CHIPS National Advanced Packaging Manufacturing Program (NAPMP) Advanced Packaging Research and Development
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Abstract
The CHIPS Research and Development Office (CHIPS R&D) intends to announce, via a Notice of Funding Opportunity (NOFO), an open competition for new research and development (R&D) activities to establish and accelerate domestic capacity for semiconductor advanced packaging. The purpose of this NOI is to offer preliminary information to potential applicants, facilitating the development of meaningful partnerships and strong, responsive proposals relevant to one or more of five R&D areas: Equipment, Tools, Processes, and Process Integration; Power Delivery and Thermal Management; Connector Technology, Including Photonics and Radio Frequency (RF); Chiplets Ecosystem; and Co-design/Electronic Design Automation (EDA). In addition to the R&D areas, the NOFO is expected to include a specific opportunity for prototype development in exemplar application areas such as high-performance computing and low-power systems needed for AI.
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<title>Federal Register, Volume 89 Issue 131 (Tuesday, July 9, 2024)</title>
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[Federal Register Volume 89, Number 131 (Tuesday, July 9, 2024)]
[Notices]
[Pages 56308-56314]
From the Federal Register Online via the Government Publishing Office [<a href="http://www.gpo.gov">www.gpo.gov</a>]
[FR Doc No: 2024-14980]
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DEPARTMENT OF COMMERCE
National Institute of Standards and Technology
CHIPS National Advanced Packaging Manufacturing Program (NAPMP)
Advanced Packaging Research and Development
AGENCY: National Institute of Standards and Technology, Department of
Commerce.
ACTION: Notice of intent (NOI).
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SUMMARY: The CHIPS Research and Development Office (CHIPS R&D) intends
to announce, via a Notice of Funding Opportunity (NOFO), an open
competition for new research and development (R&D) activities to
establish and accelerate domestic capacity for semiconductor advanced
packaging. The purpose of this NOI is to offer preliminary information
to potential applicants, facilitating the development of meaningful
partnerships and strong, responsive proposals relevant to one or more
of five R&D areas: Equipment, Tools, Processes, and Process
Integration; Power Delivery and Thermal Management; Connector
Technology, Including Photonics and Radio Frequency (RF); Chiplets
Ecosystem; and Co-design/Electronic Design Automation (EDA). In
addition to the R&D areas, the NOFO is expected to include a specific
opportunity for prototype development in exemplar application areas
such as high-performance computing and low-power systems needed for AI.
FOR FURTHER INFORMATION CONTACT: Questions may be directed via email to
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<a href="/cdn-cgi/l/email-protection#3f5e4c545c57564f4c7f5c57564f4c11585049"><span class="__cf_email__" data-cfemail="4a2b39212922233a390a2922233a39642d253c">[email protected]</span></a> with ``2024-NIST-CHIPS-NAPMP-Advanced Packaging'' in
the subject line, or via phone to Bill Burwell at 240-224-4335. All
answers to questions, provided at the sole discretion of CHIPS R&D,
will be posted on the CHIPS R&D website at <a href="https://www.nist.gov/chips/chips-RD-funding-opportunities">https://www.nist.gov/chips/chips-RD-funding-opportunities</a>, with further information provided on
this site once the open competition has been announced.
SUPPLEMENTARY INFORMATION:
Purpose. The CHIPS Research and Development Office (CHIPS R&D)
intends to announce, via a Notice of Funding Opportunity (NOFO), an
open competition for new research and development (R&D) activities to
establish and accelerate domestic capacity for semiconductor advanced
packaging. The technical focus and R&D goals of the NOFO are expected
to be informed by recent industry roadmaps, which share the common
theme that emerging applications like high performance computing and
low power electronics, both needed for artificial intelligence (AI),
require leap-ahead advances in microelectronics capabilities, including
advanced packaging. Advanced packaging allows manufacturers to make
improvements in performance and function and to shorten time to market.
Additional benefits include a reduced physical footprint, lower power,
increased chiplet reuse, and potentially decreased costs. Achieving
these goals requires coordinated investments to support integrated R&D
activities to establish leading-edge domestic capacity for
semiconductor advanced packaging.
In addition to the R&D areas, the NOFO is expected to include a
specific opportunity for prototype development in exemplar application
areas. These exemplar applications are likely to focus on areas such as
high-performance computing and low-power systems needed for AI.
Prototypes should be designed to demonstrate and validate research
advances and new packaging flows resulting from projects supported
through this NOFO.
More information about the expected CHIPS R&D NAPMP Advanced
Packaging Research and Development NOFO will be available on the CHIPS
for Amercia website at https://www.nist.gov/chips/chips-rd-funding-
opportunities.
CHIPS R&D anticipates awarding a total of up to approximately
$1,600,000,000 in cooperative agreements and other transaction
agreements in amounts up to approximately $150,000,000 in federal funds
per award. Multiple awards for projects varying in scope and funding
amount are expected within this NOFO, with a period of performance of
up to 5 years per award. While co-investment will not be required,
CHIPS R&D will give preference to applications that demonstrate
credible co-investment commitments. The purpose of this NOI is to offer
preliminary information to potential applicants, facilitating the
development of meaningful partnerships and strong, responsive proposals
relevant to one or more of the R&D research and prototype \1\
development areas described below.
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\1\ The term ``prototype'' is used throughout to refer to a
functional system produced through an end-to-end advanced packaging
process flow for the purpose of demonstrating the characteristics of
that flow and the prototype design, including packaging process
characteristics such as process stability, yield, reliability, and
defectivity; and prototype characteristics such as functionality,
performance, power/energy consumption, and thermal dissipation.
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CHIPS R&D Mission. The CHIPS and Science Act appropriated
approximately $50 billion to the Department of Commerce--$39 billion in
incentives to onshore semiconductor manufacturing and $11 billion to
advance U.S. leadership in semiconductor R&D. Within CHIPS for America,
the mission of CHIPS R&D is to accelerate the development and
commercial deployment of foundational semiconductor technologies by
establishing, connecting, and providing access to domestic research
efforts, tools, resources, workers, and facilities.
NAPMP Objectives. NAPMP, one of multiple CHIPS R&D initiatives,
seeks to drive U.S. leadership in advanced packaging and provide the
technology and skilled workforce needed for packaging manufacturing in
the United States. Within a decade, NAPMP-funded activities, coupled
with CHIPS manufacturing incentives, will establish a vibrant, self-
sustaining, profitable, domestic packaging industry where advanced node
chips manufactured in the United States and abroad can be packaged in
appropriate volumes within the United States and innovative designs and
architectures are enabled through leading-edge packaging capabilities.
In combination with other CHIPS for America education and workforce
efforts, NAPMP-funded activities will also produce the diverse and
capable workforce needed for the success of the domestic packaging
sector.
Advanced Packaging Research and Development NOFO Objective. The
intended objective of the NOFO will be to enable, through R&D,
innovative new advanced packaging flows suitable for adoption by U.S.
industry. To pursue this objective, CHIPS R&D expects to design the
NOFO with the following elements. First, the NOFO is expected to set
out R&D areas to be supported in addressing key challenges and
technology gaps in advanced packaging. Second, it is expected to
provide for coordinated R&D efforts aligned through common technical
targets so that results collectively contribute to composable and
implementable advanced packaging flows. Finally, it is expected to
provide for demonstrating the benefits of R&D results through a
combination of prototypes and baseline packaging flows.
Background. The technical focus and R&D goals of this NOFO are
expected to be informed by a series of industry roadmaps, including the
2024 IEEE Heterogeneous Integration Roadmap (<a href="https://eps.ieee.org/technology/heterogeneous-integration-roadmap/2024-edition.html">https://eps.ieee.org/technology/heterogeneous-integration-roadmap/2024-edition.html</a>) and
International Roadmap for Devices and Systems (<a href="https://irds.ieee.org/editions">https://irds.ieee.org/editions</a>), the Semiconductor Research Corporation (SRC)
Microelectronics Advanced Packaging Technologies Roadmap (<a href="https://srcmapt.org/">https://srcmapt.org/</a>); the UCLA and SEMI Manufacturing Roadmap for
Heterogeneous Integration and Electronics Packaging (<a href="https://chips.ucla.edu/page/MRHIEPProject/MRHIEP">https://chips.ucla.edu/page/MRHIEPProject/MRHIEP</a> Final Report); and the iNEMI
5G/6G mmWave Materials and Electrical Test Technology Roadmap (<a href="https://www.inemi.org/article_content.asp?adminkey=cc22bf8eb1bfb8248c594509fe54dd9b&article=275">https://www.inemi.org/article_content.asp?adminkey=cc22bf8eb1bfb8248c594509fe54dd9b&article=275</a>). Collectively, these roadmaps emphasize that emerging technologies
like high performance computing and artificial intelligence, advanced
telecommunications, biomedical devices, and autonomous vehicles require
leap-ahead advances in microelectronics capabilities.
In the past, the semiconductor industry has largely addressed
performance needs by increasing the number and density of transistors
on a chip, a process known as miniaturization. However, the previous
pace of miniaturization, as expressed by Moore's Law, is slowing and
cannot alone provide the performance improvements needed for emerging
microelectronics technologies. Improving all aspects of system
performance to support the breadth of new semiconductor applications
will require innovations in advanced packaging.
Semiconductor packaging serves two general purposes. One is to
protect the chip mechanically, thermally, and environmentally. The
other is to enable reliable inter-chip communication and
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data processing, power delivery, and a stable test and system
integration platform. Advanced packaging and related capabilities, such
as heterogeneous integration, are designed to increase all aspects of
system performance by linking multi-component-assemblies with large
numbers of interconnects to achieve a degree of integration that blurs
the line between chip and package.
Program Drivers: In designing proposals, applicants should consider
in their planning activities the below five program drivers guiding the
design of this NOFO.
1. Scale-down and Scale-out
2. Heterogeneous Integration, including Chiplets
3. End-to-End Advanced Packaging Flows
4. Prototypes for Demonstrating Functionality
5. Aligned R&D efforts for Implementable Advanced Packaging Flows
These program drivers are aligned with the industry roadmaps
referenced above and the objectives outlined in the Vision for the
National Advanced Packaging Manufacturing Program (<a href="https://www.nist.gov/system/files/documents/2023/11/19/NAPMP-Vision-Paper-20231120.pdf">https://www.nist.gov/system/files/documents/2023/11/19/NAPMP-Vision-Paper-20231120.pdf</a>). The drivers are outlined below and are expected to be
relevant to all R&D areas under this NOFO. Review, evaluation, and
selection criteria for the NOFO are expected to include consideration
of these drivers.
The first program driver is the ability in advanced packaging to
``scale-down and scale-out.'' Scaling-down refers to shrinking the size
of the features on the package and increasing interconnect densities.
Scaling out refers to increasing the number of chips assembled on the
substrate and overall functional density in both 2-dimensional (2D) and
3-dimensional (3D) architectures. Examples of scaling down goals and
targets can be found in the MRHIEP roadmap (<a href="https://chips.ucla.edu/page/MRHIEP%20Project/MRHIEP%20Final%20Report">https://chips.ucla.edu/page/MRHIEP%20Project/MRHIEP%20Final%20Report</a>). Applicants should
consider in their planning activities interdisciplinary approaches that
contribute to scaling-down and scaling-out in advanced packaging.
The primary driver for advanced 2D and 3D packaging technologies is
the need for increased interconnect densities to support [heterogeneous
integration] and deliver increasing bandwidth in a power efficient
manner while enabling efficient power delivery. NIEEE Heterogeneous
Integration Roadmap 2024 (<a href="https://chips.ucla.edu/page/MRHIEP%20Project/MRHIEP%20Final%20Report">https://chips.ucla.edu/page/MRHIEP%20Project/MRHIEP%20Final%20Report</a>).
The second driver is advancing capabilities for heterogeneous
integration (HI), including chiplets.\2\ This driver focuses on the
NAPMP objective for ``creating an advanced packaging ecosystem based on
heterogeneous chiplet technology to promote widespread and easy use of
the technologies developed.'' \3\ Applicants should incorporate
considerations for heterogeneous integration and chiplets-based
architectures in their research planning.
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\2\ The term ``chiplets'' refers throughout to the design of
small, functionally targeted semiconductor chips that, when
assembled at tight pitch and placement, result in a highly
functional subsystem. Examples of chiplets in an ecosystem include
common functions such as CPU, input/output devices, memory, domain-
specific accelerators, etc.
\3\ The Vision for the National Advanced Packaging Manufacturing
Program (NAPMP Vision Paper, <a href="https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program">https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program</a>), Nov. 2023.
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Heterogeneous Integration is essential to maintain the pace of
progress with higher performance, lower latency, smaller size, lighter
weight, lower power requirement per function, and lower cost. IEEE
Heterogeneous Integration Roadmap 2021 (<a href="https://eps.ieee.org/images/files/HIR_2021/ch01_overview.pdf">https://eps.ieee.org/images/files/HIR_2021/ch01_overview.pdf</a>).
[T]he exponential growth in package pin counts and I/O power
consumption, domain-specific architectures, technical and business
models of [intellectual property] reuse, and mixed technology node
chiplets will drive advances in HI and advanced packaging. SRC MAPT
Roadmap (<a href="https://srcmapt.org/wp-content/uploads/2024/03/SRC-MAPT-Roadmap-2023-v4.pdf">https://srcmapt.org/wp-content/uploads/2024/03/SRC-MAPT-Roadmap-2023-v4.pdf</a>).
The third program driver is enabling end-to-end advanced packaging
flows suitable for adoption by industry. This driver addresses the
NAPMP objective to ``develop packaging platforms capable of both high-
volume and customized manufacturing.'' \3\ To address this driver,
applicants should plan for implementing their research outputs in a
full packaging flow.
The CHIPS Research and Development Office has designed the NAPMP to
include an Advanced Packaging Piloting Facility ([N]APPF) where
successful development efforts will be transitioned and validated for
scaled transition to U.S. manufacturing. NAPMP Vision Paper (<a href="https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program">https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program</a>).
The fourth driver is demonstrating functionality in prototypes to
provide evidence for new capabilities, increased efficiencies, lowered
production costs, reduced environmental impact, or other benefits
resulting from research advances. This driver addresses the NAPMP
objective to ``enable successful advanced packaging development efforts
to be validated and transitioned at scale to U.S. manufacturing.'' \3\
NAPMP expects to support projects to design prototypes in application
areas such as high-performance computing and artificial intelligence
and low-power systems under the NOFO.
The final driver is aligning R&D efforts so that R&D results are
not isolated or incompatible, but instead collectively contribute to
implementable advanced packaging flows. Successful applicants should
expect to participate in coordination and information-sharing across
projects in all R&D areas. The NOFO is expected to include provisions
for coordination and cooperation activities connecting all of the R&D
projects.
Advanced Packaging Research and Development NOFO Objectives:
Consistent with the research incentives areas identified in the NAPMP
Vision Paper (<a href="https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program">https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program</a>), the NOFO is expected to focus on
proposals in one or more of five R&D areas with the potential to
strategically enhance domestic advanced packaging capabilities through
innovation in:
1. Equipment, Tools, Processes, and Process Integration;
2. Power Delivery and Thermal Management;
3. Connector Technology, Including Photonics and Radio Frequency
(RF);
4. Chiplets Ecosystem; and/or
5. Co-design/Electronic Design Automation (EDA).
Within these areas, CHIPS R&D intends to fund R&D activities that
establish and promote relevant domestic capability and capacity, with
the following objectives:
1. Accelerate domestic R&D and innovation in advanced packaging;
2. Transition advanced packaging innovation into U.S.
manufacturing, such that these technologies are available to U.S.
manufacturers and customers, including to significantly benefit U.S.
economic and national security;
3. Support the establishment of a robust, sustainable, domestic
capacity for advanced packaging R&D, prototyping, commercialization,
and manufacturing; and
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4. Promote a pipeline of skilled and diverse workers for a
sustainable domestic advanced packaging industry.
To ensure that funded R&D meets the above objectives, CHIPS R&D
expects to specify technical targets for applicants to achieve within
each of the five R&D areas described below. Individual proposals may
address one or more of the R&D areas. Note that these R&D areas are
aligned with the relevant research investment areas set out in the
NAPMP Vision Paper (<a href="https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program">https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program</a>).
R&D Area 1: Equipment, tools, processes, and process integration:
This R&D area is expected to include developing: (1) end-to-end
packaging flows that enable a chiplet-based advanced packaging
architecture suitable for commercial adoption; (2) advanced, flexible,
extensible process technologies required to produce a packaged
subassembly; and (3) new packaging equipment needed to run the
packaging processes and to handle the required substrates, wafers and
dies, all at the scaled down dimensions set out in the previous NAPMP
Materials and Substrates NOFO, located at <a href="https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates">https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates</a> (see Table 2, page 14) and designed for use at
commercial scale.
R&D in this area is expected to focus on five packaging process
clusters, with a cluster defined as a sequence of steps that enable a
key part of the packaging flow. The five process clusters expected to
be relevant to this NOFO are:
1. Chiplet Singulation: Producing singulated chiplets from incoming
wafers that are fully patterned with dies, for subsequent assembly.
2. Chiplet to Substrate Bonding: Positioning and attaching chiplets
with ultra-fine-pitch bonding pads to substrates, in dense arrays with
close chiplet-to-chiplet spacing. This includes bonding techniques
designed to improve bond quality, positioning precision, process
flexibility, process efficiency, and overall cluster efficiency.
Examples include thermal compression bonding, fusion bonding, hybrid
bonding, multi-step sequences, and other methods.
3. Chiplet Reconstitution: Placing and attaching singulated
chiplets on a carrier. Reconstitution should be compatible with the
scaled down dimensions set out in the previous NAPMP Materials and
Substrates NOFO, located at <a href="https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates">https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates</a> (see table 2, page 14).
4. 3-Dimensional Integration (3DI): Forming heterogeneous chiplet
stacks with ultra-fine bonding pad pitches.
5. Finishing: Incorporating advanced power delivery, passivation,
thermal management, and connectors, including photonics, into the
packaged device.
NAPMP expects that proposals within this R&D area may address one
or more of these clusters, including the relevant equipment, tools, and
processes. The NOFO is expected to call for comprehensive R&D
approaches that encompass interactions between steps and step
sequencing within each cluster. The NOFO is also expected to include
proposals addressing cluster assembly, i.e., sequencing of multiple
clusters for end-to-end packaging process flows suitable for use in
advanced packaging of prototypes. Note that the specific processes and
sequence of steps within each cluster are expected to be driven by the
requirements of the prototype to be packaged.
R&D Area 2: Power delivery and thermal management: The expected
focus of this R&D area is to address the challenges introduced by
advanced packaging in terms of power delivery, power efficiency, and
thermal management.
Examples of the associated research challenges expected to be
considered in this R&D area include the following.
1. New thermal solutions--for implementation with advanced
substrates, 3D heterogeneous integration (3DHI), and other design
aspects--to reduce hotspots, maintain thermal targets, and enable
reliability in multilayer stacks without constraining connectivity.
2. Innovative approaches for delivering power at high density with
efficient voltage regulators and dynamic power management schemes for
3DHI devices, including modular designs and devices for use with a
variety of chiplets.
3. Validated, higher fidelity models and accelerated learning using
artificial intelligence and machine learning (AI/ML) to accurately
predict power and thermal distribution across chiplet stacks and enable
advanced system design and evaluation.
4. Integrated power and thermal management to reach efficiency and
power density goals with modular designs for use with fine-pitch,
bonded stacks of chiplets.
It is expected that proposals within this area may consider related
research challenges within other R&D areas, such as Co-design/
Electronic Design Automation and Chiplets Ecosystem. Expected to be in
scope are vertical heat extraction, local heat spreading, advanced
methods for active and passive cooling of 3DHI devices to reliably
operate at higher power density, wide bandgap chiplets for 3DHI, and
advanced materials and architectures to achieve specific thermal and
power goals such as low-resistance thermal interfaces. Expected to be
out of scope are discrete packaged wide bandgap devices and
conventional cooling approaches.
R&D Area 3: Connector Technology, Including Photonics and RF: The
expected goal for this R&D area is innovation for high data-rate, low
latency, small footprint, error-free, and energy-efficient connections
between packaged sub-assemblies. It is expected that the intended sub-
assemblies will be chiplet populated substrates where the substrates
have the characteristics set out in Section 1.5 of the NAPMP Materials
and Substrates NOFO, located at <a href="https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates">https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates</a>.
NAPMP expects that, depending on the distance between the packaged
assemblies, the mode of data transfer may be via flexible wire, such as
serializer/deserializer (SerDes) with or without repeaters; wireless,
including RF; or low-loss photonics via optical fiber arrays. It is
also expected that projects may address one or more of these modes of
data transfer. RF transceivers and optical engines are expected to be
provided using chiplet-based technology or embedded directly into the
advanced substrates. Potential applicants are encouraged to focus on
new scale-down and scale-out technologies for connections that enable
secure communications and provide for mechanical, electrical, and
thermal reliability.
It is expected that chiplet sub-assemblies to substrate connectors
will be in scope for this R&D area. Expected to be out of scope are
traditional ball grid array (BGA) or land grid array (LGA) connectors
and conventional wire bonding.
R&D Area 4: Chiplets Ecosystem: This R&D area is expected to focus
on developing a comprehensive set of novel technologies for chiplet
ecosystems that leverage advanced packaging to enable application-
specific integrated packages that go beyond the capabilities of
conventional monolithic ASICs (application-specific integrated
circuits). It is expected that chiplets in an application-specific
integrated package will need to communicate and operate together. For
this NOI, the term
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``chiplet ecosystem'' is used to refer to: (1) a set of chiplets that
can be used to form application-specific integrated packages and (2)
the set of requirements new chiplets have to follow to be added to the
ecosystem. Consistent with this definition, chiplets in an ecosystem
can be combined in multiple ways to form diverse products.
It is expected that successful proposals should develop a chiplet
ecosystem that meets as many of the following goals as is possible.
<bullet> The ecosystem provides for increasing performance over
time by continually leveraging the tighter bond pitch and more intimate
interaction that will be made possible by fine-pitch packaging,
starting at a bond pitch of ~10 microns.
<bullet> The ecosystem enables designs that consist of a discrete
number of chiplets, include support for 3D stacks, and are based on a
chiplet integration layer specification that is not adequately
addressed in current open systems and reduces the cost of adding new
chiplets.
<bullet> System performance in the ecosystem can be increased by
increasing the number of chiplets. For example, a high-performance
chiplet ecosystem can be scaled up by increasing the number of chiplets
rather than by developing new larger chiplets. This scaling up strategy
enables going from a multi-chiplet device design comparable to a
monolithic ASIC to a ``rack `n' pack'' device (i.e., an application-
specific integrated package comparable to a wafer-scale processor).
<bullet> The ecosystem enables designers to address all supported
design requirements with provisions to accommodate yield loss in
packaging assembly and optimize power and energy to meet performance
requirements with the available system resources.
It is expected that proposals should be centered around exemplar
applications in the areas of high-performance computing/AI, and low-
power applications. It is expected that the NOFO will require
applicants to plan for making chiplets resulting from funded project
research available for purchase at cost in prototype quantities and in
wafer form for research use at the National Advanced Packaging Piloting
Facility (NAPPF).
It is expected that, in addition to ecosystem development, chiplets
for packaging process development that support any of the other five
R&D areas will be in scope. Memory is also expected to be in scope but
must be at fine bond pitch consistent with NAPMP scale-down goals (see
Section 1.5 of the NAPMP Materials and Substrates NOFO, located at
<a href="https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates">https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates</a>).
Expected to be out of scope for this R&D area are: designs that are
extensions of conventional approaches based on commodity packaging and
that do not directly leverage advanced packaging in their architecture;
designs tightly coupled to the choice of an SoC-bus (system-on-chip
bus) or other high-level protocols; or standalone chiplet designs for
any function not coupled to a chiplet ecosystem. Also expected to be
out of scope are ecosystem design proposals that: focus on unmodified
reuse of existing chiplets; target the development of new chiplets to
integrate existing chiplets into new architectures; do not leverage
advanced packaging; or do not provide for the delivery of chiplets and
application-specific integrated packages.
R&D Area 5: Co-design/Electronic Design Automation: The expected
focus of this R&D area is co-design with automated tools of multi-
chiplet subsystems for advanced packaging in scaled-down and scaled-out
designs (see NAPMP Materials and Substrates NOFO Table 2, page 14 for
insights into relevant dimensions and capabilities, located at <a href="https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates">https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates</a>). This includes innovations in EDA
interoperability; EDA-enabled incorporation and co-optimization of
chiplets of different sizes in a large platform design including
logical electrical, photonic, thermal, and mechanical models; and
advances in seamless integration of the chip to package. Additional
areas could include the use of artificial intelligence/machine learning
(AI/ML) in package design and design approaches for test, repair,
security, and reliability including graceful failure through designs
that enable continued operation at a reduced performance level after
failure of one or more components. Applicants should address
comprehensive co-design capabilities that include a detailed
understanding of the substrate and processes used for assembly,
including power and thermal management, and connector solutions. It is
expected that EDA that addresses purely monolithic applications without
consideration of chiplets, heterogeneity and the multi-scale, multi-
physics packaging environment will be out of scope for this R&D area.
Prototype Development: In addition to the five R&D areas listed
above, the NOFO is expected to include opportunities for prototype
development in exemplar application areas such as high-performance
computing and artificial intelligence, and low-power systems
applications. The goal in prototype development is to establish new
advanced packaging flows that leverage the technologies being developed
across the five R&D areas. Functionality will be a requirement, and
prototypes should be designed to provide a means for assessing relevant
packaging characteristics such as yield and preliminary reliability.
Commercial Viability and Domestic Production: In accordance with 15
U.S.C. 4656(g), the NOFO will include requirements for a commercial
viability and domestic production plan (<a href="https://www.nist.gov/system/files/documents/2024/03/12/CHIPS%20R%26D%20Commercial%20Viability%20and%20">https://www.nist.gov/system/files/documents/2024/03/12/CHIPS%20R%26D%20Commercial%20Viability%20and%20</a>
Domestic%20Production%20CVDP%20Plan%20Guidebook.pdf), describing
activities to be funded as part of the proposed project and,
potentially, additional commercialization activities beyond the period
of performance. The CVDP plan must include a realistic business model
for the funded innovations, include a technology transition plan, and
describe pathways to benefitting national and economic security, such
as through the domestic availability of the technology and successful
adoption by commercial or defense partners.
Education and Workforce Development: The NOFO is expected to
include requirements for an education and workforce development plan,
(<a href="https://www.nist.gov/system/files/documents/2024/06/17/CHIPS%20RD%20Education%20and%20Workforce%20Development%20Plan%20Guidebook-508C.pdf">https://www.nist.gov/system/files/documents/2024/06/17/CHIPS%20RD%20Education%20and%20Workforce%20Development%20Plan%20Guidebook-508C.pdf</a>), that leverages capabilities supported through the proposed
project to address domestic advanced packaging workforce needs,
including educational opportunities arising from engaging students in
research. NAPMP encourages applicants to, in providing an Education and
Workforce Development (EWD) plan, describe any efforts to attract and
retain a diverse student and trainee population and to demonstrate that
the EWD efforts are worker centered, industry-aligned, and promote good
jobs with working conditions consistent with the Good Jobs Principles
(<a href="https://www.dol.gov/general/good-jobs/principles">https://www.dol.gov/general/good-jobs/principles</a>), published by the
Department and the U.S. Department of Labor.
National Advanced Packaging Piloting Facility: The CHIPS Research
and Development Office has designed the NAPMP to include a NAPPF, where
[[Page 56313]]
successful research and development efforts will be implemented and
validated for suitability for volume-scaled manufacturing. The specific
tools and capabilities of the NAPPF will be aligned with the ``scale
down and scale out'' strategy described in the NAPMP Vision Paper
(<a href="https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program">https://www.nist.gov/document/vision-national-advanced-packaging-manufacturing-program</a>). Additional details regarding the NAPPF will be
posted to the CHIPS for America website (<a href="https://www.nist.gov/chips/chips-RD-funding-opportunities">https://www.nist.gov/chips/chips-RD-funding-opportunities</a>) as they are announced.
Where applicable, proposers responding to the NOFO are expected to
be asked to implement their research outputs in the NAPPF once
established. NAPMP program managers will work with applicants in the
post-award phase to facilitate work with the NAPPF.
Technical Targets: Each R&D area is expected to include technical
targets selected by CHIPS R&D for their potential to guide innovation
toward the scale-down and scale-out goals of the program. Applicants
should review the previous NAPMP Materials and Substrates NOFO, located
at <a href="https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates">https://www.nist.gov/document/nofo-national-advanced-packaging-manufacturing-program-napmp-materials-substrates</a>, which provides
detailed insights into the NAPMP ``scale down and scale out'' targets.
Sections 1.4.3, Technical Areas, and 1.5, Project-level Technical
Targets, provide detailed information about substrate materials and
technical targets.
Eligible Use of Funds. Funded activities are expected to include,
but not necessarily be limited to, basic and applied research,
development of relevant advanced packaging manufacturing-scale
equipment and processes, the design and demonstration of prototypes,
commercial viability and domestic manufacturing preparation, workforce
education and training, and pilot-level fabrication.
Eligibility. CHIPS R&D expects eligible lead applicants and
subrecipients will include for-profit organizations; non-profit
organizations; accredited institutions of higher education, including
community and technical colleges and minority serving institutions; and
state, local, territorial, and Tribal governments. Entities that
operate Federally Funded Research and Development Centers (FFRDCs) may
be eligible to receive this funding as subrecipients to an eligible
applicant to the extent allowed by law, based on the unique and
specific needs of the project. It is expected that the NOFO will
require that applicants must be domestic entities, meaning entities
incorporated in the United States (including U.S. territories) with
their principal place of business in the United States, including U.S.
territories, and will potentially be subject to other eligibility
requirements.
Subrecipients are those who are designated by the lead applicant as
subrecipients, included in the proposed budget, and whose activities
are a continuing part of ongoing project activities with their work
tailored to specific project goals, such as research and development
activities, education and workforce activities, and other integral
project efforts. Vendors selling goods and services to award recipients
in the ordinary course of business are not considered subrecipients.
It is expected that foreign organizations may be permitted to
participate as members of a project team, as sub-subrecipients or
contractors, subject to CHIPS R&D approval based on a written
justification that the foreign partner's involvement is essential to
advancing program objectives, among other considerations.
R&D Collaboration: CHIPS R&D expects that applicants assembling
teams (i.e., with a lead applicant from industry or academia and one or
more subrecipients) may be best suited to collectively provide the full
range of expertise and capabilities needed to achieve the program
objectives and to successfully strengthen U.S. advanced packaging
innovation. Equally important, effective partnerships can promote
inventiveness, clarify future demand, improve transparency and
security, solidify business and domestic manufacturing plans (including
plans for technology adoption by defense and commercial partners), help
educate the future workforce, mitigate the risk of future chip
shortages or oversupply, and support a more productive, efficient, and
self-sustaining semiconductor ecosystem.
CHIPS R&D therefore strongly encourages applications from teams
that demonstrate collaboration across the innovation, manufacturing,
supply chain, and customer landscape, as well as across the industry,
non-profit, and academic sectors. Applications that do not include
teams may be required to include a justification for the proposed
single-entity approach.
Application Process and Award Information. The envisioned
application process consists of a mandatory concept paper and a
required full application. CHIPS R&D anticipates a due date for concept
papers of approximately 60 days after the date of NOFO publication.
Full applications would only be accepted from applicants invited to
apply after the concept paper stage. Submissions from entities other
than those specifically invited to submit a full application would not
be reviewed or considered in any way.
CHIPS R&D expects to host a webinar series after this NOI is
released to provide additional opportunities to learn about the Notice
of Intent. Details regarding the time and date of webinar events will
be posted on the CHIPS R&D website at <a href="https://www.nist.gov/chips/chips-RD-funding-opportunities">https://www.nist.gov/chips/chips-RD-funding-opportunities</a>. Participation in webinars is not a
prerequisite for submitting a concept paper or application.
Additionally, to provide the public with an opportunity to learn
more about the NOFO, CHIPS R&D expects to host a Proposers Day after
the NOFO is released to familiarize potential applicants with the NOFO
objectives and program structure. CHIPS R&D will announce details
regarding the date and location of Proposers Day via the CHIPS R&D
website at <a href="https://www.nist.gov/chips/chips-RD-funding-opportunities">https://www.nist.gov/chips/chips-RD-funding-opportunities</a>.
Attendance is not a prerequisite for submitting a concept paper or
application.
Competition Information. Once the open competition has been
announced, further information may be found at <a href="https://www.nist.gov/chips/chips-RD-funding-opportunities">https://www.nist.gov/chips/chips-RD-funding-opportunities</a>.
System for Award Management. In anticipation of the NOFO, CHIPS R&D
encourages potential applicants to complete the following steps, which
are required to submit concept papers and full applications for Federal
assistance:
<bullet> Register with the System for Award Management (SAM) at
<a href="https://www.sam.gov">https://www.sam.gov</a>. CHIPS R&D strongly encourages applicants to
register for <a href="http://SAM.gov">SAM.gov</a> as early as possible. While this process
ordinarily takes between three days and two weeks, in some
circumstances it can take six or more weeks to complete due to
information verification requirements. Recipients will be required to
maintain an active registration in SAM and re-validate registration
annually.
<bullet> Register for a <a href="http://Grants.gov">Grants.gov</a> (<a href="http://www.grants.gov/">http://www.grants.gov/</a>)
account. It is advisable also to go to ``manage subscriptions'' on
<a href="http://Grants.gov">Grants.gov</a> and sign up to receive automatic updates when amendments to
a funding opportunity are posted.
Disclaimer. This NOI does not constitute a solicitation. No
applications may be submitted in response to this NOI. Any
inconsistency between information within this Notice and the eventual
NOFO announcing CHIPS R&D/NAPMP Advanced Packaging awards competition
shall be resolved in favor of the NOFO.
[[Page 56314]]
Authority. DOC CHIPS activities are authorized by Title XCIX--
Creating Helpful Incentives to Produce Semiconductors for America of
the William M. (Mac) Thornberry National Defense Authorization Act for
Fiscal Year 2021 (Pub. L. 116-283, often referred to as the CHIPS Act).
Alicia Chambers,
NIST Executive Secretariat.
[FR Doc. 2024-14980 Filed 7-8-24; 8:45 am]
BILLING CODE 3510-13-P
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</html>This is legal information, not legal advice. Laws vary by jurisdiction and change frequently. Always verify current law with official sources and consult a licensed attorney in your jurisdiction for advice on your specific situation.