Movement of Organisms Modified or Produced Through Genetic Engineering; Notice of Exemptions, 37988-37989 [2021-15236]
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37988
Federal Register / Vol. 86, No. 135 / Monday, July 19, 2021 / Notices
have issued a permit for the release of
Ramularia crupinae for the biological
control of common crupina (Crupina
vulgaris) in the contiguous United
States.
The EA and FONSI may be viewed on
the Regulations.gov website (see
footnote 1). Copies of the EA and FONSI
are also available for public inspection
at 1620 of the USDA South Building,
14th Street and Independence Avenue
SW, Washington, DC. Normal reading
room hours are 8 a.m. to 4:30 p.m.,
Monday through Friday, except
holidays. Persons wishing to inspect
copies are requested to call ahead on
(202) 799–7039 to facilitate entry into
the reading room. In addition, copies
may be obtained by calling or writing to
the individual listed under FOR FURTHER
INFORMATION CONTACT.
The EA and FONSI have been
prepared in accordance with: (1) The
National Environmental Policy Act of
1969 (NEPA), as amended (42 U.S.C.
4321 et seq.); (2) regulations of the
Council on Environmental Quality for
implementing the procedural provisions
of NEPA (40 CFR parts 1500–1508); (3)
USDA regulations implementing NEPA
(7 CFR part 1b); and (4) APHIS’ NEPA
Implementing Procedures (7 CFR part
372).
Done in Washington, DC, this 28th day of
June 2021.
Mark Davidson,
Administrator, Animal and Plant Health
Inspection Service.
[FR Doc. 2021–15176 Filed 7–16–21; 8:45 am]
BILLING CODE 3410–34–P
DEPARTMENT OF AGRICULTURE
Animal and Plant Health Inspection
Service
[Docket No. APHIS–2020–0072]
Movement of Organisms Modified or
Produced Through Genetic
Engineering; Notice of Exemptions
Animal and Plant Health
Inspection Service, Agriculture (USDA).
ACTION: Notice.
AGENCY:
We are advising the public
that we are proposing to exempt plants
with additional modifications that could
otherwise be achieved through
conventional breeding from the
regulations that govern the introduction
(importation, interstate movement, or
release into the environment) of certain
organisms modified or produced
through genetic engineering. The
exempt plants would have distinct
modifications on the paternal and
maternal alleles of a single gene
lotter on DSK11XQN23PROD with NOTICES1
SUMMARY:
VerDate Sep<11>2014
18:23 Jul 16, 2021
Jkt 253001
resulting from repair of a targeted DNA
break; deletions generated using an
externally provided repair template; or
deletions resulting from repair of two
targeted double strand breaks on a
chromosome. This action would reduce
the regulatory burden for developers of
certain plants modified or produced
through genetic engineering that are
unlikely to pose plant pest risks while
enabling the Animal and Plant Health
Inspection Service to focus its
regulatory resources on risk analyses of
unfamiliar products and those more
likely to pose a plant pest risk.
DATES: We will consider all comments
that we receive on or before August 18,
2021.
ADDRESSES: You may submit comments
by either of the following methods:
• Federal eRulemaking Portal: Go to
www.regulations.gov. Enter APHIS–
2020–0072 in the Search field. Select
the Documents tab, then select the
Comment button in the list of
documents.
• Postal Mail/Commercial Delivery:
Send your comment to Docket No.
APHIS–2020–0072, Regulatory Analysis
and Development, PPD, APHIS, Station
3A–03.8, 4700 River Road Unit 118,
Riverdale, MD 20737–1238.
Supporting documents and any
comments we receive on this docket
may be viewed at www.regulations.gov
or in our reading room, which is located
in Room 1620 of the USDA South
Building, 14th Street and Independence
Avenue SW, Washington, DC. Normal
reading room hours are 8 a.m. to 4:30
p.m., Monday through Friday, except
holidays. To be sure someone is there to
help you, please call (202) 799–7039
before coming.
FOR FURTHER INFORMATION CONTACT: Dr.
Neil Hoffman, Science Advisor,
Biotechnology Regulatory Services,
APHIS, 4700 River Road Unit 98,
Riverdale, MD 20737–1238; (301) 851–
3947.
SUPPLEMENTARY INFORMATION: The
regulations in 7 CFR part 340 govern the
introduction (importation, interstate
movement, or release into the
environment) of certain organisms
modified or produced through genetic
engineering. The Animal and Plant
Health Inspection Service (APHIS) first
issued these regulations in 1987 under
the authority of the Federal Plant Pest
Act of 1957 and the Plant Quarantine
Act of 1912, two acts that were
subsumed into the Plant Protection Act
(PPA, 7 U.S.C. 7701 et seq.) in 2000,
along with other provisions. Since 1987,
APHIS has amended the regulations
seven times, in 1988, 1990, 1993, 1994,
1997, 2005, and 2020.
PO 00000
Frm 00002
Fmt 4703
Sfmt 4703
On May 18, 2020, we published in the
Federal Register (85 FR 29790–29838,
Docket No. APHIS–2018–0034) a final
rule 1 that marked the first
comprehensive revision of the
regulations since they were established
in 1987. The final rule provided a clear,
predictable, and efficient regulatory
pathway for innovators, facilitating the
development of organisms developed
using genetic engineering that are
unlikely to pose plant pest risks.
The May 2020 final rule included
regulatory exemptions for certain
categories of plants that have been
modified. Specifically, § 340.1(b)
exempted plants that contain a single
modification of one of the following
types, specified in § 340.1(b)(1) through
(3):
• The genetic modification is a
change resulting from cellular repair of
a targeted DNA break in the absence of
an externally provided repair template;
or
• The genetic modification is a
targeted single base pair substitution; or
• The genetic modification introduces
a gene known to occur in the plant’s
gene pool or makes changes in a
targeted sequence to correspond to a
known allele of such a gene or to a
known structural variation present in
the gene pool.
In addition to the modifications listed
above, § 340.1(b)(4) provides that the
Administrator may propose to exempt
plants with additional modifications,
based on what could be achieved
through conventional breeding. Such
proposals may either be APHIS-initiated
or may be initiated via a request that is
accompanied by adequate supporting
information and submitted by another
party. In either case, APHIS will publish
a notice in the Federal Register of the
proposal, along with the supporting
documentation, and will request public
comments. After reviewing the
comments, APHIS will publish a
subsequent notice in the Federal
Register announcing its final
determination. A list specifying
modifications a plant can contain and
be exempt pursuant to paragraph (b)(4)
is available on the APHIS website at
https://www.aphis.usda.gov/aphis/
ourfocus/biotechnology.
In this document, we are proposing to
add three modifications that plants can
contain and be exempt from regulation
pursuant to § 340.1. These modifications
are similar and functionally equivalent
to modifications that commonly occur
within conventional breeding and to the
1 To view the final rule and supporting
documents, go to https://www.regulations.gov, and
enter APHIS–2018–0034 in the Search field.
E:\FR\FM\19JYN1.SGM
19JYN1
lotter on DSK11XQN23PROD with NOTICES1
Federal Register / Vol. 86, No. 135 / Monday, July 19, 2021 / Notices
modification described in § 340.1(b)(1),
but enable a developer to more
efficiently obtain a complete loss of
function of a targeted gene. We are also
making available for public review
scientific literature that we consulted
prior to initiating the proposal. The
literature supports exempting plants
with these additional modifications.
Under the first additional genetic
modification proposed, plants would
not be subject to the regulations when
cellular repair of a targeted DNA break
in the same location on two homologous
chromosomes, in the absence of a repair
template, results in homozygous or
heterozygous biallelic mutations, each
of which is a loss of function mutation.
A double strand break followed by
cellular repair often occurs in both
paternal and maternal alleles (biallelic)
during genome editing. As a range of
DNA indels frequently occur after a
double strand break, the mutation in the
paternal allele often differs from the
mutation in the maternal allele. Biallelic
knockout mutations are easily obtained
in conventional breeding through selffertilizing or backcrossing and selection.
In this case, the biallelic mutation is
usually homozygous. However, in cases
where the deletions are not identical but
both deletions lead to a loss of function
of the allele, the phenotype will be the
same as the homozygous biallelic
mutation obtained through conventional
breeding. If both alleles are modified by
indels such that neither allele is
functional, the size, position, and
sequence of the indels within the gene
need not be identical to qualify for the
exemption.
The second additional genetic
modification proposed is a contiguous
deletion of any size resulting from
cellular repair of a targeted DNA break
in the presence of an externally
supplied repair template. The deletion
can occur on one or two homologous
chromosomes. This modification is
similar to the one described in
§ 340.1(b)(1), except that it allows an
externally supplied repair template to
be used. When genome editing is used
to create a single DNA break, a range of
indels result from the cellular repair
mechanism. To limit the range of
mutations recovered and, therefore, to
more efficiently obtain a complete loss
of function of the targeted gene(s), some
developers also add a template to guide
the repair process. To limit this
proposed additional modification to
what is achievable through conventional
breeding, it would only apply to
deletions created by the double strand
break and externally supplied repair
template.
VerDate Sep<11>2014
18:23 Jul 16, 2021
Jkt 253001
The third additional genetic
modification proposed is for a change
resulting from cellular repair of two
targeted DNA breaks on a single
chromosome or at the same location on
two homologous chromosomes, when
the repair results in a contiguous
deletion of any size in the presence or
absence of a repair template, or in a
contiguous deletion of any size
combined with an insertion of DNA in
the absence of a repair template. The
insertion cannot result from the
insertion of exogenous construct DNA.
The modifications on two homologous
chromosomes can be heterozygous as
long as each results in a loss of function
of the targeted gene(s). To qualify for the
exemption, the plant must have
mutations that are restricted to a pair of
homologous chromosomes in diploids
and allopolyploids or any two
homologous chromosomes in
autopolyploids. Radiation mutagenesis,
which is commonly used in
conventional breeding, can create any
size deletion. As mutations are typically
detrimental to the organism, what is
achievable in practice is limited by the
viability and fertility of the organism.
Large mutations can be maintained in a
heterozygous state but do not tend to
undergo homozygous inheritance
(Naito, 2005).2 For example, in
Arabidopsis, which has a genome size of
135 Mb (Arabidopsis Genome Initiative,
2000), a radiation-induced deletion of
3.1 Mb was obtained that disrupted 852
genes and was maintainable only as a
heterozygote, presumably because genes
essential for survival are present in the
deleted region (Kazama, et al., 2017).3
Polyploid plants and those with large
genomes are better able to accommodate
even larger deletions (Men et al., 2002).4
For example, in hexaploid wheat, X-ray
mutagenesis was used to create a
mutant, ph1, widely used in breeding
programs, that has a 70 Mb deletion
(Sears, 1977).5 To put the size of this
2 Naito, K., M. Kusaba, N. Shikazono, T. Takano,
A. Tanaka, T. Tanisaka, and M. Nishimura (2005).
Transmissible and nontransmissible mutations
induced by irradiating Arabidopsis thaliana pollen
with gamma-rays and carbon ions. Genetics, 169,
881–889.
3 Kazama, Y., K. Ishii, T. Hirano, T. Wakana, M.
Yamada, S. Ohbu, and T. Abe (2017). Different
mutational function of low- and high-linear energy
transfer heavy-ion irradiation demonstrated by
whole-genome resequencing of Arabidopsis
mutants. Plant J. 92, 1020–1030.
4 Men, A.E., T.S. Laniya, I.R. Searle, I. IturbeOrmaetxe, I. Gresshoff, Q. Jiang, B.J. Carroll, and
P.M. Gresshoff (2002). Fast Neutron Mutagenesis of
Soybean (Glycine soja L.) Produces a
Supernodulating Mutant Containing a Large
Deletion in Linkage Group H. Genome Letters 3:
147–155.
5 Sears, E.A. (1977). An induced mutant with
homoeologous pairing in common wheat. Canadian
J of Genetics and Cytology 19: 585–593.
PO 00000
Frm 00003
Fmt 4703
Sfmt 4703
37989
wheat deletion in perspective, it is
larger than half of the entire genome of
Arabidopsis. Based on the use of plants
with large deletion mutations in
conventional breeding programs, any
size contiguous deletion created by two
double strand breaks should be
exempted because it falls well within
what could be achieved through
conventional breeding.
After reviewing any comments we
receive, we will announce our decision
regarding the three new modifications
that plants could contain and qualify for
exemption in a subsequent notice.
Authority: 7 U.S.C. 7701–7772 and
7781–7786; 31 U.S.C. 9701; 7 CFR 2.22,
2.80, and 371.3.
Done in Washington, DC, this 14th day of
July, 2021.
Michael Watson,
Acting Administrator, Animal and Plant
Health Inspection Service.
[FR Doc. 2021–15236 Filed 7–16–21; 8:45 am]
BILLING CODE 3410–34–P
DEPARTMENT OF AGRICULTURE
Animal and Plant Health Inspection
Service
[Docket No. APHIS–2021–0032]
Notice of Request for Revision to and
Extension of Approval of an
Information Collection; National
Poultry Improvement Plan
Animal and Plant Health
Inspection Service, Agriculture (USDA).
ACTION: Revision to and extension of
approval of an information collection;
comment request.
AGENCY:
In accordance with the
Paperwork Reduction Act of 1995, this
notice announces the Animal and Plant
Health Inspection Service’s intention to
request a revision to and extension of
approval of an information collection
associated with the National Poultry
Improvement Plan.
DATES: We will consider all comments
that we receive on or before September
17, 2021.
ADDRESSES: You may submit comments
by either of the following methods:
• Federal eRulemaking Portal: Go to
www.regulations.gov. Enter APHIS–
2021–0032 in the Search field. Select
the Documents tab, then select the
Comment button in the list of
documents.
• Postal Mail/Commercial Delivery:
Send your comment to Docket No.
APHIS–2021–0032, Regulatory Analysis
and Development, PPD, APHIS, Station
3A–03.8, 4700 River Road, Unit 118,
Riverdale, MD 20737–1238.
SUMMARY:
E:\FR\FM\19JYN1.SGM
19JYN1
Agencies
[Federal Register Volume 86, Number 135 (Monday, July 19, 2021)]
[Notices]
[Pages 37988-37989]
From the Federal Register Online via the Government Publishing Office [www.gpo.gov]
[FR Doc No: 2021-15236]
-----------------------------------------------------------------------
DEPARTMENT OF AGRICULTURE
Animal and Plant Health Inspection Service
[Docket No. APHIS-2020-0072]
Movement of Organisms Modified or Produced Through Genetic
Engineering; Notice of Exemptions
AGENCY: Animal and Plant Health Inspection Service, Agriculture (USDA).
ACTION: Notice.
-----------------------------------------------------------------------
SUMMARY: We are advising the public that we are proposing to exempt
plants with additional modifications that could otherwise be achieved
through conventional breeding from the regulations that govern the
introduction (importation, interstate movement, or release into the
environment) of certain organisms modified or produced through genetic
engineering. The exempt plants would have distinct modifications on the
paternal and maternal alleles of a single gene resulting from repair of
a targeted DNA break; deletions generated using an externally provided
repair template; or deletions resulting from repair of two targeted
double strand breaks on a chromosome. This action would reduce the
regulatory burden for developers of certain plants modified or produced
through genetic engineering that are unlikely to pose plant pest risks
while enabling the Animal and Plant Health Inspection Service to focus
its regulatory resources on risk analyses of unfamiliar products and
those more likely to pose a plant pest risk.
DATES: We will consider all comments that we receive on or before
August 18, 2021.
ADDRESSES: You may submit comments by either of the following methods:
Federal eRulemaking Portal: Go to www.regulations.gov.
Enter APHIS-2020-0072 in the Search field. Select the Documents tab,
then select the Comment button in the list of documents.
Postal Mail/Commercial Delivery: Send your comment to
Docket No. APHIS-2020-0072, Regulatory Analysis and Development, PPD,
APHIS, Station 3A-03.8, 4700 River Road Unit 118, Riverdale, MD 20737-
1238.
Supporting documents and any comments we receive on this docket may
be viewed at www.regulations.gov or in our reading room, which is
located in Room 1620 of the USDA South Building, 14th Street and
Independence Avenue SW, Washington, DC. Normal reading room hours are 8
a.m. to 4:30 p.m., Monday through Friday, except holidays. To be sure
someone is there to help you, please call (202) 799-7039 before coming.
FOR FURTHER INFORMATION CONTACT: Dr. Neil Hoffman, Science Advisor,
Biotechnology Regulatory Services, APHIS, 4700 River Road Unit 98,
Riverdale, MD 20737-1238; (301) 851-3947.
SUPPLEMENTARY INFORMATION: The regulations in 7 CFR part 340 govern the
introduction (importation, interstate movement, or release into the
environment) of certain organisms modified or produced through genetic
engineering. The Animal and Plant Health Inspection Service (APHIS)
first issued these regulations in 1987 under the authority of the
Federal Plant Pest Act of 1957 and the Plant Quarantine Act of 1912,
two acts that were subsumed into the Plant Protection Act (PPA, 7
U.S.C. 7701 et seq.) in 2000, along with other provisions. Since 1987,
APHIS has amended the regulations seven times, in 1988, 1990, 1993,
1994, 1997, 2005, and 2020.
On May 18, 2020, we published in the Federal Register (85 FR 29790-
29838, Docket No. APHIS-2018-0034) a final rule \1\ that marked the
first comprehensive revision of the regulations since they were
established in 1987. The final rule provided a clear, predictable, and
efficient regulatory pathway for innovators, facilitating the
development of organisms developed using genetic engineering that are
unlikely to pose plant pest risks.
---------------------------------------------------------------------------
\1\ To view the final rule and supporting documents, go to
https://www.regulations.gov, and enter APHIS-2018-0034 in the Search
field.
---------------------------------------------------------------------------
The May 2020 final rule included regulatory exemptions for certain
categories of plants that have been modified. Specifically, Sec.
340.1(b) exempted plants that contain a single modification of one of
the following types, specified in Sec. 340.1(b)(1) through (3):
The genetic modification is a change resulting from
cellular repair of a targeted DNA break in the absence of an externally
provided repair template; or
The genetic modification is a targeted single base pair
substitution; or
The genetic modification introduces a gene known to occur
in the plant's gene pool or makes changes in a targeted sequence to
correspond to a known allele of such a gene or to a known structural
variation present in the gene pool.
In addition to the modifications listed above, Sec. 340.1(b)(4)
provides that the Administrator may propose to exempt plants with
additional modifications, based on what could be achieved through
conventional breeding. Such proposals may either be APHIS-initiated or
may be initiated via a request that is accompanied by adequate
supporting information and submitted by another party. In either case,
APHIS will publish a notice in the Federal Register of the proposal,
along with the supporting documentation, and will request public
comments. After reviewing the comments, APHIS will publish a subsequent
notice in the Federal Register announcing its final determination. A
list specifying modifications a plant can contain and be exempt
pursuant to paragraph (b)(4) is available on the APHIS website at
https://www.aphis.usda.gov/aphis/ourfocus/biotechnology.
In this document, we are proposing to add three modifications that
plants can contain and be exempt from regulation pursuant to Sec.
340.1. These modifications are similar and functionally equivalent to
modifications that commonly occur within conventional breeding and to
the
[[Page 37989]]
modification described in Sec. 340.1(b)(1), but enable a developer to
more efficiently obtain a complete loss of function of a targeted gene.
We are also making available for public review scientific literature
that we consulted prior to initiating the proposal. The literature
supports exempting plants with these additional modifications.
Under the first additional genetic modification proposed, plants
would not be subject to the regulations when cellular repair of a
targeted DNA break in the same location on two homologous chromosomes,
in the absence of a repair template, results in homozygous or
heterozygous biallelic mutations, each of which is a loss of function
mutation. A double strand break followed by cellular repair often
occurs in both paternal and maternal alleles (biallelic) during genome
editing. As a range of DNA indels frequently occur after a double
strand break, the mutation in the paternal allele often differs from
the mutation in the maternal allele. Biallelic knockout mutations are
easily obtained in conventional breeding through self-fertilizing or
backcrossing and selection. In this case, the biallelic mutation is
usually homozygous. However, in cases where the deletions are not
identical but both deletions lead to a loss of function of the allele,
the phenotype will be the same as the homozygous biallelic mutation
obtained through conventional breeding. If both alleles are modified by
indels such that neither allele is functional, the size, position, and
sequence of the indels within the gene need not be identical to qualify
for the exemption.
The second additional genetic modification proposed is a contiguous
deletion of any size resulting from cellular repair of a targeted DNA
break in the presence of an externally supplied repair template. The
deletion can occur on one or two homologous chromosomes. This
modification is similar to the one described in Sec. 340.1(b)(1),
except that it allows an externally supplied repair template to be
used. When genome editing is used to create a single DNA break, a range
of indels result from the cellular repair mechanism. To limit the range
of mutations recovered and, therefore, to more efficiently obtain a
complete loss of function of the targeted gene(s), some developers also
add a template to guide the repair process. To limit this proposed
additional modification to what is achievable through conventional
breeding, it would only apply to deletions created by the double strand
break and externally supplied repair template.
The third additional genetic modification proposed is for a change
resulting from cellular repair of two targeted DNA breaks on a single
chromosome or at the same location on two homologous chromosomes, when
the repair results in a contiguous deletion of any size in the presence
or absence of a repair template, or in a contiguous deletion of any
size combined with an insertion of DNA in the absence of a repair
template. The insertion cannot result from the insertion of exogenous
construct DNA. The modifications on two homologous chromosomes can be
heterozygous as long as each results in a loss of function of the
targeted gene(s). To qualify for the exemption, the plant must have
mutations that are restricted to a pair of homologous chromosomes in
diploids and allopolyploids or any two homologous chromosomes in
autopolyploids. Radiation mutagenesis, which is commonly used in
conventional breeding, can create any size deletion. As mutations are
typically detrimental to the organism, what is achievable in practice
is limited by the viability and fertility of the organism. Large
mutations can be maintained in a heterozygous state but do not tend to
undergo homozygous inheritance (Naito, 2005).\2\ For example, in
Arabidopsis, which has a genome size of 135 Mb (Arabidopsis Genome
Initiative, 2000), a radiation-induced deletion of 3.1 Mb was obtained
that disrupted 852 genes and was maintainable only as a heterozygote,
presumably because genes essential for survival are present in the
deleted region (Kazama, et al., 2017).\3\ Polyploid plants and those
with large genomes are better able to accommodate even larger deletions
(Men et al., 2002).\4\ For example, in hexaploid wheat, X-ray
mutagenesis was used to create a mutant, ph1, widely used in breeding
programs, that has a 70 Mb deletion (Sears, 1977).\5\ To put the size
of this wheat deletion in perspective, it is larger than half of the
entire genome of Arabidopsis. Based on the use of plants with large
deletion mutations in conventional breeding programs, any size
contiguous deletion created by two double strand breaks should be
exempted because it falls well within what could be achieved through
conventional breeding.
---------------------------------------------------------------------------
\2\ Naito, K., M. Kusaba, N. Shikazono, T. Takano, A. Tanaka, T.
Tanisaka, and M. Nishimura (2005). Transmissible and
nontransmissible mutations induced by irradiating Arabidopsis
thaliana pollen with gamma-rays and carbon ions. Genetics, 169, 881-
889.
\3\ Kazama, Y., K. Ishii, T. Hirano, T. Wakana, M. Yamada, S.
Ohbu, and T. Abe (2017). Different mutational function of low- and
high-linear energy transfer heavy-ion irradiation demonstrated by
whole-genome resequencing of Arabidopsis mutants. Plant J. 92, 1020-
1030.
\4\ Men, A.E., T.S. Laniya, I.R. Searle, I. Iturbe-Ormaetxe, I.
Gresshoff, Q. Jiang, B.J. Carroll, and P.M. Gresshoff (2002). Fast
Neutron Mutagenesis of Soybean (Glycine soja L.) Produces a
Supernodulating Mutant Containing a Large Deletion in Linkage Group
H. Genome Letters 3: 147-155.
\5\ Sears, E.A. (1977). An induced mutant with homoeologous
pairing in common wheat. Canadian J of Genetics and Cytology 19:
585-593.
---------------------------------------------------------------------------
After reviewing any comments we receive, we will announce our
decision regarding the three new modifications that plants could
contain and qualify for exemption in a subsequent notice.
Authority: 7 U.S.C. 7701-7772 and 7781-7786; 31 U.S.C. 9701; 7 CFR
2.22, 2.80, and 371.3.
Done in Washington, DC, this 14th day of July, 2021.
Michael Watson,
Acting Administrator, Animal and Plant Health Inspection Service.
[FR Doc. 2021-15236 Filed 7-16-21; 8:45 am]
BILLING CODE 3410-34-P