
June 8, 2001
Memo to: Potential Applicants for Funding
From: Prof. J. M. DeSimone, Director
Prof. R. G. Carbonell, Co-Director
Prof. G. W. Roberts, Technical Program Coordinator
NSF Science and Technology Center for
Environmentally Responsible Solvents and Processes
Re: Request for Technical Proposals for Center Funding for the Period
11/1/2001-10/31/2003
This memorandum is an invitation
to submit proposal(s) for research funding by the NSF Science and Technology
Center for Environmentally Responsible Solvents and Processes under Cooperative Agreement
CHE-9876674. There will be two
solicitations. In the first, the
primary subject of this memorandum, we solicit proposals for two-year programs
supporting one or more of three “Application Domains” (Macromolecular Synthesis
and Engineering; Dissolution and Deposition; and Small Molecule Systems
described below). Approximately 90% of
annual operating funds will be used to support these projects. Participation in the first solicitation will
be limited to existing Principal Investigators and their Departmental
colleagues plus invited researchers whose expertise complements our existing
programs and needs. Remaining funds will be allocated to projects supported
under the second solicitation, which will encompass “seed programs”. The latter generally will be smaller
projects aimed at assuring vitality of the Center through continual renewal and
expansion into diverse areas not presently covered by Center programs. Outside
departments and institutions will be included.
Details of this second solicitation will be issued in August 2001.
A. CERSP vision, mission and goals
B. Application Domains
C. Overarching goals and general objectives
D. Strategic targets
E. Matrix of application domains and functional
efforts
A. Purpose
B. Format and Content
A. Project Title and Principal Investigator(s)
B. Research plan
1. Overall objective
2. Approach
3. Relation to overarching Center goals
a. Overarching goal(s) supported
b. Position in research matrix
4. Potential impact
C. Connectivity
1. Related work
a. Other Center proposal(s) supported (past and
planned)
b. Additional Center goals (other than primary)
supported
c. Additional functional efforts supported
2. Collaborations planned outside the Center
3. Resource and/or facilities sharing
D. Education and Outreach
1. Past K-12 support
2. Proposed K-12 support
3. Participation in PDP (past and proposed
future)
E. Funding
1. Standard funding option selected
2. Additional and complementary funding
VII. Schedule and Inquiries 9
VIII.
Appendix. Details of Strategic Needs 10
ii
Center for Environmentally Responsible
Solvents and Processes
This flyer
announces an invitation to submit proposal(s) for research funding by the NSF
Science and Technology Center for Environmentally Responsible Solvents and
Processes under Cooperative Agreement CHE-9876674. This solicitation for proposals is for two-year programs
supporting one or more of three “Application Domains” including:
Work in this area relates to all aspects of polymer synthesis and selected downstream processes. The goal is to develop fundamental understanding of kinetic and transport mechanisms,
thermodynamics, phase equilibria,
and factors affecting polymeric materials’ structure and function in CO2-related
systems in order to demonstrate feasibility of sustainable polymerization and
processing technology.
Work in this area focused on
useful in cleaning or lithographic processes; deposition, such as might be
useful in making films, coatings or devices; and materials which might be
employed in either of these processes.
The goal is to develop fundamental understanding of phenomena involved
in dissolution of materials and formation of thin films, coatings and
structures at CO2 interfaces in order to demonstrate feasibility of
sustainable processes, materials, and devices.
This
domain includes a wide variety of research areas such as inorganic and
biological catalysis. The overarching
goal is to develop fundamental understanding of small molecule reactions and
synthesis, separations and materials formation in supercritical and
near-supercritical CO2-based systems in order to identify
sustainable new processes involving small molecules as candidates for further
development.
.
Schedule and proposed selection
criteria are given below.
Schedule for Proposal Submission
Videoconference review with faculty June 14*
Pre-proposal titles due (intent to respond) June 28
Proposals due
Aug 6
Final selection of projects Sep
13
Funding commences Nov
1
Fit to
strategic plan Collaboration
plan
Potential
impact K-12
outreach record and plan
Scientific
merit Outside
funds attracted
Approximately
90% of annual operating funds will be used to support these projects. Participation in this solicitation will be
limited to existing Principal Investigators and their Departmental colleagues plus
invited researchers whose expertise complements our existing programs and
needs. For a detailed RFP, contact
Vicki Haithcock at vph@email.unc.edu
1
A. CERSP Vision, Mission and Goals
The vision, mission and goals of the Center have
been developed through several iterations, in conjunction with stakeholder
groups, including industrial partners, National Lab affiliates and faculty and
with guidance of our External Advisory Board.
These are given in Table 1, and the strategic planning process which
defined these is detailed on our website www.nsfstc.unc.edu
(Research Areas/Strategic Planning of Research).
Enabling a
revolution in green chemistry through cutting-edge science and engineering
CERSP Science and Technology Mission
To
identify and enable a new generation of sustainable processes,
especially for improved products, by developing and encouraging the application
of a robust body of fundamental knowledge in CO2-related science and
technology
ØTo create a strong body of integrated basic knowledge
targeted at supporting
selected
applications in macromolecular synthesis and engineering;
dissolution
and deposition; and small molecule systems
ØTo explore new frontiers in basic science and
technology for environmentally
responsible
solvents and processes
B. Application Domains
The ”selected applications” referenced in Table 1
give rise to “application domains” which support the goals of the CERSP. These domains are
Over thirty-five potential application targets have
been identified within these domains.
The first of these relates to all aspects of polymer synthesis and
selected downstream processes. The
second relates to dissolution, such as might be useful in cleaning or
lithographic processes; deposition, such as might be useful in making films,
coatings or devices; and materials which might be employed in either of these
processes. The third domain, “Small
Molecule Systems”, includes a wide variety of research areas such as inorganic
and biological catalysis. Selection of
these domains by the faculty was further validated by an independent survey of
members of the Kenan Center for Utilization of CO2 in Manufacturing.
Applications are viewed as a test bed for evaluation
of ideas. PIs should be alert to
fundamental issues that may be generalized and have impact well outside the
target application.
2
C. Overarching Goals and General Objectives
In keeping with CERSP’s strategic plan, all
technical programs should be aligned with the vision, mission, and goals in
Table 1 and with the overarching goals listed in Table 2.
Overarching Goal of Application
Domain I:
Macromolecular Synthesis and
Engineering
To develop
fundamental understanding of kinetic and transport mechanisms,
thermodynamics,
phase equilibria, and factors affecting polymeric materials’
structure
and function in CO2-related systems
In order to demonstrate feasibility of sustainable polymerization and
processing technology
Overarching
Goal of Application Domain II:
Dissolution and Deposition
To develop
fundamental understanding of phenomena involved in dissolution
of materials
and formation of thin films, coatings and structures at CO2
interfaces
In order
to demonstrate feasibility of sustainable processes, materials, and devices
Overarching Goal of
Application Domain III:
Small Molecule Systems
To develop fundamental understanding of small molecule reactions and synthesis, separations and materials formation in supercritical and near-supercritical CO2-based systems
In order
to identify sustainable new processes involving small molecules
as
candidates for further development
During the
initial two years’ operation of the Center, certain strategic targets have
become apparent. The list in Table 3 is
offered as guidance as to where greatest programmatic impact is expected,
organized by Application Domain.
Details are given in the Appendix.
As “impact” is one of the key factors in project selection, proposals
addressing these issues may be expected to receive stronger attention. However, this list is not intended to be the
sole focus of the Center, just a stimulus for ideas. Some iteration with
potential PIs is anticipated during the selection process so as to avoid
overlap while assuring that key topics are covered. A “pre-proposal title” or intent to respond is requested by June
28 so PIs can be alerted to modify their targets if necessary before spending a
great deal of time in preparing the proposal.
(See Section III.)
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Macromolecular Synthesis and
Engineering
*
Low delta P separation of monomers from high P CO2 streams
*
Synthesis of water-soluble polymers
*
Theory and model to predict phase equilibria
*
Control of polymer properties
*
Low temperature free radical initiators
Dissolution and Deposition
*
“Dry” microelectronic processes/devices such as
CMP CVD quantum dots
lithography metal
films nanoporous films
*
Coatings for biomedical applications
Small Molecule Systems
*
CO2 activation
*
Use of CO2/H2O emulsions for chemical synthesis,
separations and materials formation
*
Synthesis of pharmaceuticals
*
Synthesis and recovery of products from fermentation broths
*
Organic transformations avoiding solvents
*
Oxidation and hydrogenation in CO2
*
Powder and particle technology
*
Extraction of products from organic and aqueous solvents and solid
phases
*
Design of surfactants to solubilize organics in dry CO2
*
Use of CO2 for petroleum processing
Cross-cutting
*
Sensors
*
Low-cost, light-weight equipment for high pressure
* Cost effective surfactants
* Rapid fluid handling
# Details for most of these are given in the
Appendix
E. Matrix of application domains and functional efforts
In order to facilitate collaboration within cross-cutting or functional groups (e.g., surfactant studies) proposers will be asked to use the functions listed in Table 4 to communicate to evaluators and colleagues the combination of function and application reflected in your proposal.
Function Task (Application Domain)
|Macromolec |Dissol/Deposit |Small Molec |
Surfactants & interfacial phenomena |____________|____________|____________|
Separations processes |____________|____________|____________|
Modeling and simulations |____________|____________|____________|
Spectroscopy |____________|____________|____________|
Kinetics and mass transport |____________|____________|____________|
Thermodynamics |____________|____________|____________|
Reactor design |____________|____________|____________|
Other (specify) |____________|____________|____________|
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A. Purpose
The pre-proposal is a brief concept statement. Its purpose is to provide a mechanism for early dialog among Center leadership and potential respondents. This stage is intended to provide guidance to respondents in preparing the best set of proposals possible. There are at least three mutual benefits for respondents and the Center. (1) Excessive overlaps can be avoided in proposals. More positively stated, opportunities for close collaboration can be identified between respondents who propose similar work. (2) At an early stage, gaps can be identified in project areas that need to be filled. If no one within the constituent university departments is able or willing to fill those gaps, it may be necessary to identify and invite outside researchers to participate. (3) It may be possible to identify potential collaboration targets between researchers from different fields working on different aspects of similar areas. For example, theorists developing molecular models would do well to focus on systems of interest to experimentalists in related areas. And experimentalists should provide bases to test developing models.
These pre-proposals will be reviewed and prompt feedback given to guide you in preparing an effective and successful proposal.
B. Format and
Content
Respondents are to submit pre-proposals by June 28,
2001 (as electronic copies, preferably in MS Word 2000 format) to Prof. George
Roberts at groberts@eos.ncsu.edu and
to Vicki Haithcock at vph@email.unc.edu. Respondents are requested to maintain a copy
for their records (If any computer
incompatibilities exist these will be dealt with individually.)
1. Project title and Principle
Investigator(s)
Please be brief but descriptive in developing your
title. Use no more than 12 words, terms
(e.g.,
CO2) or abbreviations. If more than one PI is named, please
indicate which is to be considered
lead investigator.
Please include contact information (phone, FAX, e-mail).
This section should be 6-8 lines, including a brief
statement of research objective and your proposed research approach.
Respondents are to submit proposals in the following
format. An electronic form is available
at www.nsfstc.unc.edu (The Center/Research
Proposal Form). An electronic copy of
the full proposal is to be sent as outlined in Section III above by August 6,
2001.
A. Project Title and Principal Investigator(s)
Please be brief but descriptive in developing your
title. Use no more than 12 words, terms
(e.g.,
CO2) or abbreviations. If more than one PI is named, please
indicate which is to be considered
the lead.
Please include contact information (phone, FAX, e-mail).
5
This section should be 2-3 pages and include all of
the following elements.
1. Overall objective
The overall research objective should be stated in a
brief paragraph. In addition, a
one-line synopsis should be included which can be directly excerpted in listing
the Center’s key objectives.
2. Approach
What specifically do you plan to do? What is your strategy?
3. Relation to overarching Center goals
All research programs selected in the first
solicitation must be clearly aligned with one or more of the three Application Domains listed
above. Some projects may relate to
predictive models (mathematical or physical); diagnostic or characterization
tools and techniques (e.g., for measurements); and/or broadly applicable
equipment and/or processes. As the
Center’s work is fundamental, this is expected and encouraged. However, it should also be clear how that
model, tool or technique will be used directly to achieve the goals of at least
one Application Domain. (If your
proposal does not support one of these Domains but supports higher-level Center vision,
mission and goals, it may be a candidate for “seed” funding.)
a. Overarching goal(s) supported
With which of the three overarching goals (Table 2)
does your project best align? There may
be more than one, but pick the one where the success (or failure) of your
project would have the greatest impact.
This alignment will be used in our official reporting to NSF and on our
website but will not affect collaborative opportunities or group meeting
assignments. Collaboration is expected
within cross-cutting functions as well as application domains and thus grad
students and post docs are expected to attend as many weekly seminars as
possible.
b. Position in the research matrix
Please refer to Table 4 in the Background
section. Copy the matrix and complete
it as follows. Find the functional
area(s) that most nearly describe(s) your proposal. Mark the boxes in the matrix where the functional area
contributes to an application. Use “@”
for very important and “o” for somewhat important. Leave blank if there is little or no overlap. For example, if your proposal would measure
polymerization kinetics using a spectroscopic technique, there would be an “@”
in the box where spectroscopy and macromolecules intersect. However, that technique might also be used
to follow dissolution kinetics.
Depending upon the likelihood of this application, either “@” or “o”
would go into that box. If the technique
could also be used to follow an organic condensation reaction in CO2,
that box would be appropriately marked as well. For each mark that is made in the matrix, there should be a brief
explanation.
4. Potential impact
What difference will your project make? How will the Center benefit/suffer if your
proposal is/is not funded? The matrix
above and connectivity section below should be considered.
6
If this proposal extends an
existing project, briefly, what new collaborations have you established as a
result of your funding to date? Whether new or existing project, what new ones
are planned?
Sharing of graduate students and/or post-docs on
related projects is an excellent way to develop connectivity. PIs are encouraged to collaborate on
proposals to develop such connections.
1. Related work
a. Other Center proposal supported (past and
planned)
b. Additional Center goals (other than primary)
supported
c. Additional functional efforts supported
2. Collaborations planned outside the Center
3. Resource and/or facilities sharing