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1 Danny Castonguay - Natacha Hardy - Rachita Pandey - Mio Yamamoto Natura - Managing Eco-toxicity of Ingredients in Cosmetics 15.915 Laboratory for Sustainable Business May 16, 2012

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Danny Castonguay - Natacha Hardy - Rachita Pandey - Mio Yamamoto

Natura - Managing Eco-toxicity of Ingredients in Cosmetics

15.915 – Laboratory for Sustainable Business

May 16, 2012

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Table of Contents

1 Introduction ............................................................................................................................................ 3

1.1 Objectives ........................................................................................................................................ 3

2 Methodology .......................................................................................................................................... 4

2.1 Research ......................................................................................................................................... 4

2.2 Interviews ......................................................................................................................................... 4

3 Global Trends ........................................................................................................................................ 4

3.1 Evolution from hazard assessment to risk assessment .................................................................. 5

3.2 Evolution from hazard assessment to risk assessment .................................................................. 6

3.3 Rise in Industry self-regulation ........................................................................................................ 6

3.4 Conflicting guidelines between Industry Standards - Cosmetics Directive and REACH................. 7

3.5 Growing emphasis on risk management and risk communication .................................................. 7

3.6 Development of various tools .......................................................................................................... 8

4 Emerging Good Practices ..................................................................................................................... 8

4.1 Assessment Tools ........................................................................................................................... 8

4.2 Applications of Emerging Good Practices ....................................................................................... 9

4.2.1 LION ...................................................................................................................................... 9

4.2.2 Herman Miller ........................................................................................................................ 9

5 Decision Framework ........................................................................................................................... 10

5.1 Motivation ...................................................................................................................................... 10

5.2 How it Works.................................................................................................................................. 11

5.3 Parameters .................................................................................................................................... 12

5.4 Actions ........................................................................................................................................... 13

5.5 Rules .............................................................................................................................................. 14

5.6 Next steps ...................................................................................................................................... 15

5.6.1 Discover new parameters, actions, and rules ..................................................................... 15

5.6.2 Test in practice .................................................................................................................... 16

5.6.3 Objectives and goals ........................................................................................................... 16

6 Conclusion ........................................................................................................................................... 17

7 Appendix ............................................................................................................................................... 1

7.1 Appendix 1 – Key Research References ........................................................................................ 1

7.2 Appendix 2 – Contact information of people we connected with ..................................................... 2

7.3 Appendix 3 – Comparative Analysis of Hazard, Exposure and Alternatives Assessment Tools .... 3

7.4 End Note .......................................................................................................................................... 5

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1 Introduction

1.1 Objectives When looking at sustainability from a global perspective, the chemical industry has a significant impact

on both human health and environment. Consumer products including cosmetics and personal care

products compose about 10% of the worldwide chemical turnover of more than three trillion dollars.12

From the life-cycle viewpoint, chemical ingredients of these products have potential to affect eco-

systems through exploitation of resources, manufacturing, transportation, consumer use, and disposal.

Especially, for the products like shampoo and sunscreen, their release into water following the

consumer use does affect not only the environment but also human health through drinking water,

accumulation in organisms, soil, and air. Given such recent growing concerns about the eco-toxicity as

well as human-toxicity of chemicals, Natura picked eco-toxicity management as a topic of this S-Lab

project.

Natura is a Brazilian cosmetics, fragrance and personal hygiene company established in 1969. They are

currently a market leader in Brazil with about 7,000 employees. They provide over 900 personal care

and cosmetic products whose main ingredients were often discovered in the wild nature of Brazil.

Natura states, “our reason for being is to create and sell products and services that promote well-

being/being well” and put strong emphasis on quality and care for people.3 As an international brand,

Natura’s main concern is how Natura can design and implement its eco-toxicity management in a way

that aligns with its mission.

This report focuses on how to manage eco-toxicity of the product use and down-the-drain disposal

stages in this project, because they are the major pathways in which chemicals of consumer products

affect the environment. Natura already has the obligation to comply with a set of environmental

regulations; nevertheless, as part of their philosophy and strategy, they want to be pro-active in this

area. In order to help them to address this issue, our objectives are:

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Identify current worldwide trends and good practices in eco-toxicity management

Propose a strategic decision-making model to deal with eco-toxicity of ingredients of their

products

2 Methodology

2.1 Research Our main source of research was Internet. We gathered information from a number of government and

corporate websites regarding the current trends and established industry standards in managing eco-

toxicity of cosmetics ingredients. Information provided by Natura also proved very helpful in

understanding the significance of eco-toxicity in the cosmetics industry. We studied Natura’s proprietary

documents to establish the scope of our project and decided to focus on the use-phase of cosmetics. We

also referred to books and journals that carried case applications of emerging good practices in

managing environmental risk of chemicals and ingredients. Key references are listed in Appendix 1.

2.2 Interviews We interviewed experts from academia and industry to learn more about the emerging good practices

in the field of managing eco-toxicity of ingredients. The list of people we connected with is presented in

Appendix 2. It emerged during our discussions, as highlighted in Appendix 3, that the cosmetics industry

is still in its early stage of developing good practices related to ingredient eco-toxicity.

We discuss the highlights of our research and the interviews in the following section.

3 Global Trends

Managing eco-toxicity of products and ingredients is relatively new to the chemical industry. However,

with rising public concern about the sustainability of products, the field is gaining greater attention from

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companies, non-profits and governments. Through our research and interviews, we have identified the

following current industry trends in managing eco-toxicity of chemicals and ingredients:

Evolution from hazard assessment to risk assessment

Increase in legislations worldwide

Rise in Industry self-regulation

Conflicting guidelines between Industry Standards - Cosmetics Directive and REACH

Growing emphasis on risk management and risk communication

Development of various tools

3.1 Evolution from hazard assessment to risk assessment The approach to deal with hazardous chemicals has evolved from hazard assessment to risk assessment.

Hazard is the intrinsic ability of a chemical substance to cause adverse effects on human health and

environment. Risk, on the other hand, is the probability that such effects will occur. Risk assessment

takes into account both the hazards of a chemical substance and its exposure to human health and

environment4. For instance, if an ingredient is less toxic but a large volume is released into the

environment, its aggregated impact should not be ignored. The relationship between risk, hazard and

exposure is expressed as:

Risk = f (Hazard, Exposure)

A popular technique to measure risk is using the risk quotient, which is the ratio of PEC (predicted

environmental concentration) to PNEC (predicted no effect concentration).56 If the ratio is greater than

1, the substance may cause damage to the environment. While this calculation is somewhat simplistic

and further examination is expected, this approach is widely used in regions including European Union

(EU), US and Japan. We use this quotient in our study to assess the potential adverse impact of

ingredients on the aquatic environment.

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Global initiatives on chemical management have embraced the risk-based approach since 1990’s,

replacing the hazard-based approach. In 1992, Agenda 21 was agreed upon as a set of action plans,

including expansion and acceleration of international assessment of chemical risks7 at the United

Nations Conference on Environment and Development in Rio de Janeiro. Strategic Approach to

International Chemicals Management (SAICM8), adopted at the International Conference on Chemicals

Management in 2006, also covered risk assessments of chemicals to achieve the goal that, “by the year

2020, chemicals are produced and used in ways that minimize significant adverse impacts on the

environment and human health.”

3.2 Evolution from hazard assessment to risk assessment Although EU has spearheaded regulations on chemical management, governments across the world are

now tightening their laws around chemicals adversely affecting the environment. EU’s REACH governs

the evaluation of all industrial chemicals from their production to disposal, requiring companies to

register all the chemical substances manufactured or imported in more than the specified quantity.

USA’s EPA and other similar legislations from countries such as Japan and Canada are now placing

greater emphasis on a risk-based approach than the traditional hazard-based approach in reducing

adverse environmental impact of chemicals. In 2013, a REACH-like law will come into effect in South

Korea as well. Discussing each country’s legislation is beyond the scope of this project; however, more

and more countries are updating their domestic legislations to meet international agreements on

managing environmental risk of chemicals.

3.3 Rise in Industry self-regulation In addition to the government legislations, voluntary regulations have been promoted at the industry

level. International Council of Chemical Associations (ICCA)9 has developed programs that support

SAICM including Responsible Care and Global Product Strategy (GPS). The Responsible Care is adopted in

60 countries, where more than 70% of world’s chemicals are produced. ICCA also collaborates with the

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Organization for Economic Co-operation and Development (OECD) in the High Production Volume (HPV)

Chemicals Initiative to collect and share hazardous data across the industry and countries. These

voluntary initiatives at the global level are adopted at individual country level by chemical industry

associations such as Japan Initiative of Product Stewardship of Japan Chemical Industry Association and

Atuação Responsável of Brazilian Chemical Industry Association (ABIQUIM).10

3.4 Conflicting guidelines between Industry Standards - Cosmetics Directive

and REACH An increase in the number of regulations on chemical management has raised the probability for

conflicting goals between these standards. In addition, cosmetics are governed both by the regulations

on chemical substances and also by those on cosmetics. One such challenge the cosmetics industry is

facing today is the tension between two regulations regarding animal testing. Cosmetics Directive issued

by EU bans certain animal testing of cosmetics ingredients, while REACH requires animal testing for

safety data.11 12 13 14. According to Naohiro Takahashi, “although there are ways to balance the

tension, it would be harder to get approval for new substances without necessary data record to prove

their safety.”15 It may be important especially for Natura to watch these regulations as using natural

ingredients is one of Natura’s value propositions and substances derived from newly discovered natural

ingredients might not have all the necessary data.

3.5 Growing emphasis on risk management and risk communication Risk assessment based on hazard and exposure data is not proving sufficient in managing eco-toxicity of

products and ingredients. The next step has evolved to risk management. This evaluates whether the

assessed risk needs risk mitigation efforts, if so, decide how to control the risk, implement the actions,

and monitor the results. Another the critical aspect of risk management becomes risk communication,

which is to provide necessary information to all the stakeholders including consumer, industry, and the

regulatory bodies. The results of risk monitoring and communication are increasingly being included

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back into the risk management process to form a feedback loop to enable future decision-making in risk-

control. The growing emphasis on risk management and communication can be observed from

documents such as OECD Environmental Risk Assessment Toolkit.16

3.6 Development of various tools As part of the emerging good practices in managing eco-toxicity of products and ingredients, various

tools have been developed in the industry that assess environmental risk from chemical hazard and/or

exposure and sometimes also evaluate safer alternatives. These tools have been developed by

governments, international associations and non-profit organizations across the world and are helping

an increasing number of companies and consumers today to make informed decisions about using

various substances.

However, each tool focuses independently on some aspects of risk management, such as assessing

hazard or exposure, or assessing safer alternatives. Not many tools focus on the cosmetics industry

alone and none look at combining hazard, exposure and alternatives assessment into one framework.

Based on our research, we have identified a number of good practices that could be useful to Natura. In

the following section, we present a few of them and also discuss two cases applications of these

emerging practices.

4 Emerging Good Practices

4.1 Assessment Tools Appendix 3 presents a comparative analysis of a few publicly available tools that we believe Natura may

utilize in developing a risk management approach for their cosmetic ingredients and products. We

comment on what these tools do not offer that could have helped Natura in developing a more holistic

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risk management framework and hence leave scope for a comprehensive framework. Moreover, we also

draw attention to the tools that can serve as marketing instruments for Natura.

4.2 Applications of Emerging Good Practices

4.2.1 LION LION Corporation17, a manufacturer of detergent, soap, medications, oral hygiene products, and other

toiletries headquartered in Japan, has developed products that address environmental issues. One of

such initiatives resulted in the development and first industrial production of methyl ester sulfonate

(MES) and methyl ester ethoxylate (MEE).18 MES and MEE are plant-based surfactants with excellent

detergency and biodegradability. MEE is as effective as the traditional detergent with only half the

amount.

LION participates in the risk monitoring conducted by Japan Soap and Detergent Association to evaluate

the impact of surfactants used in household detergents on aquatic environment in urban rivers. 19

All the ingredients used by LION are managed in their internal database with Material Safety Data Sheet

of each ingredient to support its risk communication with suppliers, customers, and other

stakeholders.20

4.2.2 Herman Miller

Herman Miller has developed its own Design for environment (DFE) tool together with MBDC21

that

consists of a proprietary materials database to consider the safety and environmental impacts of each

material and classifies them into one of four categories: green (little to no hazard), yellow (low to

moderate hazard), orange (incomplete data) and red (high hazard). The tool considers four factors for

each component in the product:

Material Chemistry: Fraction of the materials by weight that are the safest possible in terms of

human toxicity and environmental concerns

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Recycled Content: Fraction of the materials by weight that are post-industrial or post-consumer

recycled content

Disassembly: Fraction of materials by weight that can be readily disassembled

Recyclability: Fraction of the materials by weight that are recyclable

Over time, Herman Miller aims to use only materials that rank yellow or green for all new products. For

example, polyvinyl chloride (PVC) is classified as a red material. It is used commonly in furniture due to

its low cost and high strength. However, both the production and incineration of PVC releases toxic

emissions. Herman Miller decided to entirely avoid using PVC in its new products and refined its

engineering design process to use safer materials such as polypropylene instead.

5 Decision Framework

5.1 Motivation Most environmental risk assessment frameworks available in the industry today include either potential

hazard or exposure or both criteria to evaluate safety of chemical ingredients, in addition to regulations.

However, our research indicates that no model considers the softer parameters such as risk perception

of the ingredients in society, patents on ingredients and growth trends associated with the use of those

ingredients in the market.

Moreover, none of these

frameworks focus only on cosmetic

ingredients but rather present a

generic model to assess safety of

products and ingredients in all

industries. We aimed to fill this gap

by developing a decision framework for cosmetic ingredients, which considers a wider set of parameters

to evaluate a set of actions that can be taken in managing eco-toxicity of ingredients.

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Of primary importance is that the decision framework be seen as an objective measure to compare

ingredients and their potential substitutes on an equal footing. At a minimum, for the user, the exercise

of gathering the data to feed the model is a reminder of the need to consider several dimensions in the

decision making process. Equally important, the framework is a way to force the decision maker to use

the same method and data formats to compare ingredients and their substitutes. Ultimately, the

decision framework does not claim nor aim to be a replacement for sound human judgment but rather

an analytical support tool.

5.2 How it Works The Decision Framework feeds on a combination of one cosmetic ingredient and one possible substitute

and then makes recommendations about the future use of that ingredient. The recommendations are

based on the relative confidence with which specific actions can be taken in managing the ingredient in

future. Every action, in turn, is based on certain business rules that reflect real world business scenario.

The model itself should also periodically be tweaked, to adjust and update the decision-making rules.

Although the action sets are recommendations, they are by no mean prescriptive. Instead, the

framework is meant to suggest that decision makers should consider more carefully certain actions over

others, on a scale from 0 to 100, where 100 implies a high level of confidence in the action. We present

below the list of parameters, the business rules and the recommended actions that are modeled in the

framework.

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5.3 Parameters We considered a list of parameters that could affect decision-making related to eco-toxicity of

ingredients and selected the following in designing the model:

Risk quotient (PEC/PNEC, Predicted Environmental Concentration / Predicted No Effect

Concentration) - if the ratio is greater than 1, the substance may cause damage to the

environment

Perception (subjective assessment of the customer perception, assigning a 0-100 value for this)

– this assessment may be subjective, but the same method should be applied for all ingredients

and should be normalized to obtain a meaningful distribution

Policy (likelihood that in the near to medium term the product will remain legal and will not

have an regulation limiting its usage)

List of all products containing the ingredient (and concentration per product)

Ingredient cost (R$/liter)

Annual revenue and gross profit derived from each product sold

Annual volume of each product sold (last year, or next year’s estimates)

Growth trend for each product (percentage year over year)

Geography where each product is sold (the volumes broken down by geography)

Information regarding relevant patents (as expressed in number of years of patent outstanding)

List of potential substitutes, and for each substitute

o Risk quotient, perception, policy, cost, and patent information (similar to ingredient it is

replacing)

o Availability in liters - what quantity of substitute could be procured at the time the

substitution needs to be done (for bulk of products concerned)

o Relative performance in the end product as compared to ingredient it is replacing - how

does the substitute compare to the substituted ingredient?

o Measure of the complexity of replacing the ingredient in the manufacturing process - this

measure should also reflect the time required for making the change (or reversing it)

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In the hypothetical example above, comparing BHT versus its substitute, the following could be a

comparison of their parameters.

We see that the risk quotient is better for the substitute, that the performance is almost equal but that

the substitute is more than twice as expensive. If such a substitute existed, we would expect that Nature

would strongly consider replacing BHT with this ingredient.

5.4 Actions Based upon these parameters, we analyzed potential risks and costs associated with these potentially

hazardous substances or products containing them. Based upon our decision framework, we then

defined the following actions for managing the ingredients:

Advertise the ingredient more

Maintain status quo

Attempt to lower cost of the substitute

Do more research on the substitute

Replace with the substitute

Cease production with the ingredient

Parameter Units BHT BHTsubs11

Risk quotient Positive number 1.7 0.8

Perception Scale: 0(neg)-50(ignore)-100(pos) 20.0 45.0

Policy Scale: 0(neg)-50(ignore)-100(pos) 80.0 90.0

Performance Scale: 0(worse)-50(same)-100(better) 48.0

Cost $/liter $ 5.00 $ 12.00

Quantity/Availability M liters 226.3 50,000.0

Patents Years to expiration (0=no patent) 3.6 4.5

Complexity Years required to make the substitution N/A 2.7

Gross profit $M (allproducts) N/A 22.0

Ing: Growth trend % y/y N/A 4%

Ing: Geography ISO 3166-1 BR BR

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The framework is designed such that these actions are not mutually exclusive. It gives the relative

confidence with which these actions can be taken in the best interest for the environment and the

business.

Not all combinations of recommendations are equally likely. For example, it would be hard to make

sense of a situation where the framework would recommend simultaneously to “advertise the

ingredient more” and to “cease the production with the ingredient”. However, it is conceivable the

decision framework would score high the any combination of the last four actions at the same time. So

for example, we could imagine that the company should “do more research on the substitute” and

“replace the ingredient with the substitute”.

In the previous example for BHT, the framework scored very high the action to replace BHT with

BHTsubs11 (85 points). In some sense, this should give a good confidence behind the decision to follow

the action, but a careful decision maker should probably try to understand what rule is contributing to

the 30 points under “cease production”.

5.5 Rules We developed a set of rules that reflect different possible scenarios of an ingredient matching with a

substitute. Every action, discussed above, is associated with these rules before making

recommendations. Following is a list of few possible business rules:

Advertise the ingredient more: If the ingredient has a risk quotient less than 1, the public

perception is positive, there are no policies against it, the gross profit is significant, is growing in

usage per year, Natura has a patent on it, the substitute does not perform as well and the

substitute is not less toxic and the substitute does not have a good perception

Maintain status quo: If the ingredient has a risk quotient less than 1, there are no policies

against it, the substitute does not perform as well and the substitute is not less toxic, the profit

impact of using the substitute would not be overly worse than that of continuing with the

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ingredient, the substitute would not be available once the complexities of substituting would be

overcome

Attempt to lower cost of substitute: If the substitute is available once the complexities of

substituting would be overcome, it performs better, is not too complex to implement, but its

cost is prohibitively expensive

Do more research on the substitute: If the ingredient has a risk quotient more than 1 and the

substitute is not better (either performance or risk)

Replace with substitute: If the substitute is better than the ingredient and there is enough

available to substitute and the gross profit impact is not too adversely large

Cease Production: Both the ingredient and the substitute are harmful and the public perception

is negative for both

5.6 Next steps

5.6.1 Discover new parameters, actions, and rules

The decision framework is a data driven analytical tool. As such, it needs to remain simple enough that

insights can be intelligible and understood by its users. Concurrently, it needs to capture all the

subtleties of what goes into making a decision on eco-toxicity. The set of parameters we propose

encapsulate many aspects of the evaluation but are by no means exhaustive. Similarly, we the set of

actions and associated rules could be expanded to fit more situations.

We recommend that Natura continue to seek new parameters and to question whether the

recommended set of actions is appropriate. Once the actions are determined and the set of parameters

is updated, our experience has been that it is surprisingly easy to describe in words what the rules

should be. However, one caveat is that we did not have to convince many stakeholders that our rules

were appropriate. We imagine that it could be challenging to calibrate the rules in a way that it pleases

people in finance, in operations, and in procurement all at the same time.

One source for new ideas is to conduct further research on tools of risk evaluation. At this time, it

appears that most corporations, not only in the cosmetic industry but in others as well, are trying to

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figure out the best tools and processes to manage eco-toxicity. One way for Natura to generate interest

and information sharing among industry players would be to share its approach with the public at large.

This could be the start of a discussion where Natura could be leader in shaping the industry wide

perspectives.

5.6.2 Test in practice

We have barely scratched the surface in terms of testing how well the decision framework would work

in practice. An essential next step would be to determine what Natura wants to achieve strategically

from the eco-toxicity management. If such a tool becomes part of the decision making process, then the

company would have to build organizational structure to lead and support Natura’s company-wide

initiative on eco-toxicity management. There needs to be a clear commitment to three main activities.

Natura should put in place the IT systems to support the data acquisition process for all

ingredients and their substitutes

Natura should assign a cross-functional team to come up with, and review periodically the set of

business rules that the company wants to apply to the data

The upper management of the company will need to drive the effort and incorporate the

decision framework into their agenda

Each of these activities is necessary for the decision framework to work in practice. Once these are in

place, then decision framework would probably need to be revised and adjusted in ways we cannot

predict.

5.6.3 Objectives and goals

As mentioned earlier, the decision framework is an analytical tool to support sound human judgment.

With or without the tool, Natura should continue to set specific objectives that will serve as the guiding

light the eco-toxicity initiatives. These objectives need to be measureable, specific, and aligned with

Natura’s corporate strategy.

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6 Conclusion

Through this project, we found the area of eco-toxicity management is still under development. We

could not find fully established risk assessment tools, let alone a management framework for decision-

making in a business setting; however, managing the environmental risk of ingredients and products is

becoming more and more important, given the high volume and growth of chemical industry, and

concerns for sustainability by various stakeholders including consumers, regulatory bodies, and

manufacturers.

In our attempt to make a supportive tool for Natura’s decision-making to deal with eco-toxic

ingredients, we incorporated not only scientific risk-related data of ingredients but also other factors

such as profitability of products, substitutability of alternative ingredients, policy level, and public

perception into our model. All of the information is necessary to evaluate and prioritize actions in a

resource-limited business setting.

Although our research is not exhaustive and our decision framework is not perfect, we, as a team,

learned that:

Making data hypothesis when missing data enables progress making on a model. We initially

thought we would not be able to finalize our model without the detailed set of data that fit

perfectly in pre-defined boxes.

Stepping back and considering eco-toxicity as a broad issue, not just specific to the cosmetics

industry, results in obtained more and higher quality information. There are good practices in

each industry that can be applied to cosmetics.

We hope that Natura will use the outputs of this project as a starting point of eco-toxicity management

and evolve the framework into a more sophisticated one. As mentioned in 5.6 Next Steps, this will

require company-wide, cross-functional efforts to collect necessary data and make comprehensive

decisions as a company. Tools and models are useful in supporting decision-making but they cannot

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replace human judgment.

From a broader perspective, we think Natura and the society could benefit if Natura could lead

initiatives in cosmetic industry in Latin America, beyond one company’s initiative. The model we

proposed in this paper will be available to other companies as well after removing proprietary data. It is

critical to address the eco-toxicity management issue as an industry in order to collectively prioritize

actions and mitigate risks from the aggregated release of chemicals from multiple companies. The

collective approach saves the cost through sharing necessary scientific data as well. One possible

approach would be for Natura to lead a launch of consortium or alliance for the cosmetics industry. By

strategically collaborating with other players in the chemicals and cosmetics field, we think Natura can

further contribute to the well being of people and planet.

1

7 Appendix

7.1 Appendix 1 – Key Research References

Name Resource

Alternatives Assessment Framework

http://www.chemicalspolicy.org/alternativesassessment.lowellcenter.php

California Green Chemistry Initiative

http://www.dtsc.ca.gov/pollutionprevention/greenchemistryinitiative/index.cfm

Clean Production Action’s GreenScreen

http://www.cleanproduction.org/Greenscreen.php

Cosmetics Directive http://ec.europa.eu/consumers/sectors/cosmetics/documents/directive/

The European Chemical Industry Council

http://www.cefic.org/

EWG’s Skin Deep http://www.ewg.org/skindeep/

Exposure and Risk Screening Methods for Consumer Product Ingredients

http://www.aciscience.org/docs/Exposure_and_Risk_Screening_Methods.pdf

Goodguide http://www.goodguide.com/#

HERA http://www.heraproject.com/Initiative.cfm

International Council of Chemical Associations

http://www.icca-chem.org/

Japan Soap and Detergent Association

http://jsda.org/

MBDC’s Cradle to Cradle Design

http://www.mbdc.com/detail.aspx?linkid=1&sublink=6

The OECD Environmental Risk Assessment Toolkit

http://www.oecd.org/document/54/0,3746,en_2649_34379_44909430_1_1_1_1,00.html

PBT Profiler http://www.pbtprofiler.net/default.asp

Product Design and Development

Book authored by Karl T. Ulrich, Steven D. Eppinger

REACH http://ec.europa.eu/environment/chemicals/reach/reach_intro.htm

Scorecard http://scorecard.goodguide.com/

SC Johnson’s Green List Process

http://www.scjohnson.com/en/commitment/focus-on/greener-products/greenlist.aspx

US EPA’s Design for Environment

http://www.epa.gov/dfe/alternative_assessments.html

7.2 Appendix 2 – Contact information of people we connected with

Name Function Contact information Key Points of Discussion Dr. Edgar Blanco Research Director at Center for

Transportation and Logistics,

MIT

[email protected]

(617) 253-3630

Should Natura tackle the issue in a consortium?

TESCO funded an NGO to assess carbon footprint of its products after finding it too costly trying to do it internally for 7 years

Wal-Mart built a consortium with suppliers to reduce operating costs

Steven D. Eppinger Professor of Management

Science and Innovation at MIT

Sloan School of Management

[email protected]

(617) 253-0468

Introduction of H2NO jackets by Patagonia in addition to Teflon jackets

Herman Miller’s introduction of environmental friendly chairs replacing

PVC with polypropylene

Elsa Olivetti Research Scientist at Materials

Systems Laboratory, MIT

[email protected]

(617) 253-8468

Applications of Clean Production Action’s Green Screen tool

California’s Green Chemistry Initiative

Bill Pease Chief Scientist at GoodGuide [email protected] Eco-effects in cosmetics are not scrutinized because:

Cosmetics are not a large source for environmental releases

Few ingredients have significant effects with global reach

Mark Rossi Policy Director, Clean Production Action Chair at BizNGO

[email protected]

rg

Review of Assessment tools such as US EPA Integrated Risk Information

System (IRIS), Cosmetic Ingredient Review (CIR) and EU Risk Phrases

Naohiro Takahashi President, Sumitomo Chemical

America

n2takahashi@sumichem.

com

Overview of trends of the regulations and management of chemicals

How businesses should incorporate not only cost benefit analysis at a

company level but also its impact on society into the decision making

Martin H. Wolf Director, Product Sustainability

and Authenticity at Seventh

Generation, Inc.

mhw@seventhgeneration

.com

Emphasis on the use of only safe ingredients to make products

Companies responsibility extends to the use phase of cosmetics and

educating the customer is included in good practices

Romulo Zamberlan Portfolio Innovation Manager

at Natura romulozamberlan@natur

a.net Natura’s ongoing research on indigenous ingredients from the Amazon

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7.3 Appendix 3 – Comparative Analysis of Hazard, Exposure and Alternatives Assessment Tools

Tool Organization What it offers What it does not offer

Assessing Hazard

PBT Profiler Environment Science Center, US EPA

Estimates persistent, bio-accumulative and toxic profiles for organic chemicals

given their CAS Registry number

Does not assess exposure of chemicals Indicates hazard using color codes - green, orange and red, for e.g.

P B T – high hazard

P B T – low hazard

Skin Deep Environment Working Group, US

Contains safety assessment for 70,000 cosmetic products and ingredients

based on a Hazard Score Framework that comprises 17 hazard categories including ecotoxicology and persistence and bioaccumulation

Relative weight assigned to eco-toxicity

is only 3% of the hazard rating

Assigns numeric ratings between 0-10 to reflect low (0), medium or high (10)

concern, for e.g.

Does not assess exposure of products

or ingredients

DMDM Hydantoin rates 7-8 based on hazard and data availability

GoodGuide GoodGuide, US based For-Profit

Provides authoritative information about health, environmental and social

performance of products and companies

Environment summary score makes no

direct reference to eco-toxicity

Products ratings range from 0-10, with higher scores associated with better

products, for e.g. Product X may be assigned: Ratings do not measure exposure

Total Score – 6.8 ( Health – 8.0, Environment – 7.0, Society – 5.4) Natura's products are not assigned complete

scores because of partial data availability

Scorecard GoodGuide, US based For-Profit

Measures toxic chemical releases in air and water by about 20,000 industrial

facilities in the US

Does not allocate what part of the toxic

releases come from the cosmetics industry

Requires area zip code or name of company and provides information about

pollution and toxic chemicals based on Toxic Release Inventory (TRI) sources, for e.g. Company X, Total Environment Releases – 15.9 million pounds

Does not measure toxic releases from

consumer-use phase

Assessing Hazard and Exposure

Human and Environmental Risk Assessment (HERA)

European initiative between AISE, the makers of household cleaning products and CEFIC, the chemical industry

Provides a risk assessment framework for evaluating safety of high tonnage

chemicals in the household cleaning products industry

Focuses only on cleaning products and

chemicals

Unlike OECD’s High Production Volume (HPV) chemical assessment program

or US EPA’s HPV Challenge program that primarily focus on hazard assessment, HERA assesses both hazard and risk of chemicals

Is still work in progress

4

Tool Organization What it offers What it does not offer

Guidance for Ecological Risk Assessment

Green Chemistry Initiative (GCI) under California Department of Toxic Substances Control (DTSC)

Describes a phased method of conducting both hazard and exposure

assessment for chemicals at permitted facilities

Does not assess exposure of chemicals

during or post the consumer use phase Promotes design of chemical products and processes that reduce or eliminate

the use and generation of hazardous substances

Assessing Alternatives

Alternatives Assessment Criteria for Hazard Evaluation

Design for Environment (DfE), US EPA

Provides transparent tool to seek safer chemicals for health and environment

Very few chemicals identified for risk

assessment are relevant for the cosmetics industry

Uses US EPA’s Chemical Action Plans for identifying chemical candidates for

risk management

Action Plans summarize available hazard, exposure, and use information for

chemicals and outline their risks

Green Screen for Safer Chemicals

Clean Production Action, US

Complements the DfE Alternatives Assessment methodology to aid in the

selection of safer alternative chemicals

Proposes greener chemicals based on

hazard assessment, not on exposure Defines benchmarks for use of safer chemicals, such as:

o Avoid chemicals of high concern

o Use but search for safer substitutes

Alternatives Assessment Framework

Lowell Center for Sustainable Production, US

Provides Guiding Principles for prevention, precaution or substitution of

chemicals

Serves as a generic tool for

alternatives assessment

Contains Comparative Assessment of existing chemicals and Design

Assessment of new chemicals

No direct examples in the cosmetics

industry

Evaluates alternatives based on health, environment, social justice, economic

feasibility and technical performance

CleanGredients GreenBlue, US based non-profit and US EPA

Identifies cleaning product ingredients that are safer for human health and

environment Does not assess exposure of chemical

ingredients Ingredient modules include solvents and fragrances that can be used in the

cosmetics industry

5

7.4 End Note

1 International Council of Chemical Associations (ICCA), http://www.icca-chem.org/

2 The European Chemical Industry Council, http://www.cefic.org/

3 Natura Report 2010

4 Concept of Risk vs. Hazard (HERA) - http://www.heraproject.com/Risk.cfm

5 UNEP/IPCS Training Module No.3, Environmental Risk Assessment, http://www.chem.unep.ch/irptc/publications/riskasse/b2text.pdf

6 Environmental Risk Assessment, P&G, http://www.scienceinthebox.com/en_UK/safety/riskassenv_en.html

7 United Nations, Agenda 21, 2002, http://www.un.org/esa/dsd/agenda21/res_agenda21_19.shtml

8 SAICM, http://www.saicm.org/

9 ICCA, http://www.icca-chem.org/Home/ICCA-initiatives/Global-product-strategy/

10 ABIQUIM, http://www.abiquim.org.br/english/content.asp?princ=rec&pag=pre

11 EFfCI opinion on the Animal testing and Marketing Bans of the 7

th Amendment of the EU Cosmetics Directive, 2009,

http://www.effci.org/assets/files/EFFCI_PS/Amendment.pdf

12 Nature, 2009, The lowdown on animal testing for cosmetics, http://www.nature.com/news/2009/090311/full/news.2009.147.html

13 bibra technology advice & consulting, http://www.bibra-information.co.uk/

14 EU Cosmetics Directive, http://ec.europa.eu/consumers/sectors/cosmetics/documents/directive/#h2-summary-of-the-cosmetics-directive-76/768

15 Personal interview

16 The OECD Environmental Risk Assessment Toolkit: Steps in Environmental Risk Management

http://www.oecd.org/document/20/0,3746,en_2649_37465_44915476_1_1_1_37465,00.html

17 LION Corporation, http://www.lion.co.jp/en/

18 LION, CSR Report 2011, http://www.lion.co.jp/en/csr/pdf/csr_2011_15.pdf

19 LION, http://www.lion.co.jp/ja/company/rd/shien03.htm

20 LION, http://www.lion.co.jp/ja/csr/env/chemicals/

21 MBDC - http://www.mbdc.com/default.aspx