Endangered and Threatened Wildlife and Plants: Proposed Reclassification of Pillar Coral (Dendrogyra cylindrus) From Threatened to Endangered, 59494-59501 [2023-17769]
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Federal Register / Vol. 88, No. 166 / Tuesday, August 29, 2023 / Proposed Rules
• Conditional rating
• Satisfactory rating
2. Should FMCSA include additional
HM regulatory requirements in
appendix B to part 385 (Explanation of
Safety Rating Process) in the SFD
calculation?
3. Currently, the table of regulatory
factors in appendix B to part 385 (at
II(C)(b)) excludes parts 172 and 173.
However, there are violations in these
parts included in the list of critical and
acute violations in appendix B. Should
they be included in the SFD
calculations?
4. Should motor carriers of passengers
be subject to higher standards than other
motor carriers in terms of safety fitness
rating methodology? If yes, what should
these higher safety standards or
thresholds be, and why are they
appropriate? If no, why not?
5. Is there a specific aspect of safety
management, such as driver training,
driver fatigue management and
mitigation, vehicular maintenance and
repair, etc., that is so fundamentally
different in passenger transportation,
relative to CMVs transporting property,
that FMCSA’s safety fitness rating
methodology should take this aspect
into special consideration? If yes, what
is this specific aspect of safety
management, and how do you
recommend FMCSA handle the matter
within its safety fitness rating
methodology? If no, why are the safety
management aspects the same?
6. How will States be affected if the
Agency changes the SFD? What
resources might be needed to
accommodate any changes, and how
long would it take to incorporate any
proposed changes?
7. The current SFD does not use all
available safety data, such as all
inspection-based data. Should the SMS
methodology be used to issue SFDs, in
a manner similar to what was proposed
in the 2016 NPRM? If so, what
adjustments, if any, should be made to
that proposal? If not, should the Agency
include more safety data in the SFD
process in other ways and, if so, how?
The Agency is interested in comments
specifically on whether the integration
of on-road safety data into the SFD
process would improve the assessment
of motor carriers’ safety posture and the
identification of unfit motor carriers.
8. Given the importance of driver
behavior in preventing crashes, how
would you recommend the Agency
incorporate driver behavior data into the
SFD? What data should the agency use?
How should this methodology
distinguish between data resulting in a
conviction and data without a
conviction?
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9. What changes, additions, or
deletions, from the current list of critical
and acute violations should be included
in the NPRM, and why? Should the list
be retained? Why or why not?
10. Should SFD consider motor
carriers’ adoption and use of safety
technologies in a carrier’s rating? How
should this fit into the SFD
methodology?
11. Should the Agency revise the
current administrative review
procedures in §§ 385.15 and 385.17(j)
related to administrative review and
corrective action? Which of those
procedures should be changed or
discarded? Please give the reasons for
your views.
12. Given that unsafe driving
behaviors, such as speeding and texting
while driving, are highly correlated with
crash risk, should the safety fitness
rating methodology give more weight to
unsafe driving violations of § 392.2? For
example, each pattern of noncompliance
with a critical regulation relative to part
395, Hours of Service of Drivers, is
assessed double the points in the safety
fitness rating methodology. Should
violations of § 392.2, or a subset of those
violations, be treated in a similar
manner?
Robin Hutcheson,
Administrator.
[FR Doc. 2023–18494 Filed 8–28–23; 8:45 am]
BILLING CODE 4910–EX–P
DEPARTMENT OF COMMERCE
National Oceanic and Atmospheric
Administration
50 CFR Parts 223 and 224
[Docket No. 230810–0189; RTID 0648–
XR126]
Endangered and Threatened Wildlife
and Plants: Proposed Reclassification
of Pillar Coral (Dendrogyra cylindrus)
From Threatened to Endangered
National Marine Fisheries
Service (NMFS), National Oceanic and
Atmospheric Administration (NOAA),
Commerce.
ACTION: Proposed rule; request for
comments.
AGENCY:
We, NMFS, are issuing a
proposed rule to change the status of
pillar coral (Dendrogyra cylindrus) on
the Federal List of Threatened and
Endangered Species from threatened to
endangered as recommended in the
recent 5-year review of the species
under the Endangered Species Act
(ESA) of 1973. We propose this action
SUMMARY:
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based on population declines and
susceptibility to a recently emerged
coral disease.
DATES: Written comments must be
received on or before October 30, 2023.
Public hearings: A public hearing on
the proposed rule will be held online on
September 26, 2023, from 1 to 3 p.m.
Eastern Daylight Time. Members of the
public can join by internet or phone,
regardless of location. Instructions for
joining the hearing are provided under
ADDRESSES. Requests for additional
public hearings must be received by
October 13, 2023.
ADDRESSES: The public hearing will be
conducted as a virtual meeting. You
may join the virtual public hearing
using a web browser, a mobile app on
a phone (app installation required), or
by phone (for audio only) as specified
on this website: https://
www.fisheries.noaa.gov/species/pillarcoral#conservation-management.
You may submit comments on the
proposed rule verbally at the public
hearing or in writing, by any of the
following methods:
• Electronic Submission: Submit all
electronic public comments via the
Federal e-Rulemaking Portal. Go to
www.regulations.gov and enter NOAA–
NMFS–2023–0002 in the Search box.
Click on the ‘‘Comment’’ icon, complete
the required fields, and enter or attach
your comments; or
• Email: Submit written comments to
alison.moulding@noaa.gov.
Instructions: Comments sent by any
other method, to any other address or
individual, or received after the end of
the comment period, may not be
considered by NMFS. All comments
received are a part of the public record
and will generally be posted for public
viewing on www.regulations.gov
without change. All personal identifying
information (e.g., name, address, etc.),
confidential business information, or
otherwise sensitive information
submitted voluntarily by the sender will
be publicly accessible. NMFS will
accept anonymous comments (enter ‘‘N/
A’’ in the required fields if you wish to
remain anonymous).
FOR FURTHER INFORMATION CONTACT:
Alison Moulding, 727–551–5607,
alison.moulding@noaa.gov.
SUPPLEMENTARY INFORMATION:
Background
On September 10, 2014, we published
a final rule listing pillar coral
(Dendrogyra cylindrus), along with 4
other Caribbean coral species and 15
Indo-Pacific coral species, as threatened
under the ESA (79 FR 53851). In early
2021, we announced a 5-year review of
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7 threatened Caribbean coral species,
including D. cylindrus (86 FR 1091,
January 7, 2021). A 5-year review is
intended to ensure that the listing
classification of a species is accurate,
and this review must be based on the
best scientific and commercial data
available.
Section 3 of the ESA defines an
endangered species as any species
which is in danger of extinction
throughout all or a significant portion of
its range and a threatened species as one
which is likely to become an
endangered species within the
foreseeable future throughout all or a
significant portion of its range. The
statute requires us to determine whether
a species is threatened or endangered as
a result of any of the factors listed in
section 4(a)(1) of the ESA: (A) the
present or threatened destruction,
modification, or curtailment of its
habitat or range; (B) overutilization for
commercial, recreational, scientific, or
educational purposes; (C) disease or
predation; (D) the inadequacy of
existing regulatory mechanisms; or (E)
other natural or manmade factors
affecting its continued existence.
Changes to a listed species’ status must
be determined on the basis of these
factors using solely the best scientific
and commercial data available (16
U.S.C. 1533(c)(2)(B)). Implementing
regulations in 50 CFR 424.11(b) reiterate
the requirement that changes in a
species’ classifications must be based
solely on the best available scientific
and commercial information regarding a
species’ status. Recently proposed
revisions to the regulations in 50 CFR
424.11(b) would restore the phrase
‘‘without reference to possible economic
or other impacts of such determination’’
to the end of the provision, which was
removed in 2019 (see 88 FR 40764, June
22, 2023). This clarification, if finalized,
would not affect the existing
requirements for making classification
determinations, nor would it affect the
proposed reclassification for the pillar
coral.
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Biology and Life History
Dendrogyra cylindrus is a colonial
coral that can form large pillars (up to
3 meters (m)) upon an encrusting base.
The final listing rule (79 FR 53851,
September 10, 2014) described D.
cylindrus as a gonochoric (separate
sexes), broadcast spawning coral species
that can also reproduce asexually
through fragmentation and reattachment
to the substrate. It has a relatively low
annual egg production and low sexual
recruitment (no reports of observed
sexual recruitment in the wild).
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Since the listing, new evidence of
hermaphroditism (presence of both male
and female gametes) and plasticity in
reproductive mode has been observed in
histological samples (Kabay, 2016) and
in spawning colonies observed over
several seasons in Florida (Neely et al.,
2018; Neely et al., 2020a; O’Neil et al.,
2021). Histological samples from Florida
revealed some hermaphroditic colonies
that produced eggs and sperm within
the same polyp and within the same
mesentery while most colonies only
produced eggs or sperm (Kabay, 2016).
Dendrogyra cylindrus colonies have
been observed to spawn as different
genders on different nights of the same
year, as different genders in different
years, and as hermaphrodites spawning
eggs and sperm simultaneously (Neely
et al., 2018; Neely et al., 2020a; O’Neil
et al., 2021). Also, separate colonies of
the same genotype (genetically identical
colonies) have been observed to spawn
either male or female gametes, and some
colonies produced both eggs and sperm
within separate regions of the same
colony (Neely et al., 2018). Spawning
observations have also suggested that
eggs may be fertilized within female
colonies prior to release (Marhaver et
al., 2015). This flexibility in
reproductive mode may be a strategy to
improve the chances of successful
reproduction for a species that is
naturally rare and whose potential
mates are scarce (Neely et al., 2018).
Abundance, Trends, and Distribution
Dendrogyra cylindrus is present in the
western Atlantic and throughout the
greater Caribbean. It is absent in the
Flower Garden Banks in the Gulf of
Mexico and from the southwest Gulf of
Mexico. It inhabits most reef
environments in water depths ranging
from 1 to 25 m and is most common in
reef environments in water depths
between 5 and 15 m. It has a naturally
uncommon to rare occurrence,
appearing as scattered, isolated
colonies; it is sometimes found in
highly clonal aggregations, likely
resulting from fragmentation events
(Chan et al., 2019).
At the time of listing (79 FR 53851,
September 10, 2014), available
information indicated that colony
density and cover were low (generally
less than 1 colony per 10 square meters
(m2) and less than 1 percent cover).
Estimates of frequency of occurrence of
D. cylindrus ranged from 1 percent of
sites in Florida to a high of 30 percent
in the U.S. Virgin Islands. Based on
extrapolations of abundance from
stratified random samples, abundance
in Florida was estimated at tens of
thousands of colonies. There was no
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available population trend information
at the time of listing.
Since the listing, there has been a new
survey of D. cylindrus abundance in Los
Roques National Park, Venezuela
(Cavada-Blanco et al., 2020). Surveys
were conducted between 2014 and 2015
at 106 sites where the species had been
reported by the local community. A
total of 1,490 D. cylindrus colonies were
located within 49 percent of the sites
surveyed, and colony abundance ranged
between 1 and 68 colonies per site.
Average height of colonies was 72
centimeters (cm) (range 5–290 cm),
though most of the colonies were below
60 cm in height. Disease presence was
low overall (0.2 and 0.3 percent of
colonies with white plague and black
band disease, respectively) and 29
percent of the 1,490 colonies exhibited
partial mortality (Cavada-Blanco et al.,
2020).
New studies published since the
listing provide some population trend
information. Surveys of D. cylindrus
were conducted in 2012 in Old
Providence and St. Catalina Islands,
which host more than 90 percent of the
D. cylindrus population in Colombia
(Bernal-Sotelo et al., 2019). Results were
compared to surveys of the same area
conducted in 2002 to discern
population trends. The surveys revealed
that D. cylindrus was present in 2012 in
3 of the 4 reef areas where it was present
in 2002, but its spatial extent was
reduced (i.e., D. cylindrus occupied a
smaller amount of the reef areas in 2012
relative to 2002). Half of the radial plots
(60 m diameter) that contained more
than 4 colonies of D. cylindrus in 2002
contained no living colonies of D.
cylindrus 10 years later. The number of
colonies and fragments (i.e., tissue
remnants on standing colonies)
observed in 2002 were 213 and 70,
respectively, versus 261 colonies and
585 fragments in 2012. Almost 97
percent of the fragments observed in
2012 were produced as a result of
partial colony mortality. Average colony
and fragment size was also smaller in
2012, and the number of colonies with
partial mortality and the amount of
partial mortality were higher. Larger
colonies (≥115 cm) had higher partial
and total mortality. In summary,
compared to 2002, in 2012 there were
more D. cylindrus colonies and
fragments that likely resulted from
partial mortality. Colonies and
fragments in 2012 were smaller in size,
had a higher prevalence of partial
mortality, and had higher amounts of
partial mortality within individual
colonies. The authors concluded that
the reduced amount of living tissue,
dominance of asexually produced
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fragments, and smaller fragment size
limit the potential for population
growth, making this population
vulnerable and at risk of local extinction
(Bernal-Sotelo et al., 2019).
Beginning in 2013, all known colonies
of D. cylindrus in Florida (n = 819
colonies) were tracked in an effort to
monitor colony health and status (Neely
et al., 2021a). There were consecutive
thermal bleaching events in 2014 and
2015, as well as ongoing and emerging
disease events, which affected the
monitored D. cylindrus colonies.
Recovery from bleaching was calculated
to take 11 years (in the absence of
additional severe stressors) based on
colony growth rates (∼4 percent annual
increase in live tissue) observed after
bleaching but before disease affected the
colonies (Neely et al., 2021a). In a
separate study using the same tracked
colonies, demographic modeling of D.
cylindrus was conducted to examine the
effects of thermal stress events on
population persistence. The model used
different survival scenarios of 80, 50,
and 20 percent of the population after
the 2014 and 2015 thermally-induced
bleaching and disease outbreak and
assumed no sexual reproduction, no
establishment of asexual recruits, and
no successful restoration (Chan et al.,
2019). The model predicted that the
number of thermal stress events before
local extinction occurred was 31 for the
80 percent survival scenario, 11 for the
50 percent survival scenario, and 6 for
the 20 percent survival scenario (Chan
et al., 2019). Assuming 2 stress events
per decade until 2042 when thermal
stress events are predicted to become
annual, local extinction of D. cylindrus
in Florida was predicted to occur in
2066 for the 80 percent survival
scenario, in 2046 for the 50 percent
survival scenario, and in 2039 for the 20
percent survival scenario (Chan et al.,
2019). These modeling predictions did
not account for disease, which, as
described below, caused near
extirpation from Florida much sooner
than the model’s predicted dates for
local extinction (Neely et al., 2021a).
The Florida D. cylindrus colonies that
were monitored between 2013 and 2020
included 819 colonies of an assumed
190 genotypes based on genetic testing
or colony distances from each other
(Neely et al., 2021a). Distances between
genotypes on average was about 1
kilometer (km), ranging from 2.5 m to
6.6 km. Half of the colonies represented
clones of only five genotypes, and 62
percent of the genotypes were
represented by a single colony. Asexual
reproduction accounted for 77 percent
of the colonies. During baseline surveys
in 2013–2014 (542 colonies, 533 alive),
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average tissue mortality was 30 percent
(n = 542), and 22 percent of the colonies
exhibited low (2.2 percent) recent
mortality. During the monitoring period,
there were chronic stressors that
occurred on about 1 percent of colonies
and caused minor damage (on average
less than 1 percent tissue loss),
including damselfish gardens/nests,
predation by the corallivorous snail
(Coralliophila abbreviata), competition
with other benthic organisms, and
abrasion and burial. However, acute
stressors, including the 2014 and 2015
bleaching events, ongoing outbreaks of
white plague and black band disease,
and the outbreak of a novel, particularly
devastating disease, termed stony coral
tissue loss disease (SCTLD), resulted in
extremely high mortality (Lewis, 2018;
Lewis et al., 2017; Neely et al., 2021a).
By the end of the monitoring period in
2020, there had been a 94 percent loss
of coral tissue, 93 percent loss of
colonies, and 86 percent loss of
genotypes due primarily to disease. At
the end of 2020, there were 25 known
genotypes remaining (out of the 190
genotypes assumed at the beginning of
the study), half of which had declined
to less than 2 percent live tissue, and
the other half were actively
experiencing rapid tissue loss due to
SCTLD. Only two genotypes remained
unaffected and were located in the Dry
Tortugas where SCTLD had not yet
reached at the time of the study (but has
now). Based on the extreme loss of
colonies and live tissue, D. cylindrus is
now considered functionally extinct
along the Florida reef tract (Neely et al.,
2021a).
Although quantitative population
trend data are only available from
Florida and Colombia, we assume the
species is in decline throughout most of
its range based on the evidence from
these regions (northern and
southwestern portions of its range) and
the more widespread evidence of severe
disease impacts described in the
‘‘Threats’’ section below.
Threats
The ESA requires us to determine
whether a species is endangered or
threatened as a result of any of the
following factors: (A) the present or
threatened destruction, modification, or
curtailment of its habitat or range; (B)
overutilization for commercial,
recreational, scientific, or educational
purposes; (C) disease or predation; (D)
the inadequacy of existing regulatory
mechanisms; or (E) other natural or
manmade factors affecting its continued
existence. The final listing rule (79 FR
53851, September 10, 2014) identified
and described the susceptibility of D.
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cylindrus to multiple threats including
ocean warming (Factor E), ocean
acidification (Factor E), disease (Factor
C), nutrient enrichment (Factors A and
E), sedimentation (Factors A and E), and
trophic effects of fishing (Factor A). In
addition, D. cylindrus was determined
to be at heightened extinction risk due
to inadequate regulatory mechanisms to
address global threats (i.e., climate
change that results in ocean warming
and acidification and has been linked to
increasing coral disease; Factor D).
Since the listing of D. cylindrus as
threatened (79 FR 53851, September 10,
2014), SCTLD has emerged as a new and
deadly disease, impacting at least 24
Caribbean coral species, including D.
cylindrus (Florida Coral Disease
Response Research & Epidemiology
Team, 2018). SCTLD was first observed
in Miami, Florida, in 2014 and then
spread throughout the Florida reef tract
over the next several years (Neely, 2018;
Precht et al., 2016). SCTLD has
continued to spread throughout much of
the Caribbean and has been observed
along the Mesoamerican Reef, Bahamas,
Greater Antilles, and in the Lesser
Antilles as far south as Grenada (see
https://www.agrra.org/coral-diseaseoutbreak/ for a map of confirmed
sightings of SCTLD in the greater
Caribbean). The disease is
unprecedented in temporal and
geographic scope as well as the number
of susceptible species, prevalence, and
rates of mortality (Neely, 2018; Precht et
al., 2016). In almost all affected species,
tissue loss occurs rapidly and leads to
full colony mortality. The disease
appears to be both waterborne and
transmissible through direct contact
(Aeby et al., 2019). In addition,
sediment can act as a SCTLD vector by
transmitting SCTLD in the absence of
direct contact between diseased and
healthy corals Studivan et al., 2022).
SCTLD does not appear to be seasonal
like many other coral diseases that will
ramp up during higher temperatures but
then decrease as water temperatures
cool.
Dendrogyra cylindrus is highly
susceptible to SCTLD and is often one
of the first species to become infected
(Florida Coral Disease Response
Research & Epidemiology Team, 2018).
Surveys of the progression and impact
of SCTLD have shown that D. cylindrus
exhibits high disease prevalence and
colony mortality. As previously
described, between 2014 and 2020 the
Florida population of D. cylindrus was
heavily impacted by SCTLD; there was
a loss of 93 percent of colonies and 94
percent of live tissue (Neely et al.,
2021a). In surveys of the Bahamas, 67
percent of D. cylindrus colonies (n = 15,
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March 2020) were infected with SCTLD
in Grand Bahama, and 13 percent of D.
cylindrus colonies (n = 8, June 2020)
were infected in New Providence
(Dahlgren et al., 2021). In surveys across
Mexico, 71 percent of D. cylindrus
colonies (n = 7) surveyed in 2018 to
2019 were infected with SCTLD, and D.
cylindrus was extirpated from several
mainland coastal sites (Alvarez-Filip et
al., 2019). In separate surveys
conducted in Cozumel, Mexico,
between 2018 and 2020, surveyors
observed that D. cylindrus colonies were
heavily affected by SCTLD, though no
quantitative prevalence data are
available because no D. cylindrus
colonies occurred in the survey
transects (Estrada-Saldivar et al., 2021).
In 54 sites surveyed in 2020 around St.
Thomas, U.S. Virgin Islands, 67 percent
of the D. cylindrus colonies (n = 3) were
infected with SCTLD, and D. cylindrus
was the species with the highest
prevalence of SCTLD within the
epidemic zone (Costa et al., 2021). In
long-term monitoring transects in the
U.S. Virgin Islands, 50 percent of D.
cylindrus colonies (n = 2) surveyed in
February 2019 were infected, and by
July 2020, no D. cylindrus colonies
remained alive in the transects (Brandt
et al., 2021). Prior to the documentation
of SCTLD in the U.S. Virgin Islands,
there were 11 colonies of D. cylindrus
present in the monitoring transects
between 2005 and 2018, suggesting loss
of nine colonies from unknown causes
(Brandt et al., 2021). The study also
noted that numerous recently dead
colonies of D. cylindrus, presumably
from SCTLD, were observed and that it
was increasingly rare to find live
colonies, even in locations where the
species previously had been relatively
abundant (Brandt et al., 2021).
SCTLD has spread from Florida,
where it was initially documented, to
the eastern and western Caribbean.
Although it has not yet been confirmed
in all areas of the Caribbean (i.e., the
most southern part), we assume SCTLD
will eventually reach all areas of the
range of D. cylindrus based on its
previous spread and the fact that it is
waterborne.
Conservation Measures
Coral colonies infected with SCTLD
have been effectively treated to stop the
progression of the disease. Initial ex situ
(in aquaria) treatment of D. cylindrus
consisted of amputation of diseased
tissue and dipping the corals (13
fragments from 6 colonies) in a Lugol’s
iodide solution, which is commonly
used in the aquarium industry as a
treatment for bacterial infections. After
repeated treatments, this method was
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effective in arresting disease progression
about 53 percent of the time (O’Neil et
al., 2018). Additional ex situ treatment
with the antibiotic amoxicillin applied
directly to the diseased tissue margin in
a custom-made paste formulation
(modified from a dental paste) increased
survival of infected D. cylindrus to
about 97 percent (Miller et al., 2020).
However, this antibiotic dental paste
has to be applied to corals out of water
(corals were placed back in the water
after antibiotic paste application). To
treat corals in situ (in the ocean), slowrelease antibiotic pastes were developed
that could be applied underwater
(O’Neil et al., 2018). Antibiotics pastes
have been successfully applied in situ to
coral species infected with SCTLD in
Florida (67 to 95 percent effectiveness,
Neely et al., 2020b; Neely et al., 2021c;
Shilling et al., 2021; Walker et al. 2021),
though no reports of effectiveness on in
situ D. cylindrus colonies have been
published, likely because most of these
studies have been performed in Florida
after the near-extirpation of the species.
The treatment only has the ability to
stop progression of the disease lesion,
but it does not prevent new lesions from
forming (Neely et al., 2020b; Shilling et
al., 2021; Walker et al., 2021).
During the widespread and severe
decline of D. cylindrus in Florida, a
rescue effort was undertaken to collect
fragments of live colonies and bring
them under human care to preserve the
remaining genetic diversity. From
November 2015 to November 2019,
fragments were collected from most
remaining D. cylindrus genotypes
(Kabay, 2016; Neely et al., 2021b; O’Neil
et al., 2021). A total of 574 fragments
representing 128 genotypes were
collected between 2015 and 2019 (Neely
et al., 2021b), and an additional 4
fragments were collected in August
2021 from newly found colonies in the
Dry Tortugas (K.L. Neely, Nova
Southeastern University, personal
communication). Fragments were
brought under human care in both landbased and ocean-based nurseries for
preservation and to aid in propagation
and future restoration (Kabay, 2016;
Neely et al., 2021b; O’Neil et al., 2021).
As of the end of 2020, 543 fragments of
123 Florida genotypes of D. cylindrus
were being held in nurseries (Neely et
al., 2021a).
Increased understanding of the
reproductive biology and early life
history of D. cylindrus has contributed
to attempts to sexually propagate D.
cylindrus for use in conservation efforts
(Marhaver et al., 2015; Neely et al.,
2020a; O’Neil et al., 2021; Villalpando
et al., 2021). The first report of
successful settlement from larval
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propagation resulted from collection
and fertilization of gametes in Curac
¸ao
(Marhaver et al., 2015). The resulting D.
cylindrus larvae were settled and
maintained in the lab and reached the
primary polyp stage (Marhaver et al.,
2015). However, settlers did not survive
longer than 7 months and showed no
formation of new polyps through
budding (Marhaver et al., 2015).
Subsequent larval propagation efforts in
Florida produced a small number of
longer-surviving settlers. Gamete
collections from wild colonies in 2016
produced 3 settlers that survived to at
least 3 years of age. In 2018, gamete
collections from colonies maintained ex
situ produced 10 settlers that survived
to at least 1 year old (Neely, 2019). In
another attempt at sexual propagation,
larvae of D. cylindrus were produced
from gamete collections from wild
colonies, settled in the lab, and
transferred to an offshore coral nursery
in the Dominican Republic 1 month
after settlement (Villalpando et al.,
2021). An estimated 380 corals were
transferred to the nursery, and 1 year
after they were transferred,1 surviving
coral was observed (Villalpando et al.,
2021). The following year (2020),
gametes were again collected from wild
colonies, settled in the lab, and
transferred to an in situ nursery after
settlement; 28 settlers have survived
from this cohort for more than two years
(M. F. Villalpando, FUNDEMAR,
personal communication).
Dendrogyra cylindrus has also
successfully reproduced in captivity in
Florida in an induced spawning system
designed to mimic natural
environmental light and temperature
regimes (O’Neil et al., 2021). In 2020,
the induced spawning tanks held 21 D.
cylindrus genotypes, and over 50,000
viable D. cylindrus larvae were
produced from only a fraction of the
spawn that was collected (O’Neil et al.,
2021). A total of 4,330 larvae settled,
and as of February 2022, 38 small
colonies (1–3 cm in diameter) were alive
and remained in captivity (K.L. O’Neil,
The Florida Aquarium, personal
communication). In 2021, colonies in
the induced spawning tanks produced
150 surviving D. cylindrus recruits (<1
cm in diameter) that are also being held
in captivity (K.L. O’Neil, the Florida
Aquarium, personal communication).
These advances in propagation methods
have the potential to benefit the species.
Risk of Extinction
As noted above, D. cylindrus was
listed as threatened because of its
susceptibility to multiple threats,
including ocean warming, ocean
acidification, disease, nutrient
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enrichment, sedimentation, trophic
effects of fishing, and inadequate
regulatory mechanisms to address global
threats. Future projections of these
threats indicate the species is likely to
be in danger of extinction within the
foreseeable future throughout its range.
Circumstances and demographic risks
that contributed to our assessment of the
species’ risk of extinction in 2014 were:
(1) geographic location in the Caribbean
where localized human impacts were
high and threats were predicted to
increase, exposing a high proportion of
the population to threats over the
foreseeable future; (2) uncommon to rare
occurrence of the species, which
heightened the potential effect of
mortality events and made the species
vulnerable to becoming of such low
abundance within the foreseeable future
that it could be at risk from depensatory
processes, environmental stochasticity,
or catastrophic events, and (3) low
sexual recruitment which limited the
species’ capacity for recovery from
threat-induced mortality events
throughout its range over the foreseeable
future.
The final listing rule (79 FR 53851,
September 10, 2014) also explained that
D. cylindrus was not in danger of
extinction at the time and did not
warrant listing as an endangered species
because: (1) there was little evidence of
population declines, (2) D. cylindrus
showed evidence of resistance to
bleaching from warmer temperatures in
some portions of its range under some
circumstances (e.g., Roatan, Honduras),
and (3) while its distribution within the
Caribbean increased its risk of exposure
to threats, its occurrence in numerous
reef environments that would
experience highly variable thermal
regimes and ocean chemistry on local
and regional scales at any given point in
time moderated its vulnerability to
extinction.
We are now proposing to change the
status of D. cylindrus from threatened to
endangered. We make this
determination based on the best
scientific and commercial information
available since the original listing of D.
cylindrus that indicates that there have
been declines in the abundance and
distribution of D. cylindrus in multiple
locations with the most severe in the
northern portions of its range and that
D. cylindrus is highly susceptible to
SCTLD, which has emerged as a
devastating and deadly new disease.
Though SCTLD is not yet present in all
areas of the Caribbean, the disease
spread between 2014 and 2021 from
Florida throughout the northern,
western, and eastern Caribbean
including the Mesoamerican Reef
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System, the Bahamas, the Greater
Antilles, and as far south as Grenada in
the Lesser Antilles. We expect SCTLD to
continue to spread throughout the
species’ range based on the previous
spread and the fact that it is waterborne.
In locations where SCTLD has been
observed, D. cylindrus has experienced
high disease prevalence, fast disease
progression within infected colonies,
and high mortality rates from the
disease. The distribution of D. cylindrus
has diminished with the loss of almost
all wild colonies in Florida, and though
the occurrence of D. cylindrus has
historically been uncommon to rare, the
species has become even more rare as a
result of SCTLD, disappearing from
individual sites in Florida, Mexico, and
the U.S. Virgin Islands. Furthermore, no
observed sexual recruitment has been
reported in the wild, and reductions in
population size and local extinctions
will further inhibit the species’ ability to
persist and replenish diminished
populations through asexual and sexual
reproduction.
In conclusion, D. cylindrus continues
to be susceptible to multiple threats
such as ocean warming (ESA Factor E),
disease (C), acidification (E), nutrient
enrichment (A and E), sedimentation (A
and E), trophic effects of fishing (A), and
inadequate existing regulatory
mechanisms to address global threats
(D). In addition, the following
characteristics contribute to its risk of
extinction:
(1) It is geographically located in the
highly disturbed Caribbean where
localized human impacts are high and
threats are predicted to increase. A
range constrained to this particular
geographic area that is likely to
experience severe and increasing threats
indicates that a high proportion of the
population of this species is likely to be
exposed to those threats;
(2) It has an uncommon to rare
occurrence throughout its range, which
heightens the potential effect of
localized mortality events and leaves
the species vulnerable to becoming of
such low abundance that it may be at
risk from depensatory processes,
environmental stochasticity, or
catastrophic events;
(3) Its low sexual recruitment limits
its capacity for recovery from threatinduced mortality events throughout its
range; and
(4) It has experienced population
declines, primarily due to SCTLD, in
multiple locations throughout its range,
including severe declines in the
northern portion of its range, which has
resulted in diminished distribution and
local extirpation.
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The combination of these
characteristics indicates that D.
cylindrus is in danger of extinction
throughout its range and warrants
listing as an endangered species due to
factors A, C, D, and E.
Conservation actions include
treatment of individual colonies for
SCTLD, ex situ banking, and
propagation of D. cylindrus for future
restoration. The conservation actions
will no doubt have benefits to the
species, but we do not find that the
current conservation efforts will affect
the status of D. cylindrus to the point at
which listing as endangered is not
warranted. Further, because current
conservation actions do not directly
address the root causes of threats such
as disease, they are insufficient to
protect the species from the risk of
extinction.
Effects of Listing
Conservation measures provided for
species listed as endangered or
threatened under the ESA include
recovery plans (16 U.S.C. 1553(f)),
critical habitat designations, Federal
agency consultation requirements (16
U.S.C. 1536), and prohibitions of certain
acts under the ESA (16 U.S.C. 1538).
Because D. cylindrus is currently listed
as threatened, Federal agency
consultation requirements are already in
effect, and a recovery outline has been
developed to guide recovery until a full
recovery plan has been finalized.
Critical Habitat has been proposed for D.
cylindrus (85 FR 76302), and the bases
for any final designation of critical
habitat would not be affected should the
status of D. cylindrus be changed from
threatened to endangered. The ESA
section 9 prohibitions do not currently
apply to D. cylindrus because those
protections are automatically applied
only to endangered species and NMFS
has not promulgated protective
regulations for D. cylindrus pursuant to
ESA section 4(d).
All of the prohibitions in section
9(a)(1) of the ESA will apply to D.
cylindrus if it becomes listed as an
endangered species. Section 9(a)(1)
includes prohibitions on importing,
exporting, engaging in foreign or
interstate commerce, or ‘‘taking’’ of the
species. ‘‘Take’’ is defined under the
ESA as ‘‘to harass, harm, pursue, hunt,
shoot, wound, kill, trap, capture, or
collect, or an attempt to engage in any
such conduct.’’ These prohibitions
apply to all persons subject to the
jurisdiction of the United States,
including in the United States, its
territorial sea, or on the high seas. Upon
up-listing pillar coral to endangered
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status, section 9 of the ESA would
expressly prohibit:
(1) Taking of pillar coral within the
U.S. or its territorial sea, or upon the
high seas;
(2) Possessing, selling, delivering,
carrying, transporting, or shipping any
pillar coral that was illegally taken;
(3) Delivering, receiving, carrying,
transporting, or shipping in interstate or
foreign commerce any pillar coral in the
course of a commercial activity;
(4) Selling or offering pillar coral for
sale in interstate or foreign commerce;
or
(5) Importing pillar coral into, or
exporting pillar coral from, the United
States.
On July 1, 1994, NMFS and FWS
published a policy (59 FR 34272) that
requires us to identify, to the extent
known at the time a species is listed,
those activities that would or would not
constitute a violation of section 9 of the
ESA. The intent of this policy is to
increase public awareness of the effect
of a listing on proposed and ongoing
activities within a species’ range. Based
on available information, we believe the
following categories of activities are
likely to meet the ESA’s definition of
‘‘take’’ and therefore result in a violation
of the ESA section 9 prohibitions. We
emphasize that whether a violation
results from a particular activity is
entirely dependent upon the facts and
circumstances of each incident. The
mere fact that an activity may fall
within 1 of these categories does not
mean that the specific activity will
cause a violation. Further, an activity
not listed may in fact result in a
violation. Activities that are likely to
result in a violation of section 9
prohibitions include, but are not limited
to, the following:
(1) Collection of pillar coral,
including colonies, fragments, tissue
samples, and gametes, from the wild;
(2) Harming captive pillar coral by,
among other means, injuring or killing
captive pillar coral, through potentially
injurious research outside the bounds of
normal animal husbandry practices;
(3) Removing, relocating, reattaching,
damaging, poisoning, or contaminating
pillar coral;
(4) Scientific research activities on
wild pillar coral, involving the
manipulation of the coral or its
environment;
(5) Release of captive pillar coral into
the wild. Release of a captive coral
could have the potential to injure or kill
the coral or to affect wild populations of
pillar coral through introduction of
disease;
(6) Harm to pillar coral habitat
resulting in injury or death of the
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species, such as removing or altering
substrate or altering water quality;
(7) Discharging pollutants, such as oil,
toxic chemicals, radioactive matter,
carcinogens, mutagens, teratogens, or
organic nutrient-laden water, including
sewage water, into pillar corals’ habitat
to an extent that harms or kills pillar
coral;
(8) Shoreline and riparian
disturbances (whether in the riverine,
estuarine, marine, or floodplain
environment) that may harm or kill
pillar coral, for instance by disrupting or
preventing the reproduction, settlement,
reattachment, development, or normal
physiology of pillar coral. Such
disturbances could include land
development, run-off, dredging, and
disposal activities that result in direct
deposition of sediment on pillar coral,
shading, or covering of substrate for
fragment reattachment or larval
settlement; and
(9) Activities that modify water
chemistry in pillar coral habitat to an
extent that disrupts or prevents the
reproduction, development, or normal
physiology of pillar coral.
Some categories of activities are
unlikely to constitute a violation of the
section 9 prohibitions should the
proposed listing become finalized. We
consider the following activities to be
ones that are unlikely to violate the ESA
section 9 prohibitions:
(1) Taking of wild pillar coral,
including collection of colonies,
fragments, tissue samples, and gametes,
authorized by a 10(a)(1)(A) permit
issued by NMFS for the purposes of
scientific research or the enhancement
of propagation or survival of the species
and carried out in accordance with the
terms and conditions of the permit;
(2) Incidental taking of pillar coral
resulting from federally authorized,
funded, or conducted projects for which
consultation under section 7 of the ESA
has been completed and when the
project is conducted in accordance with
any terms and conditions set forth by
NMFS in an incidental take statement in
a biological opinion pursuant to section
7 of the ESA;
(3) Import or export of pillar coral
authorized by a Convention on
International Trade in Endangered
Species (CITES) permit and an ESA
section 10(a)(1)(A) permit issued by
NMFS;
(4) Continued possession of pillar
coral parts or live pillar coral that were
in captivity at the time of up-listing to
an endangered species, including any
progeny produced from captive corals
after the rule is finalized, so long as the
prohibitions of ESA section 9(a)(1) are
not violated. Corals are considered to be
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59499
in captivity if they are maintained in a
controlled environment or under human
care in ocean-based coral nurseries.
Individuals or organizations should be
able to provide evidence that pillar coral
or pillar coral parts were in captivity
prior to its listing as an endangered
species. We suggest such individuals or
organizations submit information to us
on the pillar coral in their possession
(e.g., type, number, size, source, date of
acquisition), to establish their claim of
possession (see FOR FURTHER
INFORMATION CONTACT);
(5) Providing normal care for captive
pillar coral. Captive corals are still
protected under the ESA and may not be
killed or injured, or otherwise harmed
and must receive proper care. Normal
husbandry care of captive corals
includes handling, cleaning,
maintaining water quality within an
acceptable range, extracting tissue
samples for the purposes of diagnosis of
condition or genetics, treating of
maladies such as disease or parasites
using established methods proven to be
effective, propagating corals by sexual
or asexual means (i.e., fragmenting
larger coral colonies into smaller
colonies to increase the number of
corals, maintain corals of manageable
size, or accelerate their growth rate)
within the bounds of normal husbandry
practices, attaching to artificial surfaces,
and removing dead skeleton;
(6) Interstate and intrastate
transportation of legally-obtained
captive pillar coral and pillar coral parts
provided it is not in the course of a
commercial activity. If captive corals or
pillar coral parts are to be moved to a
different holding location, records
documenting transfer of corals must be
maintained;
(7) Stabilization of loose pillar coral,
including fragments, in the wild by
experienced individuals and as
authorized by a 10(a)(1)(A) permit
issued by NMFS;
(8) Relocation of wild pillar coral
from one site to another under the
authorization of an ESA section
10(a)(1)(A) permit issued by NMFS;
(9) Use of captive pillar coral for
scientific studies under the
authorization of an ESA Section
10(a)(1)(A) permit issued by NMFS.
Scientific studies that have the potential
to injure or harm captive pillar coral
(e.g., altered temperature outside of
ideal range, exposure to contaminants,
potentially harmful chemicals, or
disease, introduction of coral predators)
require an ESA section 10(a)(1)(A)
permit. Scientific studies that are
intended to improve the husbandry
practices of caring for captive pillar
coral, where there is a reasonable
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expectation that they would not cause
harm to pillar coral (e.g., trialing new
food supplements, comparing different
lighting systems, testing different
attachment substrates), would not
require an ESA permit;
(10) Research activities on pillar coral
in the wild under the authorization of
an ESA section 10(a)(1)(A) permit.
Research activities, such as
observational studies, on pillar coral in
the wild that do not involve collections
of pillar corals or manipulation of pillar
corals or of their environment do not
require an ESA section 10(a)(1)(A)
permit;
(11) Release of captive pillar coral
into the wild, as authorized by an ESA
section 10(a)(1)(A) permit issued by
NMFS; and
(12) Treatment of wild pillar coral for
disease by experienced individuals
using non-experimental methods proven
to be effective and as authorized by state
and territorial permits.
Public Comments Solicited
Classification
To ensure that any final action
resulting from this proposal will be as
accurate and effective as possible, we
are soliciting comments from the public,
other concerned governmental agencies,
the scientific community, industry, and
any other interested parties. We must
base our final determination on the best
available scientific and commercial data
when making listing determinations. We
cannot, for example, consider the
economic effects of a listing
determination. Final promulgation of
any regulation on this species or
withdrawal of this listing proposal will
take into consideration the comments
and any additional information we
receive, and such communications may
lead to a final regulation that differs
from this proposal or result in a
withdrawal of this reclassification
proposal.
National Environmental Policy Act
Information Quality Act and Peer
Review
In December 2004, the Office of
Management and Budget (OMB) issued
a Final Information Quality Bulletin for
Peer Review establishing minimum peer
review standards, a transparent process
for public disclosure of peer review
planning, and opportunities for public
participation. The OMB Peer Review
Bulletin (the Bulletin), implemented
under the Information Quality Act (Pub.
L. 106–554), is intended to enhance the
quality and credibility of the Federal
Government’s scientific information,
and applies to influential or highly
influential scientific information
disseminated on or after June 16, 2005.
To satisfy our requirements under the
Bulletin, this proposed rule was subject
to peer review. A peer review plan was
posted on the NOAA peer review
agenda and can be found at the
following website: https://
www.noaa.gov/information-technology/
endangered-species-act-proposed-rulefor-pillar-coral-dendrogyra-cylindrusid432. Our synthesis and assessment of
scientific information supporting this
proposed action was peer reviewed via
individual letters soliciting the expert
opinions of three qualified specialists
selected from the academic and
scientific community. The charge to the
peer reviewers and the peer review
report have been placed in the
administrative record and posted on the
agency’s peer review agenda. In meeting
the OMB Peer Review Bulletin
requirements, we have also satisfied the
requirements of the 1994 joint U.S. Fish
and Wildlife Service/NMFS peer review
policy (59 FR 34270; July 1, 1994).
Public Hearing
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A public hearing will be conducted
online as a virtual meeting, as specified
under ADDRESSES. More detailed
instructions for joining the virtual
meeting are provided on our web page:
https://www.fisheries.noaa.gov/species/
pillar-coral#conservation-management.
The hearing will begin with a brief
presentation by NMFS that will give an
overview of the proposed rule under the
ESA. After the presentation, but before
public comments, there will be a
question-and-answer session during
which members of the public may ask
NMFS staff clarifying questions about
the proposed rule. Following the
question-and-answer session, members
of the public will have the opportunity
to provide oral comments on the record
regarding the proposed rule. In the
event there is a large attendance, the
time allotted per individual for oral
comments may be limited. Therefore,
anyone wishing to make an oral
comment at the public hearing for the
record is also encouraged to submit a
written comment during the relevant
public comment period as described
under ADDRESSES and DATES. All oral
comments will be recorded, transcribed,
and added to the public comment
record for this proposed rule.
References
A complete list of the references used
in this proposed rule is available online
(see www.fisheries.noaa.gov/species/
pillar-coral#conservation-management)
and upon request (see FOR FURTHER
INFORMATION CONTACT).
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The 1982 amendments to the ESA, in
section 4(b)(1)(A), restrict the
information that may be considered
when assessing species for listing. Based
on this limitation of criteria for a listing
decision and NOAA Administrative
Order 216–6 (Environmental Review
Procedures for Implementing the
National Environmental Policy Act), we
have concluded that ESA listing actions
are not subject to requirements of the
National Environmental Policy Act.
Executive Order 12866, Regulatory
Flexibility Act, and Paperwork
Reduction Act
As noted in the Conference Report on
the 1982 amendments to the ESA,
economic impacts cannot be considered
when assessing the status of a species.
Therefore, the economic analysis
requirements of the Regulatory
Flexibility Act are not applicable to the
listing process. In addition, this
proposed rule is exempt from review
under Executive Order 12866. This
proposed rule does not contain a
collection-of-information requirement
for the purposes of the Paperwork
Reduction Act.
Executive Order 13132, Federalism
In accordance with E.O. 13132, we
have made a preliminary determination
that this proposed rule does not have
significant federalism effects and that a
federalism assessment is not required.
In keeping with the intent of the
Administration and Congress to provide
continuing and meaningful dialogue on
issues of mutual state and Federal
interest, this proposed rule will be given
to the relevant state agencies in each
state in which the species is believed to
occur, and those states will be invited
to comment on this proposal. As we
proceed, we intend to continue engaging
in informal and formal contacts with the
state, and other affected local or regional
entities, giving careful consideration to
all written and oral comments received.
Executive Order 12898, Environmental
Justice
Executive Order 12898 requires that
Federal actions address environmental
justice in the decision-making process.
In particular, the environmental effects
of the actions should not have a
disproportionate effect on minority and
low-income communities. This
proposed rule is not expected to have a
disproportionately high effect on
minority populations or low-income
populations.
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List of Subjects
Authority: 16 U.S.C. 1531–1543 and 16
U.S.C. 1361 et seq.
PART 223—THREATENED MARINE
AND ANADROMOUS SPECIES
50 CFR Part 223
Endangered and threatened species,
Exports, Imports, Transportation.
50 CFR Part 224
Administrative practice and
procedure, Endangered and threatened
species, Exports, Imports, Reporting and
recordkeeping requirements,
Transportation.
Dated: August 14, 2023.
Samuel D. Rauch, III,
Deputy Assistant Administrator for
Regulatory Programs, National Marine
Fisheries Service.
4. In § 224.101, amend the table in
paragraph (h), under the subheading
‘‘Corals’’, by adding the following entry
to read as follows:
■
1. The authority citation for part 223
continues to read as follows:
■
Authority: 16 U.S.C. 1531–1543; subpart
B, § 223.201–202 also issued under 16 U.S.C.
1361 et seq.; 16 U.S.C. 5503(d) for
§ 223.206(d)(9).
2. In § 223.102, amend the table in
paragraph (e), under the subheading
‘‘Corals’’, by removing the entry for
‘‘Coral, pillar (Dendrogyra cylindrus)’’.
■
§ 224.101 Enumeration of endangered
marine and anadromous species.
*
*
*
*
*
(h) The endangered species under the
jurisdiction of the Secretary of
Commerce are:
PART 224—ENDANGERED MARINE
AND ANADROMOUS SPECIES
For the reason set out in the preamble,
NMFS proposes to amend 50 CFR parts
223 and 224 as follows:
3. The authority citation of part 224
continues to read as follows:
■
Species 1
Common name
*
CORALS
Coral, pillar ...............
*
*
*
Dendrogyra cylindrus
*
Citation(s) for listing
determination(s)
Description of
listed entity
Scientific name
*
Entire species ...........
*
Critical
habitat
*
*
[Insert FR Citation & Date When Published
As A Final Rule].
*
*
*
1 Species
ESA rules
*
NA
NA
*
includes taxonomic species, subspecies, distinct population segments (DPSs) (for a policy statement, see 61 FR 4722, February 7,
1996), and evolutionarily significant units (ESUs) (for a policy statement, see 56 FR 58612, November 20, 1991).
[FR Doc. 2023–17769 Filed 8–28–23; 8:45 am]
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Agencies
[Federal Register Volume 88, Number 166 (Tuesday, August 29, 2023)]
[Proposed Rules]
[Pages 59494-59501]
From the Federal Register Online via the Government Publishing Office [www.gpo.gov]
[FR Doc No: 2023-17769]
=======================================================================
-----------------------------------------------------------------------
DEPARTMENT OF COMMERCE
National Oceanic and Atmospheric Administration
50 CFR Parts 223 and 224
[Docket No. 230810-0189; RTID 0648-XR126]
Endangered and Threatened Wildlife and Plants: Proposed
Reclassification of Pillar Coral (Dendrogyra cylindrus) From Threatened
to Endangered
AGENCY: National Marine Fisheries Service (NMFS), National Oceanic and
Atmospheric Administration (NOAA), Commerce.
ACTION: Proposed rule; request for comments.
-----------------------------------------------------------------------
SUMMARY: We, NMFS, are issuing a proposed rule to change the status of
pillar coral (Dendrogyra cylindrus) on the Federal List of Threatened
and Endangered Species from threatened to endangered as recommended in
the recent 5-year review of the species under the Endangered Species
Act (ESA) of 1973. We propose this action based on population declines
and susceptibility to a recently emerged coral disease.
DATES: Written comments must be received on or before October 30, 2023.
Public hearings: A public hearing on the proposed rule will be held
online on September 26, 2023, from 1 to 3 p.m. Eastern Daylight Time.
Members of the public can join by internet or phone, regardless of
location. Instructions for joining the hearing are provided under
ADDRESSES. Requests for additional public hearings must be received by
October 13, 2023.
ADDRESSES: The public hearing will be conducted as a virtual meeting.
You may join the virtual public hearing using a web browser, a mobile
app on a phone (app installation required), or by phone (for audio
only) as specified on this website: https://www.fisheries.noaa.gov/species/pillar-coral#conservation-management.
You may submit comments on the proposed rule verbally at the public
hearing or in writing, by any of the following methods:
Electronic Submission: Submit all electronic public
comments via the Federal e-Rulemaking Portal. Go to www.regulations.gov
and enter NOAA-NMFS-2023-0002 in the Search box. Click on the
``Comment'' icon, complete the required fields, and enter or attach
your comments; or
Email: Submit written comments to
[email protected].
Instructions: Comments sent by any other method, to any other
address or individual, or received after the end of the comment period,
may not be considered by NMFS. All comments received are a part of the
public record and will generally be posted for public viewing on
www.regulations.gov without change. All personal identifying
information (e.g., name, address, etc.), confidential business
information, or otherwise sensitive information submitted voluntarily
by the sender will be publicly accessible. NMFS will accept anonymous
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FOR FURTHER INFORMATION CONTACT: Alison Moulding, 727-551-5607,
[email protected].
SUPPLEMENTARY INFORMATION:
Background
On September 10, 2014, we published a final rule listing pillar
coral (Dendrogyra cylindrus), along with 4 other Caribbean coral
species and 15 Indo-Pacific coral species, as threatened under the ESA
(79 FR 53851). In early 2021, we announced a 5-year review of
[[Page 59495]]
7 threatened Caribbean coral species, including D. cylindrus (86 FR
1091, January 7, 2021). A 5-year review is intended to ensure that the
listing classification of a species is accurate, and this review must
be based on the best scientific and commercial data available.
Section 3 of the ESA defines an endangered species as any species
which is in danger of extinction throughout all or a significant
portion of its range and a threatened species as one which is likely to
become an endangered species within the foreseeable future throughout
all or a significant portion of its range. The statute requires us to
determine whether a species is threatened or endangered as a result of
any of the factors listed in section 4(a)(1) of the ESA: (A) the
present or threatened destruction, modification, or curtailment of its
habitat or range; (B) overutilization for commercial, recreational,
scientific, or educational purposes; (C) disease or predation; (D) the
inadequacy of existing regulatory mechanisms; or (E) other natural or
manmade factors affecting its continued existence. Changes to a listed
species' status must be determined on the basis of these factors using
solely the best scientific and commercial data available (16 U.S.C.
1533(c)(2)(B)). Implementing regulations in 50 CFR 424.11(b) reiterate
the requirement that changes in a species' classifications must be
based solely on the best available scientific and commercial
information regarding a species' status. Recently proposed revisions to
the regulations in 50 CFR 424.11(b) would restore the phrase ``without
reference to possible economic or other impacts of such determination''
to the end of the provision, which was removed in 2019 (see 88 FR
40764, June 22, 2023). This clarification, if finalized, would not
affect the existing requirements for making classification
determinations, nor would it affect the proposed reclassification for
the pillar coral.
Biology and Life History
Dendrogyra cylindrus is a colonial coral that can form large
pillars (up to 3 meters (m)) upon an encrusting base. The final listing
rule (79 FR 53851, September 10, 2014) described D. cylindrus as a
gonochoric (separate sexes), broadcast spawning coral species that can
also reproduce asexually through fragmentation and reattachment to the
substrate. It has a relatively low annual egg production and low sexual
recruitment (no reports of observed sexual recruitment in the wild).
Since the listing, new evidence of hermaphroditism (presence of
both male and female gametes) and plasticity in reproductive mode has
been observed in histological samples (Kabay, 2016) and in spawning
colonies observed over several seasons in Florida (Neely et al., 2018;
Neely et al., 2020a; O'Neil et al., 2021). Histological samples from
Florida revealed some hermaphroditic colonies that produced eggs and
sperm within the same polyp and within the same mesentery while most
colonies only produced eggs or sperm (Kabay, 2016). Dendrogyra
cylindrus colonies have been observed to spawn as different genders on
different nights of the same year, as different genders in different
years, and as hermaphrodites spawning eggs and sperm simultaneously
(Neely et al., 2018; Neely et al., 2020a; O'Neil et al., 2021). Also,
separate colonies of the same genotype (genetically identical colonies)
have been observed to spawn either male or female gametes, and some
colonies produced both eggs and sperm within separate regions of the
same colony (Neely et al., 2018). Spawning observations have also
suggested that eggs may be fertilized within female colonies prior to
release (Marhaver et al., 2015). This flexibility in reproductive mode
may be a strategy to improve the chances of successful reproduction for
a species that is naturally rare and whose potential mates are scarce
(Neely et al., 2018).
Abundance, Trends, and Distribution
Dendrogyra cylindrus is present in the western Atlantic and
throughout the greater Caribbean. It is absent in the Flower Garden
Banks in the Gulf of Mexico and from the southwest Gulf of Mexico. It
inhabits most reef environments in water depths ranging from 1 to 25 m
and is most common in reef environments in water depths between 5 and
15 m. It has a naturally uncommon to rare occurrence, appearing as
scattered, isolated colonies; it is sometimes found in highly clonal
aggregations, likely resulting from fragmentation events (Chan et al.,
2019).
At the time of listing (79 FR 53851, September 10, 2014), available
information indicated that colony density and cover were low (generally
less than 1 colony per 10 square meters (m\2\) and less than 1 percent
cover). Estimates of frequency of occurrence of D. cylindrus ranged
from 1 percent of sites in Florida to a high of 30 percent in the U.S.
Virgin Islands. Based on extrapolations of abundance from stratified
random samples, abundance in Florida was estimated at tens of thousands
of colonies. There was no available population trend information at the
time of listing.
Since the listing, there has been a new survey of D. cylindrus
abundance in Los Roques National Park, Venezuela (Cavada-Blanco et al.,
2020). Surveys were conducted between 2014 and 2015 at 106 sites where
the species had been reported by the local community. A total of 1,490
D. cylindrus colonies were located within 49 percent of the sites
surveyed, and colony abundance ranged between 1 and 68 colonies per
site. Average height of colonies was 72 centimeters (cm) (range 5-290
cm), though most of the colonies were below 60 cm in height. Disease
presence was low overall (0.2 and 0.3 percent of colonies with white
plague and black band disease, respectively) and 29 percent of the
1,490 colonies exhibited partial mortality (Cavada-Blanco et al.,
2020).
New studies published since the listing provide some population
trend information. Surveys of D. cylindrus were conducted in 2012 in
Old Providence and St. Catalina Islands, which host more than 90
percent of the D. cylindrus population in Colombia (Bernal-Sotelo et
al., 2019). Results were compared to surveys of the same area conducted
in 2002 to discern population trends. The surveys revealed that D.
cylindrus was present in 2012 in 3 of the 4 reef areas where it was
present in 2002, but its spatial extent was reduced (i.e., D. cylindrus
occupied a smaller amount of the reef areas in 2012 relative to 2002).
Half of the radial plots (60 m diameter) that contained more than 4
colonies of D. cylindrus in 2002 contained no living colonies of D.
cylindrus 10 years later. The number of colonies and fragments (i.e.,
tissue remnants on standing colonies) observed in 2002 were 213 and 70,
respectively, versus 261 colonies and 585 fragments in 2012. Almost 97
percent of the fragments observed in 2012 were produced as a result of
partial colony mortality. Average colony and fragment size was also
smaller in 2012, and the number of colonies with partial mortality and
the amount of partial mortality were higher. Larger colonies (>=115 cm)
had higher partial and total mortality. In summary, compared to 2002,
in 2012 there were more D. cylindrus colonies and fragments that likely
resulted from partial mortality. Colonies and fragments in 2012 were
smaller in size, had a higher prevalence of partial mortality, and had
higher amounts of partial mortality within individual colonies. The
authors concluded that the reduced amount of living tissue, dominance
of asexually produced
[[Page 59496]]
fragments, and smaller fragment size limit the potential for population
growth, making this population vulnerable and at risk of local
extinction (Bernal-Sotelo et al., 2019).
Beginning in 2013, all known colonies of D. cylindrus in Florida (n
= 819 colonies) were tracked in an effort to monitor colony health and
status (Neely et al., 2021a). There were consecutive thermal bleaching
events in 2014 and 2015, as well as ongoing and emerging disease
events, which affected the monitored D. cylindrus colonies. Recovery
from bleaching was calculated to take 11 years (in the absence of
additional severe stressors) based on colony growth rates (~4 percent
annual increase in live tissue) observed after bleaching but before
disease affected the colonies (Neely et al., 2021a). In a separate
study using the same tracked colonies, demographic modeling of D.
cylindrus was conducted to examine the effects of thermal stress events
on population persistence. The model used different survival scenarios
of 80, 50, and 20 percent of the population after the 2014 and 2015
thermally-induced bleaching and disease outbreak and assumed no sexual
reproduction, no establishment of asexual recruits, and no successful
restoration (Chan et al., 2019). The model predicted that the number of
thermal stress events before local extinction occurred was 31 for the
80 percent survival scenario, 11 for the 50 percent survival scenario,
and 6 for the 20 percent survival scenario (Chan et al., 2019).
Assuming 2 stress events per decade until 2042 when thermal stress
events are predicted to become annual, local extinction of D. cylindrus
in Florida was predicted to occur in 2066 for the 80 percent survival
scenario, in 2046 for the 50 percent survival scenario, and in 2039 for
the 20 percent survival scenario (Chan et al., 2019). These modeling
predictions did not account for disease, which, as described below,
caused near extirpation from Florida much sooner than the model's
predicted dates for local extinction (Neely et al., 2021a).
The Florida D. cylindrus colonies that were monitored between 2013
and 2020 included 819 colonies of an assumed 190 genotypes based on
genetic testing or colony distances from each other (Neely et al.,
2021a). Distances between genotypes on average was about 1 kilometer
(km), ranging from 2.5 m to 6.6 km. Half of the colonies represented
clones of only five genotypes, and 62 percent of the genotypes were
represented by a single colony. Asexual reproduction accounted for 77
percent of the colonies. During baseline surveys in 2013-2014 (542
colonies, 533 alive), average tissue mortality was 30 percent (n =
542), and 22 percent of the colonies exhibited low (2.2 percent) recent
mortality. During the monitoring period, there were chronic stressors
that occurred on about 1 percent of colonies and caused minor damage
(on average less than 1 percent tissue loss), including damselfish
gardens/nests, predation by the corallivorous snail (Coralliophila
abbreviata), competition with other benthic organisms, and abrasion and
burial. However, acute stressors, including the 2014 and 2015 bleaching
events, ongoing outbreaks of white plague and black band disease, and
the outbreak of a novel, particularly devastating disease, termed stony
coral tissue loss disease (SCTLD), resulted in extremely high mortality
(Lewis, 2018; Lewis et al., 2017; Neely et al., 2021a). By the end of
the monitoring period in 2020, there had been a 94 percent loss of
coral tissue, 93 percent loss of colonies, and 86 percent loss of
genotypes due primarily to disease. At the end of 2020, there were 25
known genotypes remaining (out of the 190 genotypes assumed at the
beginning of the study), half of which had declined to less than 2
percent live tissue, and the other half were actively experiencing
rapid tissue loss due to SCTLD. Only two genotypes remained unaffected
and were located in the Dry Tortugas where SCTLD had not yet reached at
the time of the study (but has now). Based on the extreme loss of
colonies and live tissue, D. cylindrus is now considered functionally
extinct along the Florida reef tract (Neely et al., 2021a).
Although quantitative population trend data are only available from
Florida and Colombia, we assume the species is in decline throughout
most of its range based on the evidence from these regions (northern
and southwestern portions of its range) and the more widespread
evidence of severe disease impacts described in the ``Threats'' section
below.
Threats
The ESA requires us to determine whether a species is endangered or
threatened as a result of any of the following factors: (A) the present
or threatened destruction, modification, or curtailment of its habitat
or range; (B) overutilization for commercial, recreational, scientific,
or educational purposes; (C) disease or predation; (D) the inadequacy
of existing regulatory mechanisms; or (E) other natural or manmade
factors affecting its continued existence. The final listing rule (79
FR 53851, September 10, 2014) identified and described the
susceptibility of D. cylindrus to multiple threats including ocean
warming (Factor E), ocean acidification (Factor E), disease (Factor C),
nutrient enrichment (Factors A and E), sedimentation (Factors A and E),
and trophic effects of fishing (Factor A). In addition, D. cylindrus
was determined to be at heightened extinction risk due to inadequate
regulatory mechanisms to address global threats (i.e., climate change
that results in ocean warming and acidification and has been linked to
increasing coral disease; Factor D).
Since the listing of D. cylindrus as threatened (79 FR 53851,
September 10, 2014), SCTLD has emerged as a new and deadly disease,
impacting at least 24 Caribbean coral species, including D. cylindrus
(Florida Coral Disease Response Research & Epidemiology Team, 2018).
SCTLD was first observed in Miami, Florida, in 2014 and then spread
throughout the Florida reef tract over the next several years (Neely,
2018; Precht et al., 2016). SCTLD has continued to spread throughout
much of the Caribbean and has been observed along the Mesoamerican
Reef, Bahamas, Greater Antilles, and in the Lesser Antilles as far
south as Grenada (see https://www.agrra.org/coral-disease-outbreak/ for
a map of confirmed sightings of SCTLD in the greater Caribbean). The
disease is unprecedented in temporal and geographic scope as well as
the number of susceptible species, prevalence, and rates of mortality
(Neely, 2018; Precht et al., 2016). In almost all affected species,
tissue loss occurs rapidly and leads to full colony mortality. The
disease appears to be both waterborne and transmissible through direct
contact (Aeby et al., 2019). In addition, sediment can act as a SCTLD
vector by transmitting SCTLD in the absence of direct contact between
diseased and healthy corals Studivan et al., 2022). SCTLD does not
appear to be seasonal like many other coral diseases that will ramp up
during higher temperatures but then decrease as water temperatures
cool.
Dendrogyra cylindrus is highly susceptible to SCTLD and is often
one of the first species to become infected (Florida Coral Disease
Response Research & Epidemiology Team, 2018). Surveys of the
progression and impact of SCTLD have shown that D. cylindrus exhibits
high disease prevalence and colony mortality. As previously described,
between 2014 and 2020 the Florida population of D. cylindrus was
heavily impacted by SCTLD; there was a loss of 93 percent of colonies
and 94 percent of live tissue (Neely et al., 2021a). In surveys of the
Bahamas, 67 percent of D. cylindrus colonies (n = 15,
[[Page 59497]]
March 2020) were infected with SCTLD in Grand Bahama, and 13 percent of
D. cylindrus colonies (n = 8, June 2020) were infected in New
Providence (Dahlgren et al., 2021). In surveys across Mexico, 71
percent of D. cylindrus colonies (n = 7) surveyed in 2018 to 2019 were
infected with SCTLD, and D. cylindrus was extirpated from several
mainland coastal sites (Alvarez-Filip et al., 2019). In separate
surveys conducted in Cozumel, Mexico, between 2018 and 2020, surveyors
observed that D. cylindrus colonies were heavily affected by SCTLD,
though no quantitative prevalence data are available because no D.
cylindrus colonies occurred in the survey transects (Estrada-Saldivar
et al., 2021). In 54 sites surveyed in 2020 around St. Thomas, U.S.
Virgin Islands, 67 percent of the D. cylindrus colonies (n = 3) were
infected with SCTLD, and D. cylindrus was the species with the highest
prevalence of SCTLD within the epidemic zone (Costa et al., 2021). In
long-term monitoring transects in the U.S. Virgin Islands, 50 percent
of D. cylindrus colonies (n = 2) surveyed in February 2019 were
infected, and by July 2020, no D. cylindrus colonies remained alive in
the transects (Brandt et al., 2021). Prior to the documentation of
SCTLD in the U.S. Virgin Islands, there were 11 colonies of D.
cylindrus present in the monitoring transects between 2005 and 2018,
suggesting loss of nine colonies from unknown causes (Brandt et al.,
2021). The study also noted that numerous recently dead colonies of D.
cylindrus, presumably from SCTLD, were observed and that it was
increasingly rare to find live colonies, even in locations where the
species previously had been relatively abundant (Brandt et al., 2021).
SCTLD has spread from Florida, where it was initially documented,
to the eastern and western Caribbean. Although it has not yet been
confirmed in all areas of the Caribbean (i.e., the most southern part),
we assume SCTLD will eventually reach all areas of the range of D.
cylindrus based on its previous spread and the fact that it is
waterborne.
Conservation Measures
Coral colonies infected with SCTLD have been effectively treated to
stop the progression of the disease. Initial ex situ (in aquaria)
treatment of D. cylindrus consisted of amputation of diseased tissue
and dipping the corals (13 fragments from 6 colonies) in a Lugol's
iodide solution, which is commonly used in the aquarium industry as a
treatment for bacterial infections. After repeated treatments, this
method was effective in arresting disease progression about 53 percent
of the time (O'Neil et al., 2018). Additional ex situ treatment with
the antibiotic amoxicillin applied directly to the diseased tissue
margin in a custom-made paste formulation (modified from a dental
paste) increased survival of infected D. cylindrus to about 97 percent
(Miller et al., 2020). However, this antibiotic dental paste has to be
applied to corals out of water (corals were placed back in the water
after antibiotic paste application). To treat corals in situ (in the
ocean), slow-release antibiotic pastes were developed that could be
applied underwater (O'Neil et al., 2018). Antibiotics pastes have been
successfully applied in situ to coral species infected with SCTLD in
Florida (67 to 95 percent effectiveness, Neely et al., 2020b; Neely et
al., 2021c; Shilling et al., 2021; Walker et al. 2021), though no
reports of effectiveness on in situ D. cylindrus colonies have been
published, likely because most of these studies have been performed in
Florida after the near-extirpation of the species. The treatment only
has the ability to stop progression of the disease lesion, but it does
not prevent new lesions from forming (Neely et al., 2020b; Shilling et
al., 2021; Walker et al., 2021).
During the widespread and severe decline of D. cylindrus in
Florida, a rescue effort was undertaken to collect fragments of live
colonies and bring them under human care to preserve the remaining
genetic diversity. From November 2015 to November 2019, fragments were
collected from most remaining D. cylindrus genotypes (Kabay, 2016;
Neely et al., 2021b; O'Neil et al., 2021). A total of 574 fragments
representing 128 genotypes were collected between 2015 and 2019 (Neely
et al., 2021b), and an additional 4 fragments were collected in August
2021 from newly found colonies in the Dry Tortugas (K.L. Neely, Nova
Southeastern University, personal communication). Fragments were
brought under human care in both land-based and ocean-based nurseries
for preservation and to aid in propagation and future restoration
(Kabay, 2016; Neely et al., 2021b; O'Neil et al., 2021). As of the end
of 2020, 543 fragments of 123 Florida genotypes of D. cylindrus were
being held in nurseries (Neely et al., 2021a).
Increased understanding of the reproductive biology and early life
history of D. cylindrus has contributed to attempts to sexually
propagate D. cylindrus for use in conservation efforts (Marhaver et
al., 2015; Neely et al., 2020a; O'Neil et al., 2021; Villalpando et
al., 2021). The first report of successful settlement from larval
propagation resulted from collection and fertilization of gametes in
Cura[ccedil]ao (Marhaver et al., 2015). The resulting D. cylindrus
larvae were settled and maintained in the lab and reached the primary
polyp stage (Marhaver et al., 2015). However, settlers did not survive
longer than 7 months and showed no formation of new polyps through
budding (Marhaver et al., 2015). Subsequent larval propagation efforts
in Florida produced a small number of longer-surviving settlers. Gamete
collections from wild colonies in 2016 produced 3 settlers that
survived to at least 3 years of age. In 2018, gamete collections from
colonies maintained ex situ produced 10 settlers that survived to at
least 1 year old (Neely, 2019). In another attempt at sexual
propagation, larvae of D. cylindrus were produced from gamete
collections from wild colonies, settled in the lab, and transferred to
an offshore coral nursery in the Dominican Republic 1 month after
settlement (Villalpando et al., 2021). An estimated 380 corals were
transferred to the nursery, and 1 year after they were transferred,1
surviving coral was observed (Villalpando et al., 2021). The following
year (2020), gametes were again collected from wild colonies, settled
in the lab, and transferred to an in situ nursery after settlement; 28
settlers have survived from this cohort for more than two years (M. F.
Villalpando, FUNDEMAR, personal communication).
Dendrogyra cylindrus has also successfully reproduced in captivity
in Florida in an induced spawning system designed to mimic natural
environmental light and temperature regimes (O'Neil et al., 2021). In
2020, the induced spawning tanks held 21 D. cylindrus genotypes, and
over 50,000 viable D. cylindrus larvae were produced from only a
fraction of the spawn that was collected (O'Neil et al., 2021). A total
of 4,330 larvae settled, and as of February 2022, 38 small colonies (1-
3 cm in diameter) were alive and remained in captivity (K.L. O'Neil,
The Florida Aquarium, personal communication). In 2021, colonies in the
induced spawning tanks produced 150 surviving D. cylindrus recruits (<1
cm in diameter) that are also being held in captivity (K.L. O'Neil, the
Florida Aquarium, personal communication). These advances in
propagation methods have the potential to benefit the species.
Risk of Extinction
As noted above, D. cylindrus was listed as threatened because of
its susceptibility to multiple threats, including ocean warming, ocean
acidification, disease, nutrient
[[Page 59498]]
enrichment, sedimentation, trophic effects of fishing, and inadequate
regulatory mechanisms to address global threats. Future projections of
these threats indicate the species is likely to be in danger of
extinction within the foreseeable future throughout its range.
Circumstances and demographic risks that contributed to our assessment
of the species' risk of extinction in 2014 were: (1) geographic
location in the Caribbean where localized human impacts were high and
threats were predicted to increase, exposing a high proportion of the
population to threats over the foreseeable future; (2) uncommon to rare
occurrence of the species, which heightened the potential effect of
mortality events and made the species vulnerable to becoming of such
low abundance within the foreseeable future that it could be at risk
from depensatory processes, environmental stochasticity, or
catastrophic events, and (3) low sexual recruitment which limited the
species' capacity for recovery from threat-induced mortality events
throughout its range over the foreseeable future.
The final listing rule (79 FR 53851, September 10, 2014) also
explained that D. cylindrus was not in danger of extinction at the time
and did not warrant listing as an endangered species because: (1) there
was little evidence of population declines, (2) D. cylindrus showed
evidence of resistance to bleaching from warmer temperatures in some
portions of its range under some circumstances (e.g., Roatan,
Honduras), and (3) while its distribution within the Caribbean
increased its risk of exposure to threats, its occurrence in numerous
reef environments that would experience highly variable thermal regimes
and ocean chemistry on local and regional scales at any given point in
time moderated its vulnerability to extinction.
We are now proposing to change the status of D. cylindrus from
threatened to endangered. We make this determination based on the best
scientific and commercial information available since the original
listing of D. cylindrus that indicates that there have been declines in
the abundance and distribution of D. cylindrus in multiple locations
with the most severe in the northern portions of its range and that D.
cylindrus is highly susceptible to SCTLD, which has emerged as a
devastating and deadly new disease. Though SCTLD is not yet present in
all areas of the Caribbean, the disease spread between 2014 and 2021
from Florida throughout the northern, western, and eastern Caribbean
including the Mesoamerican Reef System, the Bahamas, the Greater
Antilles, and as far south as Grenada in the Lesser Antilles. We expect
SCTLD to continue to spread throughout the species' range based on the
previous spread and the fact that it is waterborne. In locations where
SCTLD has been observed, D. cylindrus has experienced high disease
prevalence, fast disease progression within infected colonies, and high
mortality rates from the disease. The distribution of D. cylindrus has
diminished with the loss of almost all wild colonies in Florida, and
though the occurrence of D. cylindrus has historically been uncommon to
rare, the species has become even more rare as a result of SCTLD,
disappearing from individual sites in Florida, Mexico, and the U.S.
Virgin Islands. Furthermore, no observed sexual recruitment has been
reported in the wild, and reductions in population size and local
extinctions will further inhibit the species' ability to persist and
replenish diminished populations through asexual and sexual
reproduction.
In conclusion, D. cylindrus continues to be susceptible to multiple
threats such as ocean warming (ESA Factor E), disease (C),
acidification (E), nutrient enrichment (A and E), sedimentation (A and
E), trophic effects of fishing (A), and inadequate existing regulatory
mechanisms to address global threats (D). In addition, the following
characteristics contribute to its risk of extinction:
(1) It is geographically located in the highly disturbed Caribbean
where localized human impacts are high and threats are predicted to
increase. A range constrained to this particular geographic area that
is likely to experience severe and increasing threats indicates that a
high proportion of the population of this species is likely to be
exposed to those threats;
(2) It has an uncommon to rare occurrence throughout its range,
which heightens the potential effect of localized mortality events and
leaves the species vulnerable to becoming of such low abundance that it
may be at risk from depensatory processes, environmental stochasticity,
or catastrophic events;
(3) Its low sexual recruitment limits its capacity for recovery
from threat-induced mortality events throughout its range; and
(4) It has experienced population declines, primarily due to SCTLD,
in multiple locations throughout its range, including severe declines
in the northern portion of its range, which has resulted in diminished
distribution and local extirpation.
The combination of these characteristics indicates that D.
cylindrus is in danger of extinction throughout its range and warrants
listing as an endangered species due to factors A, C, D, and E.
Conservation actions include treatment of individual colonies for
SCTLD, ex situ banking, and propagation of D. cylindrus for future
restoration. The conservation actions will no doubt have benefits to
the species, but we do not find that the current conservation efforts
will affect the status of D. cylindrus to the point at which listing as
endangered is not warranted. Further, because current conservation
actions do not directly address the root causes of threats such as
disease, they are insufficient to protect the species from the risk of
extinction.
Effects of Listing
Conservation measures provided for species listed as endangered or
threatened under the ESA include recovery plans (16 U.S.C. 1553(f)),
critical habitat designations, Federal agency consultation requirements
(16 U.S.C. 1536), and prohibitions of certain acts under the ESA (16
U.S.C. 1538). Because D. cylindrus is currently listed as threatened,
Federal agency consultation requirements are already in effect, and a
recovery outline has been developed to guide recovery until a full
recovery plan has been finalized. Critical Habitat has been proposed
for D. cylindrus (85 FR 76302), and the bases for any final designation
of critical habitat would not be affected should the status of D.
cylindrus be changed from threatened to endangered. The ESA section 9
prohibitions do not currently apply to D. cylindrus because those
protections are automatically applied only to endangered species and
NMFS has not promulgated protective regulations for D. cylindrus
pursuant to ESA section 4(d).
All of the prohibitions in section 9(a)(1) of the ESA will apply to
D. cylindrus if it becomes listed as an endangered species. Section
9(a)(1) includes prohibitions on importing, exporting, engaging in
foreign or interstate commerce, or ``taking'' of the species. ``Take''
is defined under the ESA as ``to harass, harm, pursue, hunt, shoot,
wound, kill, trap, capture, or collect, or an attempt to engage in any
such conduct.'' These prohibitions apply to all persons subject to the
jurisdiction of the United States, including in the United States, its
territorial sea, or on the high seas. Upon up-listing pillar coral to
endangered
[[Page 59499]]
status, section 9 of the ESA would expressly prohibit:
(1) Taking of pillar coral within the U.S. or its territorial sea,
or upon the high seas;
(2) Possessing, selling, delivering, carrying, transporting, or
shipping any pillar coral that was illegally taken;
(3) Delivering, receiving, carrying, transporting, or shipping in
interstate or foreign commerce any pillar coral in the course of a
commercial activity;
(4) Selling or offering pillar coral for sale in interstate or
foreign commerce; or
(5) Importing pillar coral into, or exporting pillar coral from,
the United States.
On July 1, 1994, NMFS and FWS published a policy (59 FR 34272) that
requires us to identify, to the extent known at the time a species is
listed, those activities that would or would not constitute a violation
of section 9 of the ESA. The intent of this policy is to increase
public awareness of the effect of a listing on proposed and ongoing
activities within a species' range. Based on available information, we
believe the following categories of activities are likely to meet the
ESA's definition of ``take'' and therefore result in a violation of the
ESA section 9 prohibitions. We emphasize that whether a violation
results from a particular activity is entirely dependent upon the facts
and circumstances of each incident. The mere fact that an activity may
fall within 1 of these categories does not mean that the specific
activity will cause a violation. Further, an activity not listed may in
fact result in a violation. Activities that are likely to result in a
violation of section 9 prohibitions include, but are not limited to,
the following:
(1) Collection of pillar coral, including colonies, fragments,
tissue samples, and gametes, from the wild;
(2) Harming captive pillar coral by, among other means, injuring or
killing captive pillar coral, through potentially injurious research
outside the bounds of normal animal husbandry practices;
(3) Removing, relocating, reattaching, damaging, poisoning, or
contaminating pillar coral;
(4) Scientific research activities on wild pillar coral, involving
the manipulation of the coral or its environment;
(5) Release of captive pillar coral into the wild. Release of a
captive coral could have the potential to injure or kill the coral or
to affect wild populations of pillar coral through introduction of
disease;
(6) Harm to pillar coral habitat resulting in injury or death of
the species, such as removing or altering substrate or altering water
quality;
(7) Discharging pollutants, such as oil, toxic chemicals,
radioactive matter, carcinogens, mutagens, teratogens, or organic
nutrient-laden water, including sewage water, into pillar corals'
habitat to an extent that harms or kills pillar coral;
(8) Shoreline and riparian disturbances (whether in the riverine,
estuarine, marine, or floodplain environment) that may harm or kill
pillar coral, for instance by disrupting or preventing the
reproduction, settlement, reattachment, development, or normal
physiology of pillar coral. Such disturbances could include land
development, run-off, dredging, and disposal activities that result in
direct deposition of sediment on pillar coral, shading, or covering of
substrate for fragment reattachment or larval settlement; and
(9) Activities that modify water chemistry in pillar coral habitat
to an extent that disrupts or prevents the reproduction, development,
or normal physiology of pillar coral.
Some categories of activities are unlikely to constitute a
violation of the section 9 prohibitions should the proposed listing
become finalized. We consider the following activities to be ones that
are unlikely to violate the ESA section 9 prohibitions:
(1) Taking of wild pillar coral, including collection of colonies,
fragments, tissue samples, and gametes, authorized by a 10(a)(1)(A)
permit issued by NMFS for the purposes of scientific research or the
enhancement of propagation or survival of the species and carried out
in accordance with the terms and conditions of the permit;
(2) Incidental taking of pillar coral resulting from federally
authorized, funded, or conducted projects for which consultation under
section 7 of the ESA has been completed and when the project is
conducted in accordance with any terms and conditions set forth by NMFS
in an incidental take statement in a biological opinion pursuant to
section 7 of the ESA;
(3) Import or export of pillar coral authorized by a Convention on
International Trade in Endangered Species (CITES) permit and an ESA
section 10(a)(1)(A) permit issued by NMFS;
(4) Continued possession of pillar coral parts or live pillar coral
that were in captivity at the time of up-listing to an endangered
species, including any progeny produced from captive corals after the
rule is finalized, so long as the prohibitions of ESA section 9(a)(1)
are not violated. Corals are considered to be in captivity if they are
maintained in a controlled environment or under human care in ocean-
based coral nurseries. Individuals or organizations should be able to
provide evidence that pillar coral or pillar coral parts were in
captivity prior to its listing as an endangered species. We suggest
such individuals or organizations submit information to us on the
pillar coral in their possession (e.g., type, number, size, source,
date of acquisition), to establish their claim of possession (see FOR
FURTHER INFORMATION CONTACT);
(5) Providing normal care for captive pillar coral. Captive corals
are still protected under the ESA and may not be killed or injured, or
otherwise harmed and must receive proper care. Normal husbandry care of
captive corals includes handling, cleaning, maintaining water quality
within an acceptable range, extracting tissue samples for the purposes
of diagnosis of condition or genetics, treating of maladies such as
disease or parasites using established methods proven to be effective,
propagating corals by sexual or asexual means (i.e., fragmenting larger
coral colonies into smaller colonies to increase the number of corals,
maintain corals of manageable size, or accelerate their growth rate)
within the bounds of normal husbandry practices, attaching to
artificial surfaces, and removing dead skeleton;
(6) Interstate and intrastate transportation of legally-obtained
captive pillar coral and pillar coral parts provided it is not in the
course of a commercial activity. If captive corals or pillar coral
parts are to be moved to a different holding location, records
documenting transfer of corals must be maintained;
(7) Stabilization of loose pillar coral, including fragments, in
the wild by experienced individuals and as authorized by a 10(a)(1)(A)
permit issued by NMFS;
(8) Relocation of wild pillar coral from one site to another under
the authorization of an ESA section 10(a)(1)(A) permit issued by NMFS;
(9) Use of captive pillar coral for scientific studies under the
authorization of an ESA Section 10(a)(1)(A) permit issued by NMFS.
Scientific studies that have the potential to injure or harm captive
pillar coral (e.g., altered temperature outside of ideal range,
exposure to contaminants, potentially harmful chemicals, or disease,
introduction of coral predators) require an ESA section 10(a)(1)(A)
permit. Scientific studies that are intended to improve the husbandry
practices of caring for captive pillar coral, where there is a
reasonable
[[Page 59500]]
expectation that they would not cause harm to pillar coral (e.g.,
trialing new food supplements, comparing different lighting systems,
testing different attachment substrates), would not require an ESA
permit;
(10) Research activities on pillar coral in the wild under the
authorization of an ESA section 10(a)(1)(A) permit. Research
activities, such as observational studies, on pillar coral in the wild
that do not involve collections of pillar corals or manipulation of
pillar corals or of their environment do not require an ESA section
10(a)(1)(A) permit;
(11) Release of captive pillar coral into the wild, as authorized
by an ESA section 10(a)(1)(A) permit issued by NMFS; and
(12) Treatment of wild pillar coral for disease by experienced
individuals using non-experimental methods proven to be effective and
as authorized by state and territorial permits.
Information Quality Act and Peer Review
In December 2004, the Office of Management and Budget (OMB) issued
a Final Information Quality Bulletin for Peer Review establishing
minimum peer review standards, a transparent process for public
disclosure of peer review planning, and opportunities for public
participation. The OMB Peer Review Bulletin (the Bulletin), implemented
under the Information Quality Act (Pub. L. 106-554), is intended to
enhance the quality and credibility of the Federal Government's
scientific information, and applies to influential or highly
influential scientific information disseminated on or after June 16,
2005. To satisfy our requirements under the Bulletin, this proposed
rule was subject to peer review. A peer review plan was posted on the
NOAA peer review agenda and can be found at the following website:
https://www.noaa.gov/information-technology/endangered-species-act-proposed-rule-for-pillar-coral-dendrogyra-cylindrus-id432. Our
synthesis and assessment of scientific information supporting this
proposed action was peer reviewed via individual letters soliciting the
expert opinions of three qualified specialists selected from the
academic and scientific community. The charge to the peer reviewers and
the peer review report have been placed in the administrative record
and posted on the agency's peer review agenda. In meeting the OMB Peer
Review Bulletin requirements, we have also satisfied the requirements
of the 1994 joint U.S. Fish and Wildlife Service/NMFS peer review
policy (59 FR 34270; July 1, 1994).
Public Comments Solicited
To ensure that any final action resulting from this proposal will
be as accurate and effective as possible, we are soliciting comments
from the public, other concerned governmental agencies, the scientific
community, industry, and any other interested parties. We must base our
final determination on the best available scientific and commercial
data when making listing determinations. We cannot, for example,
consider the economic effects of a listing determination. Final
promulgation of any regulation on this species or withdrawal of this
listing proposal will take into consideration the comments and any
additional information we receive, and such communications may lead to
a final regulation that differs from this proposal or result in a
withdrawal of this reclassification proposal.
Public Hearing
A public hearing will be conducted online as a virtual meeting, as
specified under ADDRESSES. More detailed instructions for joining the
virtual meeting are provided on our web page: https://www.fisheries.noaa.gov/species/pillar-coral#conservation-management.
The hearing will begin with a brief presentation by NMFS that will give
an overview of the proposed rule under the ESA. After the presentation,
but before public comments, there will be a question-and-answer session
during which members of the public may ask NMFS staff clarifying
questions about the proposed rule. Following the question-and-answer
session, members of the public will have the opportunity to provide
oral comments on the record regarding the proposed rule. In the event
there is a large attendance, the time allotted per individual for oral
comments may be limited. Therefore, anyone wishing to make an oral
comment at the public hearing for the record is also encouraged to
submit a written comment during the relevant public comment period as
described under ADDRESSES and DATES. All oral comments will be
recorded, transcribed, and added to the public comment record for this
proposed rule.
References
A complete list of the references used in this proposed rule is
available online (see www.fisheries.noaa.gov/species/pillar-coral#conservation-management) and upon request (see FOR FURTHER
INFORMATION CONTACT).
Classification
National Environmental Policy Act
The 1982 amendments to the ESA, in section 4(b)(1)(A), restrict the
information that may be considered when assessing species for listing.
Based on this limitation of criteria for a listing decision and NOAA
Administrative Order 216-6 (Environmental Review Procedures for
Implementing the National Environmental Policy Act), we have concluded
that ESA listing actions are not subject to requirements of the
National Environmental Policy Act.
Executive Order 12866, Regulatory Flexibility Act, and Paperwork
Reduction Act
As noted in the Conference Report on the 1982 amendments to the
ESA, economic impacts cannot be considered when assessing the status of
a species. Therefore, the economic analysis requirements of the
Regulatory Flexibility Act are not applicable to the listing process.
In addition, this proposed rule is exempt from review under Executive
Order 12866. This proposed rule does not contain a collection-of-
information requirement for the purposes of the Paperwork Reduction
Act.
Executive Order 13132, Federalism
In accordance with E.O. 13132, we have made a preliminary
determination that this proposed rule does not have significant
federalism effects and that a federalism assessment is not required. In
keeping with the intent of the Administration and Congress to provide
continuing and meaningful dialogue on issues of mutual state and
Federal interest, this proposed rule will be given to the relevant
state agencies in each state in which the species is believed to occur,
and those states will be invited to comment on this proposal. As we
proceed, we intend to continue engaging in informal and formal contacts
with the state, and other affected local or regional entities, giving
careful consideration to all written and oral comments received.
Executive Order 12898, Environmental Justice
Executive Order 12898 requires that Federal actions address
environmental justice in the decision-making process. In particular,
the environmental effects of the actions should not have a
disproportionate effect on minority and low-income communities. This
proposed rule is not expected to have a disproportionately high effect
on minority populations or low-income populations.
[[Page 59501]]
List of Subjects
50 CFR Part 223
Endangered and threatened species, Exports, Imports,
Transportation.
50 CFR Part 224
Administrative practice and procedure, Endangered and threatened
species, Exports, Imports, Reporting and recordkeeping requirements,
Transportation.
Dated: August 14, 2023.
Samuel D. Rauch, III,
Deputy Assistant Administrator for Regulatory Programs, National Marine
Fisheries Service.
For the reason set out in the preamble, NMFS proposes to amend 50
CFR parts 223 and 224 as follows:
PART 223--THREATENED MARINE AND ANADROMOUS SPECIES
0
1. The authority citation for part 223 continues to read as follows:
Authority: 16 U.S.C. 1531-1543; subpart B, Sec. 223.201-202
also issued under 16 U.S.C. 1361 et seq.; 16 U.S.C. 5503(d) for
Sec. 223.206(d)(9).
0
2. In Sec. 223.102, amend the table in paragraph (e), under the
subheading ``Corals'', by removing the entry for ``Coral, pillar
(Dendrogyra cylindrus)''.
PART 224--ENDANGERED MARINE AND ANADROMOUS SPECIES
0
3. The authority citation of part 224 continues to read as follows:
Authority: 16 U.S.C. 1531-1543 and 16 U.S.C. 1361 et seq.
0
4. In Sec. 224.101, amend the table in paragraph (h), under the
subheading ``Corals'', by adding the following entry to read as
follows:
Sec. 224.101 Enumeration of endangered marine and anadromous species.
* * * * *
(h) The endangered species under the jurisdiction of the Secretary
of Commerce are:
----------------------------------------------------------------------------------------------------------------
Species \1\
--------------------------------------------------------------- Citation(s) for Critical
Description of listing habitat ESA rules
Common name Scientific name listed entity determination(s)
----------------------------------------------------------------------------------------------------------------
* * * * * * *
Corals
Coral, pillar............... Dendrogyra Entire species. [Insert FR Citation NA NA
cylindrus. & Date When
Published As A
Final Rule].
* * * * * * *
----------------------------------------------------------------------------------------------------------------
\1\ Species includes taxonomic species, subspecies, distinct population segments (DPSs) (for a policy statement,
see 61 FR 4722, February 7, 1996), and evolutionarily significant units (ESUs) (for a policy statement, see 56
FR 58612, November 20, 1991).
[FR Doc. 2023-17769 Filed 8-28-23; 8:45 am]
BILLING CODE 3510-22-P