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Meeting Industry Regulations and Consumer Concerns

The growing consumer demand for no odor and low to zero-VOC content in finished products is changing the shape of today’s paint formulations. Look below for answers as to how ANGUS products can help you meet these needs.

For further technical information, to request a sample, or to have a sales representative contact you, click here.

 

Regulation Guidelines
AMP vs. Ammonia
Obstacles with low VOC systems
Odor Concerns
 

 

Regulation Guidelines

If you are trying to lower VOC levels, consider the following which are VOC levels in grams/liters outlined by various regulations:

California Air Resources Board

Nonflat 2007, 150 g/L
January 1, 2010, 100 g/L
Nonflat High Gloss    2007, 250 g/L
January 1, 2010, 150 g/L
Flat 2007, 100 g/L
January 1, 2010 50 g/L

For more information on CARB, please visit their web site.

South Coast Air Quality Management Division
Nonflat/Nonflat High Gloss/Flat, 50 g/L

Primary Sources of VOC
Coalescing Solvents
The Residual (unreacted) Monomers
Other Volatile Compounds; Paint Additives (Dispersants, Surfactants, etc.)

VOC Measurements
Industry Standard Test Procedure: EPA 24

Theoretical Calculations:
VOC=Lbs Volatile - Lbs Water
Gal Total - Gal Water Lbs/Galx120 = Grams/Liter

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AMP vs. Ammonia

The formulas below compare AMP™ Co-Dispersant and Neutralizing Amine with ammonia in interior semi-gloss latex formulations. The formula with the UCAR Latex 300 represents the low VOC (Volatile Organic Compounds) paint systems.

Results for low VOC semi-gloss latex formula test


  Ammonia AMP-95
Ingredients    
GRIND    
Water 150 150
UCAR POLYPHOBETM(1) TR-116 6.8 6.8
UCAR POLYPHOBETM(1) TR-117 11.4 11.4
Ammonia 17.4% 8.28
AMP-95TM(1) - 5.75
TAMOLTM 1124(2) 3 2.25
Strodex PK 95G(5) 1.25 1.25
TRITONTM CF-10(1) 1.5 1.5
Rhodoline 643(6) 4 4
Propylene Glycol(1) 6 4.2
Ti--PureTM R706(3) 235 235
PolyglossTM 90(4) 35 35
Water 15 15
LETDOWN
Water 23.3 23.3
UCARTM Latex 300(1) 482 482
UCAR Filmer IBT(1) 4.8 4.8
Rhodoline 643(6) 2 2
Water 76.10 81.1
TOTAL (pounds) 1065.43 1065.35
Total Solids wt% 51.72 51.82
PVC 23 23

(1)Dow Chemical Company
(2) Rohm and Haas Company
(3) Dupont Titanium Technologies
(4) J.M. Huber Corp..
(5) Dexter Chemical
(6) Rhodia


Low VOC Semi-Gloss Latex Formula Test Results
 

  Ammonia AMP-95
pH 8.66 8.78
KU 86 84
ICI 0.91 0.99
Gloss 65.7 69.6
Contrast Ratio 0.9766 0.9763
Scrub Resistance 7695 -
Freeze Thaw 1 cycle/-5oC Fail -
Block Resistance, 25oC 3 days
7 days
Fair
Fair
Fair+
Fair+
Color Acceptance, 3oz/gal, 7 day
Phthalo Blue and Yellow Oxide
Red Oxide

Very Severe
Severe

Moderate
Moderate
 

 

Interior Semi Gloss Formulation

  Benchmark Ammonia AMP-95™
Ingredients
GRIND
Water 140.00 140.00
CELLOSIZETM QP-300(1) 5.00 5.00
Water 10.00 10.00
CanguardTM BIT 20(1) 0.50 0.50
Tamol TM 1124(2) 5.00 5.00
Triton TM CF-10(1) 2.00 2.00
Triton TM GR-5M(1) 0.50 0.50
Drew plus Y-381(5) 1.00 1.00
Ethylene Glycol(1) 30.00 30.00
Ammonia (20%) 2.30 -
AMP-95TM(1) - 2.00
Omycarb® UF CaCO3(4) 25.00 25.00
Water 50.00 50.00
LETDOWN
UCARTM Latex 379(1) 375.00 375.00
UCARTM Latex 6030(1) 47.00 47.00
Butyl Carbitol(1) 6.00 6.00
Archer RC(6) 12.00 12.00
Drew plus Y-381(5) 1.50 1.50
Ti-PureTM R942(3) 250.00 250.00
Acrysol TM RM-5000(2) 30.00 30.00
Water 63.64 64.04
DREW Plus Y-381(5) 1.50 1.50
TOTAL (pounds) 1027.94 1028.04
Total Solids wt% 46.18 46.17
PVC 23 23

(1) Dow Chemical Company
(2) Rohm and Haas Company
(3) Dupont Titanium Technologies
(4) Omya, Inc.
(5) Drew Industrial
(6) Archer Daniels Midland
 

Semi-gloss Latex Formula Test Results

  Benchmark Ammonia AMP-95™
pH 9.04 9.03
KU 88 87
ICI 1.07 1.07
Gloss 60o Control Equal
Contrast Ratio 0.964 0.9634
Scrub Resistance Control 27.5%>Cont
Freeze Thaw Resistance
ASTM D 2243 ,1 cycle/ -18°C
1 cycle/-14°C

Fail
Fail

Fail
Borderline
Block Resistance, 25°C
1/3/7 Days
Good Good+
 

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Obstacles with low VOC gloss/semi-gloss Systems

In architectural paint applications, there is a challenge for suppliers and paint producers to meet environmental regulations while offering acceptable quality products to customers.

Finding a balance between lower VOC products and maintaining important film properties can be challenging.

Primary VOC sources are coalescents and freeze thaw agents. To combat these VOC levels, many companies started formulating using polymers with Tg (glass transition temperature) of 0 to 5°C to form a paint films with zero or minimum levels of coalescents.

However these soft polymers have some shortcomings for freeze thaw and block resistance.

ANGUS products AMP™ Co-dispersant and Neutralizing Amine and AEPD™ VOX 1000 Multifunctional Amine can help reduce full VOC freeze-thaw/open time agents and dispersants while meeting formula performance criteria for block & freeze thaw resistance. To learn more, refer to the charts above for additional information.

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Odor Concerns

Several factors, in terms of odor, can play a role in a formulator’s choice when choosing raw materials to incorporate into a paint system.

Some of these include:

  • Personal Perception
  • Industry Driving Factors- Volatile Organic Compounds (VOC) Regulations
  • Raw material Consolidation-Database
  • Complaints- Manufacturing &/or Customer
To reduce odor in paint formulations, paint manufacturers are demanding non/low VOC raw and materials. AMP can help to reduce full VOC freeze thaw/open time agents and dispersants to lower odor in paint formulations. In addition AMP has lower odor than the benchmark Ammonia.

The newest product from ANGUS, AEPD VOX 1000 (XZ 12322.00 in North America), however is considered a VOC-free in Asia Pacific and Europe and a low-VOC product in other areas of the world. This product has similar functionality to AMP, but with the added benefit of having less odor and lower VOC. It is currently being used commercially in leading odorless paint.
 

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