Safety Advisory 2023-03; Accident Mitigation and Train Length, 27570-27573 [2023-09239]
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Federal Register / Vol. 88, No. 84 / Tuesday, May 2, 2023 / Notices
assistance recipients and sub-recipients
to use program evaluation as a critical
tool to learn, to improve equitable
delivery, and to elevate program service
and delivery across the program
lifecycle. Evaluation means ‘‘an
assessment using systematic data
collection and analysis of one or more
programs, policies, and organizations
intended to assess their effectiveness
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infrastructure and expertise in data
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CFR 200).
d. Performance Reporting
Each applicant selected for funding
must collect information and report on
the Program’s and each subaward’s
performance using measures mutually
agreed-upon by FRA and the grantee to
assess progress in achieving strategic
goals and objectives. The applicable
measure(s) will depend upon the type of
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G. Federal Awarding Agency Contacts
For further information regarding this
notice, please contact the FRA NOFO
Support program staff via email at FRANOFO-Support@dot.gov. If additional
assistance is needed, contact Tarek
Omar, Office of Research, Development,
and Technology, Federal Railroad
Administration, 1200 New Jersey
Avenue SE, Room W36–306,
Washington, DC 20590; email:
tarek.omar@dot.gov; phone: 202–493–
6189.
H. Other Information
All information submitted as part of
or in support of any application shall
use publicly available data or data that
can be made public and methodologies
that are accepted by industry practice
and standards, to the extent possible. If
the application includes information the
applicant considers to be personal
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‘‘Contains PII or Confidential Business
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Information (CBI)’’; (2) mark each
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highlight or otherwise denote the PII or
CBI portions.
The DOT regulations implementing
the Freedom of Information Act (FOIA)
are found at 49 CFR 7 Subpart C—
Availability of Reasonably Described
Records under the Freedom of
Information Act and sets forth rules for
FRA to make requested materials,
information, and records publicly
available under FOIA. Unless prohibited
by law and to the extent permitted
under the FOIA, contents of application
and proposals submitted by successful
applicants may be released in response
to FOIA requests.
The Department may share
application information within the
Department or with other Federal
agencies if the Department determines
that sharing is relevant to the respective
program’s objectives.
Issued in Washington, DC.
Amitabha Bose,
Administrator.
[FR Doc. 2023–09240 Filed 5–1–23; 8:45 am]
BILLING CODE 4910–06–P
DEPARTMENT OF TRANSPORTATION
Federal Railroad Administration
Safety Advisory 2023–03; Accident
Mitigation and Train Length
Federal Railroad
Administration (FRA), U.S. Department
of Transportation (DOT).
ACTION: Notice of safety advisory.
AGENCY:
Freight train length has
increased in recent years, and while
research is ongoing related to
operational aspects of long trains,
including brake system performance, it
is known that the in-train forces longer
trains experience are generally stronger
and more complex than those in shorter
train consists. FRA is issuing this Safety
Advisory to ensure railroads and
railroad employees are aware of the
potential complexities associated with
operating longer trains and to ensure
they take appropriate measures to
address those complexities to ensure the
safe operation of such trains. Among
other things, this Safety Advisory
recommends that railroads review their
operating rules and existing locomotive
engineer certification programs to
address operational complexities of
train length, take appropriate action to
prevent the loss of communications
between end-of-train devices, and
mitigate the impacts of long trains on
blocked crossings.
SUMMARY:
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FOR FURTHER INFORMATION CONTACT:
Christian Holt, Staff Director, Operating
Practices Division, Office of Railroad
Safety, FRA, 1200 New Jersey Ave. SE,
Washington, DC 20590, telephone (202)
366–0978.
Disclaimer: This Safety Advisory is
considered guidance pursuant to DOT
Order 2100.6A (June 7, 2021). Except
when referencing laws, regulations,
policies, or orders, the information in
this Safety Advisory does not have the
force and effect of law and is not
binding in any way. This document
does not review or replace any
previously issued guidance.
SUPPLEMENTARY INFORMATION:
I. Background
Freight-train length, particularly for
Class I railroads, has increased in recent
years.1 The operation of longer trains
presents different, more complex,
operational challenges, which can be
exacerbated by the weight and makeup
of the trains.2 Accordingly, FRA’s Office
of Research, Development, and
Technology is currently studying the air
brake system performance and resulting
train dynamics of trains comprised of
up to 200 cars.3 Additionally, in
response to the mandate of Section
22422 of the Infrastructure Investment
and Jobs Act,4 the National Academies
of Sciences, Engineering and Medicine
(NAS) is conducting a study of the
impacts of trains longer than 7,500 feet.5
The estimate to complete both FRA and
NAS’s studies is 2024.
While this research is ongoing, FRA is
issuing this Safety Advisory to ensure
railroads and railroad employees are
aware of the potential complexities
involved in the operation of longer
trains, and appropriate actions are taken
to address these complexities. This
Safety Advisory also makes clear that
train length is a critical factor to
consider when building any train, just
as consideration of a consist’s
1 See GAO’s May 2019 report titled RAIL
SAFETY: Freight Trains Are Getting Longer, and
Additional Information is Needed to Assess Their
Impact, GAO–19–443 (available at https://
www.gao.gov/assets/gao-19-443.pdf).
2 See FRA Safety Advisory 2023–02, Train
Makeup and Operational Safety Concerns, for a
discussion of how train makeup affects safety. FRA
Safety Advisory 2023–02 is available at: https://
www.federalregister.gov/documents/2023/04/11/
2023-07579/safety-advisory-2023-02-train-makeupand-operational-safety-concerns.
3 See https://railroads.dot.gov/sites/fra.dot.gov/
files/2022-12/2023_RDT_CurrentProjects_complete_
FINAL.pdf.
4 Public Law 117–58 (Nov. 15, 2021).
5 See NAS https://www.nationalacademies.org/
our-work/impacts-of-trains-longer-than-7500-feet.
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configuration is critical, as outlined in
FRA Safety Advisory 2023–02.6
FRA has identified three significant
incidents (discussed below) that have
occurred since 2022 involving trains
with more than 200 cars, where train
handling and train makeup is believed
to have caused, or contributed to, the
incidents. These incidents (which
occurred in Springfield, Ohio; Ravenna,
Ohio; and Rockwell, Iowa) involved
trains that were 12,250 feet or longer
and weighed over 17,000 trailing tons.
FRA believes these incidents
demonstrate the need for railroads and
railroad employees to be particularly
mindful of the complexities of operating
longer trains, which include, but are not
limited to: (1) train makeup and
handling; (2) railroad braking and train
handling rules, policies, and
procedures; (3) protecting against the
loss of end-of-train (EOT) device
communications; and (4) where
applicable, protecting against the loss of
radio communications among crew
members. These technical complexities
make it critical that employees assigned
to operate longer trains are adequately
trained and qualified for the most
demanding service for which they can
be called. Additionally, these technical
complexities make it necessary to
ensure that a railroad’s operational
testing program adequately assesses and
evaluates whether employees are
appropriately equipped and
demonstrate the capability to fully
address those complexities in real world
operating scenarios.
Springfield, Ohio—March 4, 2023
On March 4, 2023, at approximately
4:54 p.m. a Norfolk Southern Railway
(NS) 210-car, mixed-freight train
totaling 13,470 feet and 17,966 trailing
tons with distributed power units
(DPUs) experienced a derailment
involving 28 cars, including 21 empty
and 7 loaded cars in Springfield, Ohio.
The train had 82 cars equipped with
end-of-car cushioning devices, and 18 of
those derailed. The train consisted of
three head-end locomotives and two
mid-train DPUs, with one head-end
locomotive offline. The train was
traveling on an ascending 0.6% grade
with the heavier part of the consist (the
back end) on a 0.7% downhill grade.
The weight was mostly concentrated at
the head and rear ends of the train.
During the incident, dynamic braking
was applied only to the head-end
locomotive consist, while the DPUs
were idle, making the train function like
6 https://www.federalregister.gov/documents/
2023/04/11/2023-07579/safety-advisory-2023-02train-makeup-and-operational-safety-concerns.
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a conventional train. The derailment
happened at the sag between ascending
and descending grades, with short,
empty rail cars designed to ship coiled
steel being the first to derail. Buff forces
peaked as the downhill portion of the
train ran-in, causing the derailment of
cars 70 through 72 (the short coil cars)
and the subsequent pile-up. The train
was classified as a key train,7 with 28
loaded hazardous materials (hazmat)
cars distributed throughout. No hazmat
cars derailed. FRA’s investigation into
this incident is currently ongoing, but
preliminary indications show excessive
buff force due to train makeup and train
handling are the primary causes of the
incident.
Ravenna, Ohio—November 1, 2022
On November 1, 2022, at
approximately 7:04 p.m., a NS 238-car,
mixed-freight train totaling 15,657 feet
and 24,538 trailing tons with DPUs
experienced a derailment involving 22
cars, in Ravenna, Ohio. The train
included 188 loads and 50 empties, and
was powered by two head-end
locomotives and two mid-train DPUs.
The incident occurred on the NS
Keystone Subdivision main track. The
derailment happened during an
undesired emergency air brake
application, the cause of which is still
under investigation. The train was
designated as a key train, and 2 of the
63 hazmat cars derailed, in addition to
20 other cars. In the consist, 56 cars
were equipped with end-of-car
cushioning devices. The train was
initially operating with the energy
management system engaged, but
reverted to manual operation prior to
the derailment. The railroad reported
the cause of the incident as buffing or
excessive slack action due to train
makeup, but FRA’s investigation is
ongoing.
Rockwell, Iowa—March 24, 2022
On March 24, 2022, at approximately
1:59 a.m., a southbound Union Pacific
Railroad (UP) train totaling 12,250 feet
long and 23,315 trailing tons
experienced a derailment of 37 cars in
Rockwell, Iowa. The train was traveling
at a speed of 46 miles per hour at the
time of the incident. The train consisted
7 As defined by Association of American
Railroads (AAR) Circular OT–55, available at
https://public.railinc.com/sites/default/files/
documents/OT-55.pdf, a ‘‘Key Train’’ is any train
with: (1) One tank car load of Poison or Toxic
Inhalation Hazard (PIH or TIH) (Hazard Zone A, B,
C, or D), anhydrous ammonia (UN1005), or
ammonia solutions (UN3318); (2) 20 car loads or
intermodal portable tank loads of any combination
of hazardous material; or (3) One or more car loads
of Spent Nuclear Fuel (SNF), High Level
Radioactive Waste (HLRW).
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of two head-end locomotives, one midtrain DPU, one rear DPU, and a total of
204 cars consisting of 169 loads and 35
empties. At the time of the incident, the
energy management system was
engaged, the train’s head-end was
ascending with the rear portion
descending, causing the slack to run in,
leading to compression at the middle of
the train. This incident is still under
investigation and the analysis of in-train
forces is ongoing, but preliminary
indications are that the primary cause of
the incident was buffing or excessive
slack action due to train makeup.
II. The Complexities of Operating
Longer Trains
As noted above, the operation of
longer trains involves technical
challenges pertaining to (1) train
makeup and handling; (2) railroad
braking and train handling rules,
policies, and procedures; (3) protecting
against the loss of EOT device
communications; and (4) where
applicable, protecting against the loss of
radio communication among crew
members.
Train Makeup and Handling
FRA notes that recently issued Safety
Advisory 2023–02 addresses train
makeup and accompanying operational
safety concerns. FRA reiterates the
recommendations in that Safety
Advisory as applied to longer trains.
Railroad Braking and Train Handling
Rules, Policies, and Procedures
Air brake and train handling (ABTH)
rules are the basis for the safe operation
of any train, but as noted above, longer
trains may pose unique challenges that
must be comprehensively addressed in
railroads’ ABTH rules. ABTH rules are
developed from experience and are
based on factors such as the designs and
types of rolling equipment in a consist,
whether the equipment is loaded or
empty, and the placement of that
equipment in a train’s consist. FRA
recognizes that railroads regularly
update their ABTH rules, but FRA is
concerned that some railroads’ ABTH
rules do not sufficiently address issues
related to train length such as, but not
limited to:
• The maximum number of powered
axles in stretch (powered) and dynamic
braking;
• Train consist comprised of longshort car combinations;
• The placement of loaded and empty
cars within a train consist;
• End-of-car cushioning devices;
• Air brakes;
• The use of distributed power, if
equipped;
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• Operating over grades and through
curves;
• Cold weather operations; and
• Train automatic operation (energy
management systems), including
transfer from automatic to manual
operating scenarios.
Accordingly, this Safety Advisory
recommends that railroads review their
existing ABTH rules and update those
rules as necessary to ensure they
comprehensively address the
complexities associated with train
length in the railroad’s operations.
Protecting Against the Loss of EOT
Device Communications
Railroads have used EOT devices for
years to monitor brake pipe pressure at
the rear of the train. More recently, the
functionality of these devices has
expanded to assist in emergency
braking. Two-way EOT device systems
are comprised of a rear-of-train unit
(rear unit) located on the last car of a
train and a front-of-train unit (front unit)
located in the cab of the locomotive
controlling the train. An EOT system is
linked by radio signals that will
automatically transmit an emergency
brake signal from the controlling
locomotive to the rear of the train when
an emergency brake application is
initiated. The system additionally
allows for the engineer in the
controlling locomotive to manually
activate a switch which sends a radio
signal to the rear unit EOT device that
is tied into the air brake system, opens
an internal valve, and initiates an
emergency brake application.
Due to the distance EOT device
signals must travel on longer trains, the
greater the risk that signal
communications may be lost between
the front and rear units. Thus, longer
trains are more prone to experience EOT
device loss of signal communications
than shorter train consists. Other
factors, such as the local topography
and weather conditions, can present
further challenges to EOT devices
maintaining communications. A loss of
communication between EOT devices
can be temporary or permanent, and can
result in an emergency air brake signal
from the controlling locomotive taking
longer to propagate through the entire
train (effectively slowing down braking
of the entire consist), or in the event of
a train air brake line blockage, a loss of
communication between the EOT
devices will result in the emergency
signal not being transmitted to the rear
EOT device, as evidenced by the fatal
UP Granite Canyon accident that
occurred on October 4, 2018.
Accordingly, this Safety Advisory
recommends that railroads implement
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technologies, policies, procedures, and
any necessary hardware enhancements
to ensure two-way EOT devices
maintain continuous and undisrupted
communications to and from the front
and rear units. Additionally, this Safety
Advisory recommends that railroads
develop, implement, and maintain clear
rules to follow in the event of a loss of
communication between EOT devices.
Protecting Against the Loss of Radio
Communications Among Crew Members
Effective radio voice communications
are crucial for ensuring the safety of
railroad employees and train operations.
A longer train can present a radio voice
communication problem for an
operating employee traveling a long
distance away from the lead locomotive.
Portable radio handsets generally used
might not have sufficient radio signal
strength to provide clear
communication over great distances or
undulating topography. This problem is
particularly concerning during
emergency situations, where clear
communication is critical. For instance,
if an operating employee is injured and
unable to contact the locomotive
engineer, delays in getting timely aid to
the operating employee may occur.
As a result, this Safety Advisory
recommends that railroads adopt
enhanced technologies and, as
necessary, procedures for maintaining
radio voice communications with a
contingency plan if voice
communications are lost between
operating employees.
III. Employee Training and
Qualification Considerations
Training Generally
The potential complexities involved
with the operation of longer trains make
it particularly critical that locomotive
engineers (and all other crew members)
are adequately trained and qualified to
safely perform their duties. FRA is
concerned that certified locomotive
engineers may receive basic train
handling training that was typically
satisfactory for historical operations
over particular territories, but given
railroads’ current increased operation of
longer trains, such training may no
longer be adequate. FRA reminds
railroads of the regulatory requirement
at 49 CFR 240.211(a) for railroads to,
prior to initially certifying or
recertifying any person as a locomotive
engineer, determine that the person has
demonstrated the skills necessary to
safely operate locomotives or trains in
the most demanding class or type of
service that the person will be permitted
to perform. In the context of longer
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trains, the engineer must be adequately
trained in their operation and
demonstrate an ability to safely do so
prior to being called for such operation.
For example, an engineer who has safely
operated a 100-car consist over a
particular territory for the past five
years, but has never been trained and
qualified on a longer consist, should not
be called to operate a 200-car train
without additional training on the
operational complexities involved.
A locomotive engineer cannot be
expected to safely operate in a more
demanding service without proper
additional training that covers the
unique challenges and complexities
those trains present. This training
concern extends to the designated
supervisors of locomotive engineers,
who are responsible for understanding
these territories, operations, and
associated risks, and are expected to be
involved in the training, testing, and
qualifying of locomotive engineers.
Part 240 Locomotive Engineer
Certification Programs
Appendix B to 49 CFR part 240
outlines the procedures that railroads
must describe in their locomotive
engineer certification programs, and the
level of detail required for the training,
qualification, and certification of
locomotive engineers. Accordingly, FRA
expects each railroad to design its
program to address that railroad’s
specific operations and FRA expects
railroads to adjust their programs as the
nature or circumstances of operations
change. Specifically, if a railroad creates
a more demanding operating
environment through the operation of
longer trains, that railroad’s locomotive
engineer certification program must be
updated to reflect that more demanding
environment. For this reason, FRA
recommends that each railroad with a
submitted program, review whether
updates to their programs are necessary
to ensure: (1) the complexities of that
railroad’s operations are adequately
addressed in the program, and (2) its
employees are adequately trained and
qualified to operate in the most
demanding service. FRA notes that the
use of distributed power and energy
management systems typically involved
in longer train operations place new
demands on locomotive engineers and,
as such, those employees must be
trained and qualified on these
additional complexities.
Part 217 Operational Testing
Under 49 CFR part 217, railroads are
required to conduct operational tests.
These operational tests are vital for
determining that employees are
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properly trained and fully aware of the
rules and regulations governing safe
operations. By identifying and
addressing any potential training and
compliance issues revealed by effective
operational testing of longer trains,
railroads can mitigate the potential risk
of accidents and incidents. As new
operations and technology are
introduced, operational testing must be
adjusted accordingly.
IV. Blocked Public Highway-Rail Grade
Crossings
Blocked crossings occur when trains
occupy highway-rail grade crossings
and impede the flow of motor vehicle or
pedestrian traffic over railroad tracks for
extended periods of time. Blocked
crossings pose numerous potential
safety risks—frustrated individuals may
be tempted to crawl, on, over, under, or
between stopped railcars and blocked
crossings can hinder emergency
services’ access to individuals in need
of fire, police, or EMS assistance.
Residents of communities through
which railroads operate often rely on
specific highway-rail grade crossings for
daily commutes and other essential
activities. Local knowledge of these
crossings has developed over time,
allowing community members to
navigate through those crossings safely
and efficiently. However, longer trains
may, in certain instances, mean that
trains are occupying these crossings for
longer periods, potentially blocking
access to homes, hospitals, schools, or
businesses, and causing unexpected
disruptions. Local emergency
responders, such as police, fire, and
ambulance services, can be severely
impacted if emergency responders must
find an alternate route when a train is
blocking a crossing or if there is no
alternative route.
Longer trains may also present
challenges for pedestrians as the trains
occupy pedestrian crossings for longer
periods of time. Blocked crossings near
schools are especially critical safety
hazards due to the potential for children
to cut through the idling trains.
Depending on the length of time that
a crossing is blocked, the type of
vehicles at a blocked crossing, and the
configuration of the highway, motor
vehicle drivers could be expected to
take greater risks and commit dangerous
maneuvers in an attempt to seek an
alternate route. Motor vehicle drivers
may also be more tempted to ‘‘outrun
the train’’ by speeding to cross the
tracks before the oncoming train reaches
the crossing, particularly at locations
that are frequently blocked by trains.
Although trains of any length may block
highway-rail grade crossings for a
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variety of reasons, the operation of
longer trains may, in certain instances,
exacerbate the impact of blocked
crossings on communities. Accordingly,
FRA recommends that railroads identify
geographic areas with highway-rail
grade crossings that could be impacted
by longer trains, and work with local
communities and emergency responders
to identify and implement methods of
preventing, or at least mitigating, the
impacts of such blockages. These
actions could include: identifying
alternative routes for critical emergency
response needs, establishing and
maintaining clear lines of
communication between the railroad
and local authorities, or developing
protocols for resolving concerns
surrounding emergency response and
blocked crossings.
V. Recommended Actions
Due to the complexities involved in
the operation of longer trains, and to
ensure the safety of the Nation’s
railroads, their employees, and the
general public, FRA recommends that
freight railroads take the following
actions:
1. Review ABTH rules, or
supplements, to ensure those rules
adequately address the complexities
associated with the railroad’s operation
of longer trains.
2. Implement technologies, policies,
procedures, and/or any necessary
hardware enhancements to ensure twoway EOT devices maintain undisrupted
communications to and from the headend and rear-end units. Develop,
implement, and maintain clear policies,
procedures, and rules that address
instances of the loss of communications
between EOT devices.
3. Adopt enhanced technologies and/
or procedures for maintaining radio
voice communications with a
contingency plan if voice
communications are lost between
operating employees.
4. Identify changes to crew training,
train handling procedures, train
makeup, DPU requirements, limitations
to length or tonnage, speed restrictions,
track, mechanical, and brake inspection
and maintenance requirements
necessary to ensure safe operations of
longer trains.
5. Review, and update as necessary,
each railroad’s current 49 CFR part 240
locomotive engineer certification
program to ensure the program
addresses all levels of operations,
including the operation of longer trains.
6. Review and evaluate existing
operational testing data as required by
49 CFR 217.9(e) relevant to the
operation of longer trains. If longer train
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27573
operations are conducted, or if any
potential training or compliance issues
are identified, consider increasing the
frequency of operational testing and/or
modifying the types of operational
testing performed to address those
deficiencies.
7. Identify geographic areas that could
be impacted by longer trains at
highway-rail grade crossings, take action
to minimize blocked crossings by
considering train length when taking
any action that causes any part of a train
to occupy a crossing, and work with
local communities and emergency
responders to prevent or at least
mitigate the impacts of blocked
crossings should they occur.
8. Conduct post-accident simulator
evaluations and assign accurate primary
and contributing cause codes for
reportable and accountable accidents
and incidents. A detailed narrative is
basic to an understanding of the factors
leading to, and the consequences arising
from, an accident.
FRA encourages freight railroads to
take actions consistent with the
preceding recommendations. FRA may
modify this Safety Advisory 2023–03,
issue additional safety advisories, or
take other appropriate action necessary
to ensure the highest level of safety on
the Nation’s railroads, including pursing
other corrective measures under its rail
safety authority.
Issued in Washington, DC.
Amitabha Bose,
Administrator.
[FR Doc. 2023–09239 Filed 5–1–23; 8:45 am]
BILLING CODE 4910–06–P
DEPARTMENT OF TRANSPORTATION
Maritime Administration
[Docket No. MARAD–2023–0096]
Coastwise Endorsement Eligibility
Determination for a Foreign-Built
Vessel: ATOTI (Sail); Invitation for
Public Comments
Maritime Administration, DOT.
Notice.
AGENCY:
ACTION:
The Secretary of
Transportation, as represented by the
Maritime Administration (MARAD), is
authorized to issue coastwise
endorsement eligibility determinations
for foreign-built vessels which will carry
no more than twelve passengers for hire.
A request for such a determination has
been received by MARAD. By this
notice, MARAD seeks comments from
interested parties as to any effect this
action may have on U.S. vessel builders
SUMMARY:
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Agencies
[Federal Register Volume 88, Number 84 (Tuesday, May 2, 2023)]
[Notices]
[Pages 27570-27573]
From the Federal Register Online via the Government Publishing Office [www.gpo.gov]
[FR Doc No: 2023-09239]
-----------------------------------------------------------------------
DEPARTMENT OF TRANSPORTATION
Federal Railroad Administration
Safety Advisory 2023-03; Accident Mitigation and Train Length
AGENCY: Federal Railroad Administration (FRA), U.S. Department of
Transportation (DOT).
ACTION: Notice of safety advisory.
-----------------------------------------------------------------------
SUMMARY: Freight train length has increased in recent years, and while
research is ongoing related to operational aspects of long trains,
including brake system performance, it is known that the in-train
forces longer trains experience are generally stronger and more complex
than those in shorter train consists. FRA is issuing this Safety
Advisory to ensure railroads and railroad employees are aware of the
potential complexities associated with operating longer trains and to
ensure they take appropriate measures to address those complexities to
ensure the safe operation of such trains. Among other things, this
Safety Advisory recommends that railroads review their operating rules
and existing locomotive engineer certification programs to address
operational complexities of train length, take appropriate action to
prevent the loss of communications between end-of-train devices, and
mitigate the impacts of long trains on blocked crossings.
FOR FURTHER INFORMATION CONTACT: Christian Holt, Staff Director,
Operating Practices Division, Office of Railroad Safety, FRA, 1200 New
Jersey Ave. SE, Washington, DC 20590, telephone (202) 366-0978.
Disclaimer: This Safety Advisory is considered guidance pursuant to
DOT Order 2100.6A (June 7, 2021). Except when referencing laws,
regulations, policies, or orders, the information in this Safety
Advisory does not have the force and effect of law and is not binding
in any way. This document does not review or replace any previously
issued guidance.
SUPPLEMENTARY INFORMATION:
I. Background
Freight-train length, particularly for Class I railroads, has
increased in recent years.\1\ The operation of longer trains presents
different, more complex, operational challenges, which can be
exacerbated by the weight and makeup of the trains.\2\ Accordingly,
FRA's Office of Research, Development, and Technology is currently
studying the air brake system performance and resulting train dynamics
of trains comprised of up to 200 cars.\3\ Additionally, in response to
the mandate of Section 22422 of the Infrastructure Investment and Jobs
Act,\4\ the National Academies of Sciences, Engineering and Medicine
(NAS) is conducting a study of the impacts of trains longer than 7,500
feet.\5\ The estimate to complete both FRA and NAS's studies is 2024.
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\1\ See GAO's May 2019 report titled RAIL SAFETY: Freight Trains
Are Getting Longer, and Additional Information is Needed to Assess
Their Impact, GAO-19-443 (available at https://www.gao.gov/assets/gao-19-443.pdf).
\2\ See FRA Safety Advisory 2023-02, Train Makeup and
Operational Safety Concerns, for a discussion of how train makeup
affects safety. FRA Safety Advisory 2023-02 is available at: https://www.federalregister.gov/documents/2023/04/11/2023-07579/safety-advisory-2023-02-train-makeup-and-operational-safety-concerns.
\3\ See https://railroads.dot.gov/sites/fra.dot.gov/files/2022-12/2023_RDT_CurrentProjects_complete_FINAL.pdf.
\4\ Public Law 117-58 (Nov. 15, 2021).
\5\ See NAS https://www.nationalacademies.org/our-work/impacts-of-trains-longer-than-7500-feet.
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While this research is ongoing, FRA is issuing this Safety Advisory
to ensure railroads and railroad employees are aware of the potential
complexities involved in the operation of longer trains, and
appropriate actions are taken to address these complexities. This
Safety Advisory also makes clear that train length is a critical factor
to consider when building any train, just as consideration of a
consist's
[[Page 27571]]
configuration is critical, as outlined in FRA Safety Advisory 2023-
02.\6\
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\6\ https://www.federalregister.gov/documents/2023/04/11/2023-07579/safety-advisory-2023-02-train-makeup-and-operational-safety-concerns.
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FRA has identified three significant incidents (discussed below)
that have occurred since 2022 involving trains with more than 200 cars,
where train handling and train makeup is believed to have caused, or
contributed to, the incidents. These incidents (which occurred in
Springfield, Ohio; Ravenna, Ohio; and Rockwell, Iowa) involved trains
that were 12,250 feet or longer and weighed over 17,000 trailing tons.
FRA believes these incidents demonstrate the need for railroads and
railroad employees to be particularly mindful of the complexities of
operating longer trains, which include, but are not limited to: (1)
train makeup and handling; (2) railroad braking and train handling
rules, policies, and procedures; (3) protecting against the loss of
end-of-train (EOT) device communications; and (4) where applicable,
protecting against the loss of radio communications among crew members.
These technical complexities make it critical that employees assigned
to operate longer trains are adequately trained and qualified for the
most demanding service for which they can be called. Additionally,
these technical complexities make it necessary to ensure that a
railroad's operational testing program adequately assesses and
evaluates whether employees are appropriately equipped and demonstrate
the capability to fully address those complexities in real world
operating scenarios.
Springfield, Ohio--March 4, 2023
On March 4, 2023, at approximately 4:54 p.m. a Norfolk Southern
Railway (NS) 210-car, mixed-freight train totaling 13,470 feet and
17,966 trailing tons with distributed power units (DPUs) experienced a
derailment involving 28 cars, including 21 empty and 7 loaded cars in
Springfield, Ohio. The train had 82 cars equipped with end-of-car
cushioning devices, and 18 of those derailed. The train consisted of
three head-end locomotives and two mid-train DPUs, with one head-end
locomotive offline. The train was traveling on an ascending 0.6% grade
with the heavier part of the consist (the back end) on a 0.7% downhill
grade. The weight was mostly concentrated at the head and rear ends of
the train. During the incident, dynamic braking was applied only to the
head-end locomotive consist, while the DPUs were idle, making the train
function like a conventional train. The derailment happened at the sag
between ascending and descending grades, with short, empty rail cars
designed to ship coiled steel being the first to derail. Buff forces
peaked as the downhill portion of the train ran-in, causing the
derailment of cars 70 through 72 (the short coil cars) and the
subsequent pile-up. The train was classified as a key train,\7\ with 28
loaded hazardous materials (hazmat) cars distributed throughout. No
hazmat cars derailed. FRA's investigation into this incident is
currently ongoing, but preliminary indications show excessive buff
force due to train makeup and train handling are the primary causes of
the incident.
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\7\ As defined by Association of American Railroads (AAR)
Circular OT-55, available at https://public.railinc.com/sites/default/files/documents/OT-55.pdf, a ``Key Train'' is any train
with: (1) One tank car load of Poison or Toxic Inhalation Hazard
(PIH or TIH) (Hazard Zone A, B, C, or D), anhydrous ammonia
(UN1005), or ammonia solutions (UN3318); (2) 20 car loads or
intermodal portable tank loads of any combination of hazardous
material; or (3) One or more car loads of Spent Nuclear Fuel (SNF),
High Level Radioactive Waste (HLRW).
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Ravenna, Ohio--November 1, 2022
On November 1, 2022, at approximately 7:04 p.m., a NS 238-car,
mixed-freight train totaling 15,657 feet and 24,538 trailing tons with
DPUs experienced a derailment involving 22 cars, in Ravenna, Ohio. The
train included 188 loads and 50 empties, and was powered by two head-
end locomotives and two mid-train DPUs. The incident occurred on the NS
Keystone Subdivision main track. The derailment happened during an
undesired emergency air brake application, the cause of which is still
under investigation. The train was designated as a key train, and 2 of
the 63 hazmat cars derailed, in addition to 20 other cars. In the
consist, 56 cars were equipped with end-of-car cushioning devices. The
train was initially operating with the energy management system
engaged, but reverted to manual operation prior to the derailment. The
railroad reported the cause of the incident as buffing or excessive
slack action due to train makeup, but FRA's investigation is ongoing.
Rockwell, Iowa--March 24, 2022
On March 24, 2022, at approximately 1:59 a.m., a southbound Union
Pacific Railroad (UP) train totaling 12,250 feet long and 23,315
trailing tons experienced a derailment of 37 cars in Rockwell, Iowa.
The train was traveling at a speed of 46 miles per hour at the time of
the incident. The train consisted of two head-end locomotives, one mid-
train DPU, one rear DPU, and a total of 204 cars consisting of 169
loads and 35 empties. At the time of the incident, the energy
management system was engaged, the train's head-end was ascending with
the rear portion descending, causing the slack to run in, leading to
compression at the middle of the train. This incident is still under
investigation and the analysis of in-train forces is ongoing, but
preliminary indications are that the primary cause of the incident was
buffing or excessive slack action due to train makeup.
II. The Complexities of Operating Longer Trains
As noted above, the operation of longer trains involves technical
challenges pertaining to (1) train makeup and handling; (2) railroad
braking and train handling rules, policies, and procedures; (3)
protecting against the loss of EOT device communications; and (4) where
applicable, protecting against the loss of radio communication among
crew members.
Train Makeup and Handling
FRA notes that recently issued Safety Advisory 2023-02 addresses
train makeup and accompanying operational safety concerns. FRA
reiterates the recommendations in that Safety Advisory as applied to
longer trains.
Railroad Braking and Train Handling Rules, Policies, and Procedures
Air brake and train handling (ABTH) rules are the basis for the
safe operation of any train, but as noted above, longer trains may pose
unique challenges that must be comprehensively addressed in railroads'
ABTH rules. ABTH rules are developed from experience and are based on
factors such as the designs and types of rolling equipment in a
consist, whether the equipment is loaded or empty, and the placement of
that equipment in a train's consist. FRA recognizes that railroads
regularly update their ABTH rules, but FRA is concerned that some
railroads' ABTH rules do not sufficiently address issues related to
train length such as, but not limited to:
The maximum number of powered axles in stretch (powered)
and dynamic braking;
Train consist comprised of long-short car combinations;
The placement of loaded and empty cars within a train
consist;
End-of-car cushioning devices;
Air brakes;
The use of distributed power, if equipped;
[[Page 27572]]
Operating over grades and through curves;
Cold weather operations; and
Train automatic operation (energy management systems),
including transfer from automatic to manual operating scenarios.
Accordingly, this Safety Advisory recommends that railroads review
their existing ABTH rules and update those rules as necessary to ensure
they comprehensively address the complexities associated with train
length in the railroad's operations.
Protecting Against the Loss of EOT Device Communications
Railroads have used EOT devices for years to monitor brake pipe
pressure at the rear of the train. More recently, the functionality of
these devices has expanded to assist in emergency braking. Two-way EOT
device systems are comprised of a rear-of-train unit (rear unit)
located on the last car of a train and a front-of-train unit (front
unit) located in the cab of the locomotive controlling the train. An
EOT system is linked by radio signals that will automatically transmit
an emergency brake signal from the controlling locomotive to the rear
of the train when an emergency brake application is initiated. The
system additionally allows for the engineer in the controlling
locomotive to manually activate a switch which sends a radio signal to
the rear unit EOT device that is tied into the air brake system, opens
an internal valve, and initiates an emergency brake application.
Due to the distance EOT device signals must travel on longer
trains, the greater the risk that signal communications may be lost
between the front and rear units. Thus, longer trains are more prone to
experience EOT device loss of signal communications than shorter train
consists. Other factors, such as the local topography and weather
conditions, can present further challenges to EOT devices maintaining
communications. A loss of communication between EOT devices can be
temporary or permanent, and can result in an emergency air brake signal
from the controlling locomotive taking longer to propagate through the
entire train (effectively slowing down braking of the entire consist),
or in the event of a train air brake line blockage, a loss of
communication between the EOT devices will result in the emergency
signal not being transmitted to the rear EOT device, as evidenced by
the fatal UP Granite Canyon accident that occurred on October 4, 2018.
Accordingly, this Safety Advisory recommends that railroads
implement technologies, policies, procedures, and any necessary
hardware enhancements to ensure two-way EOT devices maintain continuous
and undisrupted communications to and from the front and rear units.
Additionally, this Safety Advisory recommends that railroads develop,
implement, and maintain clear rules to follow in the event of a loss of
communication between EOT devices.
Protecting Against the Loss of Radio Communications Among Crew Members
Effective radio voice communications are crucial for ensuring the
safety of railroad employees and train operations. A longer train can
present a radio voice communication problem for an operating employee
traveling a long distance away from the lead locomotive. Portable radio
handsets generally used might not have sufficient radio signal strength
to provide clear communication over great distances or undulating
topography. This problem is particularly concerning during emergency
situations, where clear communication is critical. For instance, if an
operating employee is injured and unable to contact the locomotive
engineer, delays in getting timely aid to the operating employee may
occur.
As a result, this Safety Advisory recommends that railroads adopt
enhanced technologies and, as necessary, procedures for maintaining
radio voice communications with a contingency plan if voice
communications are lost between operating employees.
III. Employee Training and Qualification Considerations
Training Generally
The potential complexities involved with the operation of longer
trains make it particularly critical that locomotive engineers (and all
other crew members) are adequately trained and qualified to safely
perform their duties. FRA is concerned that certified locomotive
engineers may receive basic train handling training that was typically
satisfactory for historical operations over particular territories, but
given railroads' current increased operation of longer trains, such
training may no longer be adequate. FRA reminds railroads of the
regulatory requirement at 49 CFR 240.211(a) for railroads to, prior to
initially certifying or recertifying any person as a locomotive
engineer, determine that the person has demonstrated the skills
necessary to safely operate locomotives or trains in the most demanding
class or type of service that the person will be permitted to perform.
In the context of longer trains, the engineer must be adequately
trained in their operation and demonstrate an ability to safely do so
prior to being called for such operation. For example, an engineer who
has safely operated a 100-car consist over a particular territory for
the past five years, but has never been trained and qualified on a
longer consist, should not be called to operate a 200-car train without
additional training on the operational complexities involved.
A locomotive engineer cannot be expected to safely operate in a
more demanding service without proper additional training that covers
the unique challenges and complexities those trains present. This
training concern extends to the designated supervisors of locomotive
engineers, who are responsible for understanding these territories,
operations, and associated risks, and are expected to be involved in
the training, testing, and qualifying of locomotive engineers.
Part 240 Locomotive Engineer Certification Programs
Appendix B to 49 CFR part 240 outlines the procedures that
railroads must describe in their locomotive engineer certification
programs, and the level of detail required for the training,
qualification, and certification of locomotive engineers. Accordingly,
FRA expects each railroad to design its program to address that
railroad's specific operations and FRA expects railroads to adjust
their programs as the nature or circumstances of operations change.
Specifically, if a railroad creates a more demanding operating
environment through the operation of longer trains, that railroad's
locomotive engineer certification program must be updated to reflect
that more demanding environment. For this reason, FRA recommends that
each railroad with a submitted program, review whether updates to their
programs are necessary to ensure: (1) the complexities of that
railroad's operations are adequately addressed in the program, and (2)
its employees are adequately trained and qualified to operate in the
most demanding service. FRA notes that the use of distributed power and
energy management systems typically involved in longer train operations
place new demands on locomotive engineers and, as such, those employees
must be trained and qualified on these additional complexities.
Part 217 Operational Testing
Under 49 CFR part 217, railroads are required to conduct
operational tests. These operational tests are vital for determining
that employees are
[[Page 27573]]
properly trained and fully aware of the rules and regulations governing
safe operations. By identifying and addressing any potential training
and compliance issues revealed by effective operational testing of
longer trains, railroads can mitigate the potential risk of accidents
and incidents. As new operations and technology are introduced,
operational testing must be adjusted accordingly.
IV. Blocked Public Highway-Rail Grade Crossings
Blocked crossings occur when trains occupy highway-rail grade
crossings and impede the flow of motor vehicle or pedestrian traffic
over railroad tracks for extended periods of time. Blocked crossings
pose numerous potential safety risks--frustrated individuals may be
tempted to crawl, on, over, under, or between stopped railcars and
blocked crossings can hinder emergency services' access to individuals
in need of fire, police, or EMS assistance. Residents of communities
through which railroads operate often rely on specific highway-rail
grade crossings for daily commutes and other essential activities.
Local knowledge of these crossings has developed over time, allowing
community members to navigate through those crossings safely and
efficiently. However, longer trains may, in certain instances, mean
that trains are occupying these crossings for longer periods,
potentially blocking access to homes, hospitals, schools, or
businesses, and causing unexpected disruptions. Local emergency
responders, such as police, fire, and ambulance services, can be
severely impacted if emergency responders must find an alternate route
when a train is blocking a crossing or if there is no alternative
route.
Longer trains may also present challenges for pedestrians as the
trains occupy pedestrian crossings for longer periods of time. Blocked
crossings near schools are especially critical safety hazards due to
the potential for children to cut through the idling trains.
Depending on the length of time that a crossing is blocked, the
type of vehicles at a blocked crossing, and the configuration of the
highway, motor vehicle drivers could be expected to take greater risks
and commit dangerous maneuvers in an attempt to seek an alternate
route. Motor vehicle drivers may also be more tempted to ``outrun the
train'' by speeding to cross the tracks before the oncoming train
reaches the crossing, particularly at locations that are frequently
blocked by trains. Although trains of any length may block highway-rail
grade crossings for a variety of reasons, the operation of longer
trains may, in certain instances, exacerbate the impact of blocked
crossings on communities. Accordingly, FRA recommends that railroads
identify geographic areas with highway-rail grade crossings that could
be impacted by longer trains, and work with local communities and
emergency responders to identify and implement methods of preventing,
or at least mitigating, the impacts of such blockages. These actions
could include: identifying alternative routes for critical emergency
response needs, establishing and maintaining clear lines of
communication between the railroad and local authorities, or developing
protocols for resolving concerns surrounding emergency response and
blocked crossings.
V. Recommended Actions
Due to the complexities involved in the operation of longer trains,
and to ensure the safety of the Nation's railroads, their employees,
and the general public, FRA recommends that freight railroads take the
following actions:
1. Review ABTH rules, or supplements, to ensure those rules
adequately address the complexities associated with the railroad's
operation of longer trains.
2. Implement technologies, policies, procedures, and/or any
necessary hardware enhancements to ensure two-way EOT devices maintain
undisrupted communications to and from the head-end and rear-end units.
Develop, implement, and maintain clear policies, procedures, and rules
that address instances of the loss of communications between EOT
devices.
3. Adopt enhanced technologies and/or procedures for maintaining
radio voice communications with a contingency plan if voice
communications are lost between operating employees.
4. Identify changes to crew training, train handling procedures,
train makeup, DPU requirements, limitations to length or tonnage, speed
restrictions, track, mechanical, and brake inspection and maintenance
requirements necessary to ensure safe operations of longer trains.
5. Review, and update as necessary, each railroad's current 49 CFR
part 240 locomotive engineer certification program to ensure the
program addresses all levels of operations, including the operation of
longer trains.
6. Review and evaluate existing operational testing data as
required by 49 CFR 217.9(e) relevant to the operation of longer trains.
If longer train operations are conducted, or if any potential training
or compliance issues are identified, consider increasing the frequency
of operational testing and/or modifying the types of operational
testing performed to address those deficiencies.
7. Identify geographic areas that could be impacted by longer
trains at highway-rail grade crossings, take action to minimize blocked
crossings by considering train length when taking any action that
causes any part of a train to occupy a crossing, and work with local
communities and emergency responders to prevent or at least mitigate
the impacts of blocked crossings should they occur.
8. Conduct post-accident simulator evaluations and assign accurate
primary and contributing cause codes for reportable and accountable
accidents and incidents. A detailed narrative is basic to an
understanding of the factors leading to, and the consequences arising
from, an accident.
FRA encourages freight railroads to take actions consistent with
the preceding recommendations. FRA may modify this Safety Advisory
2023-03, issue additional safety advisories, or take other appropriate
action necessary to ensure the highest level of safety on the Nation's
railroads, including pursing other corrective measures under its rail
safety authority.
Issued in Washington, DC.
Amitabha Bose,
Administrator.
[FR Doc. 2023-09239 Filed 5-1-23; 8:45 am]
BILLING CODE 4910-06-P