Phase Emulsion
상 에멀젼

Phase Emulsion(상 에멀젼)란 무엇입니까?

Phase Emulsion 상 에멀젼 - Moreover, combining the analysis for the kinetics and the morphology diagram, we predict new emulsion structures that provide general guidelines to discovery, design, and manipulation of complex multiphase emulsions. ^[1] In this study, amphiphilic and porous copolymers were successfully prepared by doping a carboxylated carbon nanotube aqueous phase into a styrene and divinylbenzene oil phase, followed by a simple thermal polymerization to form high internalphase emulsions (polyHIPEs-CNTs). ^[2] Results indicated that large oil droplets and the presence of solid particles reduced the number of fine droplets produced in multi-phase emulsions. ^[3] Combining an underoil superhydrophobic oil-containing region (OCR) with an underwater superoleophobic water-containing region (WCR) achieved the successive filtration of multiphase emulsions. ^[4] The results also show the surfactant classification with the ability to form a middle-phase emulsion in order to increase petroleum products. ^[5]
또한, 동역학 및 형태 다이어그램에 대한 분석을 결합하여 복잡한 다상 에멀젼의 발견, 설계 및 조작에 대한 일반적인 지침을 제공하는 새로운 에멀젼 구조를 예측합니다. ^[1] 이 연구에서, 카르복실화된 탄소 나노튜브 수상을 스티렌 및 디비닐벤젠 오일 상에 도핑한 후 간단한 열 중합을 통해 높은 내부상 에멀젼(polyHIPEs-CNTs)을 형성함으로써 양친매성 및 다공성 공중합체를 성공적으로 제조했습니다. ^[2] 결과는 큰 오일 방울과 고체 입자의 존재가 다상 에멀젼에서 생성되는 미세한 방울의 수를 감소시키는 것으로 나타났습니다. ^[3] 언더오일 초소수성 오일 함유 영역(OCR)과 수중 초소수성 수분 함유 영역(WCR)을 결합하여 다상 에멀젼의 연속 여과를 달성했습니다. ^[4] 결과는 또한 석유 제품을 증가시키기 위해 중간상 에멀젼을 형성하는 능력을 가진 계면활성제 분류를 보여줍니다. ^[5]

polymerized high internal 중합된 높은 내부

A molecularly imprinted polymerized high internal phase emulsion (MIP-polyHIPE) adsorbent was used for selective separating and preconcentrating the anti-plaque drug, clopidogrel. ^[1] In this work, layered porosity polydimethylsiloxane (PDMS)-based polymerized high internal phase emulsions (polyHIPEs) with defined interfaces have been synthesized using one-step reactions. ^[2] Three-dimensional (3D) printing of emulsions is an emerging technology built on a well-established field of emulsion templating to produce porous materials such as polymerized high internal phase emulsions (polyHIPEs). ^[3] Interconnected highly porous poly(vinylamine) monoliths are produced by post-polymerization hydrolysis of emulsion-templated poly(N-vinylformamide) polyHIPEs (polymerized high internal phase emulsions). ^[4] Porous polymerized high internal phase emulsion (polyHIPE) monoliths are synthesized by using Span 80 with different cosurfactants. ^[5]
분자 각인된 중합된 고내부상 에멀젼(MIP-polyHIPE) 흡착제는 플라크 방지제인 클로피도그렐(clopidogrel)을 선택적으로 분리하고 사전 농축하기 위해 사용되었습니다. ^[1] 이 작업에서 정의된 계면을 가진 층상 다공성 폴리디메틸실록산(PDMS) 기반 중합된 고 내부 상 에멀젼(polyHIPE)이 1단계 반응을 사용하여 합성되었습니다. ^[2] nan ^[3] nan ^[4] nan ^[5]

water high internal 물 높은 내부

The oil-in-water high internal phase emulsions (HIPEs) could be stabilized by pea protein isolate nanoparticles (PPINs) induced by potassium metabisulfite (K2S2O5). ^[1] Surface-initiated activators regenerated by electron transfer atom transfer radical polymerization (ARGET ATRP) was applied to graft poly(glycidyl methacrylate) (PGMA) brushes from macroporous hydrogel templating from oil-in-water high internal phase emulsion (O/W HIPE), and the grafted hydrogel was further heparinized as stationary phase of affinity chromatography for Enterovirus 71 (EV71) purification. ^[2] Herein, oil-in-water high internal phase emulsions (HIPEs) were stabilized by lignin from different technical resources with the assistance of alkyl polyglycoside (APG) using an ultrasonic cavitation method. ^[3]
수중유 고 내부 상 에멀젼(HIPE)은 메타중아황산칼륨(K2S2O5)에 의해 유도된 완두콩 단백질 분리 나노입자(PPIN)에 의해 안정화될 수 있습니다. ^[1] 전자 전달 원자 전달 라디칼 중합(ARGET ATRP)에 의해 재생된 표면 개시 활성제는 수중유 고 내부 상 에멀젼(O/W HIPE)으로부터 템플릿화되는 거대다공성 하이드로겔로부터 폴리(글리시딜 메타크릴레이트)(PGMA) 브러시를 그래프트하기 위해 적용되었습니다. 그리고 접목된 하이드로겔을 엔테로바이러스 71(EV71) 정제를 위한 친화성 크로마토그래피의 고정상으로 추가로 헤파린화했습니다. ^[2] nan ^[3]

octenyl succinic anhydride 옥테닐 숙신산 무수물

Here, amphiphilic octenyl succinic anhydride (OSA) starches with different molecular structures (OSA-1, OSA-2, and OSA-3) were used as stabilizers to transform liquid oil into soft-solid high internal phase emulsions (HIPE), and HIPE as template were further constructed oleogels, which explored molecular structures of OSA starches in relation to their ability to stabilize HIPE and oleogels. ^[1] Water-in-oil (W/O) high internal phase emulsions (HIPEs) were prepared using polyglycerol polyricinoleate (PGPR) and polysaccharide blends consisting of konjac glucomannan (KGM) and octenyl succinic anhydride starch (OSA-starch). ^[2] This paper attempted to construct high internal phase emulsion (HIPE) through altering interfacial behaviors using the electrostatic interaction between positive chitosan and negative octenyl succinic anhydride (OSA) starch. ^[3]
여기에서 분자 구조가 다른 양친매성 옥테닐 숙신산 무수물(OSA) 전분(OSA-1, OSA-2 및 OSA-3)을 안정제로 사용하여 액체 오일을 연고체 고 내부상 에멀젼(HIPE)으로 변환하고 HIPE 템플릿으로 HIPE 및 올레오겔을 안정화하는 능력과 관련하여 OSA 전분의 분자 구조를 조사한 올레오겔이 추가로 구성되었습니다. ^[1] 유중수(W/O) 고 내부 상 에멀젼(HIPE)은 폴리글리세롤 폴리리시놀레이트(PGPR) 및 곤약 글루코만난(KGM) 및 옥테닐 숙신산 무수물 전분(OSA-전분)으로 구성된 다당류 혼합물을 사용하여 제조되었습니다. ^[2] nan ^[3]

grade high internal 등급 높은 내부

In this study, the gelatin crosslinked by Transglutaminase (TG) was applied to stabilize food-grade high internal phase emulsions (HIPEs) by a facile one-step method. ^[1] Food-grade high internal phase Pickering emulsions (HIPPEs) unify the stability of Pickering emulsions and the advantages of detergent-based high internal phase emulsions (HIPEs), making them attractive as nutritional products. ^[2] Gelatin (GE) modified by chitooligosaccharide (COS) through electrostatic interaction and hydrogen bond was applied to stabilize food-grade high internal phase emulsions (HIPEs) via a facile way. ^[3]
이 연구에서는 TG(Transglutaminase)에 의해 가교된 젤라틴을 적용하여 손쉬운 1단계 방법으로 식품 등급의 내부 상 에멀젼(HIPE)을 안정화했습니다. ^[1] 식품 등급 고 내부상 피커링 에멀젼(HIPPE)은 피커링 에멀젼의 안정성과 세제 기반 고 내부상 에멀젼(HIPE)의 장점을 통합하여 영양 제품으로 매력적입니다. ^[2] nan ^[3]

stable high internal 안정적인 높은 내부

In this work, we report on highly transparent and stable high internal phase emulsions (HIPEs) stabilized by protein in general and globular proteins in particular using a refractive index (RI)-matching technique. ^[1] The stable high internal phase emulsions (HIPEs) were solely stabilized by Palm kernel oil ethoxylates (SOE-N-60) and used as the delivery system of tea tree oil (TTO). ^[2] The conjugates were used to form stable high-internal-phase emulsions (HIPEs) containing 80% v/v oil, which had relatively small mean droplet diameters (. ^[3]
이 작업에서 우리는 일반적으로 단백질에 의해 안정화되고 특히 굴절률(RI) 일치 기술을 사용하여 구형 단백질에 의해 안정화된 매우 투명하고 안정적인 고 내부 상 에멀젼(HIPE)에 대해 보고합니다. ^[1] 안정적인 고 내부 상 에멀젼(HIPE)은 팜핵유 에톡실레이트(SOE-N-60)에 의해 단독으로 안정화되었으며 티트리 오일(TTO)의 전달 시스템으로 사용되었습니다. ^[2] nan ^[3]

Internal Phase Emulsion 내부 상 에멀젼

In this study, a piperazinyl-based emulsifier (EA/AMPA) was synthesized to prepare water-in-oil (W/O) high internal phase emulsions (HIPEs). ^[1] In this work, the structure of hierarchically and interconnected porous polymer has been fabricated by a high internal phase emulsion (HIPE) with water-in-oil and used for removing boron from water. ^[2] A simple approach was developed to formulate polysaccharide-based high internal phase emulsions (HIPEs) using complexes of sugar beet pectin (SBP), tannic acid (TA), and chitosan (CS) to stabilize the system. ^[3] This article provides an overview of a number of these advanced emulsion technologies, including Pickering emulsions, high internal phase emulsions (HIPEs), nanoemulsions, and multiple emulsions. ^[4] Highly cross-linked polyethylene glycol monoliths (HCPEG) with interconnected micro and nanoporosity are produced via photo-crosslinking of low internal phase emulsions (LIPE). ^[5] Porous copolymers of DVB/DVB were prepared by emulsion templating using high internal phase emulsions (HIPEs) as precursors for monoliths. ^[6] Porous high internal phase emulsion templated polymers (PHPs) with/without carbon nanofiber (CNF) frameworks were synthesized for shape-stabilization of hexadecanol (HD) selected as phase change material (PCM) for thermal energy storage (TES) applications. ^[7] The microstructure of the emulsion was regulated by the particle concentration (c) and W1/O volume fraction (Φ), especially the gel-like high internal phase emulsions were formed at the Φ up to 70%. ^[8] Here, amphiphilic octenyl succinic anhydride (OSA) starches with different molecular structures (OSA-1, OSA-2, and OSA-3) were used as stabilizers to transform liquid oil into soft-solid high internal phase emulsions (HIPE), and HIPE as template were further constructed oleogels, which explored molecular structures of OSA starches in relation to their ability to stabilize HIPE and oleogels. ^[9] Among three-dimensional (3D) scaffold fabrication methods, porous polymers templated using high internal phase emulsions (HIPEs) have emerged as an attractive method due to the facile generation of interconnected porosity through a variety of synthetic routes. ^[10] This study investigated the interaction between egg white protein particles (EWPP) and rhamnolipid (Rha) as co-emulsifiers in high internal phase emulsions (HIPEs). ^[11] Porous polymers carrying sulfonamide (SAM) groups with interconnected pores were prepared by high internal phase emulsion (HIPE) method. ^[12] A molecularly imprinted polymerized high internal phase emulsion (MIP-polyHIPE) adsorbent was used for selective separating and preconcentrating the anti-plaque drug, clopidogrel. ^[13] Porous materials prepared from high internal phase emulsions have been attracting much attention in recent years, but two major defects related to the high consumption of organic solvent and surfactants are always difficult to solve. ^[14] PolyHIPEs, macroporous polymers synthesized within the external phases of high internal phase emulsions (HIPEs), have been developed for a wide range of applications (catalyst supports, tissue engineering, drug delivery) in which the leaching of traditional surfactants can become a significant liability. ^[15] In this review article, recent studies on the development and utilization of these advanced technologies are critically assessed, including nanoemulsions, high internal phase emulsions (HIPEs), Pickering emulsions, multilayer emulsions, solid lipid nanoparticles (SLNs), multiple emulsions, and emulgels. ^[16] Polydimethylsiloxane (PDMS) nanocomposite (NC) macroporous films were prepared by a Pickering high internal phase emulsion (HIPE) templating technique and used as effective dielectrics for enhancing the performance of triboelectric-nanogenerators (TENGs). ^[17] In this study, we present a feasible and common method of preparing Pickering high internal phase emulsions (HIPEs) with tunable inner morphology costabilized by a biosurfactant lecithin and silica nanoparticles. ^[18] Encouragingly, the Pickering high internal phase emulsions (HIPEs, φ = 0. ^[19] They are synthesized by the Sonogashira cross-coupling polymerization of 1,3,5-triethynylbenzene and 1,4-diiodobenzene, 2,5-dimethoxy-1,4-diiodobenzene or 2,6-diiodo-4-nitrophenol within the high internal phase emulsion (HIPE). ^[20] The stable SCL bilayer on the CaCO3 surface brings variable surface affinity in response to Ca2+/pH/CO2 triple triggers, endowing the ASCL@CaCO3 to stabilize high internal phase emulsions, switch on/off Pickering emulsions, and even lead to emulsion inversion. ^[21] PolyHIPEs prepared by polymerizing high internal phase emulsions (HIPEs) normally have a cross-linked structure, with the cross-linking providing the mechanical stability to maintain the porous structure and prevent collapse during cure and uses. ^[22] In this study, we used amines electrolyte solution with layer-by-layer (LbL) technique to modify and increase the CO2 adsorption capacity of highly porous polymer from high internal phase emulsion template polymer. ^[23] This article describes a comprehensive study to obtain polymeric porous materials via a photopolymerization technique, using acrylate-based high internal phase emulsions (HIPEs), as a template. ^[24] In this study, we demonstrated the role of Pickering high internal phase emulsions (HIPEs) stabilized with the whey protein isolate (WPI)/(-)-epigallocatechin-3-gallate (EGCG) covalent conjugates on the storage and GIT passage viability of probiotics powder (Lactobacillus Plantarum). ^[25] Herein, we demonstrate for the first time the fabrication of hierarchical 3D MOF monoliths in situ within an MOF particle-stabilized high internal phase emulsion (HIPE). ^[26] Food-grade Pickering high internal phase emulsions (HIPEs) stabilized by a mixture of β-cyclodextrin (β-CD) and sugar beet pectin (SBP) were fabricated for the first time. ^[27] In the second part, high internal phase emulsions (HIPEs) in which the external phase consisted of polymerizable molecules were used as templates for polymer foam composites. ^[28] The PDMS foams, prepared following the high internal phase emulsion templating method, exhibit a porous interconnected structure and were further functionalized with a polydopamine (PDA) layer and in-situ grown silver nanoparticles (Ag NPs) upon successive dipping processes in dopamine and silver nitrate solutions. ^[29] This original method is based on the stabilization of a Pickering High Internal Phase Emulsion (HIPE) by MOF particles that conducts to the formation of a monolith after polymerization of the aqueous continuous phase and elimination of the organic internal phase of the emulsion. ^[30] We describe the design of functional hierarchical pores in polymer monoliths on the basis of inverse, water-in-oil (w/o), high internal phase emulsions. ^[31] MIL-68(In)–NH2 incorporated high internal phase emulsion polymeric monoliths were fabricated and applied to extract and determine triazine herbicide residues in environmental water samples. ^[32] High-internal phase emulsions (HIPEs) were considered as an important functional material and have been the focus of intense development effort, but their fundamental attributes have hardly been altered at either the microcosmic or macroscopic level, which severely limits their practical applications in various areas. ^[33] The emulsification stabilizing capability of the CaCO 3 NPs also favored the formation of high internal phase emulsion at a high φ of 0. ^[34] High internal phase emulsion templating represents a route to produce highly porous polymer scaffolds capable of supporting cell in-growth. ^[35] In this work, we report for the first time the use of bacterial cellulose nanofibers/soy protein isolate (BCNs/SPI) composite colloidal particles as nature materials to be an effective particle stabilizer for the development of high internal phase emulsion (HIPE, oil-in-water) with 75% oil phase. ^[36] In this study, the gelatin crosslinked by Transglutaminase (TG) was applied to stabilize food-grade high internal phase emulsions (HIPEs) by a facile one-step method. ^[37] Pickering high internal phase emulsions (HIPEs) have attracted tremendous attention as solid fat substitutes due to their high stability. ^[38] Antarctic krill oil (AKO) with 5–30% (w/w) dilution by soybean oil was co-emulsified by phospholipids (PLs) naturally present in AKO and 2% (w/w) casein in the aqueous phase to prepare high internal phase emulsions (HIPEs). ^[39] Effects of high internal phase emulsion (HIPE) stabilized by egg yolk-modified starch complex on the gelling properties of chicken gels with or without sodium chloride (NaCl)/sodium tripolyphosphate (TP) were studied. ^[40] Novel high internal phase emulsions (HIPEs, O/W) with gelled oil phase were fabricated via a facile approach using all-natural ingredients. ^[41] Amphiphilic NS-1 can spontaneously assemble at the water/oil interface of high internal phase emulsions (HIPEs) to reduce the interfacial tension, and can also be firmly immobilized onto porous foam substance (NS-1-HIPEs) by initiating the continuous phase. ^[42] The hierarchically bicontinuous polystyrene monoliths (HBPMs) with homogeneous skeletons and glycopolymer surfaces are fabricated for the first time based on the medium internal phase emulsion (MIPE) templating method via activator generated by electron transfer for atom transfer radical polymerization (AGET ATRP). ^[43] High internal phase emulsions (HIPEs) with an internal phase fraction of 84 vol % were prepared using carboxymethyl cellulose (CMC) and palm kernel oil ethoxylates (SOE-N-60) as a dual emulsifier. ^[44] The purpose of this study was to investigate the impact of PMF crystallization on the microstructure, stability and bioaccessibility of PMF-loaded high internal phase emulsions (HIPE) stabilized using protein and polysaccharide complexes. ^[45] In this study, the influence of pH on the conformational state of EHT, which was obtained from the enzymatic hydrolysis of trypsin, and the stabilizing properties of high internal phase emulsions have been demonstrated. ^[46] The stabilizing effect of pecan protein (PP)/xanthan gum (XG) complex on the Pickering high internal phase emulsion (HIPE) has been examined in this study. ^[47] The objective of this work was to structure sunflower oil forming emulsions and High Internal Phase Emulsions (HIPEs) using pea protein (PP) and xanthan gum (XG) as a stabilizer, promoting or not their electrostatic attraction. ^[48] In this work, we report on highly transparent and stable high internal phase emulsions (HIPEs) stabilized by protein in general and globular proteins in particular using a refractive index (RI)-matching technique. ^[49] For this purpose, homogenous high internal phase emulsion polymer materials with an immobilized silver catalyst were prepared and used as a continuous plug flow reactor. ^[50]
이 연구에서 피페라지닐 기반 유화제(EA/AMPA)를 합성하여 유중수(W/O) 고 내부 상 에멀젼(HIPE)을 제조했습니다. ^[1] 이 연구에서 계층적으로 상호 연결된 다공성 폴리머의 구조는 유중수(water-in-oil)가 있는 고 내부 상 에멀젼(HIPE)에 의해 제조되었으며 물에서 붕소를 제거하는 데 사용되었습니다. ^[2] nan ^[3] nan ^[4] nan ^[5] nan ^[6] nan ^[7] nan ^[8] 여기에서 분자 구조가 다른 양친매성 옥테닐 숙신산 무수물(OSA) 전분(OSA-1, OSA-2 및 OSA-3)을 안정제로 사용하여 액체 오일을 연고체 고 내부상 에멀젼(HIPE)으로 변환하고 HIPE 템플릿으로 HIPE 및 올레오겔을 안정화하는 능력과 관련하여 OSA 전분의 분자 구조를 조사한 올레오겔이 추가로 구성되었습니다. ^[9] nan ^[10] nan ^[11] nan ^[12] 분자 각인된 중합된 고내부상 에멀젼(MIP-polyHIPE) 흡착제는 플라크 방지제인 클로피도그렐(clopidogrel)을 선택적으로 분리하고 사전 농축하기 위해 사용되었습니다. ^[13] nan ^[14] nan ^[15] nan ^[16] nan ^[17] nan ^[18] nan ^[19] nan ^[20] nan ^[21] nan ^[22] nan ^[23] nan ^[24] nan ^[25] nan ^[26] nan ^[27] nan ^[28] 높은 내부 상 에멀젼 템플릿 방법에 따라 제조된 PDMS 폼은 다공성 상호 연결된 구조를 나타내며 도파민 및 질산은에 연속적인 침지 공정에서 폴리도파민(PDA) 층 및 제자리에서 성장된 은 나노입자(Ag NP)로 추가 기능화되었습니다. 솔루션. ^[29] nan ^[30] nan ^[31] nan ^[32] nan ^[33] nan ^[34] 높은 내부 상 에멀젼 템플릿은 세포 내 성장을 지원할 수 있는 다공성 고분자 지지체를 생산하는 경로를 나타냅니다. ^[35] nan ^[36] 이 연구에서는 TG(Transglutaminase)에 의해 가교된 젤라틴을 적용하여 손쉬운 1단계 방법으로 식품 등급의 내부 상 에멀젼(HIPE)을 안정화했습니다. ^[37] nan ^[38] nan ^[39] nan ^[40] nan ^[41] nan ^[42] nan ^[43] nan ^[44] nan ^[45] nan ^[46] nan ^[47] nan ^[48] 이 작업에서 우리는 일반적으로 단백질에 의해 안정화되고 특히 굴절률(RI) 일치 기술을 사용하여 구형 단백질에 의해 안정화된 매우 투명하고 안정적인 고 내부 상 에멀젼(HIPE)에 대해 보고합니다. ^[49] nan ^[50]

Middle Phase Emulsion 중간상 에멀젼

At this stage, it consists of a compatibility test, interfacial tension (IFT) test, and phase behavior test with the middle phase emulsion. ^[1] The purpose of this study was to determine the effect of the middle phase emulsion and interfacial tension on the recovery factor results. ^[2] Phase behavior tests were carried out to find the middle phase emulsion formation. ^[3]
이 단계에서 상용성 시험, 계면 장력(IFT) 시험, 중간상 에멀젼과의 상 거동 시험으로 구성된다. ^[1] 이 연구의 목적은 중간상 에멀젼과 계면 장력이 회복 인자 결과에 미치는 영향을 확인하는 것이었습니다. ^[2] nan ^[3]

phase emulsion templated

Porous high internal phase emulsion templated polymers (PHPs) with/without carbon nanofiber (CNF) frameworks were synthesized for shape-stabilization of hexadecanol (HD) selected as phase change material (PCM) for thermal energy storage (TES) applications. ^[1] In this work the mechanical properties of high internal phase emulsion templated Ring-opening Metathesis Polymerization cured poly(dicyclopentadiene) (pDCPD) foams of 90% porosity prepared with varying surfactant amounts are studied. ^[2]

phase emulsion templating 위상 에멀젼 템플릿

The PDMS foams, prepared following the high internal phase emulsion templating method, exhibit a porous interconnected structure and were further functionalized with a polydopamine (PDA) layer and in-situ grown silver nanoparticles (Ag NPs) upon successive dipping processes in dopamine and silver nitrate solutions. ^[1] High internal phase emulsion templating represents a route to produce highly porous polymer scaffolds capable of supporting cell in-growth. ^[2]
높은 내부 상 에멀젼 템플릿 방법에 따라 제조된 PDMS 폼은 다공성 상호 연결된 구조를 나타내며 도파민 및 질산은에 연속적인 침지 공정에서 폴리도파민(PDA) 층 및 제자리에서 성장된 은 나노입자(Ag NP)로 추가 기능화되었습니다. 솔루션. ^[1] 높은 내부 상 에멀젼 템플릿은 세포 내 성장을 지원할 수 있는 다공성 고분자 지지체를 생산하는 경로를 나타냅니다. ^[2]