Imbentin -U Series effective alternatives to NPE s and Tridecanolethoxylates

Similar documents
Development of heavy-duty degreasers with low CLP labelling Microemulsions Part II

Defoaming Surfactants

BIO-SOFT. N-Series Product Guide

Cognis EP Surfactants. Matthew Guo / June 1st, 2011 Functional Products

Dow Surfactants. A guide to products and performance for paints and coatings

Defoaming Surfactants

Berol SurfBoost AD15 A sustainable solution for cleaning

SP Technical Research Institute of Sweden

By Anastasia Mardilovich Behr, Luis Madrigal, Cynthia Pierre, Gregory Monaghan, and Flor Castillo The Dow Chemical Company

Dow Surfactants. A guide to products and performance for paints and coatings

SURFACE COATINGS. Paint, Ink, Adhesives, Elastomers, Performance Coatings, UV Curing, Latex Emulsion

Introduction of emulsions Effect of polysaccharides on emulsion stability Use of polysaccharides as emulsifier. Polysaccharides in Food Emulsions

Lutensol TO types. Technical Information

SURFONIC. Performance Emulsifiers for Metalworking Fluids

Silicone Polyether Surfactants and Derivatives

Agro Ingredients. Velcis Formulated Performance for Plant Protection

DOWFAX. Nonionic Surfactants DOW POLYGLYCOLS. High-performance polyglycols for demanding applications

Product Guide. Tomadol Ethoxylated Alcohols

Emulsions. Purpose of emulsions and of emulsification:

Interactions between Bisphosphate. Geminis and Sodium Lauryl Ether

Past and Future of Universal Colorants in Coatings. Gülcay Bükrü, Evonik Resource Efficiency

Usable in formulations. Active content [%] Flash point [ C] Delivery form. Chemical description. Product. Solvent. Solvent free UV curing.

The fundamentals of contact angle, surface energy and surface tension. Welcome to a day of surface science

CHEM 470 Surfactant Science

Dow Surfactants Reference Chart

Realizing Performance Benefits Through Alcohol-Based Surfactant Optimization

Optimizing performance while helping to meet environmental regulations.

Metalworking Chemicals

APPLIED CHEMISTRY SURFACE TENSION, SURFACTANTS TYPES OF SURFACTANTS & THEIR USES IN TEXTILE PROCESSING

SAFETY DATA SHEET 1. IDENTIFICATION OF THE SUBSTANCE / PREPARATION AND OF THE COMPANY / UNDERTAKING

Yeast-derived Surfactant Synergists for Cleaning, Bioremediation and Agriculture

New generation of phosphate-esters for MWF: balancing performance, labeling and economics.

ISM08. Surfactants II Chapters 3 and 4

Biopharmaceutics Dosage form factors influencing bioavailability Lec:5

Chemistry. CAS Number : Kao Chemicals Europe O R N H R = C 17 H AMIDET N In-Cosmetics th April 2012

Agrochemical Adjuvants Guide

Dextrol and Strodex Surfactant Selection Guide

Efficiency of Amphoteric Surfactants as Flow Improvers and Pour Point Depressants

AADE-02-DFWM-HO-24. Copyright 2002 AADE Technical Conference

ACUSOL DETERGENT POLYMERS

Metalworking Chemicals

Additives for waterborne coatings

Thermosept alka clean forte

Colloid Chemistry. Lecture #2 Association colloid

Compatibility of Nonionic Surfactants with Membrane Materials and their Cleaning Performance

Colloid chemistry. Lecture 13: Emulsions

Technical Information Pluracare L/F Grades July 2009 Supersedes issue dated March 2008 Poloxamer 04_070801e-01/Page 1 of 10 Personal Care

Water-free Anionic Surfactants

STEPOSOL MET-10U A GREEN SURFACTANT SOLUTION TO SOLVENT REPLACEMENT

SAFETY DATA SHEET. PC35: Washing and cleaning products (including solvent based products).

44 Full Text Available On Research Article!!! Pharmaceutical Sciences. Received: ; Accepted:

A New Look at Old Stuff. Molecular Heterogeneity of Polysorbates and Its Implications Studied with LC-MS.

A Novel Sulfonated Alkyl Ester Surfactant to Reduce Oil-Water Interfacial Tensions in Wide Range Salinity with Monovalent and Divalent Ions

Industrial & Consumer Specialties CROP SOLUTIONS

Developments of Multifunctional Additives for High Quality Lube Oil

Surfactants. The Basic Theory. Surfactants (or surface active agents ): are organic compounds with at least one lyophilic. Paints and Adhesives

B. semisolid materials consisting of hydrophilic and hydrophobic portions

NORTH AMERICA. Industrial and Institutional Cleaning Solutions Overview

Emulsion Polymerization Product Catalog

SAFETY DATA SHEET 1. IDENTIFICATION OF THE SUBSTANCE/PREPARATION AND OF COMPANY.

New Emulsifiers for MWF: balancing performance, regulation and economics F+L week 2016, Singapore, March v2 Claude-Emmanuel Hédoire

The main campus today

Physical Pharmacy. Interfacial phenomena. Khalid T Maaroof MSc. Pharmaceutical sciences School of pharmacy Pharmaceutics department

Radia Easysurf. Radia. Radia. Radia

Journal of Science and Technology UTHM

LIFE IS WHEN IT HAS NAFTA

FORMULATION CHOICE. How and why they are chosen. Dr Andy Fowles On behalf of ECPA Specification Expert Group

The Power of "ene" in Water-Based Cleaners and Removers: A New-to-the-World Metathesis-Based Surfactant Makes Water Work Like an Organic Solvent

METALWORKING CHEMICALS

Silicone Surfactants. Group Opposites. Amphilic Compounds

In 2010 a new concept of branched short chain fluorosurfactants

The Function of Emollients in Skin Care

Pictorially a surfactant molecule is traditionally shown as in Figure 1.

Chemical Solutions for Emulsion Polymerization

Lecipro AOCS Lecithin SC Montreal

Surfactant Aggregation

General leaflet waxes Licowax, Licomont, Licolub, Licocare, Licocene, Ceridust

SAFETY DATA SHEET. Brick Kleen. Section 1: Identification of the substance/mixture and of the company/undertaking

SAFETY DATA SHEET. Section 1: Identification of the substance/mixture and of the company/undertaking. Section 2: Hazards identification

SAFETY DATA SHEET CLEAR EPOXY GEL COAT & HARDENER

ACUSOL 820 Rheology Modifier/Stabilizer

Polymers, Coatings & Inks Top Performance On Any Surface

Figure: 11.1 Working of Emulsifier

Global Oilfield Solutions. Demulsifiers for the Oil Industry: Basorol

No Change Service! Version Revision Date Print Date

Zaiput Flow Technologies

Synthesis and application of ecofriendly liquid detergents of mixed carbohydrates and glycol origin

Product Information PREVENTOL RI 80/RI 50

Selecting Silicone Surfactants for Personal Care Formulations

SAFETY DATA SHEET (according to EC directive 1907/2006) Update : Version: 1.3 Date : BREAK-THRU S 240

Emulsions. BY Dr. Jarupa Viyoch. Dept. of Pharmaceutical Technology (2106)

DISPONIL AES 60 is an emulsifier for the manufacture of finely dispersed emulsion polymers, in particular for

Evaluation of wetting and dispersing additives for the use in waterborne anticorrosive paints. Düsseldorf, , Martin Muth

STEPAN-MILD L3 A NEW MULTI-FUNCTIONAL SURFACTANT

MATERIAL SAFETY DATA SHEET

Mode of action of emulsifiers. Manufacture of emulsions

SAFETY DATA SHEET 1. IDENTIFICATION OF THE SUBSTANCE / PREPARATION AND OF THE COMPANY / UNDERTAKING

Dispersants and Additives. for Coatings and Ink Applications

Sasol Olefins & Surfactants. ISOFOL C 12 C 32 Defined Branched Guerbet Alcohols

J. Meyer, R. Scheuermann, H.H. Wenk: Simple Processing of PEG-free Nanoemulsions and Classical Emulsions

Transcription:

Imbentin -U Series effective alternatives to NPE s and Tridecanolethoxylates

Imbentin -U: effective alternatives to NPE s and Tridecanol ethoxylates Imbentin -U products are ethoxylates of iso-undecanol (C11 oxo alcohol PEG-ether). They are efficient alternatives to Nonylphenolethoxylates (NPE s) and iso-tridecanol ethoxylates (C13 oxo alcohol PEG-ether). The Imbentin -U series show good wetting properties and high performance in emulsification. The following graphics compare products with equivalent HLB-value and cloud point. For comparison of all types see last page. Imbentin -U can be used as dispersants, emulsifiers or solubilisers. Potential applications include: industrial and institutional cleaning textile auxiliaries paints and coatings other technical applications, e.g. metal degreasing, agro formulations, emulsion polymers Imbentin -U/7: Undeceth-7 Imbentin -N/55: NP-9 Imbentin -T/8: Trideceth-8 Foaming of Imbentin -T/8, -N/55, -U/7 EN 12728 Perforated disc beating method, 25 C, deion. Water Foaming of Imbentin -T/8, -N/55, -U/7 EN 12728 Perforated disc beating method, 4 C, deion. Water 4 4 3 3 3 3 Foam volume (ml) 2 2 1 Foam volume (ml) 2 2 1 1 1 1 3 5 1 3 Time (min) 1 3 5 1 3 Time (min) The foaming behavior (initial foaming) of Imbentin -U/7 at 25 C is more pronounced than with tridecanol- and nonylphenol ethoxylates. The foam values are comparable after 5 min. At 4 C, the initial foaming of Imbentin -U/7 is relativised. Even after 3 min., the foam values are comparable or better. 3 Wetting power Imbentin -T/8, -N/55, -U/7 on Cotton ISO 822, 199 modified, Draves test, 25 C > 3 s 3 Wetting power Imbentin -T/8, -N/55, -U/7 on Cotton ISO 822, 199 modified, Draves test, 4 C > 3 s 2 2 Wetting time (s) 2 1 1 Wetting time (s) 2 1 1.1.1.5 1 2 3 5 1 Conc. (g/l).1.1.5 1 2 3 5 1 Conc. (g/l) The wetting times of Imbentin -U/7 at 25 C are comparable with those of tridecanol- and nonylphenol ethoxylates. At 4 C, the wetting times are reduced in the case of all products. The wetting times are comparable when a quantity of at least.5 g/l is used.

Tendency to gel formation in water mixtures at 25 C % H 2 1 2 3 4 6 7 8 9 Imbentin-U/7 Imbentin-T/8 Imbentin-N/55 low viscous solution low viscous gel high viscous gel One major advantage of Imbentin -U/7 compared with tridecanol- and nonylphenol ethoxylates is its complete miscibility with water without passing through a gel phase. Static surface tension of Imbentin -T/8, -N/55, -U/7 at 25 C DIN 53914, Wilhelmy plate, Krüss K12 7 6 4 3 Increase of Efficiency Surface tension reduction Increase of Effectiveness The lower efficiency of Imbentin -U/7 is not relevant within the usual practical concentrations. The higher effectiveness, however, proves the strong surfactant behavior and lead to better cleaning properties. cmc (mg/l) 36 58 338 2 1-1 1 1 1 1 2 1 3 1 4 1 5 Conc. (mg/l) The cmc of Imbentin -U/7 is higher than its tridecanol- and nonylphenol ethoxylates counterparts. The obvious advantages of the effectiveness of Imbentin -U/7 compared with nonylphenol ethoxylate are shown in application-relevant concentrations. Dynamic interfacial tension of Imbentin -T/8, -N/55, -U/7 at 25 C. Drop volume method, Krüss DVT 3, g/l Dynamic surface tension of Imbentin -T/8, -N/55, -U/7 at 25 C Bubble pressure method, Krüss BP2, 1 g/l 1.5 1..5 Increase of dynamic interfacial tension reduction 45 4 35 3 25 Increase of dynamic surface tension reduction..1 1 1 1 Surface age (s) 2 1 1 1 1 2 1 3 1 4 1 5 Surface age (ms) The ability to rapidly form a surfactant film on the surface or interface area and to persistently maintain it is an indication of its emulsifying property. In the case of Imbentin -U/7 as well as the comparable products, it is strongly pronounced.

Imbentin-U/... 3 6 7 8 1 Undecanol with... 3 EO 5 EO 6 EO 7 EO 8 EO 1 EO Specifications Appearance (25 C): liquid liquid liquid liquid liquid liquid ph (1% in deion. water): 5-7 5-7 5-7 5-7 5-7 5-7 Color (Hazen): max. 6 max. 6 max. 6 max. 6 max. 6 max. 6 Water content [%]: max..5 max..5 max..5 max..5 max..5 max..5 Cloud point (5g in 25g BDG 25% [ C]): 43-48 6-65 67-72 Cloud point (1% in deion. water [ C]): 51-56 61-66 83-88 Typical properties; (approx.) Viscosity (25 C [mpas]): 3 4 47 55 61 77 Density (25 C [g/cm 3 ]):.94.97.98.99 1 1.2 Pour point [ C]: < -15-7 6 7 12 2 HLB: 9 11 12 13 13.5 14.5 Wetting time (2g/l, 25 C, [s]; Draves test): n.a. 2 2 2 2 6 Relative foam heights 1, (.5 g/l, 25 C, [%]): minutes: n.a. 62 7 66 79 81 1 minutes: n.a. 5 22 22 24 27 Environmental aspects CAS No.: 12736-24-2 12736-24-2 12736-24-2 12736-24-2 12736-24-2 12736-24-2 EINECS No.: OECD-Polymer OECD-Polymer OECD-Polymer OECD-Polymer OECD-Polymer OECD-Polymer Biodegradability (OECD 32 B) (%): > 9 > 9 > 9 > 9 > 9 > 9 Biodegradability (OECD 31 B): readily readily readily readily readily readily LC (mg/l): > 11 > 11 > 11 > 26 > 1 > 9 LD (g/kg): ca. 1.4 ca. 1.4 ca. 1.4 ca. 1.4 ca. 1.4 ca. 1.4 Classification symbol: Xi Xi Xn Xn Xn Xn irritant irritant harmful harmful harmful harmful WGK 2 : 2 hazardous 2 hazardous 2 hazardous 2 hazardous 2 hazardous 2 hazardous Alternative 3 to: Nonylphenolethoxylate: Imbentin- Imbentin- Imbentin- Imbentin- Imbentin- Imbentin- N/4 N/6 N/35 N/55 N/63 N/82 (NP4) (NP6) (NP8) (NP9) (NP1) (NP12) Tridecanolethoxylate: Imbentin- Imbentin- Imbentin- Imbentin- Imbentin- Imbentin- T/3, T/ T/7 T/8, T/9 T/12 T/35 T/85 (C13+3EO) (C13+5EO) (C13+7EO) (C13+8EO) (C13+9EO) (C13+12EO) 1 Perforated disc beating method (EN 12728). SDS was used as reference surfactant 2 German List of substances subject to the water endangering substance regulation 3 products with equivalent HLB-value and cloud point Dr. W. Kolb AG CH-898 Hedingen Switzerland Telefon +41 1 762 46 46 Fax +41 1 762 46 www.kolb.ch

SPECIFICATION CHEMICALS Imbentin -U effective NPE alternatives of Kolb This short study presents results of dynamic surface and interfacial tension of selected isoundecyl alcohol-, isotridecyl alcohol-, and nonylphenol ethoxylates in comparison. The materials investigated are the isoundecyl and isotridecyl alcohol based ethoxylates Imbentin -U/7 (FA11-7EO) and Imbentin -T/8 (FA13-8 EO) and the nonylphenol based ethoxylate Imbentin -N/55 (NP-9EO). The structural characteristics of the products are partly different. There is a similar chemistry in the hydrophilic part (POE chain) but a different chemistry in the lipophilic part of the molecules. NPE s are bulky branched aliphatic/aromatic. FAE s are branched aliphatic. Dynamic surface tension [mn/m] 45 4 35 3 25 Dynamic surface tension, 25ºC Maximum bubble pressure method, Krüss BP2, 1 g/l NP-9EO FA13-8EO FA11-7EO 2 1 1 1 1 2 1 3 1 4 1 5 Surface age [ms] The struture of the surfactant molecules determines the performance. Surface tension is defined as the energy required to create a certain liquid/air interface. When the new surface area created is between two immiscible liquids, this energy is referred to as interfacial tension. The time-dependent dynamic surface and interfacial tension data will prove to be a very characteristic parameter for the evaluation of wetting and emulsification processes. Both processes are determined by the kinetic of adsorption of surfactant molecules at specific interfaces. In the following figure the dependence of the dynamic surface tension from the increasing surface age of NP-9EO, FA11-7EO and FA13-8EO is demonstrated at constant temperature and concentration measured by using the maximum bubble pressure method. The dynamic surface tension of the species observed can be attributed to the speed of the diffusion process of the surfactant molecules at the air-water interface. It seems to be clear that the smallest molecule, such as FA11-7EO, offers the highest diffusion rate in comparison to the short surface age of about 1 to 1 ms and that is why it supports wetting processes. At higher surface ages at about 1 s the data confirm the static surface tension data of the products as expected. In the case of the dynamic interfacial tension date obtained by using the drop volume method the surfactants investigated indicate a strong lowering of the interfacial energy between water and decane. The concentration of the individual surfactants has been kept constant at five times above the c.m.c.. Dynamic interfacial tension data below 1 mn/m could be measured at surface ages between 1 and 1 s which is related to the typical time scale for droplet build up and stabilisation during emulsification processes. Again the fastest dynamic interfacial tension reduction was detected for the FA11-7EO, which implies advantages caused by the molecular size and structure of the molecule. Dynamic interfacial tension µ [mn/m] 5 4 3 2 1 Dynamic interfacial tension, 25ºC, Decane Drop volume method, Krüss DVT 3 The aim of this paper was to show that short chain highly branched alcohol ethoxylates on the basis of isoundecyl alcohol can act as the alternative products to isotridecyl alcohol ethoxylates and nonylphenol ethoxylates. Dr. H.L. Lothar Möhle, Technical Marketing & Sales Manager Specification Chemicals NP-1EO.24 g/l T-range 12 EO.65 g/l U-range 1 EO 3.1 g/l.1 1 1 1 1 Surface age [s] (full text version H.L. Möhle, et al. SÖFW Journal 126,6(21) 24 ff)