Oil filters containing strong base and methods of their use
a strong base and oil filter technology, applied in the direction of filtration separation, lubricant mounting/connection, separation process, etc., can solve the problems of increased oil consumption and engine wear, rapid increase in viscosity, and engine deposits
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example 1
Preparation of Filter Media Using a Formette Dynamique Automated Dynamic Handsheet Former
Retention Aid Preparation
[0186]All Retention Aid (RA) materials listed in Tables 1 and 2 were prepared by making 1% by weight solutions in water. To do so, three grams of RA were added to 297 grams of tap water followed by vigorous shaking to ensure the emulsions were properly inverted and / or the solutions were uniformly dispersed. The solutions were aged for a minimum of 30 minutes.
Cellulose Pulp Preparation
[0187]The cellulose fibers were dispersed with minimal refining in a Valley Beater to a concentration of 1.5% by weight using high freeness bleached southern softwood Kraft pulp.
Synthetic Polymer Preparation
[0188]The fibrillated or glass fibers were added in the amounts specified in Table 1 to two liters of tap water and stirred in a blender (The Herman Manufacturing Company, Lancaster Ohio) and dispersed for two minutes. Polyethylene fiber and 500 milliliters of tap water were then added an...
example 2
Procedure for Preparation of Filter Media Used in Engine Testing
[0191]The following procedure was followed to make a sheet measuring about 30×30 cm: Magnesium oxide (Martin Marietta Mag Chem 50), was added to deionized water to form an approximately 0.5% by weight slurry. The slurry was dispersed using a propeller-type laboratory stirrer at low speed. To this mixture, a high molecular weight flocculent such as those described in Table 3 was added at a concentration of about 0.1% by weight of flocculent to magnesium oxide. The magnesium oxide coalesced upon addition of the flocculent. Separately, a slurry containing about 0.3 weight % of cellulose fiber (soft or hard wood pulp) in deionized water was dispersed in a Waring type commercial blender for 40 seconds. A quantity of binder fiber such as polyethylene UL 410 (available from Minifibers, Inc., Johnson City, Tenn.) sufficient to bring the slurry to about 0.31 weight % was added to the slurry and dispersed for an additional 40 sec...
example 3
Procedure for Flocculation of MgO on Filter Media
[0193]Using filtered tap water, 0.5 weight percent solutions / dispersions of the flocculant products shown in Table 5 were prepared. All the solutions were allowed at least 30 minutes for the reverse emulsions to invert properly and shaken vigorously to ensure uniform dispersion. Five grams of Magchem 50 (Martin Marietta) was then weighed out and diluted to 200 grams using filtered tap water. The slurry was then stirred to achieve uniform dispersion.
[0194]To this slurry, the amount of 0.5 weight percent flocculant shown in Table 5 was added by weighing it into the container. If multiple components were used, the order of addition is shown in the table. For the microparticle retention aid system, the cationic polyacrylamide was added first, then the slurry was sheared using a Waring-type laboratory propeller blender for 1 minute. The solution of colloidal silica was added followed by the micro-polymer. The flocced solution was then filt...
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