HYDROPHOBICALLY MODIFIED POLYSACCHARIDES IN HOUSEHOLD PREPARATIONS

Abstract: A household preparation product composition is composed of from about 0.1 % to about 99 % by weight of a vehicle system which comprises a hydrophobically modified water soluble polysaccharide polymer which comprises a water soluble polysaccharide polymer backbone, a hydrophobic moiety of 1) 3-alkoxy-2-hydroxypropyl group wherein the alkyl moiety is a straight or branched chain having 3-24 carbon atoms, or 2) C3-C24 alkyl, aryl alkyl, alkyl aryl groups and mixtures thereof, wherein the hydrophobic moiety is present in an amount up to the amount which renders said polysaccharide less than 1 % by weight soluble in water, and at least one other household care ingredient. The composition can be used in a wide range of cleaning, polishing, sanitizing, pesticidal and toilet preparation applications such as air deodorants/fresheners, rug and upholstery shampoos, insect repellent lotions, children's bubble-making solutions, pet care products such as shampoos and deodorizer, soap bar and institutional liquid soap, all purpose kitchen cleaner and disinfectants, toilet bowl cleaners, fabric softener-detergent, fabric softener, fabric sizing agents, dishwashing detergents, vehicle cleaners and shampoos.

Description: HYDROPHOBICALLY MODIFTED POLYSACCHARIDES IN HOUSEHOLD PREPARATIONS This invention relates to the use of hydrophobically modified polysaccharides in household care products (which are define as a cleaning, polishing, sanitizing, pesticidal, and toilet preparations). More specifically, this invention relates to the use of such polysaccharides in such products where the alkyl moiety of the hydrophobe has 3-24 carbon atoms. BACKGROUND OF THE INVENTION Prior to the present invention, water soluble polysaccharides have been used in cleaning, sanitizing, polishing, toilet preparations, and pesticide preparations; applications such as air deodorants/fresheners, rug and upholstery shampoos, insect repellent lotions, all purpose kitchen cleaner and disinfectants, toilet bowl cleaners, fabric softener-detergent combinations, fabric softeners, fabric sizing agents, dishwashing detergents, vehicle cleaners and shampoos. Widely used commercially available polysaccharides include water soluble polysaccharide ethers such as methyl cellulose (MC), hydroxypropylmethylcellulose (HPMC), hydroxyethylcellulose (HEC), hydroxypropylcellulose (HPC), ethylhydroxyethylcellulose (EHEC), hydroxypropyl (HP) guar, hydroxyethyl guar, guar, starch, and other nonionic starch and guar derivatives. The use of these prior art polysaccharides in such products are sometimes associated with processing difficulties such as compatibility with other ingredients, solubility with certain other ingredients, solution clarity (when needed) and stability under alkaline (or acidic) conditions of the products. US Patent numbers 5,106,609, 5,104,646, and 5, 100,658 are examples of patents that disclose the use of hydrophobically modified cellulose ethers in cosmetic products. These patents disclose the use of high molecular weight (i.e., 300,000 to 700,000) and long chain alkyl carbon substitution in the hydrophobe (i.e., 8 to 24 carbons ) for use in cosmetic composition. Also, US Patent numbers 4,228,277 and 4,352,916 describe hydrophobically modified cellulose ether derivatives, modified with long chain alkyl group substitution in the hydrophobe. US Patent number 4,845,207 discloses a hydrophobically modified nonionic, water-soluble cellulose ether and US Patent 4,939,192 discloses the use of such ether in building compositions. Certain of the prior art cellulose ethers have poor compatibility with salts or poor solubility in certain solvents such as polyhydric alcohols used in cleaning, sanitizing, polishing, pesticide and toilet preparation applications while others are not tolerant of alkaline or acidic conditions. Hence, a need still exists in the industry to have cellulose ethers that have good compatibility with salts, good solubility in certain solvents, and tolerance to acidic or alkaline conditions while producing products that do not have color problems, when desired. SUMMARY OF THE INVENTION The present invention is directed to a household product (which is defined as a cleaning, sanitizing, polishing, pesticide or toilet preparation) composition comprising: (a) from about 0.1% to about 99% by weight of a vehicle system which comprises a hydrophobically modified water soluble polysaccharide polymer which comprises a water soluble polysaccharide polymer backbone, a hydrophobic moiety selected from the group consisting of: 1) 3-alkoxy-2-hydroxypropyl group wherein the alkyl moiety is a straight or branch chain having 3-24 carbon atoms, or 2) C 3 -C 24 alkyl, aryl alkyl, alkyl aryl groups and mixtures thereof, wherein the hydrophobic moiety is present in an amount up to the amount which renders said polysaccharide less than 1% by weight soluble in water, and (b) at least one other cleaning, sanitizing, polishing, pesticide or toilet preparation product ingredient. DETAILED DESCRIPTION OF THE INVENTION It has been surprisingly found that hydrophobically modified polysaccharides have various advantageous properties over prior art water soluble polysaccharides in cleaning, polishing, sanitizing, pesticidal, toilet or perfume products. Any water soluble polysaccharide or derivatives can be used as the backbone to form the hydrophobically modified polysaccharide of this invention. Thus, e.g., hydroxyethylcellulose (HEC), hydroxypropylcellulose (HPC), methylcellulose (MC), hydroxypropylmethylcellulose (HPMC), ethylhydroxyethylcellulose (EHEC), and methylhydroxyethylcellulose (MHEC) and, agar, dextran, locust bean gum, starch, guar and their nonionic derivatives can all be modified. The amount of nonionic substituent such as methyl, hydroxyethyl, or hydroxypropyl does not appear to be critical so long as there is a sufficient amount to assure that the ether is water soluble. The polysaccharides of this invention have a sufficient degree of nonionic substitution to cause them to be water soluble and a hydrophobic moiety where selected from the group consisting of 1) 3-alkoxy-2-hydroxypropyl group wherein the alkyl moiety is a straight or branch chain having 3-24 carbon atoms, or 2) C 3 -C 24 alkyl, aryl alkyl, alkyl aryl groups and mixtures thereof, wherein the hydrophobic moiety is present in an amount up to the amount which renders said polysaccharide less than 1% by weight soluble in water When the hydrophobe is an alkyl, aryl alkyl, or alkyl aryl moiety, the number of carbons can be 3-24, preferably 3-22, more preferably 4-18, and most preferably 4-16 The preferred polysaccharide backbone is hydroxyethylcellulose (HEC) The HEC which is modified to function in this invention is a commercially available material Suitable commercially available materials are marketed by the Aqualon Company, a division of Hercules Incorporated, Wilmington, Delaware U S A , under the trademark Natroso The alkyl modifier, cationic group, anionic group and zwitterionic group can be attached to the polysaccharide backbone via an ether, ester, or urethane linkage Ether is the preferred linkage as the reagents most commonly used to effect etherification because it is readily obtainable, the reaction is similar to that commonly used for the initial etherification, and the reagents used in the reaction are usually more easily handled than the reagents used for modification via the other linkages The resulting linkage is also usually more resistant to further reactions An example of the polysaccharide of the present invention is the 3-alkoxy-2- hydroxypropylhydroxyethylcellulose that is substantially completely soluble in water at ambient temperature The hydrophobic moiety is generally contained in an amount of about 0 05 to about 50 wt %, preferably about 0 1 to about 25 wt %, based on the dry weight of the substituted polymer The alkyl group of the 3-alkoxy-2-hydroxypropyl group can be a straight chain alkyl group or branched alkyl group having 3 to 24 carbon atoms Exemplary modifying radicals are propyl-, butyl-, pentyl-, 2-ethylhexyl, octyl, cetyl, octadecyl, and docosapolyenoic glycidyl ether The hydrophobically modified polysaccharide of the present invention is an essential ingredient of the system Another ingredient that may be in the system is a surfactant that can be either soluble or insoluble in the composition A compatible solvent may also be used in the system that can be either a single solvent or a blend of solvents Examples of the surfactants are anionic, nonionic, cationic, zwitterionic, or amphoteric type of surfactants The surfactant can be soluble or insoluble in the present invention and (when used) is present in the composition of from 0.01 to about 50% by weight of the composition. Synthetic anionic surfactants include alkyl and alkyl ether sulfates. Specific examples of alkyl ether sulfates which can be used in the present invention are sodium coconut alkyl trimethylene glycol ether sulfate; sodium tallow alkyl trimethylene glycol ether sulfate; and sodium tallow alkyl hexaoxyethylene sulfate. Sodium tallow alkyl diethylene glycol ether sulfate; and sodium tallow alkyl sulfate. Nonionic surfactants, can be broadly defined as compounds containing a hydrophobic moiety and a nonionic hydrophilic moiety. Examples of the hydrophobic moiety can be alkyl, alkyl aromatic, dialkyl siloxane, polyoxyalkylene, and fluoro-substituted alkyls. Examples of hydrophilic moieties are polyoxyalkylenes, phosphine oxides, sulfoxides, amine oxides, and amides. Cationic surfactants useful in vehicle systems of the compositions of the present invention, contain amino or quaternary ammonium hydrophilic moieties which are positively charged when dissolved in the aqueous composition of the present invention. Zwitterionic surfactants are exemplified by those which can be broadly described as derivative of aliphatic quaternary ammonium, phosphonium, and sulfonium compounds, which can be broadly described as derivative of aliphatic quaternary ammonium, phosphonium, and sulfonium compounds, in which the aliphatic radicals can be straight or branched chain, and wherein one of the aliphatic substituents contains from about 8 to about 18 carbon atoms and one contains as anionic water-solubilizing group, e.g., carboxy, sulfonate, sulfate, phosphate, or phosphonate. Examples of amphoteric surfactants which can be used in the vehicle systems of the compositions of the present invention are those which are broadly described as derivatives of aliphatic secondary and tertiary amines in which the aliphatic radical can be straight or branched chain and wherein one of the aliphatic substituents contains from about 8 to about 18 carbon atoms and one contains an anionic water solubilizing group, e.g., carboxy, sulfonate, sulfate, phosphate, or phosphonate. According to the present invention, the solvent used in the system should be compatible with the other components in the present composition. Examples of the solvents used in the present invention are water, water-lower alkanols mixtures, and polyhydric alcohols having from 3 to 6 carbon atoms and from 2 to 6 hydroxyl groups. Preferred solvents are water, propylene glycol, water-glycerine, sorbitol-water, and water-ethanol The solvent (when used) in the present invention is present in the composition at a level of from 0 1% to 99% by weight of the composition The active component is optional because the dissolved polymer can be the active ingredient component. An example of this is the use of the polymer in a fabric sizing spray However, when an active ingredient is needed, it must provide some benefit to the user Examples of substances that may suitably be included according to the present invention are as follows. 1) Perfumes, which give rise to an olfactory response in the form of a fragrance and deodorant perfumes which in addition to providing a fragrance response can also reduce odor, 2) Insect repellent agent whose function is to keep insects from a particular area or attacking skin, 3) Bubble generating agent, such as surfactants which generates foam or lather, 4) Pet deodorizer such as pyrethrins which reduces pet odor, 5) Pet shampoo actives, whose function is to remove dirt, foreign material and germs from the skin and hair surfaces; 6) Industrial grade bar and liquid soap actives that remove germs, dirt, grease and oil from skin and sensitizes skin; 7) All purpose cleaning agents, that remove dirt, oil, grease, germs from the surface in area such as kitchens, bathroom, public facilities 8) Disinfecting ingredients that kill or prevent growth of germs in a house or public facility, 9) Rug and Upholstery cleaning actives which lift and remove dirt and foreign particles from the surfaces and also deliver softening and perfumes, 10) Laundry softener actives which reduces static and makes fabric feel softer, 1 1) Laundry detergent ingredients which remove dirt, oil, grease, stains and kills germs, 12) Dishwashing detergent actives which removes stains, food, germs, 13) Toilet bowl cleaning agents which removes stains, kills germs, and deodorizes, 14) Laundry prespotter actives which helps in removing stains from clothes, 15) Fabric sizing agent which enhances appearance of the fabric, 16) Vehicle cleaning actives which removes dirt, grease, etc from vehicles and equipments 17) Lubricating agent which reduces friction between parts The above list is only examples and is not a complete list of active ingredients that can be used Other ingredients that are use in these types of products are well known in the industry In addition to the above ingredients conventionally used, the composition according to the present invention can optionally also include ingredients such as a colorant, preservative, antioxidant, activity enhancer, emulsifiers, viscositying agents (such as salts, i e , NaCl, NH 4 C1 & KC1), alcohol and fats and oils The vehicle systems and compositions of the present invention can be made using conventional formulation and mixing techniques Methods of making various types of compositions are described more specifically in the following examples The following examples are merely set forth for illustrative purpose, but it to be understood that other modifications of the present invention within the skill of artisans in the industry can be made without departing from the spirit and scope of the invention. Definitions: "A" signifie tests data for the polymer of this invention, hydrophobically modified polysaccharide such as HMHEC 1, HMHEC 2, HMHEC 3, HMHEC 4, Natrosol®R/ws 330CS, Natrosol®R/ws 430CS and AQU D3441. "B" signifies test data for other polysaccharide not covered by the invention Viscosity: All viscosity measurements are made at 25°C after two minutes of spindle rotation using Brookfield viscometer. Ultra low viscosity spindle (UL) set up available from Brookfield Viscometer Company was used for the solutions with very low viscosity. Gel Strength: All samples brought to about 25°C prior to measuring the gel strength. The gel strength was measured using Voland LFRA Texture Analyzer Unit. 0.5 inches ( 1.11mm) diameter probe was used. The probe was lowered 2mm into the gel at a speed of 2mm/second. Three measurements were taken and the average was reported. A product with higher gel strength is considered a better product. A product with more consistent gel strength value over a period of long term storage is also considered as a better product. Syneresis: It is defined as liquid on the surface of the test sample. Product with lower syneresis is considered as a better product. Freeze/Thaw Cycle: For each freeze/thaw cycle the sample was kept in a freezer for 24 hours @ -5°C and then stored at about 25°C for 24 hours prior to measuring viscosity, syneresis, gel strength etc. Sag Test: The sag test was run at 40°C. The sample was stored free standing (unsupported) in the sealed jar and % change in the sample height was estimated with time in reference to initial sample height. The higher the %sag value, the poorer its performance. Example 1A. Toilet Soap Formula X32415-58A Ingredient Trade Mark Weight % A. Water 65.70 B. Modified Hydroxyethylcellulose Natrosol® Plus 330* 0.75 C. Hydroxyethylcellulose Natrosol® 250HR** 0.25 D. Methylparaben Methylparasept 0.10 E. Sodium C14-C16 olefin sulfonate BioTerge AS-40 20.00 F. Sodium lauroyl sarcosinate Hamposyl L-30 10.00 G Cocamide monoethanol amine Monamid CMA 3.00 H. Disodium EDTA 0.20 100.00 Procedure 1 The modified hydroxyethylcellulose and hydroxyethylcellulose products were dispersed in water and the pH was raised to about 8.0 - 8.5 while stirring for 45 minutes to dissolve the polymer mixture to form a solution. Methylparaben was then added to this solution. 2. In a separate vessel, the surfactants (components E, F and G) were combined, heated to 80°C, and mixed until homogeneous. 3. The surfactant solution was then added to the water-soluble polymer solution and mixed until well blended. 4. The Disodium EDTA was added to the blended solution and mixed for about 15 minutes, and then cooled to room temperature. Comparative Example IB. Toilet Soap Formula X32415-58B Sodium carboxymethylcellulose, Aqualon CELLULOSE GUM*** Type 7M, was substituted for Natrosol Plus® 330 in the above formula. The same procedure was followed. *Thιs polymer is hydrophobically modified hydroxyethylcellulose that is nonionic and contains both hydroxyethyl and long chain (l e , C ]6 ) alkyl group, and has Brookfield viscosity of 150-750 cps at 1 % at 25°C **Thιs product is hydroxyethylcellulose that is nonionic and has a Brookfield viscosity of 1500-2500 at 1% at 25°C ***CELLULOSE GUM 7M. It is anomic sodium Carboxymethylcellulose. It has carboxymethyl substitution between 0.65 and 0.90; and has Brookfield viscosity of 400-800cps at 2.0% at 25°C The toilet soap formulation "A" prepared with Natrosol® Plus 330 of this invention is stable at room temperature (about 25°C) for 12 weeks. In addition, it provided significantly higher viscosity than the formulation "B" prepared with CMC 7M. The formulation "A" did not show any phase separation at 40°C and at 5°C. The formulation "B" showed phase separation at all three temperature conditions. Examples 1A. And IB. Toilet Soap Formula Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Sodium C14-C16 olefin sulfonate Bio-Terge AS-40 Stepan Chemical Company Northfield, Illinois Sodium lauroyl sarcosinate Hamposyl L-30 W. R. Grace & Company Nashua, New Hampshire Cocamide MEA Monamid CMA Mona Industries Inc. Paterson, New Jersey Hydroxyethylcellulose Natrosol® 250 HR Hercules Incorporated Wilmington, Delaware Modified Hydroxyethylcellulose Natrosol® Plus 330 Hercules Incorporated Wilmington, Delaware Sodium carboxymethylcellulose Aqualon Hercules Incorporated CELLULOSE GUM Wilmington, Delaware Type 7M Methylparaben Methylparasept Kalama Chemicals, Inc. Seattle, WA Example 2A. Air Freshener Formulations - Hot Process X32415-49A Ingredient Trade Mark Weight % A Water 93.00 B Carrageenan Genu® Carrageenan Type CHP-1 ** 2.00 C Locust bean Gum LBG 99FL 50-50 025 D Modified Hydroxyethylcellulose HMHEC 1 * 0.75 E Propylene glycol 200 F Preservative Germaben II 1.00 G Fragrance FFS "Wildflower" 1 00 Total 100.00 Procedure Water (A) was heated to about 90°C while being stirred Polymers B, C and D were pre- mixed and added to the vortex of the water while mixing, then mixed for 10 minutes until dissolved The solution was then cooled to 70°C while stirring Next, the propylene glycol, Germaben II and fragrance were pre-mixed and added to the solution while mixing The solution was mixed for five minutes and then transferred to pack out containers and allowed to cool to room temperature. Comparative Example 2B. Air Freshener Formulations - Hot Process X32415-49B Hydroxyethylcellulose, Natrosol® 250HR, was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed * This compound is 3-butoxy-2-hydroxypropylhydroxyethylcellulose that has an aqueous viscosity at 25°C of a minimum of 2500 cps at 1%, measured on a Brookfield LVTD Viscometer, and a cloud point of about 72°-78°C, that is treated with glyoxal ** CHP1 Kappa carrageenan, not standardized with sugar or salt The air freshener formulation "A" made with HMHEC 1 was stable for 12 weeks at all three temperature conditions and in five freeze/thaw cycles A very low level of syneresis and very little sag was observed in a 40oC sag test Examples 2A & 2B. Air Freshener Formulations - Hot Process Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Hydroxyethylcellulose Natrosol® 250 HR Hercules Incorporated Wilmington, DE Modified Hydroxyethylcellulose* HMHECl * Hercules Incorporated 0690-30-1 Wilmington, DE Carrageenan** Genu® Carrageenan Hercules Incorporated Type CHP-1** Wilmington, DE Locust Bean Gum 99 FL 50-50 Hercules Incorporated Wilmington, DE Preservative, Germaben II Sutton Laboratory Propylene glycol(and) diazolidinyl Chatham, NY urea (and)Methylparaben (and) propylparaben Fragrance, "Wildflower" F&FS #42697 Flavor and Fragrance Specialties, Franklin Lake, NJ This compound is 3-butoxy-2-hydroxypropylhydroxyethylcellulose that has an aqueous viscosity at 25°C of a minimum of 2500 cps at 1%, measured on a Brookfield LVTD Viscometer. and a cloud point of about 72°-78°C, that is treated with glyoxal CHP1 Kappa carrageenan, not standardized with sugar or salt Example 3 Air Freshener Formulations - Hot Process Ingredients Weight % A Carrageenan 01.13% B HMHEC 1 00.50% C Fragrance (Cinnamon) 30.00% D Water 67.12% E Surfactant 00.25% F Germaben II 01.00% Total 100.00% Procedure Water was heated to about 90°C while being stirred and polymers A and B were added to the vortex of water and mixed for 10 minutes or until dissolved and then cooled to 80°C while continued stirring. Next, the preservative Germaben II and surfactant were added and mixed for five minutes. The fragrance was added and mixed for five minutes and the hot mixture was injected into a porous foam substrate and cooled to room temperature and sealed into a nonpermeable wrap. Genugel RLV' Carrageenan standardized with sugar Dowfax 2Al : Benzene, 1,1-oxybis, tetrapropylene derivative, sulfonated sodium from Dow Chemical Example 3 Air Freshener Formulation Hot Process Generic or CTFA Adopted Name Trade Mark Supplier Carrageenan Genu®gel RLV Hercules Incorporated Wilmington, DE Modified Hydroxyethyl cellulose HMHEC 1 Hercules Incorporated Benzene, 1,1-oxybis, Dowfax 2A1 Dow Chemicals tetrapropylene derivative, sulfonated sodium Preservative; Germaben II Sutton Laboratory Propylene glycol(and) diazohdinyl Chatham, NY urea (and)Methylparaben (and) propylparaben Fragrance, "Cinnamon" Flavor and Fragrance Specialties, Franklin Lake, NJ Example 4A. Air Freshener Formulations - Hot Process X32415-54A Ingredient Trade Mark Weight % A Water 96 50 B Agar Genu® Agar 900-Al 1 00 C Starch Thermflo 0 25 D Modified hydroxyethylcellulose Natrosol® Plus430* 0 25 E Preservative Germaben II 1 00 F Fragrance FFS "Wildflower" 1 00 100 00 Procedure Water (A) was heated to about 90°C while being stirred and polymers B, C and D were added to the vortex of water and mixed for 10 minutes or until dissolved Next, the solution was cooled to 70°C while stirring The preservative was added and mixed for five minutes The fragrance was added and mixed for five minutes and the mixture was transferred to a pack out container and cooled to room temperature Comparative Example 4B. Air Freshener Formulations - Hot Process X32415-54B Sodium carboxymethylcellulose, Aqualon CELLULOSE GUM** Type 7H, was substituted for Natrosol® Plus330 in the above formula The same procedure was followed *Natrosol® Plus430 is nonionic hydrophobically modified hydroxyethylcellulose It has long chain (C 16 ) alkyl group Aqueous viscosity at 1 0% is between 5000 - 9000 cps Brookfield viscometer at spindle 3, 6 rpm """CELLULOSE GUM 7H It is anoinic sodium Carboxymethylcellulose It has carboxymethyl substitution between 0 65 and 0 90, and has Brookfield viscosity of 1500-3000cps at 1 0% at 25°C The air freshener formulation "A" prepared with Natrosol® Plus 430 was stable at room temperature, 40°C and at 5°C A sag test it performed slightly better than the formulation "B" prepared with CMC 7H. Both samples showed poor freeze/thaw stability Examples 4A & 4B Air Freshener Formulations - Hot Process Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose* Natrosol®R///s430* Hercules Incorporated Wilmington, Delaware Sodium carboxymethylcellulose Aqualon Hercules Incorporated CELLULOSE GUM Wilmington, Delaware Type 7H Agar Agar Hercules Incorporated Wilmington, Delaware Starch Thermflo National Starch & Chemical Corp , Bridgewater, NJ Preservative, Germaben II Sutton Laboratory Propylene glycol(and) diazohdinyl Chatham, NY urea (and)Methylparaben (and) propylparaben Fragrance, "Wildflower" F&FS #42697 Flavor and Fragrance Spec- ialties, Franklin Lake, NJ *Natrosol® Plus 430 is nomomc hydrophobically modified hydroxyethylcellulose It has long cham (C 16 ) alkyl group Aqueous viscosity at 1 0% is between 5000 - 9000 cps Brookfield viscometer at spindle 3, 6 m Example 5A. Air Freshener Formulations - Cold Process X32415-43A Ingredient Trade Mark Weight % Phase I A Water 89 33 B DASC (dihydroxyaluminum 0 30 sodium carbonate) C Potassium Sorbate 0 12 Phase II D Sodium carboxymethylcellulose CMC Type 7MT** 3 00 E Modified hydroxyethylcellulose HMHEC 2* 0 25 F Fumaric Acid 1 00 G Propylene glycol 5 00 Phase III H Fragrance FFS "Wildflower" 1 00 Total 100 00 Procedure The DASC and potassium sorbate were added to the vortex of the water in a container while stirring In a separate container, the Phase II ingredients (CMC, HMHEC 2 and fumaric acid) were preblended and then the propylene glycol was slurried into the preblend The slurry was immediately added to the Phase I dispersion and mixed for 15 minutes Next, the fragrance, Phase III, was added and mixed for five minutes or until well dispersed and the formulation was filled into a container and capped Comparative Example 5B. Air Freshener Formulations - Cold Process X32415-43B Hydroxyethylcellulose, Natrosol 250HR, was substituted for Modified hydroxyethylcellulose in the above formula The same procedure was followed * HMHEC 2 is 3-butoxy-2-hydroxypropylhydroxyethylcellulose that has aqueous viscosity at 25°C of a minimum of 2000 cps at 1% measured on a Brookfield LVTD Viscometer and a cloud point of about 62°-68°C without glyoxal treatment ** CMC 7MT Sodium carboxymethylcellulose with 0 65 - 0 90degree of carboxyinethvl substitution and 2% aqueous viscosity of 300-600 cps at 25°C The air freshener formulation "A" prepared with HMHEC 2 provides improved sag resistance at 40°C and improved gel strength in freeze/thaw study compared to the formulation "B" prepared with Natrosol® 250HR over the 12 weeks study Examples 5A & 5B Air Freshener Formulations - Hot Process Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose* HMHEC 2* Hercules Incorporated 0690-30-2 Wilmington, Delaware Hydroxyethylcellulose Natrosol 250HR Hercules Incorporated Wilmington, Delaware Sodium carboxymethylcellulose Aqualon Hercules Incorporated CMC 7MT** Wilmington, Delaware Fragrance 'Wildflower" Flavor and Fragrance Specialties, Franklin Lake, NJ Dihydroxy aluminum DASC Chattem Chem. Co sodium carbonate Chattanooga, TN Fumaric acid Fumaric acid, Haarmann & Reimer Corp Fine, granular Elkhart, IN * HMHEC 2 is 3-butoxy-2-hydroxypropylhydroxyethylcelluiose that has aqueous viscositv at 25°C of a minimum of 2000 cps at 1% measured on a Brookfield LVTD Viscometer and a cloud point of about 62°-68°C without glyoxal treatment ** CMC 7MT Sodium carboxymethylcellulose with 065 - 090degree of carbowmethvl substitution and 2% aqueous viscosity of 300-600 cps at 25 °C Example 6A Air Freshener Formulations - Cold Process X32415-45A Ingredients Trade Mark Weight % Phase I A Water 74 96 B Propylene glycol 0 80 C Preservative Germaben II 0 80 D Fragrance FFS "Wildflower" 0 80 E Sodium carboxymethylcellulose CELLULOSE GUM, 7M* 2 48 F Modified hydroxyethylcellulose HMHEC 2 0 16 80 00 Phase II G Water 19 50 H Aluminum acetate, basic 0 50 100 00 Procedure Phase I : Propylene glycol, preservative and fragrance were pre-mixed and then added to the vortex of water (A) and mixed for 5 minutes Polymers E & F were pre-mixed and added to the vortex of the Phase I mixture and mixed for 20 minutes or until dissolved Phase II : In a separate vessel, the Aluminum acetate was added to water (G) and mixed well to disperse Phase II was added to Phase I while mixing and mixed for five minutes The product was poured into pack-out containers and allowed to crosslink on standing The gel strength can be increased by increasing the concentration of Phase I and/or Phase II Comparative Example 6B Air Freshener Formulations - Cold Process X32415-45B Guar gum, Supercol U**, was substituted for modified hydroxyethylcellulose in the above formula The same procedure was followed * CMC 7M Sodium carboxymethyl cellulose with 0 65 - 0 90 degree of carboxvmethvl substitution and 2% aqueous viscosity of400-800 cps at 25°C ** Supercol® U is nomine guar with 1 0% aqueous viscosity of about 51 OOcps Brookfield viscosity at 25°C at 20rpm The air freshener sample made with formulation "A" prepared with HMHEC 2 was stable at all three temperature conditions and to five freeze/thaw cycles. The formulation "B" prepared with Supercol® U performed about the same. Examples 6A & 6B Air Freshener Formulations - Hot Process Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose HMHEC 2 Hercules Incorporated Wilmington, Delaware Sodium carboxymethylcellulose Aqualon Hercules Incorporated CELLULOSE GUM Wilmington, Delaware Type 7M Guar Gum Supercol® U Hercules Incorporated Wilmington, Delaware Fragrance, "Wildflower" F&FS #42697 Flavor and Fragrance Spec- ialties, Franklin Lake, NJ Aluminum acetate, basic, pure Product # 28982-5 Aldrich Chemical Co. Milwaukee, WI Preservative; Germaben II Sutton Laboratory Propylene glycol(and) diazohdinyl Chatham, NY urea (and)Methylparaben (and) propylparaben Example 7A. Insect Repellent - Hot Process Gel Formulation X32415-64A Ingredient Trade Mark Weight % A Water 92.75 B Carrageenan Genu® Carrageenan Type CHP-1 2.00 C Sodium carboxymethylcellulose CMC 7LT* 0.50 D Modified hydroxyethylcellulose HMHEC 2 0.75 E Propylene glycol 2.00 F Preservative Germaben II 1 00 G Insect Repellent F%FS #32946 1.00 100.00 Procedure Water (A) was heated to about 90°Cwhile mixing. Polymers B, C and D were pre-mixed and then added to the vortex of water while stirring and mixed for 10 minutes or until dissolved. The mixture was then cooled to 70°C while mixing. Propylene glycol was added next and mixed for 5 minutes. The preservative was added and mixed for five minutes. Insect repellent was then added and mixed for five minutes. This formulation was then transferred to pack-out containers and cooled to room temperature. Comparative Example 7B. Insect Repellent - Hot Process Gel Formulation X32415-64B Hydroxypropylcellulose, Klucel® H**, was substituted for Modified hydroxyethylcellulose in the above formula The same procedure was followed. CMC 7LT Sodium carboxymethyl cellulose with 0 65 - 0 90 degree of carboxymethyl substitution and 2% aqueous viscosity of25-50 cps at 25°C *Klucel H. A nonionic hydroxypropylcellulose. It has 1 0% aqueous Brookfield viscosity of 1500-2500cps at 25°C at 30rpm The insect repellent formulation "A" prepared with HMHEC 2 shows that the polymer of this invention is compatible. The formulation "B" prepared with another polysaccharide, Klucel®, is incompatible and remains as some suspended particles in the gel. It is aesthetically not desirable. The formulation "A" also provides improved gel strength at room temperature and at 5°C. The formulation "A" was stable to freeze/thaw cycles. Examples 7A & 7B. Insect Repellent - Hot Process Gel Formulation Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose HMHEC 2 Hercules Incorporated Wilmington, Delaware Sodium carboxymethylcellulose Aqualon Hercules Incorporated CMCType 7LT Wilmington, Delaware Hydroxypropylcellulose Klucel® H Hercules Incorporated Wilmington, Delaware Carrageenan Genu® Carrageenan, Hercules Incorporated Type CHP-1 Wilmington, Delaware Insect Repellent F&FS #32946 Flavor and Fragrance Spec- ialties, Franklin Lake, NJ Preservative; Germaben II Sutton Laboratory Propylene glycol(and) diazohdinyl Chatham, NY urea (and)Methylparaben (and) propylparaben Example 8 Pet Shampoo Ingredients Weight % A Distilled water 69.70% B Triethanol amine-lauryl sulfate (40% active) 15.00% C Sodium lauroamphoteric (and) sodium trideceth sulfate 10.00%ι D Cocoamide diethanol amine 02.50% E Glycol stearate 01.20%) F Propylene glycol(and) diazohdinyl urea (and) 00.75%) Methyl paraben (and) propylparaben. (Preservative) G HMHEC 1 00.60% H Fragrance (Wildflower) 00.25% I Citric acid pH adjust Total 100.00% Procedure Polymer G was added to vortex of water in a vessel while being heated to 70°C and stirred for five minutes. Next, TEAL and glycol stearate were added to the vessel in small quantities and mixed well between the additions. After all of the additions were made, the heat was turned off and the vessel was allowed to cool. When the vessel was cooled down to about 55°C, Cocamide DEA was added to the vessel. Next, the preservative was added. The pH in the vessel then was adjusted to about 5.0 with citric acid solution. The fragrance was added and mixed for five minutes. The formulation was then poured into a pack out container and the top of the container was fastened. Examples 8 Pet Shampoo Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose HMHEC 1 Hercules Incorporated Wilmington, Delaware Triethanol amine-lauryl sulfate Stepanol WAT Stepan Co. (40% active) Northfield, IL Sodium lauroamphoteric Miracare MHT Rhone-Poulenc (and) sodium trideceth sulfate Cranbury, NJ Glycol stearate Kessco EGMS Stepan Co. Northfield, IL Cocoamide diethanol amine Monamid CMA Mona Industries inc. Paterson, NJ Preservative; Germaben II Sutton Laboratory Propylene glycol(and) diazohdinyl Chatham, NY urea (and)Methylparaben (and) propylparaben Fragrance "Wildflower" Flavor and Fragrance Spec- ialties, Franklin Lake, NJ Example 9A Pet Shampoo X32415-67A Ingredient Trade Name Weight % Phase I A Distilled water 69.95 B Modified hydroxyethylcellulose HMHEC 3* 0.60 Phase II C Triethanol amine-lauryl sulfate Stepanol WAT 15.00 D Sodium lauroamphoteric Miracare MHT 10.00 (and) sodium trideceth sulfate E Glycol stearate Kessco EGMS 1.20 Phase III F Cocoamide diethanol amine Monamid CMA 2.50 G Preservative Germaben II 0.75 H Citric acid solution, 5.0% q.s. 100.00 Procedure Water (A) was heated to 70°C while stirring. The polymer (B) was added to the vortex of the stirred water and mixed for five minutes. Next, the surfactants © (D) and (E) were added slowly, in order , one at a time to the vessel and mixed well between each addition. The heat was then turned off and the vessel was allowed to cool. After the vessel cooled to about 55°C, the Cocamide DEA (F) was added to the vessel. Next, the preservative was added. Then, the pH of the vessel was adjusted to about 5.0 with citric acid solution (H). The formulation was then poured into pack out containers. Comparative Example 9B. Pet Shampoo X32415-67B Hydroxypropylcellulose, Klucel® H, was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed. HMHEC 3 is 3-butoxy-2-hydroxypropylhydroxyethylcellulose that has aqueous viscosity at 25°C of a minimum of 500 cps at 1% measured on a Brookfield LVTD Viscometer and a cloud point of about 62°-68°C with glyoxal treatment The pet shampoo made with the polymer HMHEC 3 of this invention (formulation "A") provided almost 25 to 50%) higher viscosity and at all three temperature test conditions, room temperature, 40°C and 5°C. The formulation was stable at all three temperature conditions. In contrast, the formulation "B" made with Klucel® showed poor stability under all three temperature test conditions. Comparative Examples 9A and 9B Pet Shampoo Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose HMHEC 3 Hercules Incorporated Wilmington, Delaware Hydroxypropylcellulose Klucel® H Hercules Incorporated Wilmington, Delaware Triethanol amine-lauryl sulfate Stepanol WAT Stepan Co. (40%o active) Northfield, IL Sodium lauroamphoteric Miracare MHT Rhone-Poulenc (and) sodium trideceth sulfate Cranbury, NJ Glycol stearate Kessco EGMS Stepan Co. Northfield, IL Cocoamide diethanol amine Monamid CMA Mona Industries inc. Paterson, NJ Preservative; Germaben II Sutton Laboratory Propylene glycol(and) diazohdinyl Chatham, NY urea (and)Methylparaben (and) propylparaben Example 10A. Insect Repellent Lotion X32415-61A Ingredient Trade Mark Weight % Phase I A Distilled water 78.25 B Glycerin, USP 2.00 C Modified hydroxyethylcellulose HMHEC 4 0.50 D NaOH solution, 0.5% q.s. Phase II E Glycol stearate Kessco EGMS 2.75 F Stearic acid Industrene 5016 2.50 G Mineral oil Drakeol 9 2.00 H Acetylated lanolin Acylan 0.50 I Cetyl alcohol Crodacol C-95 0.25 Phase III J Distilled water 9.00 K Triethanolamine 0.50 Phase IV L Insect Repellent F&FS #32946 1.00 M Preservative Germaben II 0.75 Total 100.00 Procedure Glycerin (B) was added to the vortex of well-agitated water (A). Next, Polymer © was added while mixing to disperse, and the pH was adjusted to 8.5 (D). The mixture was heated to 80°C in an oil bath and mixed until dissolved. In a separate vessel, Phase II ingredients (E, F, G, H and I) were blended together and placed in the bath to heat to 80°C, and mixed until dissolved. Phase II was added to Phase I with good agitation while maintaining 80°C. Next, Phase III ingredients (J, K) were combined in a separate vessel, added to the emulsion and mixed continuously while cooling to 40°C. Then, Phase IV ingredients (L, M) were added in order to the emulsion and mixed for five minutes after each addition. The formulation was then cooled to room temperature and filled into containers. Comparative Example 10B. Insect Repellent Lotion X32415-61B Sodium carboxymethylcellulose, CELLULOSE GUM Type 7M, was substituted for modified hydroxyethylcellulose in the above formula. The same procedure was followed. The insect repellant lotion made with polymer HMHEC 4 of this invention (formulation "A") gave almost three times higher viscosity compared to the formulation "B" made with another polysaccharide, CMC 7M. Examples 10A and 10B Insect Repellent Lotion Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose HMHEC 4* Hercules Incorporated Wilmington, Delaware Sodium carboxymethylcellulose CELLULOSE GUM Hercules Incorporated Type 7M Wilmington, Delaware Glycol stearate Kessco EGMS Stepan Co. Northfield, IL Stearic acid Industrene 5016 Witco Corporation Greenwich, CT Mineral Oil Drakeol 9 Penreco Butler, PA Acetylated lanolin Acylan Croda Inc. Parsippany, NJ Cetyl alcohol Crodacol C-95 Croda Inc. Parsippany, NJ Insect repellent F&FS #32946 Flavor and Fragrance Spec- ialties; Franklin Lakes, NJ Preservative; Germaben 11 Sutton Laboratory Propylene glycol(and) diazohdinyl Chatham, NY urea (and)Methylparaben (and) propylparaben * HMHEC 4 is 3-butoxy-2-hydroxypropylhydroxyethylcellulose that has aqueous viscosity at 25°C of a minimum of 2000 cps at 1% measured on a Brookfield LVTD Viscometer and a cloud point of about 62°-68°C with glyoxal treatment. Example 11 Institutional Liquid Soap Ingredients Weight % Water 74.88% Sodium C14-C16 olefin sulfonate, 40% active 07.50% Sodium lauroyl sarcosinate, 30% active 06.66% Cocamidopropyl betaine, 35%» active 06.66% Glycol stearate 01.00% HMHEC 1 00.80% Propylene glycol 00.50% Glycerin 00.50% Tetrasodium ethylene diamine tetracetate 00.30% > Stearalkonium chloride 00.10% > Chlorhexidine digluconate (20%) 01.00% Methylparaben 00.10% Total 100.00% Procedure HMHEC 1 was dispersed in a container of stirred water and the pH was adjusted to about 8.0 - 8.5 while mixing to dissolve the polymer. The dissolution took about 45 minutes. The methylparaben was then added to the solution. While slowly stirring the water-soluble polymer solution, stearalkonium chloride, olefin sulfonate, and glycol stearate were added one at a time to the solution while stirring for five minutes between each addition. Next, the mixture was heated to 80°C until all of the glycol stearate was dissolved and the solution turned opaque. Next, the remaining ingredients were added while cooling the solution slowly to room temperature. The color, cyclohexidine, and fragrance ingredients were added to complete the formulation. Then, the formulation was packaged. Example 12A. All Purpose Cleaner X32415-79A Ingredient Trade Mark Weight % A Water 91 80 B Modified hydroxyethylcellulose HMHEC 3* 0 30 C Ammonium capryleth sulfate Rhodapex CD-128 1 70 D Butoxyethanol Butyl Cellosolve 3 50 E Sodium Metasilicate 1 70 F Trisodium Phosphate 1 00 Total 100 00 Procedure The polymer (B) was added to the vortex of stirred water (A) in a vessel while mixing The pH of the mixture was adjusted to 8 5 and mixed for 45 minutes or until fully dissolved Each of the other ingredients (C, D, E, F) were then added to the vessel in the order they are listed above, and stirred for five minutes between the addition of each ingredient For aerosol use, 85% of the solution can be mixed with 15% propellant Genetron 12, from Allied Corporation Example 12B. All Purpose Cleaner X32415-79B Guar hydroxypropyl trimonium chloride, N-Hance® 3196, was substituted for modified hydroxyethylcellulose in the above formula The same procedure was used, except that the polymer mixture was adjusted to pH 6.0-6 5 rather than 8 5 *Thιs product is 3-butoxy-2-hydroxypropylhydroxyethylcellulose that has aqueous viscosity at 25°C of a minimum of 500 cps at 1 % measured on a Brookfield LVTD Viscometer and a cloud point of about 62°-68°C with glyoxal treatment N-Hance 3196 is a cationic guar It has 1 0% aqueous Brookfield viscosity of 800-4800cps at 20rpm The all purpose cleaner "A" prepared with HMHEC 3 of this invention provides improved viscosity stability compared to N-Hance® 3196 based formulation "B". The pH of the all purpose cleaner was very high (about 12). Examples 12A and 12B All Purpose Cleaner Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose HMHEC 3 Hercules Incorporated Wilmington, Delaware Guar hydroxypropyl N-Hance® 3196 Hercules Incorporated trimonium chloride Wilmington, Delaware Ammonium capryleth sulfate Rhodapex CD- 128 Rhone-Poulenc Cranbury, NJ Butoxyethanol Butyl Cellosolve Union Carbide Somerset, NJ Example 13A. Disinfectant X32415-99A Ingredient Trade Mark Weight % A Water 90 75 B Modified hydroxyethylcellulose HMHEC 4 0 75 C Benzalkonium chloride Barquat MB-80 5 00 D Octoxynol-9 Triton X- 100 1 00 E Isopropanol 2 00 F Lemon Oil Natural Lemon < 0 50 Total 100 00 Procedure The polymer (B) was added to the vortex of stirred water (A) in a vessel while mixing The pH of the mixture was adjusted to 8 5 and mixed for 45 minutes or until fully dissolved Each of the other ingredients (C, D, E, F) were then added slowly to the vessel in the order they are listed above, and stirred for five minutes between the addition of each ingredient The formulation was then poured into pack-out containers Comparative Example 13B. Disinfectant X32415-99B Carrageenan, Genu® type SGP-3**, was substituted for modified hydroxyethylcellulose in the above formula The same procedure was used , except that the pH of the polymer mixture was not adjusted *HMHEC 4 product is 3-butoxy-2-hydroxypropylhydroxyethylcellulose that has aqueous viscosity at 25°C of a minimum of 2000 cps at 1% measured on a Brookfield LVTD Viscometer and a cloud point ot about 62°-68°C with glyoxal treatment **Genu carrageenan SGP3 is a lambda type carrageenan standardized with sucrose WW = Water white The disinfectant formulation "A" based on HMHEC 4 of this invention provides significantly better stability than the formulation "B" based on carrageenan SGP-3. The formulation "B" showed settling. Examples 13A and 13B Disinfectant Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 4 Hercules Incorporated cellulose Wilmington, Delaware Carrageenan, lambda type Genu® Carrageenan Type SGP-3 Hercules Incorporated Wilmington, Delaware Benzalkonium chloride Barquat MB-80 Lonza Inc. Fairlawn, NJ Octoxynol-9 Triton X- 100 Rohm & Haas Philadelphia, PA Lemon Oil Natural Lemon Oil #2426 GSB & Assoc. Kennesaw, GA Example 14A Soap Bar X31993-12A Ingredient Trade Mark Weight % Phase I A Sodium cocoylisethionate Geropon AS200 70 00 B Stearic acid, triple pressed Industrene 5016 15 30 C Hectorite Bentone EW 5 00 D Modified hydroxyethylcellulose AQU D-3441 1 00 Phase II E Deionized water 7 49 F Sodium chloride 0 50 G Titanium dioxide 0 01 H Dye FD&C red #40 0.20 I Fragrance mulberry 0 50 Total 100 00 Procedure The Phase I ingredients (A, B, C, D) were added in order to the bowl of a kitchen mixer while mixing at lowest speed, and mixed 15 minutes until well blended In a separate container, the Phase II ingredients (E, F, G, H, I) were pre-mixed and then added drop-wise to the Phase I ingredients in the kitchen mixer while mixing and mixing was continued for 15 minutes while scraping bowl frequently This formulation was then pressed into tablets Comparative Example 14B Soap Bar X31993-12B Pectin, Slendid BB Rapid Set**, was substituted for modified hydroxyethylcellulose in the above formula The same procedure was used * AQU D3441 is hydrophobically modified hydroxyethylcellulose that is nonionic and contains both hydroxyethyl and long chain (l e , C 16 ) alkyl group, and has Brookfield viscosity ol ' 25 maximum cps at 1 % at 25°C **Slendιd BB Rapid Set has USA-SAG gel strength of ISOI5 grade It is a high methoxyl pectin EXAMPLE #14 - Bar Soap Test Data 24 HOURS SHAKER TEST 1X31993-12A. AQU D3441 at Rest Top Phase - about 70% istranslucent res liquid with moderate amount of large particlessuspended The second phase is 1.5 inch of darkliquid. The bottom phase isabout 0.06 inch white granular sediments Tablet is free, still cylinder-shaped, about 80% of the initial size 1X31993-12B. Slendid At Rest Top phase - translucent red liquid with considerable amount of small particles Second phase is 1 25 inch The bottom phase is O 25 inch Tablet isabout 60% of initial sze, centered, cone-shaped X31993-12A, AQU D3441 Swirled Water isopaque red. Severe amount of white granules m motion X31993-12B. Slendid. Swirled Water isopaque red. Very severe amount of white particles, more than-12A The bar soap made with AQU D3441 of this invention provided better integrity to the soap bar formulation "B" made with Slendid®. That is, after 24 hours in the shaker test the bar made with AQU D3441 retained about 80% of it original size compared to about 60% of the original size with Slendid®. In 48 hours shaker tests the AQU D3441 based soap bar retained about 70% of its original size compared to about 50% for the sample made with Slendid. Examples 14A and 14B Soap Bar Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose AQU D-3441 Hercules Incorporated Wilmington, Delaware Sodium cocoylisethionate Geropon AS200 Rhone-Poulenc Cranbury, NJ Stearic acid, triple pressed Industrene 5016 Witco Corporation Greenwich, CT Hectorite Bentone EW Rheox, Inc. Hightstown, NJ Dye, FD&C red #40 Code #10-2 l-DA-6056 Hilton-Davis Cincinnati, OH Fragrance Mulberry McAuley's, Inc Memphis, TN Pectin Slended BB Rapid Set Hercules Incorporated Example 15A Rug and Upholstery Shampoo X32415-85A Ingredient Trade Mark Weight % A Deionized water 76.00 B Modified hydroxyethylcellulose HMHEC 1 0.50 C Sodium laureth sulfate Rhodapex ES 20.00 D Sodium phosphate, tribasic 2.00 E PPG-2 methyl ether Dowanol DPM 1.50 Total 100.00 Procedure The polymer (B) was added to the vortex of stirred water (A) in a vessel and the pH of the mixture in the vessel was adjusted to about 8.5 and stirred for about 45 minutes or until dissolved. The other ingredients (C, D, E) were added one at a time in the order listed above. Each ingredient was mixed into the solution for 5 minutes at slow speed. After all of the additions, the formulation was poured into a container. Comparative Example 15B Rug and Upholstery Shampoo X32415-85B Methylhydroxypropylcellulose, Benecel® MP943W, was substituted for modified hydroxyethylcellulose in the above formula. The same procedure was followed, except as follows: One-third of the water (A) was heated to about 80°C, Benecel was added while mixing, then mixed five minutes to disperse, and then the remaining two-thirds of the water was added at ambient temperature and mixed for 30 minutes to dissolve the polymer. Continued procedure as above. The Rug and Upholstery shampoo formulation "A" made with HMHEC 1 of this invention was almost five times higher in viscosity than the formulation product made "B" made with Benecel® MP943W. The pH of the formulation was very high (about 12). Again, the polymers of this inventions are stable in high pH systems. Examples 15A & 15B Rug and Upholstery Shampoo Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified Hydroxyethylcellulose HMHEC 1 Hercules Incorporated Wilmington, Delaware Sodium laureth sulfate Rhodapex ES Rhone-Poulenc Cranbury, NJ PPG-2 methyl ether Dowanol DPM Dow Chemical USA Midland, MI Hydroxypropylmethylcellulose Benecel® MP943W Hercules Incorporated *Benecel® is hydroxypropylmethylcellulose that is nonionic and has Brookfield viscosity of about 4000 cps at 2% at 20°C. Example 16A Liquid Laundrv Softener/Detergent X31993-47A Ingredient Trade Mark Weight % Part i A Water 64.727 B PEG- 10 hydrogenated Varonic T-210 5.682 tallow amine C Imidazolium compound Varisoft 3690 1.591 D Ethanol 4.545 E Citric acid solution, 15% 14.364 Part II F Water 8.999 G Modified hydroxyethylcellulose HMHEC 3 0.091 Total 100.000 Procedure: The water of Part I (A) was charged to a vessel and agitated. Part I ingredients (B, C, D, E) were added slowly, in order, to the vortex while mixing; mixed five minutes after each addition; then mixed 30 minutes after last addition. In a separate vessel, polymer (G) was added to the vortex of Part II water (F) while mixing. The pH of Part II was adjusted to 8.0- 8.5 and mixed 30 minutes to dissolve polymer. Part II was added to Part I slowly, while mixing. The formulation was mixed for one hour, then poured into pack-out containers. Comparative Example 16B Liquid Laundry Softener Detergent X31993-47B Carrageenan, Genu® Carrageenan Type CHP- 1 , was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed except as follows: Water (F) of Part II was heated to about 80°C. Carageenan was added while mixing to vortex of water, mixed 30 minutes to dissolve, then cooled to room temperature before adding to Part I. Continued procedure as in Example 16 A above. The liquid laundry detergent/softener formulation prepared with HMHEC 3 of this invention produced a clear product. However, the same formulation prepared with carrageenan CHPl failed during the sample preparation The pH of the formulation was low (about 3.5). The formulation made with the polymer of this invention are stable to low pH systems also. Examples 16A and 16B Liquid Laundry Softener/Detergent Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 3 Hercules Incorporated cellulose Wilmington, Delaware Carrageenan Genu® Carrageenan Type CHP- Hercules Incorporated Wilmington, Delaware PEG- 10 hydrogenated Varonic T-210 Witco Corporation tallow amine Greenwich, CT Imidazolium compound Varisoft 3690 Witco Corporation Greenwich, CT Example 17A Bacteriostatic Laundry Softener X31993-17A Ingredient Trade Mark Weight % A Dimethyl ammonium chlorides Bardac 2050 15.00 B Methyl bis(tallowamidoethyl)- Accosoft 808 2-tallow imidazolinium methyl sulfate 08.33 C Water 76.18 D Modified hydroxyethylcellulose HMHEC 3 0.50 E NaOH solution, 0.50% q.s. Total 100.00 Procedure Accosoft and Baradac ingredients were mixed together in a vessel. Next, water was added to the vessel and mixed. This was followed by the addition of Modified hydroxyethylcellulose while mixing. The pH of the mixture was adjusted to 8.5 and mixed until all ingredients were dissolved. This formulation was then packed out in a container. Comparative Example 17B Bacteriostatic Laundry Softener X31993-17B Pectin, Slendid® BB Rapid Set*, was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed. ♦ Slendid BB Rapid Set has USA-SAG gel strength of 150 ± 5 grade. It is a High methoxyl pectin standradized with sucrose. The bacteriostatic laundry softener formulation "A" made with HMHEC 3 of this invention provided a stable product at room temperature, 40°C, 5°C and to freeze/thaw cycles. The same formulation "B" made with Slendid® showed separation especially at room temperature, at 40°C, and in the freeze/thaw study. Also, the formulation "A" was much higher in viscosity. Example 17A and 17B Bacteriostatic Laundry Softener Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 3 Hercules Incorporated cellulose Wilmington, Delaware Pectin Slendid® BB Rapid Set Hercules Incorporated Wilmington, Delaware Dimethyl ammonium chlorides Bardac 2050 Lonza, Inc. Fair Lawn, NJ Methyl bis (tallowamidoethyl)- Accosoft 808 Stepan Company 2-tallow imidazolinium methyl sulfate Northfield, IL 33.30 Example 18A Automatic Dishwashing Detergent X31993-03A Ingredient Trade Mark Weight % A Sodium carbonate, dense 24.00 B Sodium tripolyphosphate 39.50 C Modified hydroxyethylcellulose HMHEC 2 1.50 D Sodium polysilicate Britesil H-20 30.00 E Preservative Germaben II 1.00 F Alkoxylated isopropanolamide Makon NF-5 3.00 Total 100.00 Procedure Charged Sodium carbonate (A) to bowl of kitchen mixer. Added the remaining ingredients in order, while mixing at slow speed. The liquid ingredients, Germaben and Makon, were added drop-wise to the edge of the mixture, to avoid getting on the mixer blade. The mixer was stopped and the sides were scraped and then mixed for five minutes after each addition. The mixing was continued for 30 minutes until homogeneously mixed. The mixture was then transferred into a container. Comparative Example 18B Automatic Dishwashing Detergent X31993-03B Xanthan gum, Kelco K6B166, was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed. The automatic dishwashing detergent dry powder was prepared with the HMHEC2 (formulation "A") and with the xanthan gum (formulation "B"). No difficulty was observed in preparing dry powder. Example 18A and 18B Automatic Dishwashing Detergent Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 2 Hercules Incorporated cellulose Wilmington, Delaware Xanthan Gum Kelco K6B 166 Kellco Div. Of Merck & Co. San Diego, CA Sodium polysilicate Britesil H-20 P Q Corporation Conshohocken, PA Alkoxylated isopropanolamide Makon NF-5 Stepan Co. Northfield, IL Preservative; Germaben II Sutton Laboratory Propylene glycol(and) diazohdinyl Chatham, NY urea (and)Methylparaben (and) propylparaben Example 19 Liquid Handsoap Ingredients Weight % Calblend clear (Sodium laureth sulfate (and) cocamide DEA (and) cocamidopropyl betaine HMHEC 1 30.00% Fragrance (strawberry) 00.50% Dye 00.25% Water 00.05% Total 69.20% 100.00% Procedure HMHEC 1 was added to the vortex of stirred water in a blender and was mixed until a slurry was formed. The pH of the slurry was adjusted to 8.5 and mixed for 45 minutes or until fully dissolved. Calblend clear ingredient was added next. This was followed by the addition of the fragrance and dye. The solution was mixed for 5 minutes between each addition and for 30 minutes after all of the ingredients were added. Examples 19 Liquid Hand Soap Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 1 Hercules Incorporated cellulose Wilmington, Delaware (Sodium laureth sulfate (and) Calblend Clear Pilot Chemicals cocamide DEA (and) Santa Fe, CA cocamidopropyl betaine Fragrence Strawberry Flavor and Fragrance Spec- ialties, Franklin Lake, NJ Example 20 Toilet Bar Soap Phase I Ingredients Weight % A Croamol CAP 10.00% (Ceteary octanoate, Croda Inc., Parsippany, NJ) B Promyristyl PM3 50.00% (PPG3 myristyl ether, Croda) C Procetyl AWS 08.00% (PPG5-ceteth20, Croda) Phase π A Sodium stearate 08.00% B HMHEC 2 02.00% Phase HI A Deionized water 10.00% B Propylene glycol 06.00% C Glycerin 06.00% Total 100.00% Procedure First, ingredients in Phase I were blended together in a mixer. Next, they were heated to 80°C while continued mixing. Then, ingredients in phase II were added to the mixer and the temperature was maintained during the mixing. Once the ingredients in the mixer appeared to be homogeneous, ingredients of Phase III were added one at a time. The mixer was run on medium speed between each addition until the slurry appeared homogeneous. Next, the slurry was cooled to 65°C while mixing and then poured into a mold and packaged. Exa ples 20 Toilet Bar Soap Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 2 Hercules Incorporated cellulose Wilmington, Delaware Ceteary Octanate Croamol CAP Croda Inc. Parsippany, NJ PPG3myristatyl ether Promyristyl PM3 Croda Inc. PPG5-ceteth20 Procetyl AWS Croda Inc. Example 21A Toilet Bowl Cleaner X32415-81A Ingredient Trade Name Weight % A Water 89.00 B Modified hydroxyethylcellulose HMHEC 2 1.00 C Synthetic copolymer in Solagu SH 210 1.50 isoparaffin D Nonionic surfactant; g glluuccoossee aallkkyyllppoollyygglluuccoossee SSiimmuussooll SSLL 1100 5.50 E Citric acid 3.00 Total 100.00 Procedure Modified hydroxyethylcellulose was added to the vortex of the water (A) while mixing and mixed for 5 minutes. Solagum was added drop-wise over 15 minutes while mixing and mixed for 30 minutes. This was followed by the addition of Simulsol and citric acid, in order, while mixing and then mixed for an additional 15 minutes and then packaged. Comparative Example 21B Toilet Bowl Cleaner X32415-81B Hydroxyethylcellulose, Natrosol® 250HHR, was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed. The toilet bowl cleaner made with HMHEC 2 did not show any separation at room temperature, 40°C, 5°C and in the freeze/thaw cycles. The pH of the system was very low, two. Examples 21A and 21B Toilet Bowl Cleaner Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 2 Hercules Incorporated cellulose Wilmington, Delaware Hydroxyethylcellulose Natrosol® 250HHR Hercules Incorporated Wilmington, Delaware Synthetic copolymer * Solagum SH 210* Seppic Inc. Fairfield, NJ Nonionic surfactant ** Simusol SL 10** Seppic Inc. Fairfield, NJ * Solagum SH210: Aqueous solution of synthetic copolymer dispersed in isoparaffin * * Simulsol SL10: Nonionic surfactant, glucose alkylpolyglucose Example 22A Toilet bowl Tablets. Rim Block. In-Cistrern Block X31993-04A Ingredient Trade Mark Weight % A Linear alkylbenzene sulfonate Ufaryl DL85 50.00 B PEG 150 Carbowax 8000 10.00 C Tallow fatty acid MEA Serdolamide PVE87 3.00 D Modified hydroxyethylcellulose HMHEC 1 9.00 E Magnesium carbonate 4.00 F Sodium sulfate 20.00 G Fragrance F&FS "Wildflower" 4.00 Total 100.00 Procedure Each of the ingredients, except the fragrance, were added while mixing at slow speed to the bowl of a kitchen mixer. After each addition, the mixture was stirred for two minutes, stopped, sides scraped to avoid caking, and resumed for one minute. The fragrance was added by spraying onto the mixture while mixing at low speed, then mixing was continued for ten minutes, scraping frequently, until homogeneous. The formulation was then extruded through the small-hole die of the meat grinder attachment of the mixer. The extruded material was then pressed into tablets. The formulation could also contain other salts, such as sodium silicate, silicas, sodium carbonate, sodium citrate, etc. if needed to obtain desired pH, density, solubility etc. Example 22B Toilet howl Tablets. Rim Block. In-Cistrern Block X31993-04B Guar gum, Supercol® U, was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed. EXAMPLE #22 - In-Tank Toilet Bowl Cleaner Test Data 24 HOURS SHAKER TEST Tablet Sediment/ Preci oitate Water gvelhnα αel laver eroaon amt Dart aze part amt αel HMHEC-1 x31993-04 A Shater- at rest si. smaller? rounded slight none none slight clear Shater- swirled 50% of init severe severe large clear Shaker-settled 50% of init mod/severe none severe si cloudy Supercol U X31993-04B Shaker- at rest 5% crystalline'? none none none trace clear yellow Shaker- swirled 50% of init severe severe medium clear yellow Shaker-settled 50% of init severe none severe si cldy yellow 48 HOURS SHAKER TEST Tablet Sediment/ Precipitate Water swelhnq αel laver eroaon amt part aze Dart amt αel HMHEC-1 X31993-04A Shaker- at rest 50% trace none 3/4" severe clear Shaker- swirled 80% severe very large ∞nad cloudy Shater-aettled 75% none susp 1 /2" si. cloudy Supercol U X31993-04B Shaker- at rest irregular 30% none none 1/4" clear yellow Shalcer- swirled j sever very large light yellow Shaker-settled 75% none susp 1/2" si cloudy In a solid in-tank toilet bowl cleaner the formulation "A" based on HMHEC 1 performed about the same as Supercol® based formulation "B". Examples 22A and 22B Toilet bowl Tablets. Rim Block. In-Cistrern Block Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 1 Hercules Incorporated cellulose Wilmington, Delaware Guar gum Supercol® U Hercules Incorporated Wilmington, Delaware Linear alkylbenzene sulfonate Ufaryl DL85 Lidochem, Inc. Hazlet, NJ PEG 150 Carbowax 8000 Union Carbide Corp. Tarrytown,NY Tallow fatty acid MEA Serdolamide PVE87 Servo Delden BV The Netherlands Fragrance "Wildflower" F&FS # 42697 Flavor & Fragrance Specialties, Franklin Lakes, NJ Example 23A Liquid Laundry Detergent X31993-45A Ingredient Trade Mark Weight % Phase I A Water 72.727 B Dodecylbenzene sulfonic acid Witco 1298 2.273 C Propylene glycol 2.273 D Alcohol ethoxylate Witconol 25-7 6.818 EE PPEEGG--55 CCooccaammiinnee VVaarroonniicc KK220055 5.909 F Triethanolamine 0.909 Phase II G Modified hydroxyethylcellulose HMHEC 3 0.091 H Water 8.999 Total 100.00 Procedure: The water (A) of Phase I was charged to a vessel and agitated. Part I ingredients (B, C, D, E, F) were added slowly, in order, to the vortex and mixed five minutes after each addition. Phase I was mixed 30 minutes after the last addition. In a separate vessel, polymer (G) was added to vortex of Phase II water (H) while mixing. The pH of Phase II was adjusted to 8.0-8.5, and mixed 30 minutes to dissolve polymer. Phase II was added to Phase I slowly while mixing. The formulation was poured into pack-out containers. Comparative Example 23B Liquid Laundry Detergent X31993-45B The Modified hydroxyethylcellulose was omitted in the above formula and replaced with an equivalent amount of water. The same procedure was followed. The liquid laundry detergent made with HMHEC 3 gave almost 40% greater viscosity compared the control without the polymer. It was stable at all three temperature conditions and in freeze/thaw cycles. Examples 23A & 23B Liquid Laundry Detergent Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 3 Hercules Incorporated cellulose Wilmington, Delaware Dodecylbenzene sulfonic acid Witco 1298 Witco Corporation Greenwich, CT Alcohol ethoxylate Witconol 25-7 Witco Corporation Greenwich, CT PEG-5 Cocamine Varonic K205 Witco Corporation Greenwich, CT Example 24 Laundry Prespotter Ingredients Weight % Water 77.10% HMHEC 2 00.25% Witconol 25-7 (Witco) 07.00% Varonic K205 (Witco) 04.00% Witconate 45* liquid (Witco) 10.00% D'limonene 01.00% Methyl paraben 00.15% Fragrance 00.50% Total 100.00% Procedure The ingredients were added in the order listed above with constant agitation in a mixer. Mixing was continued until the mixture of the ingredients was lump free and homogeneous. Witconate 45: Sodium dodecylbenzene sulfonate and sodium xylene sulfonate Examples 24A Laundry Prespotter Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified HydroxyethylHMHEC 2 Hercules Incorporated cellulose Wilmington, Delaware Alcohol ethoxylate Witconol 25-7 Witco Corporation Greenwich, CT PEG-5 Cocamine Varonic K205 Witco Corporation Greenwich, CT Sodium dodecylbenzene Witconate 45 Witco Corporation sulfonate and sodium xylene sulfonate Example 25A Liquid Abrasive Cleaner X31993-20A Ingredient Trade Mark Weight % Phase I A Water 82.83 B Calcium carbonate 12.50 C Acrylic polymer Acusol 820 1.00 D Modified hydroxyethylcellulose HMHEC 1 0.50 Phase II E Bentonite clay Bentone EW 0.20 F Water 2.30 Phase III G Nonoxynol-12 Igepal CO-720 0.50 Phase IV H NaOH solution, 5.0% 0.17 Total 100.00 Procedure: The Phase I water (A) was charged to a vessel and agitated. Ingredients (B, C, D) were added in order while mixing to water (A). The Bentone (E) was slurried into the water (F) of Phase II, and the slurry was added while mixing to Phase I. Igepal (G), was added to this mixture and mixed 20 minutes. The pH of the mixture was raised to 8.5 with NaOH solution (H). The mixing was continued for 30 minutes, then the product was packed-out. Comparative Example 2SB Liquid Abrasive Cleaner X31993-20B Hydroxypropylcellulose, Klucel® HF, was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed. The liquid abrasive made with HMHEC 1 performed about the same as formulation "B" made with Klucel® in room temperature, 40°C and in 5°C study. The "B" was performed better in the freeze/thaw cycles. Examples 25A & 25B Liquid Abrasive Cleaner Source and Description of Products Used Generic or CTFA Adopted Name Trademark up lier Modified hydroxyethylcellulose HMHEC 1 Hercules, Incorporated Wilmington, DE Acrylic polymer Acusol 820 Rohm and Haas Co. Philadelphia, PA Bentonite clay Bentone EW Rheox, Inc. Hightstown, NJ Nonoxynol-12 Igepal CO-720 Rhone-Poulenc Cranbury, NJ Example 26A Fabric Sizing Spray X32415-92A Ingredient Trade Name Weight % Phase I A Deionized water 68.35 B Modified hydroxyethylcellulose HMHEC 3 0.50 C Carboxymethylcellulose Aqualon®, 7LT* 1.00 Phase II D Deionized water 30.00 E Sodium lauryl sulfate Witcolate A 0.05 F Methyl paraben Methylparasept 0.10 Total 100.00 Procedure In Phase I, the polymers Modified hydroxyethylcellulose (B) and carboxymethylcellulose (c) were added while mixing to the vortex of the water (A). The pH of the mixture was adjusted to 8.5, and the solution was mixed for 45 minutes until the polymers were fully dissolved. In a separate nessel, the surfactant (E) and preservative (F) were added to the water (D) of Phase II and mixed until these components were fully dissolved. Phase II solution was then added to the vortex of Phase I solution and mixed for 10 minutes or until lump free. This formulation was then packed out into containers. Comparative Example 26B Fabric Sizing Spray X32415-92B Guar hydroxypropyltrirnonium chloride, N-Hance® 3196, was substituted for Modified hydroxyethylcellulose in the above formula. The same procedure was followed. CMC 7LT: Sodium carboxymethylcellulose, with carboxymethyl substitution of 0.65 0.90 and 2% aqueous Brookfield viscosity @ 30rpm of 25-50 cps at 25°C. The fabric sizing spray made with HMHEC 3 was almost 30 times greater in viscosity than the formulation "B" made with N-Hance® 3196. It provided improved stability at room temperature, 40°C, 5°C and in the freeze/thaw cycles over the formulation "B". Examples 26A and 26B Fabric Sizing Spray Source and Description of Products Used Generic or CTFA Adopted Name Trademark Supplier Modified hydroxyethylcellulose HMHEC 3 Hercules, Incorporated Wilmington, DE Carboxymethylcellulose Aqualon, 7LT Hercules, Incorporated Wilmington, DE Sodium lauryl sulfate Witcolate A Witco Corporation Greenwich, CT Methylparaben Methylparasept Nipa Hardwicke, Inc. Wilmington, DE

Claims: What is Claimed: 1. A household product composition comprising: (a) from about 0.1% to about 99% by weight of a vehicle system which comprises a hydrophobically modified water soluble polysaccharide polymer which comprises a water soluble polysaccharide polymer backbone, and a hydrophobic moiety selected from the group consisting of C 3 -C 24 alkyl, aryl alkyl, alkyl aryl groups and mixtures thereof, wherein the hydrophobic moiety is present in an amount up to the amount which renders said polysaccharide less than 1% by weight soluble in water and (b) at least one other household care ingredient. 2. The composition of claim 1 wherein the composition also comprises from about 0.01%) to about 50% by weight of the household composition of a surfactant. 3. The composition of claim 2 wherein the surfactant is selected from the group consisting of anionic, nonionic, cationic, zwitterionic, and amphoteric, mixtures thereof. 4. The composition of claim 1 wherein the composition also comprises from about 0.1% to about 99% by weight of the household composition of a compatible solvent or solvent mixture. 5. The composition of claim 4 wherein the solvent or solvent mixture is selected from the group consisting of water, water-lower alkanols mixtures, polyhydric alcohols and mixtures thereof. 6. The composition of claim 5 wherein the solvent or solvent mixture is selected from the group consisting of water, propylene glycol, water-glycerine, sorbitol-water, water- ethanol, and mixtures thereof. 7. The composition of claim 2 wherein the composition also comprises from about 0.1%) to about 99%o by weight of the household composition of a compatible solvent or solvent mixture. 8. The composition of claim 1 wherein the hydrophobically modified polysaccharide backbone is selected from the group consisting of hydroxyethylcellulose (HEC), hydroxypropylcellulose (HPC), methylcellulose (MC), hydroxypropylmethylcellulose (HPMC), ethylhydroxyethylcellulose (EHEC), and methylhydroxyethylcellulose (MHEC), and agar, dextran, locust bean gum, starch, guar, and their nonionic derivatives, and mixtures thereof. 9. The composition of claim 1 wherein the polysaccharide backbone is HEC. 10. The composition of claim 1 wherein the hydrophobic moiety is 3-butoxy-2- hydroxypropyl. 11. The composition of claim 1 wherein the hydrophobic moiety is cetyl. 12. The composition of claim 1 wherein the polysaccharide backbone is HPC. 13. The composition of claim 1 wherein the hydrophobic moiety is an alkyl radical having 4-16 carbons. 14. The composition of claim 4 wherein composition also contain an effective viscositying amount of a salt. 15. An air freshener/deodorizer composition comprising a solvent and an effective amount of the household composition of claim 4. 16. An insect repellent comprising an effective amount of the household composition of claim 4. 17. A bubble generating liquid comprising an effective amount of the household composition of claim 7. 18. A pet shampoo and shampoo-conditioner comprising an effective amount of the composition of claim 1. 19. A liquid soap product comprising an effective amount of the household composition of claim 7. 20. All purpose cleaner comprising an effective amount of household composition of claim 1. 21. A disinfectant comprising an effective amount of the household composition of claim 1. 22. A anti-itching lotion composition comprising an effective amount of the household composition of claim 4. 23. A bar soap composition comprising an effective amount of the household composition of claim 7. 24. A rug and upholstery cleaning composition comprising an effective amount of the household composition of claim 7. 25. A rug and upholstery composition comprising an effective amount of the household composition of claim 1. 26. A rug bleaching agent composition comprising an effective amount of the household composition of claim 1. 27. A laundry softener composition comprising an effective amount of the household composition of claim 7. 28. A dishwashing detergent composition comprising an effective amount of the household composition of claim 7. 29. A toilet bowl cleaner composition comprising an effective amount of the household composition of claim 7. 30. A laundry prespotter composition comprising an effective amount of the household composition of claim 1. 31. An auto cleaning composition comprising an effective amount of the household composition of claim 7. 32. The composition of claim 1 where the household composition also comprises an oil-in-water or water in oil emulsion. 33. A pet dental cleaning and deodorizing composition comprising an effective amount of the household composition of claim 1. 34. The composition of claim 1, wherein the hydrophobic moiety is attached to the backbone by a linkage group selected from the class consisting of ether, ester, and urethane. 35. The composition of claim 34, wherein the linkage group is an ether. 36. The composition of claim 1, wherein the hydrophobic moiety is 3-alkoxy-2- hydroxypropyl group wherein the alkyl moiety is a straight or branch chain having 2-6 carbon atoms.

Inventors: MODI JASHAWANT J, MODI, JASHAWANT, J.
Applicants: HERCULES INC, HERCULES INCORPORATED
Application year: 1998
Main classification: C11D3
IPC codes: A01N31, A61K8, A61L9, A61Q5, A61Q11, A61Q17, A61Q19, C11D3, C11D11, C11D17