra-low-filt material of the silk is washed and dried. This method can be repeated several times. Another implementation of the method, the surface of the substrate is silked and cleaned, and then immersed in a mercaptan thiol spray. • The second-stage filament is dissolved on the surface of the substrate coated with a hydrophobic material (e.g., a self-assembled monolayer) and subsequently rinsed with a buffer solution to remove the less adsorbed copolymer. The second diblock copolymer solution is then cast onto the surface of the substrate coated with the second-stage copolymer, followed by rinsing with a buffer solution to remove the less adsorbed copolymer. • In another method, an ultra-low-stained surface is treated with one or more materials and processes to form a surface coating that provides adhesion to ultra-low biomolecules on the surface. In this method, the polymer coating is grafted onto the surface by living polymerization techniques, and the polymer chain is grown from the surface under controlled conditions to provide an ultra-low biomolecular adhesion surface. Further, the bond of the polymer material on the surface of the substrate can be completed by any conventional polymerization method such as atom transfer radical polymerization, reversible addition-split bond transfer reaction and radical polymerization. The self-assembled monolayer on the surface of the New Zealand is an excellent surface polymerization platform. Other hydrophobic materials (or hydrophobic surfaces) are also suitable. In one embodiment, the 'polymer oxime is grafted from the self-calling 35 of the gangue. Substrate surface 36 End-capped self-assembled monolayer. Then, the monomer in the self-assembled monolayer of the ultra-low biomolecule adhesion surface and material can be used for marine applications, providing the following device Na, = called this n-face, the present invention adhesion material H*", rice granules Modifying the surface to include the ultra-low biomolecular binder of the present invention, or preparing the surface thereof by the present invention; adhering paint: modifying the surface to include the ultra-low biomolecular adhesive material of the present invention 或' The method of the invention prepares the surface thereof; the hull of the paint of the county: the surface of the (4) super enchanting adhesive material is modified, or the surface is modified by the original money; modified, or: ==;: r biological Molecular adhesion _ its table m measured 111 trees _ do things Weiqing or prepared by the method of the present invention; separation == biological separation device 'for example, for microbial suspension, hormone fractionation (four) ^ and cell knife, Wastewater treatment, oligosaccharide bioreactor, egg process thinner: y, surface modification by the ultra-low biological classification material of the present invention, or preparation of the surface thereof by the present invention; implantable sensing n: Turning over low biomolecules _ materials change their surface to 37 1330657 sex, or by The method of the invention prepares its surface; subcutaneous sensor: the surface of the ultra-low biomolecule of the invention or recorded by the invention; H surface modification, implant, such as breast filling, 埚-shaped implant == bio-score Gam (four) 嶋 delete, (four) (four) method H hair tissue stent · · The invention of the ship biomolecule axis Xie from the present invention green t prepared its silk;,,,,,, or medical medical coffin, such as human side, artificial heart.. _, left ventricular assistive medical device (_), arterial grafting and fine, or the surface prepared by the method, and J treatment f set 'two ear drainage tube, artificial breast tube, glaucoma drainage tube, hydrocephalus Keratoprostheses, nerve conduits, catheters, tissue scavengers, wound dressings, and X-ray guides: surface-modified with the ultra-low biomolecular adhesion materials of the present invention, or prepared by the method of the present invention The following examples are intended to illustrate the objectives of the present invention. The present invention is directed to a representative single-layer self-assembled monolayer Dini mi. Assembly monolayer: fixed SPR from neodymium layer preparation and initiator Glass section or Shixi tablet by electron beam evaporation under vacuum with a layer of chromium 38 1330657* that promotes adhesion (thickness 2_ and surface cytoplasmic genomic active gold layer (48 (iv) coating. Self-planting - single layer preparation, substrate Wash with pure ethanol, clean under UV light, and wash with water and pure ethanol/V, self-assembled monolayer. After cleaning the surface at room temperature, the gold coated substrate is immersed in a pure ethanol solution cap of mercaptan. Cheng. The implementation of the financial, two self-assembly The layer is formed on the substrate: the initiator is substituted with isobutyric acid ω • silk eleven base (1) self-assembled monolayer (initiator self-assembled monolayer or Br-self-assembled monolayer) and Un_undeol (2 Self-assembled monolayer (OH-self-assembled monolayer) (see the first figure). In order to prepare the initiator self-assembled layers on the gold surface and compare their effects on polymerization and protein _ limbs, the test of each Wei degree 1 side and cleaning method. Even if the pure ethanol solution of '1 mM 1 is not used to soak the substrate for 24 hours. The substrate is rinsed with ethanol' followed by THF rinsing and drying under a nitrogen stream. To prepare a hydroxyl-terminated self-assembled monolayer, The gold substrate was immersed in an ethanol solution of 1111 River 2 for 24 hours, and then the substrate was rinsed with ethanol and dried under a nitrogen stream. The self-assembled single-layer gold wire through the base end was fine and the reaction was anhydrous (the first figure). In this reaction, the gold substrate coated with the self-assembled monolayer was incubated in 251 dry ΤΗρ and 2.1 mL pyridine (26.5 mmol), and then 3 丨BIBB (25 mmo1) was added dropwise with gentle stirring. It may be the bite of hydrogenate in the initial stage of the reaction. After the reaction, the substrate is used. The alcohol and the sub-water were sequentially washed with sodium and dried under a nitrogen stream. Example 2 The surface SB_MA of the representative hair-based polymer was coated with a right hair spray in a dry box, and QiBr under nitrogen protection. And a substrate with a fixed initiator was placed in the reaction tube. The tube sealed with a rubber gasket plug was taken out. Then a degassing solution containing SBMA and Βργ (pure water and decyl alcohol in a 1:1 volume) was used using a syringe. 39 1330657 ratio) transferred to the tube under nitrogen protection. After the reaction, the substrate was removed and rinsed with ethanol and water, and the sample was kept in water overnight. Usually rinsed with ph〇sphate buffered saline (PBS), which Used to remove unbonded polymers prior to testing (see Figure 2). Adhesive protein adsorption was performed using a custom surface plasmon resonance (SPR) sensor based on the wavelength question mark (Interrogation). The SPR slice is attached to the prism substrate. Optical contact is determined using a refractive index matching solution (Cargille). In the experiment, a dual channel flow cell with two independent parallel flow cells was used to store the liquid sample. A spiral compression pump (Ismatec) is used to transfer liquid samples to a dual flow cell. A solution of fibrinogen in 1.0 mg / mL PBS (0.15 M, pH 7.4) was cast on the surface at a flow rate of mL 5 mL / min. A surface sensitive SPR detector is used to monitor the immediate interaction between protein and surface. In this embodiment, the wavelength shift is used to measure the change in surface concentration (quality per unit area). The amount of fibrinogen adsorbed on the HSiCHJ^CH3 self-assembled monolayer (15 postal length shift) was used as a single layer (ML). The wavelength shift caused by protein adsorption on the measurement surface is normalized to %ML by the shift on the HSiCHJbCH3 self-assembled monolayer. If the amount of protein adsorbed on the surface of the analysis is greater than the amount of adsorption on the self-assembled monolayer of HSfHAsCH3, %ML may be greater than 1〇〇〇/0. The line photoelectron spectroscopy (XPS) is combined with the SPR slice; the method of preparing the single layer is the same as the SPR slice. XPS analysis was performed using a Surface Science Instruments (SSI) S-Probe equipped with a monochromator Αι Κα X-ray source. The energy of the emitted electrons is measured in a range of 5 〇 to 丨 5 〇 ev using a hemispherical energy analyzer. The composition of the elements on the surface is determined by a survey scan. All information is concentrated at 55. Surface standard deviation angle. The binding energy (BE) calibration was set by the cis spectrum set at 285 〇 eV for the most 40 < S > 1330657 large peak reference. Multiple sample analyses were performed in each batch, with average values. The high resolution Cls spectra were correlated using Shirley background subtraction and a series of Gaussian peaks. Data Analysis Software from Service Physics, Inc, Inc.趟Circular photometry _ ellipsometry using a spectroscopic ellipsometer (Sentech SE-850, OmbH) 〇 sample preparation is the same as the xpS experiment. In the vis area, five separate points are measured at two different angles of incidence (5 〇 '60 and 70 degrees). The same batch of gold coated sections were cleaned by a UV-ozone cleaner for 2 minutes, washed with ethanol and Millipore water, and dried with air. Bare gold coated sections were used as a reference. The film thickness studied was determined using a Cauchy layer model using a refractive index of 1.45. The fatigue-mode atomic force mirror (TM-AFM) TM-AFM gold substrate was prepared by steam deposition of gold on a fresh liquid mica (Asheville-Schoonmaher Mica Co.) by a high vacuum evaporator (BOC Edwards Auto 306). Prior to deposition, the mica substrate was preheated by a radiator heater to 325 ° C for 2 hours. The evaporation rate is a predetermined thickness of the nm/s 'gold film of about 200 nm. The gold coated substrate was annealed in the frame for 1 minute before use. All TM-AFM images were obtained using a Nanoscope Iv (Veeco, CA) AFM equipped with an E scanner. Use a cantilever (TESP, DI) with a resonant frequency of approximately 270 kHz, a constant force of 20 to i 00 N/m, and a punch tip radius of 5 to (7). Example 3 The SBMA block 埒 碑 肀铷 肀铷 肀铷 肀铷 肀铷 肀铷 肀铷 该 该 该 该 该 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制 控制The copolymerization of the diblock copolymer is a reversible redox process in which a transition metal compound is used as a carrier of a halogen atom to sequentially bond the monomer to a monofunctional macroinitiator. PPO with macroinitiator (PPO-Br) by monohydroxyl-type polypropylene glycol and 2_indolizine bromide in four
1330657 氫呋喃中反應合成。該產品用鹽水萃取三次純化。11200分子量 的SBMA聚合是SBMA(2.0g ’ 6.77|11111〇1)在1〇1111^甲醇中使用 [SBMA] : [PPO-Br] : [CuBr] : [bpy] = 50:1:1:2、20T、氮氣下聚合。 24小時後’獲得的反應溶液通過氧化銘柱,乙醇沈殿和水中後, 再溶解,重複除去殘基催化劑。溶劑蒸發後,共聚物在真空烘箱 中室溫下乾燥,獲得白色粉末。 益I物-的表徵PP〇-b-聚(SBMA)二嵌段共聚物結構由ιΗ核磁 共振(NMR)譜表徵’使用Bruker 300 MHz光譜分析儀和d2〇作為溶 劑。典型的PCVb-SBMA35譜見第十圖。結果顯示,獲得純的pp〇_b_ 聚(SBMA)二嵌段共聚物。製備的二嵌段共聚物的分子量和分子量 分佈由水凝膠滲透色譜(GPC)確定,使用2個超凝膠1〇〇〇和超凝膠 250柱(分子量範圍為586 Da〜885 kDa)自Waters連接到模型 \^358〇¥丨5(;(^1<;差示折光檢測器上。〇?(1!實驗中,流速是〇.71111/ 分鐘和柱溫是25°C。洗脫劑是O.lMNaHJO4和0.1MNa2HPO4組成 的pH 8.0 的水溶液。購自 Scientific Polymer Products ( Ontario, NY) 的PEG標準用於校正。三種合成的ppo七-聚(SBMA)共聚物的典 型GPC含水資料見第十二圖。 遷全·&级附由表面雷#4U后NPR)感測器測晋基於波長問號 和特氟隆雙流槽池的定制SPR生物感測器用來監測塗有共聚物的 表面蛋白質吸附。該實施例中,光學玻璃基材用作感測器切片, 該基材塗有2 nm促進黏附的鉻層並藉由電子束蒸發在真空下形成 的50 nm的表面細胞質基因組活性金層cCH3_封端的自組裝單層由 浸泡1^臭氧清潔的金塗層基材於HS(CH2)8CH3的1 .〇 mM乙醇溶液 中過夜形成。改性切片附著於棱鏡基體上,光學接觸使用折射指 42 1330657Synthesis of 1330657 in hydrogen furan. The product was purified by three extractions with brine. The 11200 molecular weight SBMA polymerization is SBMA (2.0g ' 6.77|11111〇1) used in 1〇1111^ methanol [SBMA] : [PPO-Br] : [CuBr] : [bpy] = 50:1:1:2 , 20T, polymerization under nitrogen. After 24 hours, the obtained reaction solution was passed through an oxidation column, ethanol, and water, and then dissolved, and the residue catalyst was repeatedly removed. After the solvent was evaporated, the copolymer was dried in a vacuum oven at room temperature to obtain a white powder. Characterization of the PP-b-poly(SBMA) diblock copolymer structure was characterized by ιΗ NMR resonance spectroscopy using a Bruker 300 MHz optical spectrum analyzer and d2® as a solvent. A typical PCVb-SBMA35 spectrum is shown in the tenth figure. The results show that a pure pp〇_b_poly(SBMA) diblock copolymer was obtained. The molecular weight and molecular weight distribution of the prepared diblock copolymer was determined by hydrogel permeation chromatography (GPC) using 2 supergel 1 〇〇〇 and supergel 250 columns (molecular weight range 586 Da~885 kDa). Waters is connected to the model \^358〇¥丨5(;(^1<; differential refractive index detector. 〇? (1! In the experiment, the flow rate is 711.71111 / min and the column temperature is 25 ° C. Elution The agent is an aqueous solution of pH 8.0 consisting of 0.1 M NaHJO4 and 0.1 M Na2HPO4. The PEG standard purchased from Scientific Polymer Products (T., Ontario, NY) is used for calibration. The typical GPC water content of the three synthetic ppo seven-poly(SBMA) copolymers can be found. Twelfth Figure. Relocation · & Level Attached by Surface Ray #4U After NPR) Sensors are based on wavelength question marks and Teflon double flow cell custom SPR biosensors for monitoring coated surfaces Protein adsorption. In this example, an optical glass substrate was used as a sensor slice coated with a 2 nm promoted adherent chromium layer and a 50 nm surface cytoplasmic genomic active gold formed by vacuum evaporation by electron beam evaporation. Layer cCH3_ capped self-assembled monolayer consisting of gold coated substrate coated with 1^ ozone cleansing in HS (CH2) 8CH3 is formed in 〇 mM ethanol solution overnight. The modified section is attached to the prism substrate, and the optical contact is used to refract the finger 42 1330657
• 數匹配液(CaiBllle)確定。對於蛋白質吸附測量,SPR首先用2 mM . 磷酸鹽緩衝溶液穩定化。然後PPO-b-聚(SBMA)二嵌段共聚物溶液 • 流入SPR池中20分鐘,隨後用2mMPBS溶液沖洗15分鐘,除去吸 附不緊的共聚物。1 .〇 mg/mL蛋白質流動20分鐘,隨後用2 mM PBS 溶液沖洗15分鐘。在本研究中,纖維蛋白原用作模型系統以評估 用物理吸附共聚物塗層表面上的蛋白質吸附。全部s pR實驗在室溫 下(約25 C)和0_05 mL/分鐘流速下進行。蛋白質吸附量定義為蛋白 貝吸附如後確疋的兩個基線之間的差值。第十一圖顯示典型的用 鲁 於共聚物A吸附的SPR感應圖,隨後在原位評估纖維蛋白原的吸 附。 實施例4 代表性碏基甜荚鹼水凝腺 聚(SBMAJ水凝膠及其射胥白質吸附和細胞點附的抵抗性 P-(甲基丙烯醯氧基)乙基]二甲基(3_績丙基)氫氧化铵(SBMA)( j 〇g) 溶解於400微升PBS緩衝液中,與600微升乙烯乙二醇和2〇微升四 (乙烯乙二醇)二丙烯酸酯(TEGDA)混合。然後,50微升15%焦亞硫 鲁 酸鈉溶液和50微升40〇/〇過硫酸銨溶液加入。混勻混合物傾入兩個由 特氟隆隔膜分離的已滅菌玻璃载片中。夾具用於玻璃邊緣以確保 完美的密封。獲得膜在37T過夜固化,在衝壓為圓片之前,將該 膜充分地浸泡于DI水中24小時,70%乙醇中24小時,和DI水。水 凝膠圓片保留在DI水中。 如上所述的聚(SBMA)水凝膠和聚(hEma)一樣具有低蛋白質 吸附並具有低内皮細胞黏附(參見第三十A至第三十D圖)。 實施例5 43 ί S > il表性聚SRMA-命層 5BMA(U2g)和AIBN(0.05g)溶於甲醇溶劑(5〇ml)中,溶液 用亂氣沖洗3G分鐘。織,反應混合物在沉氮氣氛中搜掉π 時二然後,加人溶於100址異丙醇的甲基丙稀酸月桂則j5幻, 在氮氣氛中60 CT ’將反應混合物持續攪拌5小時。過濾產品並以 99 g/L的⑤度分躲二?苯巾。料結合纽韻狀顯示在聚 SBMA塗層表面上蛋白質吸附降侧%以上(第十八圖)。船舶生物 以后分析顯轉SBMA塗層可_減少料微生物沈 九至第二十一圖)。 罘十 聚SBMA類、聚合物可以加入環氧基類油漆以減少生物污垢(聚 SBMA/i哀氧塗層)。在代表性配方中聚犯嫩類聚合物分散體是 如上所述的聚SBMA類聚合物麟机濃度溶於二曱苯巾,而環氧 樹脂是70-80%魏樹脂溶液。叫、秘3和炭黑是適合作為顏 料,還可以加入有機黏土結構化試劑、矽石觸變劑。交聯劑是聚 醯胺’它與環氧樹脂在環境溫度下反應。液態無污染塗層係藉由 席J塗或喷塗而塗在環氧底漆基材上。酵素結合免疫吸附測定顯示 纖維蛋白原吸附減少90%以上。第十九至第二十一圖顯示極低的石 蓴屬遊動孢子沈澱,極低的孢苗生長,和非常弱的孢苗黏附強度。 第一十一圖顯示低的juvenile// 职似線蟲沈澱。結果顯示聚 (SBMA)/環氧塗層顯著地減少海洋微生物生物污垢。 實施例6 含有續基甜菜驗的代表性互穿網妝結構聚合物的製備和袅微 盒有SPU和聚(SBMA)的石穿網狀結槿聚合物膜如第三圖所 示’ 100微米厚的SPU膜藉由溶劑蒸發法製備。SPu溶液首先將5.〇 44 1330657 wt%SPU粉末溶於二甲基乙酿胺(DMA)中製備。將溶液澆鑄在玻 璃載片之上,該載片加熱至35°C乾燥該膜。在溶劑本體整夜蒸發 之後,SPU膜投入60°C水浴24小時,除去痕量DMA,然後在真空 箱中乾燥3天。隨後2〇〇C下,將SPU膜浸於含有沾隐單體、ehma 單體、GDGDA交聯劑和光引發劑的培養溶液中24小時。藉由使用 極性依序降低的水、情、乙醇或異丙_混合㈣,可變化培 養溶液中溶劑極性。 調節培養溶液的總濃度(或培養濃度)為〇丨〜3 〇111〇1几。sbma 單體比例(mol%)定義為SBMA單體莫耳數除以培養溶液中sbma 和EHMA單體的總莫耳數。該實施例中,SBMA單體比率在〇和川〇 mol%之間調節以優化互穿網狀結構聚合物製備條件,同時 GDGDA固定在l.〇xi〇-2m〇1/L。為消除副反應,光引發劑(例如莰 酿和4-(N,N-一甲基氨基)苯甲酸乙醋)⑴在黑暗中、 氮氣保護下加入培養溶液中。為了光聚合反應,將spu膜放置在兩 個雲母片之間,用可見光(λ= 4〇〇_5〇〇 nm)輻射。2〇〇c輻射12〇分鐘 後,在水中將雲母片從互穿網狀結構聚合物臈上移開,未反應單 體藉由浸泡乙醇和甲醇交替若干次萃取,並且互穿網狀結構聚合 物膜在真空射乾燥。互穿網狀結構聚合細化學組成深度剖面 使用拉曼顯微分光計表徵,它結合了RenishawinViaRaman Spectroscope和逆轉Leica DMIRBe Microscope。78s ⑽鐳射用作激 發源,並藉由4〇χ物鏡聚焦約丨微米的光點於樣品表面上。樣品表 面上的散射光通過相同物鏡聚焦。Raleigh散射光通過全息階式篩 檢私式切斷。拉曼光穿過65微米開口的入射狹縫和1200 L/mm衍射 光拇’並由CCD攝像機測定。對於SPU膜内SBMA單元的分佈深度 (S ) 45 1330657 d面,拉曼光譜從膜表面的聚焦平面上獲得並進入膜内超過微 米的增量。 到_用酵素結合免疫吸附法評估胥白晳明附互穿網狀結構聚合 物膜上人類纖維蛋白酶原(Fg)的吸附利用酵素結合免疫吸附法評 估’根據下面簡要描述的標準規程。首先,表面積2mm2的膽膜 置於24井組織培養板的每個井中,每一井用5〇〇微升的pBs在室溫 下培養。然後’互穿網狀結構聚合物膜浸泡於5〇〇微升的lmg/mlFg PBS溶液中。37°C培養90分鐘後,膜用500微升的pBS漂洗5次,然 後在牛血清蛋自(BSA)巾37。<:培養90分鐘,填塞pgs著力面積。互 穿網狀結構聚合物膜用PBS再次漂洗5次,轉入新板中,在含有 5々g/ml辣根過氧化物酶(hrp)共軛的抗_Fg(us生物)的pBS溶液 中37T培養3〇分鐘。樣品用PBS漂洗5次並轉移入清潔井隨後加 入500微升含有img/mL鄰苯二胺(〇Dp)和〇 〇3%過氧化氫色原的 〇.1 Μ擰檬酸酯-磷酸鹽緩衝溶液(ρΗΐο)中。37〇c培養如分鐘後, 誘導酶顯色反應藉由加入5〇〇微升丨河的HjO4到每一井溶液中終 止,最後由微板讀數鏡在490rnn確定光強度的吸收率。互穿網狀 結構聚合物樣品上蛋白質吸附相對聚苯乙烯㈣板上作為參比而 標準化。由於使用的多克隆抗-人類巧上存在多個結合部位,獲得 的蛋白質吸附量可以高於實際量。 實施例7 _代表性無污染羧某甜棻驗沴層 人類血漿纖維蛋白原和雞蛋白溶菌酶係講自 Sigma-Aldrich(Milwaukee,WI)。人類血漿黏連蛋白係購自 Chemicon International (Temecula, CA)。人類絨毛膜促性腺激素 46 1330657 (hCG)及其單克隆小鼠抗體(異型IgGl)係購自Scripps Laboratories(San Diego,CA)。2-(N,N’-二曱基氨基)曱基丙烯酸乙 酯(DMAEM ’ 98%) ’ β-丙内酯(95%),銅(I)溴化物(99.999%),溴 代異丁醢溴(98%) ’ 11-魏基 1-十一醇(97%),2,2,-二。比咬(ΒΡΥ99%) 和四氫呋喃(THFHPLC級別),Ν-羥基琥轴醯亞胺(NHS)和1-乙基-3_(3•二曱基氨基丙基)-碳化二亞胺(EDC)均係購自• Number matching solution (CaiBllle) is determined. For protein adsorption measurements, SPR was first stabilized with 2 mM phosphate buffer solution. The PPO-b-poly(SBMA) diblock copolymer solution was then flowed into the SPR cell for 20 minutes and then rinsed with 2 mM PBS solution for 15 minutes to remove the unabsorbed copolymer. 1. 〇 mg/mL protein flow for 20 minutes, followed by rinsing with 2 mM PBS solution for 15 minutes. In the present study, fibrinogen was used as a model system to evaluate protein adsorption on the surface of a physically adsorbed copolymer coating. All s pR experiments were performed at room temperature (about 25 C) and a flow rate of 0_05 mL/min. The amount of protein adsorption is defined as the difference between the two baselines for which the protein is adsorbed as determined. The eleventh figure shows a typical SPR induction map adsorbed on copolymer A, followed by an in situ assessment of the adsorption of fibrinogen. Example 4 Representative thiol sweetine hydrogel adenosine (SBMAJ hydrogel and its white matter adsorption and cell-attached resistance P-(methacryloxy)ethyl] dimethyl (3 _ propyl) ammonium hydroxide (SBMA) ( j 〇g) dissolved in 400 μl of PBS buffer with 600 μl of ethylene glycol and 2 μl of microliter of tetra (ethylene glycol) diacrylate (TEGDA) Mixing. Then, 50 μl of 15% sodium metaruthenium solution and 50 μl of 40 〇/〇 ammonium persulfate solution were added. The mixture was poured into two sterilized glass slides separated by Teflon separator. The fixture was used on the edge of the glass to ensure a perfect seal. The film was cured overnight at 37 T, and the film was thoroughly immersed in DI water for 24 hours, 70% ethanol for 24 hours, and DI water before being punched into a wafer. The hydrogel disc remains in DI water. The poly(SBMA) hydrogel as described above has low protein adsorption and low endothelial cell adhesion as well as poly(hEma) (see Figures 30A through 30D) Example 5 43 ί S > il elastomeric SRMA-layer 5BMA (U2g) and AIBN (0.05g) were dissolved in methanol solvent (5 〇ml), and the solution was flushed with 3G. Bell, weaving, the reaction mixture is searched for π in a nitrogen atmosphere, and then, the human is dissolved in 100% isopropanol methyl methacrylate, the laurel is j5, and the reaction mixture is continuously stirred in a nitrogen atmosphere at 60 CT '5 Hour. Filter the product and hide the benzene towel at 5 g of 99 g/L. The combination of the rhythm and the rhythm shows that the protein adsorption decreases on the surface of the poly-SBMA coating (Figure 18). The apparent SBMA coating can be reduced to reduce the microbial sediments to the 21st map.罘10 Poly SBMA type, polymer can be added to epoxy-based paint to reduce biofouling (poly SBMA / i sulphur coating). The representative polymer dispersion in a representative formulation is a poly-SBMA-based polymer as described above dissolved in a diterpene benzene towel, and the epoxy resin is a 70-80% Wei resin solution. Called, secret 3 and carbon black are suitable as pigments, and organic clay structuring agents and vermiculite thixotropic agents can also be added. The crosslinker is polyamine which reacts with the epoxy resin at ambient temperature. The liquid, non-contaminating coating is applied to the epoxy primer substrate by coating or spraying. Enzyme-linked immunosorbent assay showed a 90% reduction in fibrinogen adsorption. The nineteenth to twenty-first graphs show extremely low zoospores, very low spore growth, and very weak spore adhesion strength. The eleventh figure shows a low juvenile // role in nematode sedimentation. The results show that the poly(SBMA)/epoxy coating significantly reduces marine microbial biofouling. Example 6 Preparation of a representative interpenetrating network structure polymer containing a sugar beet test and a microfiber box with a SPU and a poly(SBMA) stone-penetrating network polymer film as shown in the third figure '100 micron A thick SPU film was prepared by solvent evaporation. The SPu solution was first prepared by dissolving 5. 〇 44 1330657 wt% SPU powder in dimethyl ethanoamine (DMA). The solution was cast on a glass slide which was heated to 35 ° C to dry the film. After the solvent body was evaporated overnight, the SPU film was placed in a 60 ° C water bath for 24 hours to remove traces of DMA, and then dried in a vacuum oven for 3 days. The SPU film was then immersed in a culture solution containing a cryptic monomer, an ehma monomer, a GDGDA crosslinking agent, and a photoinitiator for 24 hours at 2 °C. The polarity of the solvent in the culture solution can be varied by using water, mood, ethanol or isopropyl-mix (4) with decreasing polarity. Adjust the total concentration (or culture concentration) of the culture solution to 〇丨~3 〇111〇1. The sbma monomer ratio (mol%) is defined as the number of SBMA monomer moles divided by the total number of moles of sbma and EHMA monomers in the culture solution. In this example, the SBMA monomer ratio was adjusted between 〇 and 〇 〇 mol% to optimize the preparation conditions of the interpenetrating network structure polymer, while the GDGDA was immobilized at l.〇xi〇-2m〇1/L. To eliminate side reactions, a photoinitiator (e.g., glycerol and 4-(N,N-monomethylamino)benzoic acid ethyl acetate) (1) is added to the culture solution in the dark under nitrogen. For photopolymerization, the spu film was placed between two mica sheets and irradiated with visible light (λ = 4 〇〇 _ 5 〇〇 nm). After 12 〇〇c irradiation for 12 minutes, the mica flakes were removed from the interpenetrating network polymer crucible in water, and the unreacted monomers were extracted by soaking ethanol and methanol several times, and the interpenetrating network structure was polymerized. The film was dried under vacuum. Interpenetrating network structure Polymerization Fine chemical composition depth profile Characterization using a Raman microspectrometer that combines the Renishawin ViaRaman Spectroscope and the reverse Leica DMIRBe Microscope. The 78s (10) laser is used as an excitation source, and a spot of about 丨 micron is focused on the surface of the sample by a 4 〇χ objective lens. The scattered light on the surface of the sample is focused by the same objective. Raleigh scattered light is cut off by holographic step screening. Raman light passes through a 65 micron open entrance slit and a 1200 L/mm diffracted optical thumb' and is measured by a CCD camera. For the distribution depth (S) 45 1330657 d-plane of the SBMA unit in the SPU film, the Raman spectrum is obtained from the focal plane of the membrane surface and enters the membrane over an increment of micrometers. The enzyme adsorption immunosorbent assay was used to evaluate the adsorption of human fibrinogen (Fg) on the membrane of the fluorescein-attached interpenetrating polymer structure using enzyme-binding immunosorbent assays according to the standard protocol briefly described below. First, a bile membrane with a surface area of 2 mm2 was placed in each well of a 24-well tissue culture plate, and each well was cultured at room temperature with 5 μL of pBs. The interpenetrating network polymer film was then immersed in 5 μl of a 1 mg/ml Fg PBS solution. After incubation at 37 ° C for 90 minutes, the membrane was rinsed 5 times with 500 μl of pBS and then in bovine serum egg (BSA) towel 37. <: Incubate for 90 minutes to fill the pgs area. The interpenetrating network polymer membrane was rinsed again with PBS 5 times and transferred to a new plate, in a pBS solution containing 5 々g/ml horseradish peroxidase (hrp) conjugated anti-Fg (us bio) Train in 37T for 3 minutes. The sample was rinsed 5 times with PBS and transferred to a clean well followed by the addition of 500 μl of 〇.1 Μ 檬 酸酯-phosphate containing img/mL o-phenylenediamine (〇Dp) and 〇〇3% hydrogen peroxide chromogen. Buffer solution (ρΗΐο). After 37 〇c incubation, the enzyme color reaction was induced by adding 5 〇〇 microliters of HjO4 from the Weihe River to each well solution, and finally the absorbance of light intensity was determined by a microplate reading mirror at 490 rnn. Protein adsorption on interpenetrating network polymer samples was normalized as a reference on a polystyrene (qua) plate. Due to the use of multiple anti-human binding sites, the amount of protein adsorbed can be higher than the actual amount. Example 7 - Representative non-contaminating carboxy-sweet test layer Human plasma fibrinogen and chicken lysozyme were from Sigma-Aldrich (Milwaukee, WI). Human plasmanectin was purchased from Chemicon International (Temecula, CA). Human chorionic gonadotropin 46 1330657 (hCG) and its monoclonal mouse antibody (heterotype IgGl) were purchased from Scripps Laboratories (San Diego, CA). Ethyl 2-(N,N'-didecylamino)decyl acrylate (DMAEM '98%) 'β-propiolactone (95%), copper (I) bromide (99.999%), bromoisobutyl醢Bromo (98%) '11-Weiyl 1-undecyl alcohol (97%), 2, 2, - II. Specific bite (ΒΡΥ99%) and tetrahydrofuran (THFHPLC grade), Ν-hydroxysuccinimide (NHS) and 1-ethyl-3_(3•didecylaminopropyl)-carbodiimide (EDC) Purchased from
Sigma-Aldrich(Milwaukee,WI)。磷酸鹽緩衝溶液(〇.〇1 μ磷酸鹽, 0.138 Μ氣化納 ’ 0.0027 Μ氣化钟 ’ pH 7.4)講自 Sigma Chemical Co.。乙醇(絕對200規定的)購自 AAPER Alcohol and Chemical Co. 〇 實驗中使用的水使用具有18.0 ΜΩαη最低電阻率的Millipore水淨 化系統純化。反應和洗滌用THF使用前由鈉乾燥。 ggMA合成羧基甜菜鹼甲基丙烯酸醋(CBMA)單體,2-竣基 -#具二甲基-N-(2’_曱基丙烯醯氧基乙基)内鹽由反應2_(N,N’c曱 基氨基)曱基丙烯酸乙g旨(DMAEM ’ 98%)與β-丙内g旨(95%)合成。 溶於10 mL乾燥丙酮的〇_87 g (12 πυηο1)β-丙内酯滴加入溶於5〇扯 乾燥丙酮的1.57 g(l0 mm〇l) DMAEM溶液中。反應在丨5〇C、氮氣保 遵下攪拌約5小時。白色沈殿用50 mL乾燥丙酮和1 〇〇 mL幹醚洗 滌。產品減壓下乾燥,獲取CBMA單體。聚合之前,單體保持在2 〜8 C。產率:91%。bNMR記錄在BrukerAV300光譜分析儀上, 使用重水作為溶劑(第三十一圖)。 測器上表面引發#肀4 §PR玻璃切片藉由電子束蒸發 在真空下用促進黏附的鉻層(厚度2⑽)和表面細胞質基因組活性 金層(48 nm)塗層。自組裝單層製備之前,基材用純乙醇洗滌,在 UV光下清潔,並用水和純乙醇洗滌。引發劑自組裝單層藉由室溫Sigma-Aldrich (Milwaukee, WI). Phosphate buffer solution (〇.〇1 μ phosphate, 0.138 Μ gasification sodium ' 0.0027 Μ gasification clock ‘pH 7.4) is from Sigma Chemical Co. Ethanol (defined in absolute 200) was purchased from AAPER Alcohol and Chemical Co. The water used in the experiment was purified using a Millipore water purification system with a minimum resistivity of 18.0 ΜΩαη. The reaction and washing were dried with sodium before use with THF. ggMA synthesizes carboxybetaine methacrylate (CBMA) monomer, 2-mercapto-# has dimethyl-N-(2'-mercaptopropenyloxyethyl) inner salt by reaction 2_(N,N 'c曱-ylamino)mercaptoacrylic acid B g (DMAEM '98%) and β-propene g (95%) were synthesized. 〇_87 g (12 πυηο1) β-propiolactone dissolved in 10 mL of dry acetone was added dropwise to a solution of 1.57 g (10 mm 〇l) DMAEM dissolved in 5 Torr of dry acetone. The reaction was stirred at 丨5 ° C for about 5 hours under nitrogen. The white chamber was washed with 50 mL of dry acetone and 1 mL of dry ether. The product was dried under reduced pressure to obtain a CBMA monomer. The monomer is maintained at 2 to 8 C before polymerization. Yield: 91%. b NMR was recorded on a Bruker AV300 spectrum analyzer using heavy water as a solvent (Thirty-first graph). The upper surface of the detector is triggered. #肀4 §PR glass section is coated by electron beam evaporation under vacuum to promote adhesion of the chromium layer (thickness 2 (10)) and surface cytoplasmic genomic activity gold layer (48 nm). Prior to self-assembled monolayer preparation, the substrate was washed with pure ethanol, cleaned under UV light, and washed with water and pure ethanol. Initiator self-assembled monolayer by room temperature
47 1330657 下將塗金基材浸泡於1 ιηΜω-溴代異丁酸巯基十一烷基酯的純乙 醇溶液中24小時而形成。聚合之前,基材用純乙醇漂洗,隨後THF 漂洗並在氮氣流下乾燥。 乾燥箱中,在氮氣保護下將CuBr和固定式引發劑的基材置於反 應管中。取出用橡膠塾片塞密封的該管。然後,CBMA和BPY的 脫氣溶液(純水和甲醇以1:1體積比)使用注射器在氮氣保護下轉入 該管。反應之後,除去基材並用乙醇和水漂洗,樣品保持在水中 過伩。PBS緩衝液漂洗也用於除去測試前未鍵和聚合物。典型的聚 合是將基材與7.5 mmol CBMA,2 mmol BPY和1 mm〇i CuBr在氮氣 保護下在25 ml CH3〇H/氏0(1:1體積比)中反應丨小時。典型的原子 轉移自由基聚合反應聚合之後,均勻的羧基甜菜鹼聚合物刷接枝 到SPR感測器的金表面上。聚合物層厚度約丨〇〜丨5 ,根據橢圓 光度法測定。 白質吸附蛋白質吸附採用定制的表面電漿共振 (SPR)感測器基於波長問號測定。sPR切片附著於棱鏡基體上,光 學接觸使用折射指數匹配液(Cargille)確定。實驗中,具有四個獨 立的平行流槽的四個-流槽池用於貯存液體樣品。螺形壓縮泵 (ISmatec)用於轉移液體樣品到流動池的四個槽。1.0mg/mL的纖維 蛋白原PBS溶液以〇.05机/分鐘流速流延在感測器表面上。spR 檢測器用來即時監測蛋白質-表面間的相互作用。該研究中,波長 偏移用來測量表面濃度(或單位面積品質)的改變。 麵光紐橢圓光度法使用分光鏡橢圓計(SentechSE-850, GmbH)。樣品製備與聊實驗相同。在聰區域内,五個單獨的點 以三個不同的入射角(5〇,60和70度)測量。相同批的金塗層切片藉 < ,5 ) 48 1330657 ‘ 由UV-臭氧清潔器清潔20分鐘’用乙醇和Millipore水洗滌,並用氮 • 氣乾燥。裸塗金切片用作參比。研究的膜厚度使用Cauchy layer • models定,其採用1.45的折射指數。 - f施例8 代表性羧某甜荚鹼水凝膠 聚(gg_MA)水凝膠及甚對蛋白質吸附釦細腧黏咐的抿技柹 CBMA水凝膠藉由向混合溶液(乙烯乙二醇/乙醇/ h2〇 = 3:1:1體積 比)中加入2.7 M CBMA單體到四甘醇二曱基丙烯酸酯 鲁 (TEGDMA)(5.9 mol %)中並藉由焦亞硫酸鈉(丨.2 m〇i 〇/〇)和過硫酸 銨(2.6 mol%)引發的自由基聚合而製備。反應在37Τ進行12小 時。聚合之後’凝膠浸入大量DI水中三天,每天更換水以除去殘 留化學品。然後凝膠用已滅菌的PBS溶液平衡,該溶液每天或兩 天更換一次。水凝膠衝壓成直徑5 mm的圓片,使用前將其貯存入 已滅菌的緩衝溶液中。 室溫下’水凝膠圓片浸入2mg/mlNHS的二氧六環中,和2mg/ml 鲁 EDC於二氧六環/水(14:1)混合物中1小時。當浸泡入二氧六環/水溶 液時,水凝膠圓片收縮。圓片自溶液中移出,浸泡入馗丨出叫代水 中溶脹它們背部,用Millipore水漂洗,並浸泡在PBS緩衝液中另外 30分鐘。樣品在4°C浸入lOOpg/ml黏連蛋白溶液中24小時。 密度lxlO5細胞/mL的牛主動脈内皮細胞(BAECs)播種在凝膠表 面。荷載細胞的樣品在37°C培養,5¼的C〇2潮濕氣氛。觀察培養2 小時和3天之間的細胞形態。 ° f施例9 代表性聚(SBMA)或聚(CBMA)塗層在诂$辛今 49 < S ) 1330657 標準玻璃基板投入20wt%NaOH溶液中過夜,DI水洗滌和空氣 中晾乾。該清潔的基材浸於含有0.5 g 2-溴-2-甲基-N-3-[(三甲氧基 甲矽烷基)丙基]-丙醯胺溶液中。2小時後,基材自浸潰溶液中移 出’輕微用乙醇漂洗。基材保持在100〇c真空箱中5小時,由無油 真空泵抽真空。47 1330657 The gold-coated substrate was formed by immersing it in a pure ethanol solution of 1 ΜηΜω-bromoisobutyrate decylundecyl ester for 24 hours. Prior to polymerization, the substrate was rinsed with pure ethanol, then rinsed with THF and dried under a stream of nitrogen. In a dry box, the substrate of CuBr and the fixed initiator was placed under a nitrogen atmosphere in a reaction tube. Remove the tube sealed with a rubber spat plug. Then, a degassed solution of CBMA and BPY (pure water and methanol in a 1:1 volume ratio) was transferred to the tube under a nitrogen atmosphere using a syringe. After the reaction, the substrate was removed and rinsed with ethanol and water, and the sample was kept in water and passed through. Rinsing with PBS buffer was also used to remove unbonded and polymer prior to testing. A typical polymerization is carried out by reacting a substrate with 7.5 mmol of CBMA, 2 mmol of BPY and 1 mm of Cui CuBr under nitrogen for 25 hrs in a CH3 〇H/l (1:1 volume ratio). After polymerization by a typical atom transfer radical polymerization, a homogeneous carboxybetaine polymer brush is grafted onto the gold surface of the SPR sensor. The thickness of the polymer layer is about 丨〇~丨5 and is determined by ellipsometry. White matter adsorption protein adsorption was determined using a custom surface plasma resonance (SPR) sensor based on the wavelength question mark. The sPR sections were attached to the prism substrate and the optical contact was determined using a refractive index matching solution (Cargille). In the experiment, four-fluid cells with four independent parallel flow cells were used to store liquid samples. A spiral compression pump (ISmatec) is used to transfer liquid samples to the four tanks of the flow cell. A 1.0 mg/mL solution of fibrinogen in PBS was cast on the surface of the sensor at a flow rate of 机.05 machine/min. The spR detector is used to instantly monitor protein-surface interactions. In this study, the wavelength shift was used to measure changes in surface concentration (or mass per unit area). The facelight ellipsometry method uses a spectroscopic ellipsometer (Sentech SE-850, GmbH). Sample preparation is the same as the chat experiment. In the Cong area, five separate points are measured at three different angles of incidence (5 〇, 60 and 70 degrees). The same batch of gold coated sections were washed with ethanol and Millipore water by <, 5) 48 1330657 'cleaned by UV-ozone cleaner for 20 minutes' and dried with nitrogen. The bare gold plate was used as a reference. The film thickness studied was determined using a Cauchy layer • models with a refractive index of 1.45. - f Example 8 Representative Carboxyl Ester Sodium Hydrogel Poly(gg_MA) Hydrogel and a very good technique for adsorbing deductive viscous 柹CBMA hydrogel by mixing solution (ethylene glycol) /ethanol / h2 〇 = 3:1:1 volume ratio) Add 2.7 M CBMA monomer to tetraethylene glycol dimercapto acrylate (TEGDMA) (5.9 mol %) with sodium metabisulfite (丨.2 m Prepared by free radical polymerization initiated by 〇i 〇/〇) and ammonium persulfate (2.6 mol%). The reaction was carried out at 37 Torr for 12 hours. After the polymerization, the gel was immersed in a large amount of DI water for three days, and water was changed every day to remove residual chemicals. The gel is then equilibrated with a sterilized PBS solution which is changed daily or two days. The hydrogel was punched into a 5 mm diameter disc and stored in a sterilized buffer solution prior to use. The 'hydrogel discs were immersed in 2 mg/ml NHS in dioxane at room temperature and 2 mg/ml Lu EDC in dioxane/water (14:1) mixture for 1 hour. The hydrogel disc shrinks when soaked in the dioxane/water solution. The discs were removed from the solution, soaked into the water and swelled on the back, rinsed with Millipore water, and immersed in PBS buffer for another 30 minutes. The sample was immersed in a lOOpg/ml adhesion protein solution for 24 hours at 4 °C. Bovine aortic endothelial cells (BAECs) with a density of lxlO5 cells/mL were seeded on the gel surface. Samples of the loaded cells were incubated at 37 ° C in a humidified atmosphere of 51⁄4 C 〇 2 . Cell morphology between 2 and 3 days of culture was observed. ° f Example 9 A representative poly(SBMA) or poly(CBMA) coating was placed on a 20 wt% NaOH solution overnight in a 玻璃$辛今 49<S) 1330657 standard glass substrate, washed with DI water and air dried. The cleaned substrate was immersed in a solution containing 0.5 g of 2-bromo-2-methyl-N-3-[(trimethoxymethylidene)propyl]-propanamide. After 2 hours, the substrate was removed from the impregnation solution <slightly rinsed with ethanol. The substrate was held in a 100 °c vacuum box for 5 hours and evacuated by an oil-free vacuum pump.
乾燥相中亂氣保護下,將(^1^1'(143111呂,1.〇111111〇1)和固定式引 發劑的兩種基材置於50 mL燒瓶中,從乾燥箱移出前燒瓶用橡膠墊 片塞密封。然後,SBMA(l.〇6 g,3.8 mmol)或CBMA(874 mg,3.8 111111〇1)與2,2’-二吼咬(15611^’1麵〇1)的脫氣溶液(1:1體積比的純 水和甲醇,10ml)使用注射器氮氣保護下轉入該燒瓶中。反應 時之後’除去基材並用乙醇、PBS緩衝液和水漂洗,樣品保持在水 中過夜。使用之前,基材用氮氣流乾燥。 酵素結合免疫吸附測定顯示在聚SMBA (或聚CBMA^枝的表 面上蛋白質_降低(參見第十八圖)。在聚合物接枝的玻璃樣 品上吸__蛋自職於在鮮賴樣品上4%。_孢子培勒 ’同化對照玻璃樣品上用綠藻塗覆,在聚sb祖紐的表面上 沒有發現藻類孢子或藻類黏附(參見第二十圖)。 改及有熟習此技藝者^言,本發_顯地相作出多種修 也修改及^脫離的精神和制。因此,本發明包括該 少 交化,且其皆被包括在下附之申請專利範 者中。 圍及其均等 50 < S > 1330657 【圖式簡單說明】 ‘ 第一圖是在表面(金)上製備引發劑封端的自組裝單層的兩種方 法(一步和兩步方法)的示意圖; ' 帛三圖是本發明藉由表面引發的軒轉移自由基聚合反應,製 備塗有代表性聚磺基甜菜鹼材料之表面的方法示意圖;一 第一圖疋本發明製備互牙網狀結構聚合物(ipn)膜的方法示意 圖:(a)段間聚胺酯(SPU)膜係藉由溶劑揮發法在2〇τ下揮發二曱基 乙醯胺(DMA)而製得;(b)在2〇〇C下,將SPU膜在含有績基甜菜驗 甲基丙烯義(SBMA)單體、曱基丙烯酸2-經基乙醋(hema)單 體、GDGDA交聯劑和光引發劑的曱醇溶液中培養;⑷可見光引發 光聚合反應;(供關聚義/邮BMA)^f輸結構聚合 物; 第四圖是本發明藉由表面引發的原子轉移自由基聚合反應,製 備塗有代表性聚叛基甜菜驗(CBMA)材料之表面的方法示音圖; 第五八圖和第五B圖是藉由表面賴共振法測量(波長偏移作為 # 時間的函數)所獲得之纖維蛋白原對本發明代表性表面(塗有料 基甜菜驗的表面)的吸附比較曲線圖:第五A圖說明pBs緩衝液 (0.15 Μ ’ pH 7.4)中1 維蛋白原在裸金表面(裸金)上旦有 固定的引發劑.自組裂單層)之金表面上、以及聚(sbma)接枝 之表面(聚合之後’其係藉由將Br_自組裝單層表面浸於含有U mmol SBMA、2 mmol)比咬(BPY>M mmd ⑽响^ ^ 咖腦州小時進行聚合反應而製得,spR + i,波長偏移 相當腿5mgW的蛋白質吸附)上的吸附;第五B說明p職衝 液(〇.15M,PH7.4)tl mg/mL纖維蛋白原在本發明代表性表面(聚 < S ) 51 1330657 續基甜菜驗塗層表面)上的吸附; 第六圖是在本發明代表性表面(聚石黃基甜菜驗塗層表面)上的纖 維蛋白原吸附的SPR感應圖,波長偏移作為時間函數,該表面上具 有未鍵合引發劑⑴和沒有未鍵合引發劑(2)(兩種基材投入相同的' 反應器,使该專基材與2.0 mmol SBMA、0.1 mmol Βργ和〇 〇5 mmoi CuBr在25 mLCH3〇H/H2〇中進行聚合反應π小時); 第七圖是引發劑1自組裝單層在金基材上的旋塞模式原子力顯 微鏡(TM-AFM)圖像(掃描尺寸:1//mx丨Am),該表面是在1〇mM 引發劑1溶液中浸24小時後,然後用乙醇和THF洗滌而製得; 第八圖是聚合物膜厚度和本發明代表性表面的纖維蛋白原吸附 作為SBMA漢度和聚合時間的函數之比較曲線圖:聚(SBMA)厚度 係根據橢圓光度法測定(實心符號表示),纖維蛋白原吸附係根據表 面電漿共振技術測定(空心符號表示χ01 MSBMA聚合反應:2 5 mmol SBMA、1 mm〇i BPY和0.5 mmol CuBr在25 mL CH30H/H20 中進行聚合反應;0.3 M SBMA聚合反應:7.5 mmol SBMA、2 mmol BPY和 1 mmol CuBr在25 mL CH3〇H/H2〇 中進行聚合反應),% ML(單層)之纖維蛋白原吸附係CH3自組裝單層之纖維蛋白原吸 附; 第九圖是本發明代表性嵌段共聚物的製備示意圖:(a)單羥基封 端的聚氧化丙烯(PPO)與2_溴代異丁醯溴在THF中2〇〇c下反應;和 (b) 20°C下藉由原子轉移自由基聚合反應將犯]^與1>1)〇在曱醇中 進行嵌段共聚合反應; 第十圖是本發明代表性嵌段共聚物p〇2rSBMA35二嵌段共聚物 的1 HNMR譜圖(D2〇); t S ) 52 1330657 第十一圖是SPR感應圖,說明本發明代表性共聚物 P〇2〇-SBMA2()(共聚物A)對基材表面的吸附,隨後在原位評估纖維 蛋白原的吸附; 第十二圖是本發明三種代表性共聚物的水凝膠滲透色譜曲線 (GPC)(以聚乙烯乙二醇作為參比物),pp〇_嵌段kSBMA)二嵌段 共聚物係藉由原子轉移自由基聚合反應在2〇〇c製備:共聚物A, Μί - 6490,Mw/Mn = 1.232 ;共聚物B,Mn = 11183,Mw/Mn = 1.255 ; 和共聚物C ’ Mn= 15114,Mw/Mn= 1.353 ; 第十三圖是25T下在有物理吸附的PP〇_嵌段_聚(SBMA)的表面 上之纖維蛋白原吸附(SPR測量)作為本發明三種代表性共聚物(共 聚物A、B和C)之ΡΡΟ-b-聚(SBMA)溶液濃度(c_聚(麵))的函數 之關係圖; 第十四圖是250C下塗有本發明代表性共聚物(Cpp〇七聚(_)=1 〇 mg /ml) (A :共聚物A,B :共聚物B,C :共聚物C,C+A :以共聚 物A回填之共聚物〇的表面之纖維蛋白原吸附的SpR感應圖(各共 聚物最終SPR波長偏移係標注在括弧内,spR回射丨nm波長偏移 相當於15 ng/cm2的蛋白質吸附); 第十五圖是顯示共聚物C在CH3封端的自組裝單層表面上的吸 附並用共聚物A回填,以獲得聚續基甜菜驗表面密度增加和抗蛋 白質吸附能力增加的示意圖; 第十六圖是說明幾種蛋白質(纖維蛋白原、牛血清清蛋白(bsa) 和溶菌酶)在本發明代表性表面(塗有共聚物A之表面)的吸附,各蛋 白質最終的波長偏移係標注在括弧内,在spR回應中inm波長偏移 相當於15ng/cm2的蛋白質吸附;Under the protection of the dry phase, the two substrates (^1^1' (143111 Lu, 1.〇111111〇1) and the fixed initiator were placed in a 50 mL flask, and the flask was removed from the drying oven. Rubber gasket plug seal. Then, SBMA (l.〇6 g, 3.8 mmol) or CBMA (874 mg, 3.8 111111〇1) and 2,2'-two bite (15611^'1 face 〇1) A gas solution (1:1 volume ratio of pure water and methanol, 10 ml) was transferred to the flask using a syringe under nitrogen. After the reaction, the substrate was removed and rinsed with ethanol, PBS buffer and water, and the sample was kept in water overnight. Prior to use, the substrate was dried with a stream of nitrogen. Enzyme-bound immunosorbent assay showed a decrease in protein on the surface of poly-SMBA (or poly-CBMA(see Figure 18). Suction on polymer-grafted glass samples_ _ Eggs work on 4% of fresh sampling samples. _ Sporeper's assimilating control glass samples were coated with green algae, and no algal spores or algae adhesions were observed on the surface of polysb nucleus (see twentieth) Changed to those who are familiar with this skill ^, this hair _ significant phase to make a variety of repairs and modifications and ^ separation of the spirit and system. Therefore, The invention includes the lesser cross-linking, and is included in the attached patent application. Circumference and its equal 50 < S > 1330657 [Simplified illustration] 'The first figure is prepared on the surface (gold) Schematic diagram of two methods (one-step and two-step method) of initiator-terminated self-assembled monolayer; 'Three-dimensional diagram is the preparation of representative polysulfonated beet by surface-induced transfer radical polymerization of the present invention Schematic diagram of the method for preparing the surface of the alkali material; a first diagram of the method for preparing the interdental network polymer (ipn) film of the present invention: (a) the inter-segment polyurethane (SPU) film is obtained by solvent evaporation method at 2〇挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发 挥发The medium is cultured in a decyl alcohol solution of a base vinegar (hema) monomer, a GDGDA cross-linking agent and a photoinitiator; (4) visible light-initiated photopolymerization; (available to agglomerate/post BMA); The invention prepares a representative poly-polymer by surface-initiated atom transfer radical polymerization A method of sounding the surface of a CBMA material; the fifth and fifth B are fibrinogen pairs obtained by surface ray resonance measurement (wavelength shift as a function of # time) Comparison chart of adsorption of representative surface of the invention (surface coated with beet test): Figure 5A shows that 1D proprotein in pBs buffer (0.15 Μ 'pH 7.4) on the bare gold surface (bare gold) Fixed initiator. Self-assembled monolayer) on the gold surface and poly(sbma) grafted surface (after polymerization) by immersing the Br_self-assembled monolayer surface with U mmol SBMA, 2 mmol ) adsorption on the bite (BPY > M mmd (10) ringing ^ ^ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ .15M, pH 7.4) adsorption of tl mg/mL fibrinogen on a representative surface of the invention (poly<S) 51 1330657 contiguous beet test coating surface; Figure 6 is a representative surface of the invention SPR induction map of fibrinogen adsorption on polyphosphorus-based beet test coating surface, wavelength shift as time letter , the surface has unbonded initiator (1) and no unbonded initiator (2) (both substrates are put into the same 'reactor, so that the specific substrate is 2.0 mmol SBMA, 0.1 mmol Βργ and 〇〇5 Mmoi CuBr is polymerized in 25 mL CH3〇H/H2〇 for π hours); Figure 7 is a plug-mode atomic force microscope (TM-AFM) image of the self-assembled monolayer of initiator 1 on a gold substrate (scan size: 1/ /mx丨Am), the surface is prepared by immersing in a 1 mM initiator 1 solution for 24 hours and then washing with ethanol and THF; the eighth figure is the polymer film thickness and the representative surface of the fibrin of the present invention. Comparison of original adsorption as a function of SBMA Hanta and polymerization time: poly (SBMA) thickness is determined by ellipsometry (solid symbol), fibrinogen adsorption is determined by surface plasma resonance technique (open symbol indicates χ01) MSBMA polymerization: 2 5 mmol SBMA, 1 mm 〇i BPY and 0.5 mmol CuBr in 25 mL CH30H/H20; 0.3 M SBMA polymerization: 7.5 mmol SBMA, 2 mmol BPY and 1 mmol CuBr in 25 mL CH3 Polymerization in 〇H/H2〇), % ML (monolayer) fibrinogen adsorption system CH3 self-assembled monolayer fibrinogen adsorption; ninth is a schematic diagram of the preparation of representative block copolymers of the invention: (a) monohydroxy terminated polyoxypropylene (PPO) Reacting with 2_bromoisobutylphosphonium bromide in THF at 2〇〇c; and (b) by atom transfer radical polymerization at 20 ° C to carry out oxime in 1 in sterol Block copolymerization; Figure 11 is a 1 H NMR spectrum of the representative block copolymer p〇2rSBMA35 diblock copolymer of the present invention (D2〇); t S ) 52 1330657 The eleventh figure is an SPR sensing diagram, The adsorption of the surface of the substrate by the representative copolymer P〇2〇-SBMA2() (copolymer A) of the present invention is described, and then the adsorption of fibrinogen is evaluated in situ; FIG. 12 is a representative copolymer of the present invention. Hydrogel permeation chromatography curve (GPC) (with polyethylene glycol as a reference), pp〇_block kSBMA) diblock copolymer prepared by atom transfer radical polymerization at 2〇〇c Copolymer A, Μί - 6490, Mw / Mn = 1.232; copolymer B, Mn = 11183, Mw / Mn = 1.255; and copolymer C ' Mn = 15114, Mw / Mn = 1. 353; Figure 13 is fibrinogen adsorption (SPR measurement) on the surface of physically adsorbed PP〇_block_poly(SBMA) at 25T as three representative copolymers of the present invention (copolymers A, B) A graph showing the relationship between the concentration of ΡΡΟ-b-poly(SBMA) solution (c_poly(face)) and C); the fourteenth figure is a representative copolymer of the present invention at 250 C (Cpp〇七聚(_) =1 〇mg /ml) (A: Copolymer A, B: Copolymer B, C: Copolymer C, C+A: SpR-sensitive map of fibrinogen adsorbed on the surface of copolymer ruthenium backfilled with copolymer A (The final SPR wavelength shift of each copolymer is marked in parentheses, and the spR retroreflection 丨nm wavelength shift corresponds to 15 ng/cm2 of protein adsorption); the fifteenth figure shows the self-assembly of copolymer C at CH3 capping Adsorption on the surface of the layer and backfilling with Copolymer A to obtain a schematic diagram of the increase in surface density and the increase in anti-protein adsorption capacity of the polyglycan beet; Figure 16 is a diagram showing several proteins (fibrinogen, bovine serum albumin (bsa) And lysozyme) adsorption on the representative surface of the invention (surface coated with copolymer A), the final wavelength shift of each protein Notes in parentheses, in response to the spR inm protein adsorption wavelength shift corresponds to 15ng / cm2 of;
53 1330657 第十七®是比較位於玻璃上之代祕聚魏甜躲材料(分別 為藉由原子轉移自由基聚合反應而製備㈣基甜菜驗甲基丙稀酸 酯(SBMAATrp)、本發明代表性聚磺基甜菜鹼水凝膠⑽嫩水凝 膠)、代表性聚續基甜菜驗塗層(SBMA塗層)和對比的環氧底漆塗 幻上之蛋白質吸附(由酵素結合免疫吸附法測定)的條形圖; 第十八圖是比較在無塗層的玻璃、環氧底漆㈣(參比物)、塗 有由實施例5製備的本發明代表性聚縣甜菜驗/環氧樹脂之表面 (玻璃XSBMA/環氧塗層)、和由原子轉移自由基聚合反應製備的聚 磺基甜菜層(SBMAATRP)上之4屬孢子沈積物作為時間的 函數(1、3和6小時)之條形圖; *第十九A®和第十九B®!;%比較孢苗在本發明代表性聚續基甜 采鹼/環氧樹脂塗層表面上的生長(第十九和在環氧底漆塗層 表面上的生長(第十九A圖); 曰 第一十A至第二十C圖在將各載片中間部分曝露於喷水口以2〇〇 咖水壓喷水之後’比較_於玻璃(第二十塌)、環氧底漆塗層 表面(第二十B圖)和本發明代表性聚磺基甜菜鹼/環氧樹脂塗層表 面(苐一十C圖)的抱苗成長; 第二十一圖是比較於本發明代表性聚磺基甜菜鹼/環氧樹脂塗 層表面(SBMA/Epoxy Coating)上和作為參比物之生物膜(Bi〇film) 上之餘留juvenile //. e/e妒卿線蟲的平均百分比的條形圖,其中各塗 層係暴露於100 Pa壁剪應力下四分鐘; 第二十二圖是說明以聚苯乙烯(PS)作為參比物,根據酵素結合 免&吸附法測定各表面對人類纖維蛋白酶肩吸附量的比較圖,其 中測定的表面分別為SPU(未改性),其為段間聚胺酯膜;IPN4,其 54 (S ) 1330657 係在20°C下藉由將段間聚胺酯膜置於含有% m〇i%sBMA單體的 曱醇溶液中培養24小時而製得的互穿網狀結構聚合物膜,培養濃 度為1 ·0 mol/L ’ IPN-II,其係藉由在2〇°C下將段間聚胺酯膜於含有 70 mol%SBMA單體的溶液中培養24小時而製得之互穿網狀結構 聚合物膜,而培養濃度為2.0 mol/L,且混合溶劑為% v〇1%甲醇和5 vol%水’· HEMA水凝膠’其係甲基丙烯酸2_經基乙酿水凝膠;以 及SBMA水凝膠’其係本發明代表性聚(續基甜菜驗)水凝膠(續基甜 菜鹼甲基丙烯酸酯); 第一十二A圖是使用二種不同溶劑,比較在本發明代表性互穿 網狀結構聚合物上之相對蛋自質吸附和培養時間的函數曲線圖, 其中’三種溶劑分別為曱醇⑹;!⑽積比之混合的乙醇/甲醇(△); 和ία體積比之混合的異丙醇/甲醇〇,而培氧濃度為〇5m〇i/L,’ 且SBMA單體莫耳百分比為7〇m〇1%,培養溫度為2〇〇c ;和第二十53 1330657 The seventeenth® is a comparison of the secretive poly-weiding materials on the glass (respectively by the atom transfer radical polymerization to prepare (4) beet beet methyl acrylate (SBMAATrp), representative of the present invention Polysulfobetaine hydrogel (10) tender hydrogel), representative polyglycan beet coating (SBMA coating) and comparative epoxy primer coating on protein adsorption (determined by enzyme-linked immunosorbent assay) Bar graph; Figure 18 is a comparison of the uncoated glass, epoxy primer (four) (reference), coated with the representative of the present invention prepared by Example 5 beet test / epoxy resin The surface (glass XSBMA/epoxy coating), and the 4 spore deposits on the polysulfonated beet layer (SBMAATRP) prepared by atom transfer radical polymerization as a function of time (1, 3 and 6 hours) Bar graph; * Nineteenth A® and Nineteenth B®!;% comparison of sporeling growth on the surface of representative poly(neutral)/epoxy coatings of the present invention (thirteenth and in the ring) Growth on the surface of the oxygen primer coating (Fig. 19A); 曰10A to XXC in the respective slides Partially exposed to the water spray port after water spray at 2 〇〇 coffee water 'Comparative_glass (twentieth collapse), epoxy primer coating surface (20th B) and representative polysulfonate of the present invention Growth of the betaine/epoxy coated surface (苐10 C); 21st is a comparison of the representative polysulfobetaine/epoxy coating surface of the present invention (SBMA/Epoxy Coating) a bar graph of the average percentage of juvenile //. e/e妒 nematode on the biofilm (Bi〇film) as a reference, wherein each coating is exposed to 100 Pa wall shear stress The twenty-second figure is a comparison chart comparing the adsorption amount of each surface on the human fiber protease shoulder by using the polystyrene (PS) as a reference substance according to the enzyme binding-free & adsorption method, wherein the measured surfaces are respectively SPU (unmodified), which is an interstage polyurethane film; IPN4, 54 (S) 1330657 is placed at 20 ° C by placing the interstage polyurethane film in a sterol solution containing % m〇i% sBMA monomer An interpenetrating network polymer film prepared by culturing for 24 hours at a concentration of 1 · 0 mol / L ' IPN-II The interpenetrating polymer membrane was prepared by incubating the interstage polyurethane film in a solution containing 70 mol% SBMA monomer at 2 ° C for 2 hours, and the culture concentration was 2.0 mol/L, and the mixed solvent was % v〇1% methanol and 5 vol% water '·HEMA hydrogel' is a methacrylic acid 2_base-based hydrogel; and SBMA hydrogel' is a representative poly(continued beet) of the present invention Hydrogel (sequential betaine methacrylate); Figure 12A is a comparison of the relative self-mass adsorption of eggs on a representative interpenetrating network polymer of the present invention using two different solvents. A plot of the function of the culture time, where 'the three solvents are sterol (6); (10) The mixture of ethanol/methanol (Δ); and ία volume ratio of isopropanol/methanol oxime, and the oxygen concentration is 〇5m〇i/L, ' and the percentage of SBMA monomer mole is 7〇 M〇1%, culture temperature is 2〇〇c; and twentieth
-B圖疋比鮮丨應互f網狀結構聚合物膜的段間聚細旨膜之溶服 比曲線圖; X 第二十四圖是·本發明代表性互穿峨結構聚合物上之相對 蛋白質吸_培養濃度的函數曲線圖,㈣養溶液為7〇 mol%SBMA單體之甲醇溶液,培養溫度為2〇t>c,且培養進行 時; 第二十五八圖是比較在本發明代表性互穿網狀結構聚合物上之 相對蛋白質吸附與培養時間的函數曲線圖,*培養溶液為兀 m〇1%SBMA單體之甲醇溶液,培養溫度為2〇τ,且培養濃 碰或LGmH十五β圖是比㈣應的乾燥互穿網=構 聚合物膜的溶脹比和重量增加曲線圖; 55 1330657 第二十六圖是說明在本發明代表性互穿網狀結構聚合物上之相 對蛋白質吸附與SBMA單體比率_%)的函數曲線圖,而培養濃 度為1 moI/L,且培養係在2〇°c下進行24小時; 第二十七圖是比較IPN_j臈表面和自歷姻表面2〇师深度處 相對於未改性段間聚胺酯膜的拉曼光譜; 第二十八圖是比較以表面電漿共振法測得之本發明代表性表面 (聚絲甜祕塗層表面)對幾雜白#(_蛋白原,溶菌酶和 hCG)吸附的波長偏移與時間函數曲線圖··在pBs (〗5〇應和阳7 4) 中之lmg/mL纖維蛋白原、1 mg/mL溶菌酶和吸附; 第二十九圖是製備本發明代表性表面的方法示意圖,其顯示具 有引發劑之矽烷化玻璃表面係藉由原子轉移自由基聚合反應使其 表面接枝,以提供聚磺基甜菜鹼或聚羧基甜菜鹼塗層表面; 第二十A至第三十D圖是比較内皮細胞黏附到組織培養聚苯乙 稀(TCPS)上的圖像(第三十八圖和第王+b圖)以及本發明代表性聚 續基甜菜驗水凝膠(聚(SBMA)水凝膠)(第三十c圖和第三十D圖) 在10%胎兒牛血清(FBS)中的圖形:三十a圖和第三十C圖是1天之 後,而二十B圖和第三十D圖是五天之後的圖像;以及 第三十一圖是用於製備本發明聚羧基甜菜鹼材料的羧基甜菜鹼 甲基丙烯酸醋(CBMA)單體的化學結構和其1 H_NMR譜圖。 【主要元件符號說明】 無 56-B Figure 疋 疋 丨 丨 丨 f f f f f 网 网 网 聚合物 聚合物 聚合物 聚合物 聚合物 f f f X X X X X X X X X X X X X X X X X X X X Relative to the protein absorption-culture concentration function curve, (4) the nutrient solution is 7〇mol% SBMA monomer in methanol solution, the culture temperature is 2〇t>c, and the culture is carried out; the twenty-fifth figure is compared in this A graph showing the relative protein adsorption and culture time on a representative interpenetrating network polymer. The culture solution is a methanol solution of 兀m〇1% SBMA monomer, the culture temperature is 2〇τ, and the culture is concentrated. Or the LGmH fifteen-graph is a graph of the ratio of swelling ratio and weight increase of the dry interpenetrating network = polymer film to the (four); 55 1330657. The twenty-sixth figure is a representative interpenetrating network polymer in the present invention. The relative protein adsorption and SBMA monomer ratio _%) as a function of the curve, while the culture concentration is 1 moI / L, and the culture system is carried out at 2 ° ° C for 24 hours; the twenty-seventh figure is to compare the IPN_j surface And the self-study surface of the 2 〇 division depth relative to the unmodified segment of the polyurethane film The twenty-eighth figure is a comparison of the adsorption of several hybrid white #(_proteinogen, lysozyme and hCG) on the representative surface of the present invention (the surface of the polyfilament sweet coating) measured by the surface plasma resonance method. Wavelength shift and time function curve · lmg / mL fibrinogen, 1 mg / mL lysozyme and adsorption in pBs (〗 〖5 〇 和 阳 7 4); The twenty-ninth figure is the preparation of the representative of the present invention Schematic diagram of a method for forming a surface, which shows that the surface of the decylated glass having an initiator is surface grafted by atom transfer radical polymerization to provide a polysulfobetaine or polycarboxybetaine coated surface; A to T30D are images comparing endothelial cell adhesion to tissue culture polystyrene (TCPS) (Thirty-eighth and King+b) and representative polyglycan beet water test of the present invention Gel (poly(SBMA) hydrogel) (p. 30c and 30th D) Graphs in 10% fetal bovine serum (FBS): Thirty a and thirty C are 1 day Thereafter, the twenty-B and thirty-third graphs are images after five days; and the thirty-first graph is used to prepare the polycarboxybetaine material of the present invention. Carboxybetaine methacrylate vinegar (the CBMA) the chemical structure of the monomer and its 1 H_NMR spectrum. [Main component symbol description] None 56
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| CN114007662B (en) * | 2019-06-21 | 2023-02-28 | 高丽大学校产学协力团 | Medicament for maintaining body volume, injection including same and preparation method thereof |
| CN113930000A (en) * | 2021-10-20 | 2022-01-14 | 台湾塑胶工业股份有限公司 | Polyethylene colloidal particles for resisting adhesion of biological molecules and preparation method thereof |
| CN115820082B (en) * | 2022-11-24 | 2023-09-08 | 国网浙江省电力有限公司超高压分公司 | Thermochromic temperature-indicating paint and preparation method thereof |
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