Existence and Use of Large Datasets To Address Research Questions for Characterization and Autonomous Tuning of Semiconductor Quantum Dot Devices, 22409-22411 [2023-07814]
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Federal Register / Vol. 88, No. 71 / Thursday, April 13, 2023 / Notices
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Alicia Chambers,
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[FR Doc. 2023–07815 Filed 4–12–23; 8:45 am]
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DEPARTMENT OF COMMERCE
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lotter on DSK11XQN23PROD with NOTICES1
Existence and Use of Large Datasets
To Address Research Questions for
Characterization and Autonomous
Tuning of Semiconductor Quantum
Dot Devices
National Institute of Standards
and Technology, U.S. Department of
Commerce.
ACTION: Notice of workshop; request for
comments.
AGENCY:
The National Institute of
Standards and Technology (NIST) is
SUMMARY:
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17:56 Apr 12, 2023
Jkt 259001
seeking input regarding needs and gaps
in data-sharing approaches to accelerate
innovations in using artificial
intelligence and machine learning
techniques to improve the experimental
characterization and control of
semiconductor quantum dot devices. As
part of this effort, NIST hopes to
identify the needs for quantum dot
device tuning automation, including
existing and future quantum dot related
datasets that may be useful for research,
means and methods currently deployed
for tuning, barriers for advancing the
current state of the art techniques to
enable automation of large quantum dot
arrays, and the meaningful measures of
success for the various stages of
characterization and control. NIST plans
to hold a workshop on July 19–20, 2023,
in conjunction with this notice. The
information received in response to this
notice and during the workshop will
inform efforts and coordination needed
to develop a reference database of
experimental and simulated data. The
reference database will ideally represent
the various phases of tuning quantum
dot devices, along with metrics for
benchmarking the characterization and
control methods for quantum dot
devices.
DATES:
For Comments: Comments must be
received by 5:00 p.m. Eastern Time on
June 12, 2023. Written comments in
response to this notice should be
submitted according to the instructions
in the ADDRESSES section below.
Submissions received after that date
may not be considered.
For Workshop: The in-person
Workshop on Advances in Automation
of Quantum Dot Devices
Characterization and Control will be
held on July 19–20, 2023, from 9:00 a.m.
to 5:00 p.m. Eastern Time at the
National Cybersecurity Center of
Excellence (NCCoE), 9700 Great Seneca
Highway, Rockville, MD 20850.
Attendees must register at the workshop
website by 5:00 p.m. Eastern Time on
June 19, 2023.
ADDRESSES:
For Comments: Written comments
may be submitted only by email to Dr.
Justyna Zwolak at aqd@nist.gov in any
of the following formats: ASCII; Word;
RTF; or PDF. Please include your name,
organization’s name (if any), and cite
‘‘Automation of Semiconductor
Quantum Dot Devices’’ in the subject
line of all correspondence. Comments
containing references, studies, research,
and other empirical data that are not
widely published should include copies
of the referenced materials. All
comments responding to this document
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22409
will be a matter of public record.
Relevant comments will generally be
made publicly available at https://
www.nist.gov/news-events/events/2023/
07/advances-automation-quantum-dotdevices-control as submitted. NIST will
not accept comments accompanied by a
request that part or all of the material be
treated confidentially because of its
business proprietary nature or for any
other reason. Therefore, do not submit
confidential business information or
otherwise sensitive, protected, or
personal information, such as account
numbers, Social Security numbers, or
names of other individuals.
For Workshop: The workshop will be
held at NCCoE, 9700 Great Seneca
Highway, Rockville, MD 20850. Please
note admittance instructions under the
SUPPLEMENTARY INFORMATION section of
this notice. To register, go to: https://
www.nist.gov/news-events/events/2023/
07/advances-automation-quantum-dotdevices-control. Additional information
about the workshop will be available at
this web address as the workshop
approaches.
FOR FURTHER INFORMATION CONTACT: For
questions about this notice contact
Justyna Zwolak or Jacob Taylor by email
at aqd@nist.gov or Justyna Zwolak by
phone at (301) 975–0527. Please direct
media inquiries to NIST’s Office of
Public Affairs at (301) 975–2762.
SUPPLEMENTARY INFORMATION:
Background: Over the past five years,
researchers working with
semiconducting quantum dot devices
have begun to take advantage of the data
analysis tools provided by the field of
artificial intelligence and, more
specifically, supervised and
unsupervised machine learning. When
provided with proper training data,
machine-learning-enhanced methods
may have the flexibility of being
applicable to various devices without
any adjustments or retraining.
Moreover, by learning the governing
rules and dynamics directly from the
data, machine learning algorithms may
be less susceptible to programming
errors. However, machine learning
models typically require large, labeled
datasets for training, validation, and
benchmarking. They also often lack
information about the reliability of the
machine learning prediction. Moreover,
since the application of machine
learning to quantum dot tuning,
characterization, and control is a
relatively new field of research, it lacks
standardized measures of success. The
success rates reported in the various
publications vary significantly in both
the level and meaning of the reported
performance statistics, making it hard (if
E:\FR\FM\13APN1.SGM
13APN1
lotter on DSK11XQN23PROD with NOTICES1
22410
Federal Register / Vol. 88, No. 71 / Thursday, April 13, 2023 / Notices
not impossible) to benchmark the
proposed techniques against more
traditional tuning approaches or against
one another.
Through this notice, we seek public
comment to identify existing large
datasets that may be useful for research;
identify best practices for creating new,
large datasets that are valuable for
research; understand the challenges and
limitations that may impact data access;
and current and future key metrics of
performance for the tuning methods.
Request for Comments:
The following statements are not
intended to limit the topics that may be
addressed. Responses may include any
topic believed to have implications for
the development of auto-tuning
methods for semiconductor quantum
dot devices, regardless of whether the
topic is included in this document. All
relevant responses that comply with the
requirements listed in the DATES and
ADDRESSES sections of this notice will be
considered.
NIST seeks input from stakeholders
regarding the broadly defined needs for
automation of quantum dot device
characterization and tuning. A simple
but crucial component of success for the
field will be to solidify key metrics of
performance as well as establish
standard datasets that can be used to
assess those metrics on the newly
proposed methods and algorithms.
Among the simple metrics that have
been used to date are state identification
accuracy (probability of a classifier
identifying the right topology) and
tuning success (probability of the
navigation algorithm getting to the right
region of parameter space). However,
more such metrics, and associated
datasets, will be necessary to leverage
machine learning algorithms most
effectively. So far, machine learning
efforts for semiconductor quantum dots
rely on datasets that either come from
simulations (and thus may lack
important features representing realworld noise and imperfections) or are
labeled manually (and subject to
qualitative and/or erroneous
classification). Moreover, with a few
exceptions, these datasets are not made
publicly available. Yet, systematic
benchmarking of tuning methods on
standardized datasets, analogous to the
MNIST or CIFAR datasets in the broad
machine learning community, is a
crucial next step on the path to
developing reliable and scalable autotuners for quantum dot devices.
Through this notice, we seek public
comment to initiate a community-wide
effort to build an open-access data
repository for benchmarking automated
methods for quantum dot devices. To
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17:56 Apr 12, 2023
Jkt 259001
initiate such efforts, NIST has provided
a starting point: an open dataset, QFlow,
hosted at the NIST science data portal
www.data.nist.gov, that includes a large
number of simulated measurements as
well as a small set of experimental
scans. A standardized dataset that
would enable systematic benchmarking
of the already existing and new autotuning methods should represent data
from different types of devices. This
standardization work will take time and
community engagement, based on
experience from other machine learning
disciplines. Once standardization is in
place, more algorithmic exploration and
improvement can be achieved.
We invite any member of the public,
and specifically those who are aware of
datasets relevant to auto-tuning
quantum dot devices or interested in
establishing a large open-access
database of experimental data; those
who have perspectives on the value of
these datasets for research; and those
who are aware of challenges and
limitations to both access and use of
large datasets to share their input on the
following points in their comments:
(1) Identify public or restricted use
datasets related to the various phases of
tuning semiconductor quantum dot
devices that are available for training
and benchmarking new artificial
intelligence models or to test
hypotheses using data mining/machine
learning methods. Describe the research
needs that are not being met by the
datasets that are currently available.
(2) Describe the work researchers
need to do to access, and then explore
the quality of, an existing dataset before
conducting research with it. Identify
what aspects of this work could be
reduced or conducted just once so that
future researchers can reduce the time
needed to complete a research project.
(3) Describe promising approaches to
testing and improving the validity of
performance metrics within large
datasets, especially those datasets that
consist of experimental data that does
not come with ground truth labels.
(4) Describe whether existing datasets,
both simulated and acquired
experimentally, contain data that are
valuable for researchers and are of
sufficient quality that research could be
conducted with a high amount of rigor.
(5) Describe to what extent existing
datasets capture enough information to
address research related to all aspects of
tuning quantum dot devices. Identify
what additional data should be
collected to address these research
questions.
(6) Describe the best practices for
creating new datasets or linking existing
datasets and sharing them with
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Fmt 4703
Sfmt 4703
researchers (open or restricted use)
while adhering to local, State, and
Federal laws. Identify barriers and
limitations that currently exist.
(7) Describe what role NIST can play
in developing infrastructure that
supports the use of large-scale datasets
for research on tuning quantum dot
devices
Workshop:
The purpose of the workshop is to
convene stakeholders from industry,
academia, and the government
interested in the research and
development of semiconductor quantum
computing technologies. Topics to be
discussed include opportunities for
research and development of tuning,
characterization, and control methods
for semiconductor quantum dot devices,
the need for facilitating interaction and
collaboration between the stakeholders
to build a large open-access database of
experimental and simulated data for
benchmarking new machine learning
algorithms, determining key
performance metrics for the various
aspects of the tuning, characterizing,
and controlling of quantum dot devices,
and identifying barriers to near-term
and future applications of the autotuning methods. Furthermore, this
workshop will provide a discussion
place to consider methods of
collaboration in a neutral setting and
future roadmap development for
methods for tuning large-scale devices.
This workshop will focus on
addressing the key challenges described
above under ‘‘Request for Comments.’’ It
will include invited presentations by
leading experts from academia,
industry, and government; time for
group discussion; and breakout sessions
for discussing questions (1) through (7).
No proprietary information will be
accepted, presented or discussed as part
of the workshop, and all information
accepted, presented or discussed at the
workshop will be in the public domain.
More information about the workshop
can be found at https://www.nist.gov/
news-events/events/2023/07/advancesautomation-quantum-dot-devicescontrol. All participants must preregister to be admitted. Also, please note
that federal agencies, including NIST,
can only accept a state-issued driver’s
license or identification card for access
to federal facilities if such license or
identification card is issued by a state
that is compliant with the REAL ID Act
of 2005 (Pub. L. 109–13), or by a state
that has an extension for REAL ID
compliance. NIST currently accepts
other forms of federally-issued
identification in lieu of a state-issued
driver’s license. For detailed
information please contact Meliza Lane
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at elsie.lane@nist.gov or by phone (303)
497–5356 or visit: https://www.nist.gov/
public_affairs/visitor/.
Authority: 15 U.S.C. 272(b) & (c); 15
U.S.C. 278h–1.
Alicia Chambers,
NIST Executive Secretariat.
[FR Doc. 2023–07814 Filed 4–12–23; 8:45 am]
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[Notices]
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From the Federal Register Online via the Government Publishing Office [www.gpo.gov]
[FR Doc No: 2023-07814]
-----------------------------------------------------------------------
DEPARTMENT OF COMMERCE
National Institute of Standards and Technology
Existence and Use of Large Datasets To Address Research Questions
for Characterization and Autonomous Tuning of Semiconductor Quantum Dot
Devices
AGENCY: National Institute of Standards and Technology, U.S. Department
of Commerce.
ACTION: Notice of workshop; request for comments.
-----------------------------------------------------------------------
SUMMARY: The National Institute of Standards and Technology (NIST) is
seeking input regarding needs and gaps in data-sharing approaches to
accelerate innovations in using artificial intelligence and machine
learning techniques to improve the experimental characterization and
control of semiconductor quantum dot devices. As part of this effort,
NIST hopes to identify the needs for quantum dot device tuning
automation, including existing and future quantum dot related datasets
that may be useful for research, means and methods currently deployed
for tuning, barriers for advancing the current state of the art
techniques to enable automation of large quantum dot arrays, and the
meaningful measures of success for the various stages of
characterization and control. NIST plans to hold a workshop on July 19-
20, 2023, in conjunction with this notice. The information received in
response to this notice and during the workshop will inform efforts and
coordination needed to develop a reference database of experimental and
simulated data. The reference database will ideally represent the
various phases of tuning quantum dot devices, along with metrics for
benchmarking the characterization and control methods for quantum dot
devices.
DATES:
For Comments: Comments must be received by 5:00 p.m. Eastern Time
on June 12, 2023. Written comments in response to this notice should be
submitted according to the instructions in the ADDRESSES section below.
Submissions received after that date may not be considered.
For Workshop: The in-person Workshop on Advances in Automation of
Quantum Dot Devices Characterization and Control will be held on July
19-20, 2023, from 9:00 a.m. to 5:00 p.m. Eastern Time at the National
Cybersecurity Center of Excellence (NCCoE), 9700 Great Seneca Highway,
Rockville, MD 20850. Attendees must register at the workshop website by
5:00 p.m. Eastern Time on June 19, 2023.
ADDRESSES:
For Comments: Written comments may be submitted only by email to
Dr. Justyna Zwolak at [email protected] in any of the following formats:
ASCII; Word; RTF; or PDF. Please include your name, organization's name
(if any), and cite ``Automation of Semiconductor Quantum Dot Devices''
in the subject line of all correspondence. Comments containing
references, studies, research, and other empirical data that are not
widely published should include copies of the referenced materials. All
comments responding to this document will be a matter of public record.
Relevant comments will generally be made publicly available at https://www.nist.gov/news-events/events/2023/07/advances-automation-quantum-dot-devices-control as submitted. NIST will not accept comments
accompanied by a request that part or all of the material be treated
confidentially because of its business proprietary nature or for any
other reason. Therefore, do not submit confidential business
information or otherwise sensitive, protected, or personal information,
such as account numbers, Social Security numbers, or names of other
individuals.
For Workshop: The workshop will be held at NCCoE, 9700 Great Seneca
Highway, Rockville, MD 20850. Please note admittance instructions under
the SUPPLEMENTARY INFORMATION section of this notice. To register, go
to: https://www.nist.gov/news-events/events/2023/07/advances-automation-quantum-dot-devices-control. Additional information about
the workshop will be available at this web address as the workshop
approaches.
FOR FURTHER INFORMATION CONTACT: For questions about this notice
contact Justyna Zwolak or Jacob Taylor by email at [email protected] or
Justyna Zwolak by phone at (301) 975-0527. Please direct media
inquiries to NIST's Office of Public Affairs at (301) 975-2762.
SUPPLEMENTARY INFORMATION:
Background: Over the past five years, researchers working with
semiconducting quantum dot devices have begun to take advantage of the
data analysis tools provided by the field of artificial intelligence
and, more specifically, supervised and unsupervised machine learning.
When provided with proper training data, machine-learning-enhanced
methods may have the flexibility of being applicable to various devices
without any adjustments or retraining. Moreover, by learning the
governing rules and dynamics directly from the data, machine learning
algorithms may be less susceptible to programming errors. However,
machine learning models typically require large, labeled datasets for
training, validation, and benchmarking. They also often lack
information about the reliability of the machine learning prediction.
Moreover, since the application of machine learning to quantum dot
tuning, characterization, and control is a relatively new field of
research, it lacks standardized measures of success. The success rates
reported in the various publications vary significantly in both the
level and meaning of the reported performance statistics, making it
hard (if
[[Page 22410]]
not impossible) to benchmark the proposed techniques against more
traditional tuning approaches or against one another.
Through this notice, we seek public comment to identify existing
large datasets that may be useful for research; identify best practices
for creating new, large datasets that are valuable for research;
understand the challenges and limitations that may impact data access;
and current and future key metrics of performance for the tuning
methods.
Request for Comments:
The following statements are not intended to limit the topics that
may be addressed. Responses may include any topic believed to have
implications for the development of auto-tuning methods for
semiconductor quantum dot devices, regardless of whether the topic is
included in this document. All relevant responses that comply with the
requirements listed in the DATES and ADDRESSES sections of this notice
will be considered.
NIST seeks input from stakeholders regarding the broadly defined
needs for automation of quantum dot device characterization and tuning.
A simple but crucial component of success for the field will be to
solidify key metrics of performance as well as establish standard
datasets that can be used to assess those metrics on the newly proposed
methods and algorithms. Among the simple metrics that have been used to
date are state identification accuracy (probability of a classifier
identifying the right topology) and tuning success (probability of the
navigation algorithm getting to the right region of parameter space).
However, more such metrics, and associated datasets, will be necessary
to leverage machine learning algorithms most effectively. So far,
machine learning efforts for semiconductor quantum dots rely on
datasets that either come from simulations (and thus may lack important
features representing real-world noise and imperfections) or are
labeled manually (and subject to qualitative and/or erroneous
classification). Moreover, with a few exceptions, these datasets are
not made publicly available. Yet, systematic benchmarking of tuning
methods on standardized datasets, analogous to the MNIST or CIFAR
datasets in the broad machine learning community, is a crucial next
step on the path to developing reliable and scalable auto-tuners for
quantum dot devices.
Through this notice, we seek public comment to initiate a
community-wide effort to build an open-access data repository for
benchmarking automated methods for quantum dot devices. To initiate
such efforts, NIST has provided a starting point: an open dataset,
QFlow, hosted at the NIST science data portal www.data.nist.gov, that
includes a large number of simulated measurements as well as a small
set of experimental scans. A standardized dataset that would enable
systematic benchmarking of the already existing and new auto-tuning
methods should represent data from different types of devices. This
standardization work will take time and community engagement, based on
experience from other machine learning disciplines. Once
standardization is in place, more algorithmic exploration and
improvement can be achieved.
We invite any member of the public, and specifically those who are
aware of datasets relevant to auto-tuning quantum dot devices or
interested in establishing a large open-access database of experimental
data; those who have perspectives on the value of these datasets for
research; and those who are aware of challenges and limitations to both
access and use of large datasets to share their input on the following
points in their comments:
(1) Identify public or restricted use datasets related to the
various phases of tuning semiconductor quantum dot devices that are
available for training and benchmarking new artificial intelligence
models or to test hypotheses using data mining/machine learning
methods. Describe the research needs that are not being met by the
datasets that are currently available.
(2) Describe the work researchers need to do to access, and then
explore the quality of, an existing dataset before conducting research
with it. Identify what aspects of this work could be reduced or
conducted just once so that future researchers can reduce the time
needed to complete a research project.
(3) Describe promising approaches to testing and improving the
validity of performance metrics within large datasets, especially those
datasets that consist of experimental data that does not come with
ground truth labels.
(4) Describe whether existing datasets, both simulated and acquired
experimentally, contain data that are valuable for researchers and are
of sufficient quality that research could be conducted with a high
amount of rigor.
(5) Describe to what extent existing datasets capture enough
information to address research related to all aspects of tuning
quantum dot devices. Identify what additional data should be collected
to address these research questions.
(6) Describe the best practices for creating new datasets or
linking existing datasets and sharing them with researchers (open or
restricted use) while adhering to local, State, and Federal laws.
Identify barriers and limitations that currently exist.
(7) Describe what role NIST can play in developing infrastructure
that supports the use of large-scale datasets for research on tuning
quantum dot devices
Workshop:
The purpose of the workshop is to convene stakeholders from
industry, academia, and the government interested in the research and
development of semiconductor quantum computing technologies. Topics to
be discussed include opportunities for research and development of
tuning, characterization, and control methods for semiconductor quantum
dot devices, the need for facilitating interaction and collaboration
between the stakeholders to build a large open-access database of
experimental and simulated data for benchmarking new machine learning
algorithms, determining key performance metrics for the various aspects
of the tuning, characterizing, and controlling of quantum dot devices,
and identifying barriers to near-term and future applications of the
auto-tuning methods. Furthermore, this workshop will provide a
discussion place to consider methods of collaboration in a neutral
setting and future roadmap development for methods for tuning large-
scale devices.
This workshop will focus on addressing the key challenges described
above under ``Request for Comments.'' It will include invited
presentations by leading experts from academia, industry, and
government; time for group discussion; and breakout sessions for
discussing questions (1) through (7). No proprietary information will
be accepted, presented or discussed as part of the workshop, and all
information accepted, presented or discussed at the workshop will be in
the public domain.
More information about the workshop can be found at https://www.nist.gov/news-events/events/2023/07/advances-automation-quantum-dot-devices-control. All participants must pre-register to be admitted.
Also, please note that federal agencies, including NIST, can only
accept a state-issued driver's license or identification card for
access to federal facilities if such license or identification card is
issued by a state that is compliant with the REAL ID Act of 2005 (Pub.
L. 109-13), or by a state that has an extension for REAL ID compliance.
NIST currently accepts other forms of federally-issued identification
in lieu of a state-issued driver's license. For detailed information
please contact Meliza Lane
[[Page 22411]]
at [email protected] or by phone (303) 497-5356 or visit: https://www.nist.gov/public_affairs/visitor/.
Authority: 15 U.S.C. 272(b) & (c); 15 U.S.C. 278h-1.
Alicia Chambers,
NIST Executive Secretariat.
[FR Doc. 2023-07814 Filed 4-12-23; 8:45 am]
BILLING CODE 3510-13-P