National Institute of Standards and Technology (NIST), Department of Commerce.
The National Institute of Standards and Technology's (NIST) Technology Innovation Program (TIP) announces that it will hold a single fiscal year 2010 competition and is soliciting high-risk, high-reward research and development (R&D) proposals for financial assistance. TIP also announces that it will hold three public meetings (Proposers' Conferences) for all interested parties. TIP is soliciting proposals under this fiscal year 2010 competition in the area of critical national need entitled “Manufacturing” as described in the Program Description section below.
The due date for submission of proposals is 11:59 p.m. Eastern Time, Thursday, July 15, 2010. This deadline applies to any mode of proposal submission, including paper and electronic. Do not wait until the last minute to submit a proposal. TIP will not make any allowances for late submissions, including incomplete Grants.gov registration or delays by guaranteed overnight couriers. To avoid any potential processing backlogs due to last minute registrations, proposers are strongly encouraged to start their Grants.gov registration process at least four weeks prior to the proposal submission due date. Review, selection, and award processing is expected to be completed by the end of November 2010.
Proposals must be submitted to TIP as follows:
Paper submission: Send to National Institute of Standards and Technology, Technology Innovation Program, 100 Bureau Drive, Stop 4750, Gaithersburg, MD 20899-4750. Please note that the NIST site is closed to the general public, and applicant personnel and couriers will not be permitted onto the NIST site in order to deliver proposals. Also note that the NIST Visitors Center is not permitted to accept proposals on behalf of the Technology Innovation Program. Paper submissions will be accepted from the U.S. Mail or similar commercial carrier that routinely delivers mail to NIST.
Electronic submission: http://www.grants.gov.Start Further Info
FOR FURTHER INFORMATION CONTACT:
Thomas Wiggins at 301-975-5416 or by e-mail at email@example.com.End Further Info End Preamble Start Supplemental Information
Additional Information: The full Federal Funding Opportunity (FFO) announcement for this request for proposals contains detailed information and requirements for the program. Proposers are strongly encouraged to read the FFO in developing proposals. The full FFO announcement text is available at http://www.grants.gov and on the TIP Web site at http://www.nist.gov/tip/helpful-resources.cfm. In addition, proposers are directed to review the April 2010 Technology Innovation Program Proposal Preparation Kit available at http://www.nist.gov/tip/helpful-resources.cfm. The TIP Proposal Preparation Kit must be used to prepare a TIP proposal. The TIP implementing regulations are published at 15 CFR Part 296, and included in the TIP Proposal Preparation Kit as Appendix B.
Public Meetings (Proposers' Conferences): TIP will hold three public meetings (Proposers' Conferences) to provide general information regarding TIP, to offer guidance on preparing proposals, and to answer questions. Proprietary technical discussions about specific project ideas with NIST staff are not permitted at these conferences or at any time before submitting the proposal to TIP. Therefore, proposers should not expect to have proprietary issues addressed at the Proposers' Conferences. Also, NIST/TIP staff will not critique or provide feedback on project ideas while they are being developed by a proposer. However, NIST/TIP staff will answer questions about the TIP eligibility and cost-sharing requirements, evaluation and award criteria, selection process, and the general characteristics of a competitive TIP proposal at the Proposers' Conferences and by phone and e-mail. Attendance at the TIP Proposers' Conferences is not required.
The TIP Proposers' Conferences will be held on the following dates, times, and at the following locations:
(1) April 28, 2010, 9 a.m.-2 p.m. Eastern Time: NIST Red Auditorium, 100 Bureau Drive, Gaithersburg, MD. Pre-registration is required by 5 p.m. Eastern Time on April 23, 2010, for the Proposers' Conference being held at NIST Gaithersburg, MD. Due to increased security at NIST, NO on-site registrations will be accepted and all attendees MUST be pre-registered. Start Printed Page 20327Photo identification must be presented at the NIST main gate to be admitted to the April 28, 2010 conference. Attendees must wear their conference badge at all times while on the NIST campus. Electronic Registration at: http://www.nist.gov/public_affairs/confpage/100428.htm.
No registration fee will be charged for attending the Proposers' Conferences. Presentation materials from the Gaithersburg, MD Proposers' Conference will be made available on the TIP Web site.
The Gaithersburg, MD Proposers' Conference will webcast details at the TIP Web site: http://www.nist.gov/tip.
(2) May 4, 2010, 1 p.m.-5 p.m. Pacific Time, Embassy Suites Hotel Los Angeles International Airport—South, 1440 Imperial Avenue, El Segundo, CA 90245.
(3) May 6, 2010, 9:00 a.m.-1 p.m. Eastern Time, Detroit Marriott Renaissance Center, Renaissance Drive N, Detroit, MI 48243.
No Pre-registration is required for the Proposers' Conferences in Los Angeles, CA or Detroit, MI.
CFDA: 11.616, Technology Innovation Program.
Program Description: TIP is soliciting proposals under this fiscal year 2010 competition in the area of critical national need entitled “Manufacturing” as described below.
Area of Critical National Need: Manufacturing
The goal of the research outcome/impacts from this competition is to provide manufacturers and end users improved access to adequate quantities of materials based on new advances at competitive costs that allow evaluation and utilization of these materials in innovative ways, and new manufacturing processes that can transform the way products are made. TIP's funding strategy for this competition will emphasize three important elements: (1) Process scale-up, integration and design for materials advances; (2) Predictive modeling for materials advances and materials processing; and (3) Critical process advances related to the manufacturability of materials and manufacturing of both new and existing products. These three elements of the societal challenge of accelerating the use of materials advances and advances in critical processes will be addressed as outlined in the white paper Manufacturing and Biomanufacturing: Materials Advances and Critical Processes (http://www.nist.gov/tip/cur_comp/index.cfm).
Materials performance is often a critical consideration and controlling factor in the innovation process. High strength alloys are used to build stronger, lighter and safer vehicles; superalloys are used to make higher efficiency gas turbines; composites make larger, more efficient wind turbine blades and provide improved performance in aerospace applications; and nanomaterials are finding their way into better performing batteries, energy storage devices, electronic inks, high voltage transmission lines, and health care related applications (e.g., imaging and therapeutics). Ceramics have new uses in improving electronic and photonic devices, and glasses have many next-generation applications such as wireless communication, displays, optical telecommunication, integrated circuits, and ion exchange membranes for fuel cells. Overcoming scale-up issues of moving novel materials advances from the laboratory into manufacturing through “faster, better, cheaper” methods is just one way to help manufacturers be more successful and competitive. Critical processes are generally manufacturing processes that have the greatest impact on one or more of the following characteristics: product quality, product yields from raw materials, scrap rates, efficiency of raw material consumption, and/or other measures of efficiency. Many critical manufacturing processes are not flexible enough to easily incorporate novel materials advances into new products and many critical processes limit the nation's capacity to supply existing strategically important products. Finding technical solutions to these challenges in manufacturing can give the comparative advantages necessary for retaining manufacturing in the United States. Outlined in this announcement are three key areas related to the manufacturability of materials advances and enhanced processing capabilities and descriptions of the supporting technical challenges that need to be addressed. If successful, the manufacturing solutions envisioned will have the potential to:
Create significant improvements in new and existing products and in their manufacture by accelerating the utilization of materials advances and overcoming critical manufacturing process bottlenecks to improve the competitiveness of U.S. manufacturers in the global marketplace.
“Materials advances” are defined for purposes of this funding opportunity as:
Materials that have been developed to the point that unique functionalities have been identified and these materials now need to be made available in quantities large enough for innovators and manufacturers to test and validate in order to develop new products.
The unique functionality that these materials represent will require new levels of understanding in the sciences of materials processing and process control. Nanomaterials, for example, will require manipulation and measurement at the atomic level. In alloys, the measurements and control would be at the microscale (and eventually at the nanoscale) with an emphasis on anisotropic features of the micro (nano) structure. With composites, ceramics, and glasses, measurements and control would be at the mesoscale and would take advantage of the anisotropic layering of the process. Control of one material or phase within another will also be an important consideration.
A “critical process” is defined for purposes of this funding opportunity as:
A process that has a significant impact on capacity, output, quality, variability, efficiencies, performance, flexibility, etc., as well as a manufacturer's competitiveness and success.
Process improvements made through high-risk, high-reward research and development, rather than simple engineering improvements or redesign, could lead to significant and quantifiable improvements in process output measures. As an example from last year's news headlines, consider the vaccine production response to the H1N1 flu outbreak. Experts were able to decode the virus to prepare a vaccine in record time, but encountered problems supplying the large volumes of vaccine needed in a timely fashion. Vaccines are grown in chicken eggs in a process that dates back to World War II. Each egg is in effect its own factory with product variability and purity issues. Development of new processes for production of recombinant vaccines as well as processes for real time monitoring and analysis could address these problems and would help to not only respond rapidly to new virus outbreaks, but could also reduce the cost of clinical trials through better scale-up methodologies. Addressing these challenges and needs could also impact other industries such as chemicals, biofuels, etc. Start Printed Page 20328
Element 1—Process Scale-Up, Integration, and Design for Materials Advances
New materials typically are developed in a laboratory setting, and then samples are given to end-users for alpha and beta testing. During this testing phase, it can take considerable time and experimentation to understand how the materials can be incorporated into a new product in a way that maintains and utilizes their unique functionality. Scaling-up from laboratory quantities to larger volumes, validating properties, and then incorporating the materials into product manufacturing lines is often non-linear and does not follow straightforward scaling laws, due to the unique functionality that has been obtained from the materials advances.
Element 2—Predictive Modeling Tools for Materials Advances and Materials Processing
Predictive modeling capabilities are key to developing new processes, scaling-up these processes, and understanding how to utilize the unique functionality of materials advances. Modeling capabilities are needed principally to:
a. Analyze and understand why newly discovered materials do what they do and then extrapolate their behavior to new uses; and
b. Incorporate this knowledge more efficiently into process design tools so new products can be made while maintaining the unique functionality of the materials as predicted.
Element 3—Critical Process Advances
As the availability of new materials increases and the modeling of their behavior becomes more refined, there is a complementary need to improve processing or manufacturing methods. High-risk, high-reward approaches are needed to exploit the properties of the materials advances into new and more advanced products as well as support the processing of existing materials in new and different ways, resolving key bottlenecks or critical problems such as energy consumption, processing time, scrap rates, quality, and throughput. Current methods of manufacturing often are not rapidly adaptable to making new or different products, and are often not optimized towards making existing products faster, more cheaply, and more sustainably. Improving processes used in the manufacture of new and existing products is an imperative for the continued global competitiveness of U.S. manufacturers. Agile, flexible, and increasingly interoperable systems are necessary enhancements to base manufacturing technologies in order to meet new productivity challenges.
Significant biomanufacturing process improvements are needed to enhance safety, quality, and consistency of biopharmaceuticals while reducing the manufacturing cost. For example, current sensing technologies typically require manual sampling, are not rapid or robust to cleaning agents or processes, and are not sufficiently reliable for imbedding in the manufacturing environment as automated technology. Critical process advances are needed, enabling rapid on-line sensing and analytical capabilities. New tools are needed for bioprocess optimization, control and improvement to enable a cost-effective batch or continuous manufacturing process. Processes that involve integrated sensing and detection capabilities for measuring multiple parameters will be useful. Moreover, purification and separation process advances involving novel membranes and affinity reagents are needed for cost-effective downstream processing in biopharmaceutical manufacturing processes.
The first two proposed elements for Manufacturing and Biomanufacturing: Materials Advances and Critical Processes require research in new technologies. The table below can be used to illustrate possible relationships between key challenges. TIP would expect solutions to the first two elements to map into one or more cells in Table 1 below. It is possible that the areas below could also impact or involve health care applications and/or biomanufacturing approaches.
|Technological needs||Nanomaterials||Superalloys, alloys & smart materials||Composites||Ceramics||Glasses|
|Processing of Materials:|
|Scale-up from Laboratory Quantities/Controls|
|Incorporate into New Uses/Maintain Functionality|
|Rules/Understand Why It Does What It Does|
|Process Modeling/Design Tools|
For the first element, process scale-up, integration, and design for materials advances, new processes will need to be developed. These processes will increase to commercial scale the quantity and quality of available advanced materials; or help incorporate these materials into new, revolutionary products based on a new material's properties. These scaled-up processes may be a next generation or an entirely new process. For example, forging ever-larger parts cannot be solved by building ever-larger forges (which becomes prohibitively expensive), but instead by developing new techniques such as partial forging.
New instrumentation and measurement capabilities also will be needed to support these new processes. These instruments will need to measure real-time process parameters such as the properties that provide the unique capabilities of the advanced materials (e.g., composition). In addition, instruments for real-time inspection are needed to ensure and/or verify materials are being correctly incorporated into manufactured products that require the revolutionary functions of these new materials.
Proposals addressing process scale-up, integration, and design for materials advances will be considered responsive if they include scale-up of materials in one of the specified five materials classes (listed in Table 1) that are derived from biological or other sources and consist of one or more of the following:
- A single process to achieve the goals of the scale-up, or multiple processes integrated together into a coherent solution (i.e., diverse processes Start Printed Page 20329or multiples of a single process for “intensification”);
- Scale-up of materials processes to manufacture and apply coatings that are within the scope requirements for the material types (nanomaterials; superalloys, alloys and smart materials; composites; ceramics; and glasses, including bulk metallic glasses); or
- Scale-up of materials processes for healthcare applications (e.g., imaging, therapeutics, etc.).
Some examples of responsive proposals (not all-inclusive) include:
- Nano structured silica from rice plant or algae.
- Oxide nanoparticles produced by microorganisms.
- Quantum dot-based nanocomposites produced by genetically engineered viruses (e.g. M13 bacteriophage).
- Cellulose/polyethylene oxide nanocomposites produced by genetically engineered bacteria (Acetobacter Xylium).
- Biologically produced silver carbon composites for optically functional thin film.
- Biologically produced natural fiber reinforced aerogel composites.
- Composites made with chitosan derived from crustacean shells.
Proposals addressing process scale-up, integration and design for materials advances must address all of the following issues:
- Address one or more of the materials areas specified in this announcement.
- Quantify the baseline processing capabilities.
- Describe how the results of the process scale-up could lead to new products and manufacturing process capabilities.
- Provide quantification and qualification of the estimated output of the final project results.
- Scale-up of the quantities produced during the project must be targeted to increase by a factor of 1,000 fold or more (unit quantity per unit time) as compared to the baseline.
- A detailed scientific rationale and description of the challenges to accomplish scale-up of the process(es) must be included.
Proposals addressing process scale-up, integration, and design of materials advances will be considered more competitive if they:
- Include validation methodologies by or with processors or end users and/or
- Address sustainability issues.
Proposals addressing process scale-up, integration, and design for materials advances will be considered nonresponsive if they:
- Have the primary focus of the proposal on materials that are not included within Table 1 (i.e. pure polymers).
- Focus primarily on the application of material coatings using a material not included in Table 1.
- Do not provide a quantitative technical discussion of baseline capabilities (state-of-the-practice or state-of-the-art).
For the second element, predictive modeling for materials advances and materials processing, new tools are needed to enable researchers to use constitutive relations and rules (with validation) concerning the underlying behavior of materials (understanding structure vs. function) and the changes to behavior due to manufacturing processes. For example, new tools will need to account for the scale-dependent behavior of materials advances. This capability will enable a better and quicker understanding of why materials do what they do. These efforts will also enable extrapolation of that knowledge beyond the laboratory conditions for which they were developed, and will therefore need new validation and verification capabilities.
In addition, critical knowledge is needed about why certain decisions or assumptions were made, in order to incorporate new modeling capabilities for laboratory results into process design and modeling. Again, new validation and verification methodologies will be essential.
With successful development of these tools, processes, and technologies, the manufacturing communities will have significantly improved capabilities to quickly incorporate advanced materials breakthroughs into revolutionary products based on new materials functionality, and thus establish new competitive advantages in a global economy.
Proposals addressing predictive modeling for materials advances and materials processing must address all of the following issues:
- Address one or more of the materials areas given in Table 1.
- Quantify the baseline modeling capability.
- Describe how the results of the proposed modeling capabilities could lead to new products and manufacturing process capabilities.
Proposals for predictive modeling for materials advances and materials processing must also address one or both of the following:
- Develop constitutive relationships and rules that describe the behavior and the process of the materials at a level that is useful for describing laboratory results, as well as for developing a greater understanding of the materials for end users and/or
- Develop or use the constitutive relationships and rules to develop process design tools for the manufacturing processes for these materials advances.
Proposals addressing predictive modeling for materials advances and materials processing will be considered more competitive if they address:
- Collaboration by or with those who manufacture the materials, in order to validate the models and/or
- How users will specifically benefit from the acceleration and implementation of the proposed models in support of materials reliability (i.e. final properties or mechanical performance) and materials behavior before and after processing.
Proposals addressing predictive modeling for materials advances and materials processing that do not include validation of models will be considered less competitive.
Proposals addressing predictive modeling for materials advances and materials processing will be considered nonresponsive if they:
- Have the primary focus of the proposal on materials that are not included within Table 1 (i.e., pure polymers).
- Focus primarily on the application of material coatings using a material not included under Table 1.
- Do not provide a quantitative technical discussion of baseline capabilities (state-of-the-practice or state-of-the-art).
The third element, critical process advances, requires modifications in manufacturing processes that augment and expand current limited capabilities. Applications could include those oriented towards the creation of novel methods to fabricate unique components from complex, difficult-to-machine materials (advanced engineering materials or smart materials), or the design and implementation of real-time, sensor-based, feedback-optimized systems for discrete, continuous or batch manufacturing processes. A discrete manufacturing example could be a process for making customized parts such as medical implants, using techniques such as additive manufacturing, near net-shape fabrication, or partial forging. Processes are needed for the manufacture of parts possessing complex geometries from existing and novel materials while preserving the properties of the material. A batch process example would be improved process monitoring Start Printed Page 20330and in situ analytical tools, enabling a reduction in batch-to-batch variability and an improvement in quality, and quantity of biopharmaceuticals or other products produced in a more reliable and cost-effective manner.
A table for guidance on categorizing applicable processes and pathways to critical process advances is given below. TIP would expect solutions to the third societal challenge to map into one or more of the cells in Table 2 below.
|State-of-the-art approaches to critical manufacturing process advances for:||Process|
|Enabling new capabilities|
Proposals addressing critical process advances will be considered responsive if they address improvements in quality, throughput, costs, sustainability, new capabilities, and agility, relative to the state-of-the-art for the process being proposed.
In drafting a proposal addressing critical process advances applicants should address topics in their area of interest such as:
- If a proposal offers improvements in several of these categories, the multiple improvements could be combined. For example, a proposed new process might offer half the setup time and triple the rate of production compared to existing processes.
- Benefits are not necessarily “linear”; for example, a component of a machine might benefit from increased strength or durability up to a point, beyond which there is little incremental benefit.
- Because manufacturing processes generally involve tradeoffs, a proposed new process may involve improvements in some areas and tradeoffs in other areas. For example, a proposed process might offer a factor of six cost reduction but a production rate decrease of a factor of two, and the net benefit of the tradeoff will be evaluated.
- Proposals should quantify to the extent possible every aspect of the advance in state of the art (as shown by the rows in the Table 2 above), including any that may offer decreased benefit as a tradeoff to further increase the advance in another area. Claimed benefits must be quantified for particular target application(s). (Example: “a new forging and heat treatment process for automobile axles will allow 50% lighter parts to be used and cut manufacturing cost by x%, improving fuel economy by y%, and ultimately reducing greenhouse gas emissions by z million tons per year.”)
- The evaluation process should not make assumptions about performance parameters that are not discussed. For example, if a proposal claims lower cost but does not mention quality, reviewers will have to consider the possibility that quality is being sacrificed to save on cost, and such a proposal will be less competitive than one that offers comparable cost saving together with a claim for quality equal to or better than current products.
The term “biomanufacturing” as used throughout this notice and in the FFO announcement refers to manufacturing of biopharmaceuticals. Biopharmaceuticals are complex pharmaceutical products manufactured by biotechnology. Two types of biomanufacturing are considered: bioprocessing for production of biopharmaceuticals such as recombinant proteins as vaccines, therapeutics, or as molecular probes for diagnostics, and advanced biofabrication and processing for production of cell or tissue-based biopharmaceuticals such as engineered cells and engineered tissues as therapies. Engineered tissues are complex structures involving cells, scaffolds and signaling molecules. Manufacturing of either type of biopharmaceuticals is within the scope of the competition.
Proposals addressing critical process advances will be considered responsive if they provide improvements in one or more critical processes integrated together into a coherent solution to significantly enhance process efficiencies and reduce process variability.
Some examples of responsive proposals (not all-inclusive) include:
- New biomanufacturing process capabilities enabling rapid on-line monitoring of production cell health and function (e.g. cell viability, metabolism, contaminants) and on line monitoring of the structure and function of engineered cells or tissues when developed as therapeutics.
- Advanced bioprocesses for rapid on-line analysis of biopharmaceuticals (e.g. protein glycoforms, three-dimensional structure, aggregates, immunogenicity and contaminating bacteria, viruses, mycoplasma, production cell proteins and nucleic acids).
- Advanced active control feedback systems for monitoring and controlling complex bioprocesses and high throughput microreactor/bioreactor array systems for optimizing production cell systems (e.g. engineered Chinese Hamster Ovary or CHO cells, insect cells, microorganisms, or algae).
- Advances in critical processes in cost effective scale up of engineered cells or engineered tissues.
- New, automated processes for producing parts using composite materials.
- Affordable fabrication methods for lightweight components manufactured from low cost titanium powders.
- Reduction of energy intensity and demand, carbon dioxide and greenhouse gas emissions in glassmaking or other high energy consuming sectors.
- Precision additive manufacturing of medical devices.
- Low cost technologies for advancing the uses of nanomaterials in a variety of end products.
Responsive proposals addressing critical process advances must address all of the following issues:
- Address how the improved manufacturing processes are transformational compared to the state-of-the-art;
- Describe how the results of the research will lead to new and improved manufacturing processes enabling safe, cost effective and reliable production and new and improved products such as customized medical implants, large bearings, etc.; Start Printed Page 20331
- Describe why the technological solutions are high-risk and high-reward in nature; and
- Provide quantification and qualification of the estimated output of the final project results.
Proposals addressing critical process advances will be considered more competitive if they:
- Include multiple improvement areas from the table above;
- Include validation methodologies by or with processors or end users; and/or
- Address sustainability issues.
Examples of proposals addressing critical process advances that will be considered nonresponsive are:
- Any manufacturing process that offers only incremental improvement over existing processes;
- Processes that are intended primarily for military/weaponry applications (e.g. warhead manufacture, chemical/biological warfare materials production);
- Manufacturing processes that cannot be performed in the U.S. due to existing laws or regulations;
- Projects primarily focused on production of non engineered cells or tissues as therapeutics;
- Projects involving straightforward scale-up of biopharmaceuticals with incremental improvements in the manufacturing processes;
- Projects that involve incremental improvements in traditional processes for biomolecule production (e.g. vaccine production in chicken eggs, hormones such as insulin extracted from pig tissue);
- Biomanufacturing projects that primarily focus on processes for production of non-biopharmaceutical products (e.g. production of biofuels or small molecule drugs);
- Projects that primarily focus on drug discovery or design of new biomaterials;
- Projects that primarily focus on discovery of new production cell systems;
- Projects that use living genetically modified vertebrate animals, invertebrate animals, or plants as bioreactors for biopharmaceutical production;
- Production or scale up of scaffolds or biomaterials used in scaffold design that are not a part of the manufacturing of engineered tissues; and
- Projects with a primary focus (people, equipment, time, and/or funds) on device development.
Additional Requirements for All Manufacturing Proposals
TIP proposals are strengthened and generally considered most competitive when the proposed research plan includes validation by others of the research goals. When preparing a proposal, it is necessary to quantify and qualify the ability of the research results to “Transform the Nation's Capacity to Deal with Major Societal Challenges”. The claims that any proposal makes relative to this key criterion are strengthened by validation of the research results with one or more end user(s) of the technology. The proposal may make assertions by narrative and referenced third-party documentation. The addition of “letters of interest” in the research results by potential end users adds strength to a proposal. Ultimately, the addition of one or more end users in a validation task implementing the research results would present the strongest case for commitment to the planned research goals.
Examples of validation tasks within each of the three elements might include:
- Process scale-up, integration, and design for advanced materials: Create a prototype using the advanced material produced from the research.
- Predictive modeling for advanced materials and materials processing: Apply modeling capability by implementing the new model information as a key knowledge component into a process or product.
- Critical process advances: Integrate the research results into processes for optimization, control and improvements in manufacturing and product analysis (e.g. composites, metals, chemicals, biopharmaceuticals).
Nonresponsive projects under this area of critical national need include:
- Projects whose principal focus is on discovery of new materials;
- Efforts related to the physical extraction of raw materials;
- Straightforward improvements to existing processes or materials without the potential for a transformational increase in performance to the technical requirements;
- Integration projects using only existing state-of-the-art processes, models or materials;
- Software development that is predominantly straightforward, routine data gathering using applications of standard software development practices; and
- Projects that do not include a quantitative baseline and quantitative metrics for tracking research.
In addition to the competition-specific nonresponsive projects, the following are nonresponsive projects:
- Straightforward improvements of existing products or product development.
- Projects that are Phase II, III, or IV clinical trials. TIP will rarely fund Phase I clinical trials and reserves the right not to fund a Phase I clinical trial. The portion of a Phase I trial that may be funded must be critical to meeting evaluation criterion (a)(1) addressing the scientific and technical merit of the proposal. The trial results must be essential for completion of a critical R&D task of the project. The definitions of all phases of clinical trials are provided in the TIP Guidelines and Documentation Requirements for Research Involving Human & Animal Subjects located at http://www.nist.gov/tip/helpful-resources.cfm.
- Pre-commercial-scale demonstration projects where the emphasis is on demonstrating that some technology works on a large scale or is economically sound rather than on R&D that advances the state of the art and is high-risk, high-reward.
- Projects that TIP determines would likely be completed without TIP funds in the same time frame or nearly the same time frame, or with the same scale or scope.
- Predominantly straightforward, routine data gathering (e.g., creation of voluntary consensus standards, data gathering/handbook/specification sheet preparation, testing of materials, or unbounded research aimed at basic discovery science) or application of standard engineering practices.
- Projects in which the predominant risk is market oriented—that is, the risk that the end product may not be embraced by the marketplace.
- Projects with software work, that are predominantly about final product details and product development, and that have significant testing involving users outside the research team to determine if the software meets the original research objectives, are likely to be either uncompetitive or possibly ineligible for funding. However, R&D projects with limited software testing, involving users outside of the research team, or vertebrate animals, may be eligible for funding and contain eligible costs within a TIP award when the testing is critical to meeting evaluation criteria and/or award criteria and the testing results are essential for completion of a critical task in the proposed research. This type of testing in projects may also be considered to involve human subjects or vertebrate animals in research and require compliance with applicable Federal regulations and NIST policies for the Start Printed Page 20332protection of human subjects or live vertebrate animals.
Unallowable/Ineligible Costs: The following items, regardless of whether they are allowable under the Federal cost principles, are ineligible/unallowable under TIP:
a. Bid and proposal costs unless they are incorporated into a Federally-approved indirect cost rate (e.g., payments to any organization or person retained to help prepare a proposal).
b. Construction costs for new buildings or extensive renovations of existing buildings. However, costs for the construction of experimental research and development facilities to be located within a new or existing building are allowable provided the equipment or facilities are essential for carrying out the proposed project and are approved in advanced by the NIST Grants Officer. These types of facility costs may need to be prorated if they will not be used exclusively for the research activities proposed.
c. Contractor office supplies and contractor expenses for conferences/workshops.
d. Contracts to another part of the same company or to another company with identical or nearly identical ownership. Work proposed by another part of the same company or by another company with identical or nearly identical ownership should be shown as funded through inter-organizational transfers that do not contain profit. Inter-organizational transfers should be broken down in the appropriate budget categories.
e. For research involving human and/or animal subjects, any costs used to secure Institutional Review Board or Institutional Animal Care and Use Committee approvals before or during the award.
f. General purpose office equipment and supplies that are not used exclusively for the research: e.g., office computers, printers, copiers, paper, pens, and toner cartridges.
g. Indirect costs, which must be absorbed by the recipient. However, indirect costs are allowable for contractors under a single company or joint venture. (Note that indirect costs absorbed by the recipient may be used to meet the cost-sharing requirement.)
h. Marketing, sales, or commercialization costs, including marketing surveys, commercialization studies, and general business planning, unless they are included in a Federally approved indirect cost rate.
i. Office furniture costs, unless they are included in a Federally approved indirect cost rate.
j. Patent costs and legal fees, unless they are included in a Federally approved indirect cost rate.
k. Preaward costs: i.e., any costs incurred prior to the award start date.
l. Profit, management fees, interest on borrowed funds, or facilities capital cost of money. However, profit is allowable for contractors under a single company or joint venture.
m. Project development planning (e.g. patent and literature searches) and creation of milestones. For example, proposals that plan on developing milestones only if an award is received and after literature searches are performed under the award are generally not competitive. Costs for literature searches in general are ineligible.
n. Relocation costs, unless they are included in a Federally approved indirect cost rate.
o. Salaries: NIST limits the salaries of project personnel to not exceed Level I of the Executive Schedule ($199,700 as of January 2010 http://www.opm.gov/oca/10tables/html/ex.asp).
p. Tuition costs are generally not allowed as direct costs on projects. An institution of higher education participating in a TIP project as a contractor or as a joint venture member or lead may charge TIP for tuition remission or other forms of compensation paid as, or in lieu of, wages to students performing necessary work. These are allowable, provided the requirements are met under 2 CFR Subtitle A, Chapter 2, Part 220, Appendix A. 45 (formerly OMB Circular A-21, Section J. 41). In such cases, tuition remission and other forms of compensation paid to students shall be treated as direct costs in accordance with the actual work being performed, and listed in the budget under “Other.” Tuition remission may be charged on an average rate basis.
Funding Availability: Fiscal year 2010 appropriations include funds in the amount of approximately $25 million for new TIP awards. The anticipated start date is January 1, 2010. The period of performance depends on the R&D activity proposed. A single company can receive up to a total of $3 million with a project period of performance of up to 3 years. A joint venture can receive up to total of $9 million with a project period of performance of up to 5 years. Continuation funding after the initial award is based on satisfactory performance, availability of funds, continued relevance to program objectives, and is at the sole discretion of NIST.
Eligibility: Single companies and joint ventures may apply for TIP funding as provided in 15 CFR §§ 296.2, 296.4, and 296.5. Nonprofit organizations must meet the eligibility criteria set forth in 15 CFR 296.5(a)(2), which explains the eligibility criteria for companies.
Large-sized Company Participation: A large-sized company is not eligible to apply for TIP funding. A large-sized company is defined as any business, including any parent company plus related subsidiaries, having annual revenues in excess of $1.7208 billion. This number is based on the May 2009 issue of Fortune magazine's Fortune 1000 list. (Note that the revenue amount will be updated annually and will be noted in future annual announcements of availability of funds.)
Cost-Sharing Requirements: Proposers must provide a cost share of at least 50 percent of the yearly total project costs (direct plus all of the indirect costs).
Evaluation and Award Criteria: Proposals are selected for funding based on the evaluation criteria listed in 15 CFR 296.21 and the award criteria listed in 15 CFR 296.22 as identified below. Additionally, pursuant to 15 U.S.C. 278n(c), no proposal will be funded unless TIP determines that it meets all of the award criteria listed in 15 CFR 296.22. Detailed guidance on how to address the evaluation and award criteria is provided in Chapter 2 of the TIP Proposal Preparation Kit, which is available at http://www.nist.gov/tip/helpful-resources.cfm.
Evaluation Criteria: The two components of the evaluation criteria and respective weights as listed in 15 CFR 296.21 are as follows:
(a)(1) The proposer(s) adequately addresses the scientific and technical merit and how the research may result in intellectual property vesting in a United States entity including evidence that:
(i) The proposed research is novel;
(ii) The proposed research is high-risk, high-reward;
(iii) The proposer(s) demonstrates a high level of relevant scientific/technical expertise for key personnel, including contractors and/or informal collaborators, and has access to the necessary resources, for example research facilities, equipment, materials, and data, to conduct the research as proposed;
(iv) The research result(s) has the potential to address the technical needs associated with a major societal challenge not currently being addressed; and
(v) The proposed research plan is scientifically sound with tasks, milestones, timeline, decision points and alternate strategies.Start Printed Page 20333
(2) Total weight of (a)(1)(i) through (v) is 50%.
(b)(1) The proposer(s) adequately establishes that the proposed research has strong potential for advancing the state-of-the-art and contributing significantly to the United States science and technology knowledge base and to address areas of critical national need through transforming the Nation's capacity to deal with a major societal challenge(s) that is not currently being addressed, and generate substantial benefits to the Nation that extend significantly beyond the direct return to the proposer including an explanation in the proposal:
(i) Of the potential magnitude of transformational results upon the Nation's capabilities in an area;
(ii) Of how and when the ensuing transformational results will be useful to the Nation; and
(iii) Of the capacity and commitment of each award participant to enable or advance the transformation to the proposed research results (technology).
(2) Total weight of (b)(1)(i) through (iii) is 50%.
Award Criteria: The six components of the award criteria as listed in 15 CFR 296.22 are as follows:
(a) The proposal explains why TIP support is necessary, including evidence that the research will not be conducted within a reasonable time period in the absence of financial assistance from TIP;
(b) The proposal demonstrates that reasonable and thorough efforts have been made to secure funding from alternative funding sources and no other alternative funding sources are reasonably available to support the proposal;
(c) The proposal explains the novelty of the research (technology) and demonstrates that other entities have not already developed, commercialized, marketed, distributed, or sold similar research results (technologies);
(d) The proposal has scientific and technical merit and may result in intellectual property vesting in a United States entity that can commercialize the technology in a timely manner;
(e) The proposal establishes that the research has strong potential for advancing the state-of-the-art and contributing significantly to the United States science and technology knowledge base; and
(f) The proposal establishes that the proposed transformational research (technology) has strong potential to address areas of critical national need through transforming the Nation's capacity to deal with major societal challenges that are not currently being addressed, and generate substantial benefits to the Nation that extend significantly beyond the direct return to the proposer.
NIST must determine that a proposal successfully meets all six award criteria for the proposal to receive funding under the Program.
Selection Factors: In making final selections, the Selecting Official will select funding recipients based upon the Evaluation Panel's rank order of the proposals and the following selection factors:
a. Appropriate distribution of funds among technologies and their applications,
b. Availability of funds, and/or
c. Program priorities.
Program Priorities: TIP is soliciting proposals under this fiscal year 2010 competition in the area of critical national need entitled “Manufacturing” as described in the Program Description section above.
Selection Procedures: Proposals are selected based on a multi-disciplinary peer-review process, as described in 15 CFR 296.20. A preliminary review is conducted to determine if the proposal is in accordance with 15 CFR 296.3; complies with the eligibility requirements described in 15 CFR 296.5; addresses award criteria (a) through (c) of 15 CFR 296.22; was submitted to a previous TIP competition, and if so, has been substantially revised; and is complete. Proposals that are incomplete or do not meet any one of the preliminary review requirements will normally be eliminated. All remaining proposals are then carefully reviewed by an Evaluation Panel consisting of Federal employees using the TIP evaluation criteria listed in 15 CFR 296.21 and award criteria listed in 15 CFR 296.22. The Evaluation Panel will present funding recommendations to the Selecting Official in rank order for further consideration. The Selecting Official makes the final selections for funding. The selection of proposals by the Selecting Official is final and cannot be appealed. The final approval of selected proposals and award of assistance will be made by the NIST Grants Officer. The award decision of the NIST Grants Officer is final and cannot be appealed.
NIST reserves the right to negotiate the cost and scope of the proposed work with the proposers that have been selected to receive awards. This may include requesting that the proposer delete from the scope of work a particular task that is deemed by NIST to be inappropriate for support. NIST also reserves the right to reject a proposal where information exists that raises a reasonable doubt as to the responsibility of the proposer.
Intellectual Property Requirements: For single company award recipients, pursuant to the Bayh-Dole Act (35 U.S.C. 202(a) and (b)) and “Memorandum to the Heads of Executive Departments and Agencies: Government Patent Policy” (February 18, 1983), the entity that invents owns the invention. However, pursuant to 35 U.S.C. 202(a)(i), when a single company or its contractor under a TIP award is not located in the United States or does not have a place of business located in the United States or is subject to the control of a foreign government, NIST will require that title to inventions made by such parties be transferred to a United States entity that will ensure the commercialization of the technology in a timely fashion.
For joint ventures, ownership of inventions arising from a TIP-funded project may vest in any participant in a joint venture, as agreed by the members of the joint venture (notwithstanding 35 U.S.C. 202(a) and (b)). (Participant includes any entity that is identified as a recipient, subrecipient, or contractor on an award to a joint venture.)
Title to any such invention shall not be transferred or passed, except to a participant in the joint venture, until the expiration of the first patent obtained in connection with such invention.
Should the last existing participant in a joint venture cease to exist prior to the expiration of the first patent obtained in connection with any invention developed from assistance provided under TIP, title to such patent must be transferred or passed to a U.S. entity that can commercialize the technology in a timely fashion.
The United States reserves a nonexclusive, nontransferable, irrevocable paid-up license, to practice or have practiced for or on behalf of the United States any intellectual property developed from a TIP award. The Federal government shall not in the exercise of such license publicly disclose proprietary information related to the license. This does not prohibit the licensing to any company of intellectual property rights arising from a TIP-funded project. (15 CFR 296.11(b)(3)). The Federal government also has march-in rights in accordance with 37 CFR 401.6. Intellectual property means an invention patentable under title 35, United States Code, or any patent on such an invention, or any work for which copyright protection is available under title 17, United States Code. (15 CFR 296.2.)
Projects Involving Human Subjects. Research involving human subjects Start Printed Page 20334must be in compliance with applicable Federal regulations and NIST policies for the protection of human subjects. Human subjects research activities involve interactions with live human subjects or the use of data, images, tissue, and/or cells/cell lines (including those used for control purposes) from human subjects. Research involving human subjects may include activities such as the use of image and/or audio recording of people, taking surveys or using survey data, using databases containing personal information, testing software with volunteers, and many tasks beyond those within traditional biomedical research. A Human Subjects Determination Checklist is included in the April 2010 TIP Proposal Preparation Kit in Chapter 6 (http://www.nist.gov/tip/helpful-resources.cfm) to assist you in determining whether your proposed research plan has human subjects involvement, which would require additional information in your proposal submission, and possibly more documentation during the Evaluation Panel's consideration of your proposal. See the TIP Guidelines and Documentation Requirements for Research Involving Human & Animal Subjects for more specific information on documentation requirements and due dates for documentation located at http://www.nist.gov/tip/helpful-resources.cfm or by calling 1-888-847-6478. President Obama has issued Exec. Order No. 13,505, 74 FR 10667 (March 9, 2009), revoking previous executive orders and Presidential statements regarding the use of human embryonic stem cells in research. On July 30, 2009, President Obama issued a memorandum directing that agencies that support and conduct stem cell research adopt the “National Institutes of Health Guidelines for Human Stem Cell Research” (NIH Guidelines), which became effective on July 7, 2009, “to the fullest extent practicable in light of legal authorities and obligations.” On September 21, 2009, the Department of Commerce submitted to the Office of Management and Budget a statement of compliance with the NIH Guidelines. In accordance with the President's memorandum, the NIH Guidelines, and the Department of Commerce statement of compliance, NIST will support and conduct research using only human embryonic stem cell lines that have been approved by NIH in accordance with the NIH Guidelines and will review such research in accordance with the Common Rule and NIST implementing procedures, as appropriate. NIST will not support or conduct any type of research that the NIH Guidelines prohibit NIH from funding. NIST will follow any additional polices or guidance issued by the current Administration on this topic.
Projects Involving Live Vertebrate Animals. Research involving live vertebrate animals must be in compliance with applicable Federal regulations and NIST policies for the protection of live vertebrate animals. Vertebrate animal research involves live animals that are being cared for, euthanized, or used by the project participants to accomplish research goals or for teaching or testing. The regulations do not apply to animal tissues purchased from commercial processors or tissue banks or to uses of preexisting images of animals (e.g., a wildlife documentary or pictures of animals in newscasts). The regulations do apply to any animals that are transported, cared for, euthanized or used by a project participant for testing, research, or training such as testing of new procedures or projects, collection of biological samples or observation data on health and behavior. Detailed information regarding the use of live vertebrate animals in research plans and required documentation is available in the TIP Guidelines and Documentation Requirements for Research Involving Human & Animal Subjects located at http://www.nist.gov/tip/helpful-resources.cfm or by calling 1-888-847-6478.
Executive Order 12372 (Intergovernmental Review of Federal Programs): Proposals under this program are not subject to Executive Order 12372.
Administrative Procedure Act and Regulatory Flexibility Act: Prior notice and comment are not required under 5 U.S.C. 553, or any other law, for rules relating to public property, loans, grants, benefits or contracts (5 U.S.C. 553(a)). Because prior notice and an opportunity for public comment are not required pursuant to 5 U.S.C. 553 or any other law, the analytical requirements of the Regulatory Flexibility Act (5 U.S.C. 601 et seq.) are inapplicable. Therefore, a regulatory flexibility analysis is not required and has not been prepared.
E.O. 12866 (Regulatory Planning and Review): This notice is determined to be not significant under Executive Order 12866.
Paperwork Reduction Act: Notwithstanding any other provision of the law, no person is required to, nor shall any person be subject to penalty for failure to, comply with a collection of information, subject to the requirements of the Paperwork Reduction Act (PRA), unless that collection of information displays a currently valid Office of Management and Budget (OMB) Control Number. This notice contains collection-of-information requirements subject to the PRA. The use of Form NIST-1022, Standard Form-424 (R&R), SF-424B, SF-LLL, Research and Related Other Project Information Form, and CD-346 has been approved by OMB under the respective control numbers 0693-0050, 4040-0001, 4040-0007, 0348-0046, 4040-0001, and 0605-0001.
Administrative and National Policy Requirements. DoC Pre-Award Notification Requirements. The Department of Commerce Pre-Award Notification Requirements for Grants and Cooperative Agreements are contained in, 73 FR 7696 (February 11, 2008), apply to this notice. On the form SF-424 R&R items 5. and 6., the applicant's 9-digit Employer/Taxpayer Identification Number (EIN/TIN) and 9-digit Dun and Bradstreet Data Universal Numbering System (DUNS) number must be consistent with the information on the Central Contractor Registration (CCR) (http://www.ccr.gov) and Automated Standard Application for Payment System (ASAP). For complex organizations with multiple EIN/TIN and DUNS numbers, the EIN/TIN and DUNS number MUST be the numbers for the applying organization. Organizations that provide incorrect/inconsistent EIN/TIN and DUNS numbers may experience significant delays in submitting their proposals through grants.gov and receiving funds if their proposal is selected for funding.Start Signature
Dated: April 13, 2010.
Marc G. Stanley,
Acting Deputy Director.
[FR Doc. 2010-8954 Filed 4-16-10; 8:45 am]
BILLING CODE 3510-13-P