ABC Financial Sherwood, AR Jan 2013 to Mar 2014 Software TesterABC Financial Sherwood, AR Mar 2012 to Jan 2013 Help Desk Team LeadFidelity Information Services Little Rock, AR Jul 2011 to Nov 2011 Systems Operation AnalystCappslite Computing Little Rock, AR Aug 2005 to Jul 2011 Self Employed IT ConsultantCrews & Associates Little Rock, AR Jun 2004 to Jul 2005 Network Support Specialist
Education:
University of Massachusetts Lowell Lowell, MA 2012 Bachelor's in Information TechnologyUniversity of Massachusetts Lowell Lowell Lowell, MA 2009 Associate's in Information TechnologyUniversity of Arkansas at Little Rock Writing Center Tutor Little Rock, AR 2000 to 2002University of Arkansas at Little Rock Little Rock Little Rock, AR 1999 to 2002 EnglishPulaski Academy Little Rock Little Rock, AR 1999 High School DiplomaPulaski Academy 1999 Business Leaders of America
3231 Schoenersville Rd, Bethlehem, PA 18017 2040 Ave C, Bethlehem, PA 18017 124 W Capitol Ave SUITE 1900, Little Rock, AR 72201 20410 Ave C, Bethlehem, PA 18017 6102646600
Charles L. Capps Secretary, Principal
HELIX, INC Nonclassifiable Establishments
13610 Pleasant Frst Dr, Little Rock, AR 72212
Us Patents
Method For Preparing Binder Materials Containing Diisocyanates
A method for preparing a binder material for cellulosic products which comprises providing a polymeric resin base material preferably comprising 4,4â or 2,4â methylene diphenylene diisocyanate in the range of from about 20% to about 55% by weight and a functionality greater than about 2, forming a colloidal gel from silica and a basic solution, and incorporating the colloidal gel into the polymeric base material at a temperature, rate of addition and agitation level to achieve a substantially homogeneous binder material.
Dry Process For Bonding Silica-Rich Plant Materials
Particles of silica-rich plant material are bonded into a rigid unitary body. The silica content of such materials is believed to enter into bonding reactions when the materials are combined with a polymeric resin base material such as PAPI that has been previously converted by reaction with a colloidal gel formed from silica and a basic solution. The resulting product exhibits characteristics superior to most engineered wood products. A theoretical analysis of the bonding chemistry is proposed.
A novel gypsum board having antifungal properties is disclosed. The board comprises a gypsum core, front and back paper facings and an antifungal agent effective at inhibiting fungal growth. A preferred antifungal agent is cetylpyridinium chloride. The antifungal agent can be present in the gypsum core and/or on one or both of the paper facings. In addition, the antifungal agent may be encapsulated in a material that releases the antifungal agent over time and/or upon exposure to moisture. Also disclosed are methods for preparing the aforementioned antifungal gypsum board.
A novel gypsum board having antifungal properties is disclosed. The board comprises a gypsum core, front and back paper facings and an antifungal agent effective at inhibiting fungal growth. A preferred antifungal agent is cetyl pyridinium chloride. The antifungal agent can be present in the gypsum core and/or on one or both of the paper facings. In addition, the antifungal agent may be encapsulated in a material that releases the antifungal agent over time and/or upon exposure to moisture. Also disclosed are methods for preparing the aforementioned antifungal gypsum board.
Saccharide-Based Resin For The Preparation Of Foam
An embodiment of the present invention includes a foam prepared from a resin comprising: one or more saccharides; one or more isocyanates; one or more resin polyols; and water. The foam may be for example polyurethane foam or polycyanurate foam, either flexible or rigid. Another embodiment includes a method for preparing a foam comprising: forming a resin by mixing one or more saccharides with one or more isocyanates and then mixing the one or more saccharides and the one or more isocyanates with water; and admixing one or more foam polyols to the resin. Another embodiment includes a method for manufacturing a foam derived from an isocyanate, comprising replacing all or a portion of the isocyanate with a resin comprising: one or more saccharides; one or more isocyanates; one or more resin polyols; and water. Another embodiment includes an article of manufacture comprising such foam.
Saccharide-Based Resin For The Preparation Of Composite Products
A novel resin for binding composite lignocellulosic, cellulosic and non-cellulosic products is disclosed. The resin is comprised of one or more isocyanates, one or more saccharides, one or more polyols, and water. Preferaby, the saccharide is a polysaccharide comprised of corn syrup. Preferably, the isocyanate is a polyisocyanate and the polyol is an ethylene glycol. Also disclosed are methods for preparing and applying the resin as well as the products prepared from the resin.
This disclosure relates to inventive methods for inactivating viral pathogens in which the steps of the methods include: (a) providing a virucidal composition comprising a liquid media containing less than 1% weight per volume cetylpyridinium chloride; and (b) contacting the virucidal composition with a surface targeted for disinfection. This disclosure further relates to inventive virucidal compositions, in which the compositions include: (a) a liquid media; (b) cetylpyridinium chloride in solution in the liquid media at a concentration of less than 1% weight per volume; (c) an extender; and (d) an enhancer.
This disclosure relates to inventive methods for inactivating viral pathogens in which the steps of the methods include: (a) providing a virucidal composition comprising a liquid media containing less than 1% weight per volume cetylpyridinium chloride; and (b) contacting the virucidal composition with a surface targeted for disinfection. This disclosure further relates to inventive virucidal compositions, in which the compositions include: (a) a liquid media; (b) cetylpyridinium chloride in solution in the liquid media at a concentration of less than 1% weight per volume; (c) an extender; and (d) an enhancer.