Passenger Equipment Safety Standards
Federal RegisterMay 12, 1999
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SUMMARY: FRA is issuing comprehensive Federal safety standards for
railroad passenger equipment. The purpose of these safety standards is
to prevent collisions, derailments, and other occurrences involving
railroad passenger equipment that cause injury or death to railroad
employees, railroad passengers, or the general public; and to mitigate
the consequences of any such occurrences, to the extent they cannot be
prevented. The final rule promotes passenger train safety through
requirements for railroad passenger equipment design and performance;
fire safety; emergency systems; the inspection, testing, and
maintenance of passenger equipment; and other provisions for the safe
operation of railroad passenger equipment. The final rule addresses
passenger train safety in an environment where technology is advancing
and equipment is being designed for operation at higher speeds. The
final rule amends existing regulations concerning special notice for
repairs, safety glazing, locomotive safety, safety appliances, and
railroad power brakes as applied to passenger equipment.
The final rule does not apply to tourist and historic railroad
operations. However, after consulting with the excursion railroad
associations to determine appropriate applicability in light of
financial, operational, or other factors unique to such operations, FRA
may prescribe requirements for these operations that are similar to or
different from those affecting other types of passenger operations.
DATES: This regulation is effective July 12, 1999. The incorporation by
reference of certain publications listed in the rule is approved by the
Director of the Federal Register as of July 12, 1999.
ADDRESSES: Any petition for reconsideration should reference FRA Docket
No. PCSS-1, Notice No. 5, and be submitted in triplicate to the Docket
Clerk, Office of Chief Counsel, FRA, 1120 Vermont Avenue, Mail Stop 10,
Washington, D.C. 20590.
FOR FURTHER INFORMATION CONTACT: Ronald Newman, Staff Director, Motive
Power and Equipment Division, Office of Safety Assurance and
Compliance, FRA, 1120 Vermont Avenue, Mail Stop 25, Washington, D.C.
20590 (telephone: 202-493-6300); Daniel Alpert, Trial Attorney, Office
of Chief Counsel, FRA, 1120 Vermont Avenue, Mail Stop 10, Washington,
D.C. 20590 (telephone: 202-493-6026); or Thomas Herrmann, Trial
Attorney, Office of Chief Counsel, FRA, 1120 Vermont Avenue, Mail Stop
10, Washington, D.C. 20590 (telephone: 202-493-6036).
Supplementary Information:
Table of Contents for Supplementary Information
I. Introduction
II. Statutory Background
III. Passenger Equipment Safety Standards Working Group
IV. Proceedings to Date
V. Discussion of Specific Comments and Conclusions
A. Application of the final rule to rapid transit operations and
``light rail''
B. Static end strength requirement: application to existing
equipment
C. United States international treaty obligations
D. Non-conventional passenger equipment
E. System safety
F. Side exit doors on passenger cars
G. Fuel tank standards
H. Train interior safety
I. Fire safety
VI. Inspection and Testing of Brake Systems and Mechanical
Components
A. Background prior to 1997 NPRM
B. 1997 NPRM on Passenger Equipment Safety Standards
1. Proposed brake system inspections
2. Proposed mechanical inspections
3. Proposed qualification of inspection and testing personnel
C. Overview of comments relating to proposed inspection and
testing requirements
D. General FRA conclusions
1. Brake and mechanical inspections
2. Qualified maintenance person
3. Long-distance intercity passenger trains
VII. Movement of Defective Equipment
A. Background
B. Overview of 1997 NPRM
C. Discussion of comments on the 1997 NPRM and general FRA
conclusions
1. Movement of equipment with defective brakes
2. Movement of equipment with other than power brake defects
VIII. FRA's Passenger Train Safety Initiatives
IX. Section-by-Section Analysis
X. Regulatory Impact
A. Executive Order 12866 and DOT regulatory policies and
procedures
B. Regulatory Flexibility Act
C. Paperwork Reduction Act
D. Environmental impact
E. Federalism implications
F. Compliance with the Unfunded Mandates Reform Act of 1995
G. Effects on the Year 2000 computer problem
XI. List of Subjects
I. Introduction
Passenger railroads offer the traveling public one of the safest
forms of transportation available. In the eight-year period 1990-1997,
there were 0.89 passenger fatalities for every billion miles of
passenger transportation by rail. Nevertheless, collisions,
derailments, and other such occurrences continue to occur, often as a
result of factors beyond the control of the passenger railroad.
Further, the rail passenger environment is rapidly changing. Worldwide,
passenger equipment operating speeds are increasing. Passenger
trainsets designed to European safety standards have been proposed for
operation in the United States-and a few are in operation. Overall,
these trainsets do not meet the structural standards that are common
for passenger equipment operating in the United States. FRA believes
that adherence to such common standards by the nation's passenger
railroads has in large measure contributed to the high level of safety
at which rail passenger service is currently provided in the United
States. However, these standards generally do not have the force of
law.
Effective Federal safety standards for freight equipment have long
been in place, but equivalent Federal safety standards for passenger
equipment have not existed. Further, the Association of American
Railroads (AAR) currently sets industry standards for the design and
maintenance of freight equipment that add materially to the safe
operation of such equipment. However, over the years, the AAR has
discontinued the development and maintenance of industry standards for
railroad passenger equipment.
FRA must necessarily be vigilant in ensuring that passenger trains
continue to be designed, built, and operated with a high level of
safety. In general, the railroad operating environment in the United
States requires passenger equipment to operate commingled with very
heavy and long freight trains, often over track with frequent grade
crossings used by heavy highway equipment. European passenger
operations, on the other hand, are intermingled with freight equipment
of lesser weight than in North America. In many cases, highway-rail
grade crossings also pose lesser hazards to passenger trains in Europe
due to lower highway vehicle weight. FRA is concerned with the level
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of safety provided by passenger equipment designed to European and
other international standards when such equipment is operated in the
United States.
A clear set of Federal safety standards for railroad passenger
equipment is needed that is tailored to the nation's operating
environment in order to provide for the safety of rail operations in
the United States and to facilitate sound planning for these
operations. In furtherance of this safety objective, FRA is pleased by
the American Public Transit Association's (APTA) initiative to continue
the development and maintenance of voluntary industry standards for the
safety of railroad passenger equipment. These standards will complement
FRA's safety standards and, thus, will work together to provide an even
higher level of safety for rail passengers, rail employees, and the
public as a whole.
II. Statutory Background
In September, 1994, the Secretary of Transportation convened a
meeting of representatives from all sectors of the rail industry with
the goal of enhancing rail safety. As one of the initiatives arising
from this Rail Safety Summit, the Secretary announced that DOT would
begin developing safety standards for rail passenger equipment over a
five-year period. In November, 1994, Congress adopted the Secretary's
schedule for implementing rail passenger equipment regulations and
included it in the Federal Railroad Safety Authorization Act of 1994
(the Act), Pub. L. No. 103-440, 108 Stat. 4619, 4623-4624 (November 2,
1994). Section 215 of the Act, as now codified at 49 U.S.C. 20133,
requires:
(a) MINIMUM STANDARDS.--The Secretary of Transportation shall
prescribe regulations establishing minimum standards for the safety
of cars used by railroad carriers to transport passengers. Before
prescribing such regulations, the Secretary shall consider--
(1) the crashworthiness of the cars;
(2) interior features (including luggage restraints, seat belts,
and exposed surfaces) that may affect passenger safety;
(3) maintenance and inspection of the cars;
(4) emergency response procedures and equipment; and
(5) any operating rules and conditions that directly affect
safety not otherwise governed by regulations.
The Secretary may make applicable some or all of the standards
established under this subsection to cars existing at the time the
regulations are prescribed, as well as to new cars, and the
Secretary shall explain in the rulemaking document the basis for
making such standards applicable to existing cars.
(b) INITIAL AND FINAL REGULATIONS.--(1) The Secretary shall
prescribe initial regulations under subsection (a) within 3 years
after the date of enactment of the Federal Railroad Safety
Authorization Act of 1994. The initial regulations may exempt
equipment used by tourist, historic, scenic, and excursion railroad
carriers to transport passengers.
(2) The Secretary shall prescribe final regulations under
subsection
(a) within 5 years after such date of enactment.
(c) PERSONNEL.--The Secretary may establish within the
Department of Transportation 2 additional full-time equivalent
positions beyond the number permitted under existing law to assist
with the drafting, prescribing, and implementation of regulations
under this section.
(d) CONSULTATION.--In prescribing regulations, issuing orders,
and making amendments under this section, the Secretary may consult
with Amtrak, public authorities operating railroad passenger
service, other railroad carriers transporting passengers,
organizations of passengers, and organizations of employees. A
consultation is not subject to the Federal Advisory Committee Act (5
U.S.C. App.), but minutes of the consultation shall be placed in the
public docket of the regulatory proceeding.
The Secretary of Transportation has delegated these rulemaking
responsibilities to the Federal Railroad Administrator. 49 CFR 1.49(m).
III. Passenger Equipment Safety Standards Working Group
Consistent with the intent of Congress that FRA consult with the
railroad industry in prescribing these regulations, FRA invited various
organizations to participate in a working group to focus on the issues
related to railroad passenger equipment safety and assist FRA in
developing Federal safety standards. The Passenger Equipment Safety
Standards Working Group (or the ``Working Group'') first met on June 7,
1995, and has assisted FRA throughout the rulemaking process. Since its
initial meeting, the Working Group has evolved so that its membership
includes representatives from the following organizations:
American Association of Private Railroad Car Owners, Inc. (AAPRCO)
American Association of State Highway and Transportation Officials
(AASHTO)
APTA
AAR
Brotherhood of Locomotive Engineers (BLE)
Brotherhood Railway Carmen (BRC)
FRA
Federal Transit Administration (FTA) of DOT
National Railroad Passenger Corporation (Amtrak)
National Association of Railroad Passengers (NARP)
Railway Progress Institute (RPI)
Safe Travel America (STA)
Transportation Workers Union of America (TWU)
United Transportation Union (UTU), and
Washington State Department of Transportation (WDOT)
The Working Group is chaired by FRA, and supported by FRA program,
legal, and research staff, including technical personnel from the Volpe
National Transportation Systems Center (Volpe Center) of the Research
and Special Programs Administration of DOT. FRA has included vendor
representatives designated by RPI as associate members of the Working
Group. FRA has also included the AAPRCO as an associate Working Group
member. The National Transportation Safety Board (NTSB) has designated
staff members to advise the Working Group.
In developing proposed safety standards for passenger equipment
operating at speeds greater than 125 mph but not exceeding 150 mph, FRA
formed a subgroup (the ``Tier II Equipment Subgroup'') of Working Group
members representing interests associated with the provision of rail
passenger service at such high speeds. The full Working Group
recommended the formation of a smaller subgroup to consider Tier II
passenger equipment standards, as a number of Working Group members
found the operation of high-speed passenger equipment to be outside
their immediate interest and expertise. FRA invited representatives
from organizations including Amtrak, the BLE, BRC, RPI, and UTU to
participate in developing the Tier II standards.
In accordance with 49 U.S.C. 20133(d), the evolving positions of
the Working Group members--as reflected in the minutes of the group's
meetings and associated documentation, together with data provided by
the members during their deliberations--have been placed in the public
docket of this rulemaking.
IV. Proceedings to Date
On June 17, 1996, FRA published an Advance Notice of Proposed
Rulemaking (ANPRM) concerning the establishment of comprehensive safety
standards for railroad passenger equipment (61 FR 30672). The ANPRM
provided background information on the need for such standards, offered
preliminary ideas on approaching passenger safety issues, and presented
questions on various topics including: system safety programs and
plans; passenger equipment crashworthiness;
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inspection, testing, and maintenance requirements; training and
qualification requirements for mechanical personnel and train crews;
excursion, tourist, and private equipment; commuter equipment and
operations; train make-up and operating speed; tiered safety standards;
fire safety; and operating practices and procedures.
FRA's commitment to developing proposed regulations through the
Working Group necessarily influenced the role and purpose of the ANPRM.
FRA specifically asked that members of the Working Group not respond
formally to the ANPRM. The issues and ideas presented in the ANPRM had
already been placed before the Working Group, and the Working Group had
commented on drafts of the ANPRM. As a result, FRA solicited the
submission of written comments that might be of assistance in
developing a proposed rule from interested persons not involved in the
Working Group's deliberations.
FRA received 12 comments in response to the ANPRM. These comments
were shared with the Working Group and were taken into consideration by
the members of the group as they advised FRA during the development of
a Notice of Proposed Rulemaking (NPRM). The Working Group worked
intensively, and concluded with a meeting in Philadelphia on September
30-October 2, 1996. Working Group members agreed to the preparation of
a NPRM reflecting partial consensus on a number of the issues in the
rulemaking. However, the industry parties were unable to agree on any
option with respect to inspection requirements for power brakes or
daily inspection of equipment. Further, one labor organization later
advised FRA that it could not participate in a consensus on less than
the full range of issues in the rulemaking.
FRA prepared in draft an NPRM and shared it with the Working Group
members on March 19, 1997. The NPRM was then enriched with discussions
of issues and options reflecting concerns of Working Group members in
response to the draft, and some changes were incorporated into the
proposed rule.
On September 23, 1997, FRA published the NPRM (1997 NPRM) in the
Federal Register to add a new part, 49 CFR part 238 (Passenger
Equipment Safety Standards), and to amend 49 CFR parts 216 (Special
Notice and Emergency Order Procedures: Railroad Track, Locomotive and
Equipment), 223 (Safety Glazing Standards--Locomotives, Passenger Cars
and Cabooses), 229 (Railroad Locomotive Safety Standards), 231
(Railroad Safety Appliance Standards), and 232 (Railroad Power Brakes
and Drawbars). 62 FR 49728. The proposed part 238 set forth
comprehensive Federal safety standards for the safety of railroad
passenger equipment, including equipment design and performance
standards for passenger and crew survivability in the event of a
passenger train accident, as well as inspection, testing, and
maintenance standards for passenger equipment.
The 1997 NPRM generated written comments from 34 separate parties,
and all of these comments may be found in the public docket of the
rulemaking. The written comments included a request by the New York
Department of Transportation (NYDOT) to extend the comment period for
90 days. The NYDOT sought this additional time to more thoroughly
review the proposed rule, and secure expert testimony and empirical
data on the proposed rule's possible impact on the high-speed intercity
rail passenger program in the State of New York. FRA did not grant the
request, however, particularly because FRA had planned to convene the
Working Group in the interim and needed to assemble the comments on the
rule for discussion within the Working Group. FRA asked the NYDOT to
submit its comments by the close of the comment period on November 24,
1997, and it did so. FRA did explain to the NYDOT that it would
consider comments submitted after the formal close of the comment
period to the extent possible without incurring additional expense or
delay in issuing the final rule, and FRA has done so.
FRA held a public hearing on the proposed rule in Washington, D.C.
on November 21, 1997, at which nine parties submitted oral comments.
These parties consisted of: APTA; the BRC; the BLE; Amtrak; Renfe Talgo
of America, Inc. (Talgo); WDOT; NARP; the Omniglow Corporation; and The
Institute of Electrical and Electronics Engineers, Inc. (IEEE). A copy
of the transcript of this hearing is available in the public docket of
this rulemaking.
As noted earlier, FRA convened the Passenger Equipment Safety
Standards Working Group following the close of the comment period to
consider the comments received in response to the 1997 NPRM and help
develop the final rule. This continued the consultative process FRA has
used throughout the rulemaking. Notice of the Working Group meetings
was available through the FRA Docket Clerk, as stated in the NPRM, see
62 FR 49729, and the meetings were open to the public.
The Working Group met in full in Washington, D.C., on December 15-
16, 1997. A smaller body of the Working Group met again on January 6,
1998, to discuss in particular high-speed passenger equipment safety
issues, as well as brake inspection, testing and maintenance issues for
long-distance intercity passenger trains. Minutes of these meetings,
including copies of the discussion documents circulated at the
meetings, are available in the public docket of the rulemaking. See 63
FR 28496; May 26, 1998. FRA received one set of written comments on the
minutes of the meetings, which FRA had prepared, and these comments are
also available in the same docket.
V. Discussion of Specific Comments and Conclusions
A. Application of the Final Rule to Rapid Transit Operations and
``Light Rail''
In the 1997 NPRM, FRA proposed applying the rule to rapid transit
operations in an urban area, unless those operations are not connected
with the general system of railroad transportation. In other words, FRA
made clear that its rule would apply to rapid transit operations over
the general system. The Utah Transit Authority (UTA), in commenting on
the NPRM, expressed concern with the inclusion of rapid transit
operations, including light rail transit, in the proposed rule. The UTA
stated that the rule provided no definition of what is meant by the
phrase ``not connected with the general railroad system of
transportation.'' As a result, the UTA requested that the final rule
provide such a definition. Further, the UTA requested that any such
definition take into account rail operations that are time-separated or
physically separated (using derails and electric locks), or both, so
that under such circumstances rapid transit systems would not be
considered connected with the general railroad system of transportation
and, therefore, be excluded from the rule.
In response to the 1997 NPRM, New Jersey Transit (NJT) commented
that by permitting FRA to rule on whether a transit agency may operate
light rail service over a freight right-of-way, FRA's jurisdiction
would be expanded in conflict with FTA's mandate in 49 C.F.R. part 659.
NJT explained that the Intermodal Surface Transportation Efficiency Act
of 1991, Public Law 102-240, and 49 C.F.R. part 659 promulgated in its
pursuance, required states to designate an agency of the state, other
than a transit agency, to oversee and implement requirements concerning
all fixed-guideway systems not under FRA's jurisdiction.
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The safety jurisdictions of FRA and FTA are mutually exclusive.
FTA's regulatory authority to issue regulations creating a state safety
oversight program applies only to ``rail fixed guideway mass
transportation systems not subject to regulation by the Federal
Railroad Administration.'' 49 U.S.C. 5330(a). Consistent with DOT
Secretary of Transportation Rodney Slater's concept of One-DOT and the
need to assure seamless application of intermodal transportation
policies, FRA and FTA are jointly developing a proposed policy
statement outlining the scope of FRA's jurisdiction over ``light rail''
operations that share the use of rights-of-way with conventional
railroads. As discussed later in this document, the two agencies will
be soliciting input from rail operators and other interested entities
during the development of this policy statement.
FRA's safety jurisdiction is very broad and extends to all types of
railroads except for urban rapid transit operations not connected to
the general railroad system. The term ``railroad'' is defined by
statute as follows:
In this part--
(1) ``railroad''--
(A) Means any form of nonhighway ground transportation that runs
on rails or electromagnetic guideways, including--
(i) Commuter or other short-haul railroad passenger service in a
metropolitan or suburban area and commuter railroad service that was
operated by the Consolidated Rail Corporation on January 1, 1979;
and
(ii) High speed ground transportation systems that connect
metropolitan areas, without regard to whether those systems use new
technologies not associated with traditional railroads; but
(B) does not include rapid transit operations in an urban area
that are not connected to the general railroad system of
transportation.
49 U.S.C. 20102.
The statutory definition of the term ``railroad'' makes certain
elements of FRA's safety jurisdiction quite clear:
FRA, with one exception, has jurisdiction over all
railroads regardless of the type of equipment they use, their
connection to the general railroad system of transportation, or their
status as a common carrier engaged in interstate commerce. FRA will,
for example, assert jurisdiction over high-speed intercity rail service
even if completely separated from the general railroad system that now
exists and magnetic levitation systems that are not urban rapid
transit.
Commuter and other short-haul railroad passenger
operations in a metropolitan or suburban area (except for one type of
short-haul operation, i.e., urban rapid transit) are railroads within
FRA's jurisdiction whether or not they are connected to the general
railroad system. For operations on or over the general system, the
commuter/rapid transit distinction has no jurisdictional relevance--all
general system operations are within FRA's exercise of jurisdiction.
Because the only urban rapid transit operations that FRA intends to
cover under this rule are those on the general system, there is no need
to expand on the commuter/rapid transit distinction here.
Rapid transit operations in an urban area that are not
connected to the general railroad system are not within FRA's
jurisdiction. This is the sole exception to FRA's jurisdiction over all
railroads. There is no exception for ``light rail,'' a term not found
in the statute. Although FRA could assert jurisdiction over a rapid
transit operation based on any connection it has to the general
railroad system, FRA believes there are certain connections that are
too minimal to warrant the exercise of its jurisdiction. For example, a
rapid transit system that has a switch for receiving shipments from the
general system railroad is not one over which FRA would assert
jurisdiction. This assumes that the switch is used only for that
purpose. In that case, any entry onto the rapid transit line by the
freight railroad would be for a very short distance and solely for the
purpose of dropping off or picking up cars. In this situation, the
rapid transit line is in the same situation as any shipper or
consignee; without this sort of connection, it cannot receive goods by
rail. Absent a change in policy, FRA will not attempt to apply this
rule to rapid transit systems with these sorts of connections. However,
if such a system is properly considered a rail fixed guideway system,
FTA's rules (49 CFR 659) will apply to it.
Rapid transit operations in an urban area that are
connected to the general railroad system of transportation are within
FRA's jurisdiction. FRA will assert jurisdiction over a rapid transit
operation that is conducted on or over the general system. It does not
matter that the rapid transit operation occupies the track only at
times when the freight, commuter, or intercity passenger railroad that
shares the track is not operating. While such time separation could, as
explained in the 1997 NPRM, provide the basis for waiver of certain of
FRA's rules, it does not mean that FRA will not assert jurisdiction.
However, FRA will assert jurisdiction over only the portions of the
rapid transit system that are conducted on the general system. For
example, a rapid transit line that operates over the general system for
a portion of its length but has significant portions of street railway
that are not part of the general system would be subject to FRA's rules
only with respect to the general system portion. The remaining portions
would not be subject to FRA's rules. If the non-general system portions
of the rapid transit line are considered a ``rail fixed guideway
system'' under 49 CFR part 659, those rules, issued by FTA, would apply
to them.
As discussed above, it is the nature and location of the railroad
operation, not the nature of the equipment, that determines whether FRA
has jurisdiction under the safety statutes. Light rail operations that
operate on the general system are always within that statutory
jurisdiction. They are not within the sole statutory exception (urban
rapid transit not connected to the general system) so they are
railroads under the safety statutes. The greatest risk inherent in the
shared use of the trackage is a collision between the light rail
equipment and conventional equipment. The light rail vehicles are not
designed to withstand such a collision with far heavier equipment. Were
such a crash to occur with either or both equipment operating at high
speeds, the consequences for passengers in the light rail vehicle(s)
would likely be catastrophic.
In the past, FRA has withheld exercise of its jurisdiction with
respect to light rail operations over general system trackage where
there was full time separation (freight operations limited to nighttime
hours). The recent proliferation of proposals for light rail operations
on the general system and the issuance of this final rule establishing
the first comprehensive Federal standards for railroad passenger
equipment call for changing this approach. Moreover, recent
developments have indicated that FRA's current approach assumes a
degree of separation that is unlikely to be maintained over time.
Proposals for limited overlap, deadhead movement of transit equipment,
etc., have demonstrated the complexity of using common trackage for
disparate purposes. Accordingly, FRA has asked that new transit starts
that propose using the general rail system trackage submit appropriate
waiver applications to FRA; such applications should be submitted as
early as possible. As previously noted, FTA and FRA are working toward
the development of a joint policy statement on the appropriate scope of
FRA's jurisdiction over ``light rail'' that shares rights-of-way with
conventional railroads. The agencies foresee an approach intended
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to dovetail FRA's safety regulations with the FTA state safety
oversight program where that is appropriate and FTA jurisdiction is
applicable. The agencies would work together to ensure coordination of
decision making. Before general implementation, the policy statement
will be discussed with the affected communities of interest and may be
published (together with any needed regulatory amendments) for formal
comment in the Federal Register. At the same time this joint policy is
issued, FRA plans to issue a separate proposed statement of policy
that, among other things, will provide guidance on how light rail
operators may seek waivers of FRA's rules. In the interim, the policy
expressed in this preamble will guide FRA's actions with respect to
this rule (subject to an appropriate period of consultation and
adjustment with respect to the two time-separated shared use projects
currently in operation).
FRA does, however, recognize that lower speed rail operations that
do not operate over highway-rail grade crossings and that totally
preclude the sharing of trackage between light rail equipment and
conventional equipment provide an operating environment that does not
require the structural standards needed for commingled passenger and
freight operations. Accordingly, the final rule (in Sec. 238.201)
provides that passenger equipment, including locomotives, are not
subject to the structural requirements of the rule if they are used
exclusively on a rail line (A) with no public highway-rail grade
crossings, (B) on which no freight operations occur at any time, (C) on
which only passenger equipment of compatible design is utilized, and
(D) on which trains operate at speeds no higher than 79 mph. FRA will
discuss with the Working Group in Phase II of the rulemaking what
structural standards are appropriate for such operations.
B. Static End Sstrength Requirement: Application to Existing Equipment
In Sec. 238.203 of the 1997 NPRM, FRA generally proposed that on or
after January 1, 1998, all passenger equipment shall be required to
have a minimum static end strength (or ``buff'' or ``compressive''
strength) of 800,000 pounds. As some commenters recognized, FRA
intended the date of January 1, 1998, to represent the effective date
of the final rule. Yet, in light of the actual publication date of the
1997 NPRM, the date of January 1, 1998, appeared anachronistic, and FRA
should have modified the NPRM to make its intent more explicit. A
number of commenters nonetheless raised concerns with the application
of this section-whether the date were January 1, 1998, or later-since
FRA proposed to apply the static end strength requirement to existing
passenger equipment.
APTA recommended, in its comments on the rule, that FRA modify the
proposal so that the requirement apply on or after the effective date
of the final rule to passenger equipment placed in service for the
first time. APTA stated that the AEM-7 locomotive and the RTG model
turbo train could not meet the requirement as proposed. APTA estimated
that the purchase of replacement equipment could take up to four years
and would cost more than $500 million.
Amtrak commented that the proposed requirement to have buff loading
apply to the existing rail fleet is not justified based on the
industry's experience. Amtrak did agree that, in order to move the
industry forward on crash energy management, new equipment must be
built to a uniform strength standard. Amtrak stated that it currently
operates AEM-7 locomotives that do not meet the proposed requirement.
In addition, Amtrak was not sure it had available the appropriate
technical information on whether its fleet of Heritage equipment
conformed to the proposal. At the public hearing, though, Amtrak did
explain that it had no evidence that its fleet of passenger cars did
not comply with the proposal. (See transcript of public hearing, pages
173-174).
The Northeast Illinois Regional Commuter Railroad Corporation
(Metra), in its comments on the rule, recommended that the static end
strength provision apply only to new passenger equipment orders placed
on or after January 1, 1998. Metra explained that it was awaiting
delivery of cars under construction, that some of the cars may be built
after January 1, 1998, and that a change order would cause a series of
problems.
In commenting on the 1997 NPRM, Talgo expressed concern that FRA
proposed applying the static end strength requirement to existing
passenger equipment in service on or after January 1, 1998. Talgo
stated that this proposal would render unusable its two trainsets then
in service on lease to the WDOT. Additionally, Talgo explained that it
was well underway in manufacturing five new trainsets--two for the
WDOT, one for Amtrak, and two others for future sale in the U.S.
market--that would likewise be rendered unusable in their current form.
Talgo stated that neither it nor any other manufacturer of rail
equipment could have anticipated the proposed regulation's immediate
application of broad structural design changes. Citing discussions
within the Working Group and the comments of other parties, Talgo
asserted that other passenger equipment manufacturers and operators
likewise assumed that modifications in basic structural standards would
be applicable only to equipment purchased after January 1, 1999, or
placed in service after January 1, 2001, and that much existing
passenger equipment operating in the United States would be unable to
comply with the structural requirements scheduled for early
implementation. Talgo also stated that FRA did not properly identify
the economic impact of its proposal on Talgo equipment. Talgo requested
that FRA modify the rule so that the static end strength requirement
and other structural requirements apply only to passenger equipment
ordered on or after January 1, 1999, or placed in service for the first
time on or after January 1, 2001.
The WDOT commented that FRA's proposal appeared to be directly
targeted at the State of Washington and Amtrak's purchase of Talgo
trains under manufacture. WDOT stated that imposition of the proposal
in the middle of the construction process, without ``grandfathering,''
appeared to reveal an effort to make its Talgo equipment non-compliant.
WDOT recommended that the rule be modified so that the static end
strength provision only apply to passenger equipment ordered after
January 1, 1999. The NARP, in its comments on the proposed rule, shared
WDOT's opposition to imposing the static end strength requirement on
existing passenger equipment, and it recommended instead applying the
requirement under a time-table similar to that proposed generally for
structural requirements--i.e., ordered on or after January 1, 1999, or
placed in service for the first time on or after January 1, 2001. The
NARP believed that the proposal could cancel WDOT's rail passenger
program and thereby lead to countless, unnecessary highway deaths
involving people that otherwise would have been on a WDOT passenger
train.
In commenting on the 1997 NPRM, the State of Vermont Agency of
Transportation (VAOT) explained that it was in the process of
implementing new passenger rail service with used rail diesel cars
manufactured by Budd. The cars were originally built to meet the AAR
buff strength requirement, according to the VAOT, but it could not
assure that the vehicles meet the standards today. The VAOT requested
that the Budd cars be grandfathered because they were manufactured to
AAR standards, built prior to April 1,
[[Page 25545]]
1956, and have a proven service record. The VAOT believed it fair for
the rulemaking to grandfather these cars as being compliant at the time
ordered by VAOT. Similarly, the NYDOT recommended in its comments on
the proposed rule that the structural requirements apply only to new
equipment, citing its intent to operate rebuilt turboliner equipment in
the Empire Corridor through a cooperative effort with FRA and Amtrak.
Further, the North Carolina Department of Transportation (NCDOT)
expressed concern in its comments on the proposed rule that the
rulemaking would require its fleet of rebuilt passenger, food service
and specialty cars to undergo additional renovations and retrofitting
to comply with the rule. NCDOT commented that its trainsets were
designed to meet the passenger equipment safety standards in effect at
the time of their order, and that the proposed regulation has the
potential to thwart its rail passenger initiative.
In the final rule, FRA is retaining the 800,000-pound static end
strength requirement for most new and existing passenger equipment.
However, the final rule does provide that the static end strength
standard and other structural standards do not apply to equipment used
exclusively on a rail line (A) with no public highway-rail grade
crossings, (B) on which no freight operations occur at any time, (C) on
which only passenger equipment of compatible design is utilized, and
(D) on which trains operate at speeds no higher than 79 mph. See
Sec. 238.201. Furthermore, the final rule creates a presumption that
passenger equipment in service in the United States as of the effective
date of the final rule meets the 800,000-pound static end strength
requirement, unless the railroad operating the equipment knows, or FRA
can show, that the equipment was not built to this 800,000-pound
strength requirement. See Sec. 238.203(b). Under this formulation, for
example, Amtrak's fleet of Heritage passenger cars are presumed to
comply with the static end strength requirement on the basis of
Amtrak's testimony at the public hearing on the NPRM.
FRA has decided that it is in the best interest of safety to apply
the buff strength requirement to existing passenger equipment and
effectively regulate the use of passenger equipment not possessing at
least 800,000 pounds of buff strength as specified in this rule. As
noted, the operating environment in the United States requires railroad
passenger equipment to operate commingled with heavy and long freight
trains, often over track with frequent grade crossings used by heavy
highway equipment. FRA has serious concerns about the operation in such
an environment of passenger equipment not possessing a minimum buff
strength of 800,000 pounds. As a result, and in response to Talgo's and
WDOT's comments on this rule, FRA cannot avoid directly addressing the
current operation in the United States of the passenger trainsets
manufactured by Talgo unless FRA disregards its duty to provide for the
safety of rail passenger transportation. Since FRA has raised the issue
of compressive strength on passenger equipment with all affected
parties since well before the inception of this rulemaking, it would
strain credulity to assert that a requirement for 800,000 pounds of
compressive strength could truly be a matter of surprise in a
rulemaking on railroad passenger equipment safety.
Making the 800,000-pound compressive strength requirement
applicable to existing passenger equipment creates a bright line that
will help bring needed clarity to the growing number of situations
where light rail equipment is likely to be used on the general railroad
system of transportation. Operation on the general system of this
equipment, which is built to standards far lower than the 800,000-pound
standard specified in this rule, presents enormous safety risks to the
occupants of the equipment, absent imposition of strict conditions
designed to virtually eliminate the risk of a light rail/conventional
equipment collision. The need to address these risks as a condition of
operation will be made perfectly clear by imposition of the buff
strength requirement across the board. Light rail operators will have
to seek a waiver of the requirement and will have to plan their
operations in such a way as to maximize the likelihood of obtaining
such a waiver. (A petition for grandfathering approval of the equipment
could also be filed in certain cases, as discussed below.)
In regulating the use of passenger equipment not possessing a
minimum buff strength of 800,000 pounds as specified in this final
rule, the rule permits non-compliant passenger equipment to be
continued in service for a six-month period following publication of
the rule in order to permit the filing of a grandfathering petition
with FRA; if a petition is filed within this six-month period,
operation may continue for up to an additional six months while the
petition is being processed. Grandfathering approval of non-compliant
equipment is limited to usage of the equipment on a particular rail
line or lines. Before grandfathered equipment can be used on another
rail line, a railroad must first file and secure approval of a
grandfathering petition for such usage. See discussion under
Sec. 238.203 for the contents of the petition and the approval process.
FRA will approve a petition for ``grandfathering'' if it complies with
the requirements of Sec. 238.203 and the proposed usage of the
equipment is in the public interest and consistent with railroad
safety. Amtrak and WDOT may file petitions for grandfathering approval
of their Talgo-manufactured passenger equipment, in accordance with the
requirements of Sec. 238.203.
C. United States International Treaty Obligations
The United States is a party to the General Agreement on Tarriffs
and Trade (GATT). One of the GATT agreements is the Agreement on
Technical Barriers to Trade (TBT), originally concluded in 1979 and
approved by the United States Congress in the Trade Agreements Act of
1979, Pub. L. No. 96-39 (July 26, 1979). A new TBT Agreement was
reached as a result of the 1994 Uruguay Round of GATT multinational
trade negotiations, and subsequently approved by the United States
Congress in the Uruguay Round Agreements Act, Pub. L. No. 103-465
(December 8, 1994). The TBT Agreement seeks to avoid creating
unnecessary obstacles to trade, while recognizing the right of
signatory countries to establish and maintain technical regulations for
the protection of human, animal, and plant life or health. The TBT
Agreement has been codified into law at 19 U.S.C. 2531 et seq.
In commenting on the NPRM, Talgo believed that a number of the
proposed structural standards were inconsistent with the TBT Agreement
in that domestic industry would be favored by adopting the de facto
standards of North American passenger equipment. Talgo stated that many
requirements in the proposed rule seem to have been developed
exclusively with domestically-manufactured equipment in mind,
``arbitrarily making compliance with the rules by other, non-U.S.
manufactured equipment--such as Talgo equipment--extremely difficult.''
Talgo also asserted that domestic industry would be favored under the
implementation schedule of the rule by noting FRA's statements in the
NPRM that several of the proposed structural requirements chosen for
early implementation reflect the current construction practice for
North American passenger equipment. Talgo contended that the
implementation
[[Page 25546]]
schedule disregards that, solely because imported equipment has been
designed differently, it cannot satisfy the requirements at once.
FRA believes that this final rule is consistent with the United
States' obligations under the TBT Agreement, and that Talgo's concerns
arise, in part, from a misunderstanding of FRA's use of the term
``North American passenger equipment.'' Article 2.1 of the TBT
Agreement, cited by Talgo in its comments, states:
Members shall ensure that in respect of technical regulations,
products imported from the territory of any Member shall be accorded
treatment no less favorable than that accorded to like products of
national origin and to like products originating in any other
country.
A ``technical regulation'' refers to mandatory product standards, and
FRA agrees with Talgo that the structural standards in this rule fall
under this definition. See Annex 1 to the TBT Agreement, ``Terms and
Their Definitions for the Purpose of this Agreement, 1.'' However, the
impact of this rule on Talgo passenger equipment, specifically its
passenger cars, has nothing to do with the fact that the equipment
originates in a foreign country, Spain, as opposed to the United
States.
Through this rule, FRA is not favoring rail passenger cars that are
domestically manufactured over those of foreign origin since, as far as
FRA is aware, there is currently no domestic manufacturer of rail
passenger cars in the United States. (The General Electric Company and
the General Motors Corporation manufacture locomotives in the United
States--not rail passenger cars; and neither entity is being favored by
FRA in this rule over foreign manufacturers of locomotives.) Of course,
a significant portion of the nation's rail passenger car fleet--the
oldest portion--has been manufactured in the United States. Yet, over
the years, manufacturers from Japan, Canada, and other countries have
exported passenger cars to the United States for service on the
nation's railroads. Overall, these imported rail passenger cars have
possessed the same minimum structural strength as their domestic
forebearers; they have been constructed to standards that are common to
North American passenger equipment, i.e., passenger equipment operated
in North America. The five Talgo trainsets noted earlier have not been
so constructed. FRA's use of the term North American passenger
equipment (or United States passenger equipment, for that matter) was
not intended to refer to passenger equipment manufactured in North
America in distinction to passenger equipment manufactured elsewhere.
Talgo also commented that, to a significant extent, the proposed
requirements were design-based and phrased in a number of places in
variables dependent on design rather than performance. In this regard,
Talgo believed the proposed rule violates Article 2.8 of the TBT
Agreement, which states: ``Wherever appropriate, Members shall specify
technical regulations based on product requirements in terms of
performance rather than design or descriptive characteristics.'' Talgo
asserted that the rule can and should be stated in terms of variables
relating to the performance of the equipment rather than its design,
and that the rule should accommodate different engineering designs,
such as its articulated, lightweight trainsets.
The principal structural requirement of the final rule, which
existing Talgo-manufactured passenger cars do not meet, is in fact a
performance-based requirement. As further specified in Sec. 238.203,
the rule requires that new and existing passenger cars must possess a
minimum static end strength of 800,000 pounds. The rule does not
dictate how a passenger car must be constructed to meet this
requirement, as long as the car can resist the specified 800,000-pound
load. This formulation is consistent with the requirements of 19 U.S.C.
2532(3), which states:
Performance Criteria.--Each Federal agency shall, if
appropriate, develop standards based on performance criteria such as
those relating to the intended use of a product and the level of
performance that the product must achieve under defined conditions,
rather than on design criteria, such as those relating to physical
form of the product or the types of material of which the product is
made.
(Of course, the rule does require that the body structure of a
passenger car be designed, to the maximum extent possible, to fail by
buckling or crushing, or both, of structural members when overloaded in
compression rather than by fracture of structural members or failure of
structural connections. See Sec. 238.203(c). Yet, in any regard, FRA
believes it unsafe to design a passenger car to fail first by fracture
of structural members or failure of structural connections, as the
ability of the car structure to absorb collision energy is negated.)
FRA recognizes that the five Talgo trainsets were designed to
international standards that require lesser compressive strength. Talgo
has pointed out that these trainsets will be configured in the same
manner as two leased trainsets formerly operated in the State of
Washington. These trains are intended to be pulled by a conventional
locomotive and have unoccupied units at the front and rear of the
trainsets which are available to absorb initial crash energy. Talgo
contends that this configuration provides equivalent protection from
loss of occupied volume in a rear-end or head-on collision when
compared with conventional cars which would be occupied by passengers
or crew. FRA has provided a process for WDOT and others to secure
grandfathering approval regarding the compressive strength requirement
for passenger equipment placed in use prior to November 8, 1999, as
previously noted. However, as explained below, FRA is unable to relax
the minimum compressive strength requirement for passenger equipment
simply on the basis of train configuration, since to do so would
diminish the safety provided for the rail travelling public as a whole.
FRA believes the minimum static end strength requirement in the
final rule is not inconsistent with the TBT Agreement, in that it
fulfills FRA's objective of protecting human safety and only restricts
the use of equipment not meeting that objective because of the
performance of the equipment--not because of the origin of the
equipment. In this regard, 19 U.S.C. 2531(b) provides in part:
No standards-related activity of any * * * Federal agency * * *
shall be deemed to constitute an unnecessary obstacle to the foreign
commerce of the United States if the demonstrable purpose of the
standards-related activity is to achieve a legitimate domestic
purpose including * * * the protection of legitimate health or
safety * * * and if such activity does not operate to exclude
imported products which fully meet the objectives of such activity.
Having a passenger car possess a minimum compressive strength of
800,000 pounds, along with other features, has evolved as a result of a
long history of efforts by railroads and suppliers to learn the hard
lessons taught by a difficult operating environment in the United
States. Passenger train collisions and derailments may occur in a
variety of different scenarios and implicate structural features of
passenger equipment in similarly numerous ways. The rule cannot be
applied in a general way to both (1) except any consist of passenger
cars from the same compressive strength requirements applicable to all
other passenger cars solely because the passenger car consist is
buffered at each end by an unoccupied car and linked by articulated
connections, and (2) provide
[[Page 25547]]
for the safety of the occupants of passenger cars.
Further, over the past few years, FRA has funded the most extensive
and detailed research and analysis ever conducted by a public body in
the United States concerning passenger car safety. That effort has
included attention to international practice, particularly for high-
speed equipment. However, given existing data and analysis, FRA is
unable to specify an alternate performance standard for passenger car
compressive strength that would meet FRA's safety objectives and be
equally applicable to passenger cars of any design that might some day
be proffered for use in the United States. Nor, so far as FRA is aware,
has any government or international body achieved a similar feat.
Certainly doing so within the time available to issue standards under
the 1994 statutory mandate would not have been possible.
FRA notes that Talgo further commented that the early
implementation dates proposed for certain structural requirements are
inconsistent with Article 2.12 of the TBT Agreement in that a
sufficient amount of time would not be provided foreign producers to
modify their products' design or manufacturing processes to comply with
new or significantly revised regulatory requirements. Article 2.12
provides:
Except in those urgent circumstances referred to in [Article 2]
paragraph 10 [of the TBT Agreement], Members shall allow a
reasonable interval between the publication of technical regulations
and their entry into force in order to allow time for producers in
exporting Members * * * to adapt their products or methods of
production to the requirements of the importing Member.
In the final rule, the compressive strength requirement takes effect
sooner than any other principal structural requirement, and it applies
to both new and existing passenger cars and locomotives. If any
provision of the rule were found to be inconsistent with Article 2.12
of the TBT Agreement, then, it would most likely be the compressive
strength requirement. However, the United States Congress has expressly
authorized applying the requirements of the final rule to existing
passenger cars, provided only that the basis for doing so is explained
in the rulemaking document. See Section 215 of the Federal Railroad
Safety Authorization Act of 1994, above, as codified at 49 U.S.C. 20133
(``The Secretary may make applicable some or all of the standards
established under this subsection [, 49 U.S.C. 20133(a),] to cars
existing at the time the regulations are prescribed.''). FRA has made
the compressive strength requirement applicable to existing passenger
cars as explained in the preamble. However, through the submission of
appropriate data and analysis, and approval by FRA as further specified
in Sec. 238.203, discussed below, certain passenger cars not possessing
the minimum compressive strength of 800,000 pounds may operate on the
general railroad system of transportation, and the rule does afford a
reasonable time for that information to be gathered.
In providing the possibility that some equipment now being used
which does not meet the buff strength requirement of this rule might
continue to be used (``grandfathered''), FRA intends to permit only
very safe operations to occur. Petitioners will need to demonstrate--
through a quantitative risk assessment that incorporates design
information, engineering analysis of the equipment's static end
strength and of the likely performance of the equipment in derailment
and collision scenarios, and risk mitigation measures to avoid the
possibility of collisions or to limit the speed at which a collision
might occur, or both, that will be employed in connection with the
usage of the equipment on a specified rail line or lines--that use of
the equipment, as utilized in the service environment for which
recognition is sought, is in the public interest and is consistent with
railroad safety. In this regard, FRA notes that passenger equipment not
possessing the minimum static end strength specified in this rule does
not have the same capacity to absorb safely within its body structure
the compressive forces that develop in a collision as equipment meeting
the standard. The engineering analysis submitted by the petitioner
should address how these forces will be dissipated in a manner that
does not jeopardize occupant safety in collision scenarios.
D. Non-Conventional Passenger Equipment
As noted above, commenters have requested that FRA specify design-
neutral or performance-based requirements so that the safety of all
passenger equipment may be evaluated on the same basis. In comments in
this docket, Talgo has suggested substituted (and reduced) force levels
that it believes are appropriate for inclusion in the final rule in
lieu of those proposed for truck-to-carbody attachment and anti-
climbing arrangements, for instance. As explained, FRA has specified
the compressive strength requirement as fairly as we are able in
consideration of the safety of the rail travelling public. FRA has also
done so with respect to the other structural requirements in the rule.
FRA recognizes that the existing Talgo trainsets presents unique
challenges in terms of describing appropriate force levels in several
regards. FRA understands that the Talgo trainsets are articulated, low-
floor trainsets with independently rotating wheels. The car bodies are
made from light-weight aluminum extrusions. In contrast, the vast
majority of passenger carrying equipment used on the nations's
railroads is individually suspended, has automatic couplers, has a
higher floor height above the rail, has wheels fixed to an axle, and is
constructed with a steel underframe made up from fabricated members.
FRA has conducted, and continues to conduct, research which addresses
the influence of carbody construction, suspension configuration, and
coupling arrangement on the crashworthiness, derailment tendency, and
other safety-related aspects of Talgo and other non-conventional
equipment.
Developing safety regulations requires detailed technical knowledge
of the system being regulated. At the time this rule is being written,
FRA is unable to specify alternative performance-based standards with
respect to the structural requirements in this rule that would meet
FRA's safety objectives for passenger equipment of any design. Areas of
particular technical concern with regard to the Talgo trainsets, which
need to be resolved by FRA through an ongoing exchange of information,
include the nature of its articulated connection and its potential to
allow override in a collision, and the welding of the aluminum
extrusions which make up the body shell. The Talgo tilt trainsets have
characteristics that are unique, or nearly unique, that may either
reduce or increase vulnerability in a derailment or collision. For
instance, the articulated design of the trainset may tend to keep the
train in line in the case of a derailment where the decelerations are
reasonably uniform throughout the length of the train, preventing
secondary impacts. On the other hand, the absence of major structural
members in the floor of the passenger units could be a serious problem
should the train be involved in a collision with freight train cars or
lading that has fouled the track on which the passenger train is
travelling, as a result of the freight train having derailed. In this
regard, the absence of major structural members in the floor of the
Talgo passenger units increases their vulnerability to penetration by
the
[[Page 25548]]
trainset's trucks, should the trucks separate from the train.
Historically, the United States industry requirement for a minimum
compressive strength has reinforced a pattern of passenger car
construction resulting in use of stiff, quite substantial underframes
that have served other practical purposes in derailments and
collisions, including prevention of car body buckling, prevention of
harm to passengers from failure of the floor structure and entry of
debris, and resistance to penetration of the car from the side where
the primary impact was at the floor level. Both with respect to
compressive strength and other structural requirements that the Talgo
trainset may not be able to meet, it is important to ensure that
alternative means of achieving crashworthiness are just as successful
as the standards described in this final rule.
Creating alternative performance-based standards for a particular
type of passenger equipment requires a very early dialogue and
technical information exchange. In the summer of 1995, FRA convened the
first meeting of equipment manufacturers (including representatives of
Canadian, European and Japanese consortia) to discuss passenger safety
standards. That meeting led to designation of equipment manufacturer
representatives as associate members of the Passenger Equipment Safety
Standards Working Group. Although notified along with a number of other
manufacturers of passenger equipment, Talgo representatives did not
participate in the process. (For its part, the WDOT did not formally
indicate to FRA an interest in participating in the rulemaking until
after the Working Group had tentatively agreed on the structural
standard proposals--FRA received a letter from the WDOT commenting on
the ANPRM on September 4, 1996. However, AASHTO had participated from
the beginning of the rulemaking.) Talgo did not enter the discussions
directly until publication of the NPRM in September of 1997, and was
still in the process of providing engineering data through October of
1998. Given the timing of this latest submission of data to FRA,
approximately ten-months after the close of the public comment period
on the NPRM, FRA has not had the opportunity to fully evaluate the
information provided by Talgo for purposes of this rule.
FRA appreciates Talgo's recent undertakings to conform any future
trainsets (beyond the five trainsets noted earlier) built for North
American service to the 800,000-pound static end strength requirement
and any other applicable requirements in this rule. FRA will be pleased
to work with Talgo and members of the Working Group in Phase II of the
rulemaking to determine whether different performance-based regulations
are appropriate. In the interim, FRA has provided a special approval
process in Sec. 238.201 for considering whether the new generation of
Talgo equipment and any other passenger equipment of special
construction provide an equivalent level of safety with the Tier I
standards (other than the static end strength requirements) contained
in the final rule. See the discussion in the section-by-section
analysis of Sec. 238.201 for an explanation of the special approval
process.
E. System Safety
FRA believes that passenger railroads should carefully evaluate
their operations with a view toward enhancing the safety of those
operations. The importance of formal safety planning has been
recognized in Emergency Order No. 20 (61 FR 6880; Feb. 22, 1996) and
the rule on passenger train emergency preparedness (63 FR 24630; May 4,
1998). In furtherance of safety planning, the 1997 NPRM contained a set
of system safety requirements to be applied to all intercity passenger
and commuter rail equipment. See 62 FR 49760. FRA intended that each
individual passenger railroad be required to develop a system safety
plan and a system safety program tailored to its specific operation,
including train speed. FRA explained, however, that the Working Group
did not reach consensus on system safety requirements for Tier I
equipment; whereas the Tier II Subgroup did reach full consensus on
system safety program requirements for Tier II equipment. Strong
support did exist among Working Group members to apply formal system
safety planning to Tier I equipment, yet views differed as to whether
system safety planning should be required by law.
In particular, the 1997 NPRM noted that APTA objected to FRA
issuing any regulations governing system safety plans because commuter
railroads have voluntarily agreed to adopt such safety plans. 62 FR
49734. FRA also explained its understanding that APTA's system safety
approach will be more comprehensive than what FRA proposed and address
each commuter railroad's system more as an integrated whole, not
focused principally on rail equipment. See 62 FR 49734. FRA therefore
invited comment on APTA's suggestion that commuter railroads be allowed
to regulate themselves in this area; whether FRA should mandate the
contents of system safety plans; whether the areas FRA proposed to
require railroads to address were appropriate; whether additional areas
should be added; and to what extent FRA should propose to enforce
portions of the system safety plans. FRA further asked whether the rule
should require that system safety plans be comprehensive and address
the entire railroad system in which the equipment operates, as well as
whether the emergency preparedness planning requirements contained in
the passenger train emergency preparedness rulemaking be expressly
integrated with the system safety planning requirements contained in
this part. Id. at 49733-4.
In commenting on the rulemaking, APTA believed FRA's approach to
system safety short-sighted in that it would apply only to the
equipment component of the commuter railroad system and therefore
ignore track, signal system, other infrastructure, and operating
practices components. Further, APTA questioned FRA's general focus in
the system safety plan (on fire safety; software safety; inspection,
testing and maintenance; training; and new equipment) prior to having a
railroad identify its major safety risks through its individual system
level analysis. APTA stated that it supports a true system safety
approach that allows each railroad to determine its own major safety
risks and addresses all the components of the passenger rail system--
not just the equipment component.
As an alternative to Federal regulation, APTA proposed a system
safety program based on system safety plans--developed using MIL-STD-
882C as a guide--that would be submitted by its individual member
railroad properties and audited by APTA. APTA explained it would invite
FRA to observe the audits and the follow-up actions taken by the
commuter railroads in response to the audits. APTA requested that FRA
hold Federal requirements for commuter railroad system safety plans in
abeyance for a 3-year probationary period--corresponding to one
complete audit cycle--while FRA observes and evaluates the program.
Amtrak commented that it supports APTA's position on system safety
for both Tier I and Tier II equipment. Amtrak believed it appropriate
for FRA to start with a voluntary system safety approach and then,
based on actual experience, follow up with specific regulations in the
future. Amtrak believed FRA needs to allow the industry the time to
establish the
[[Page 25549]]
culture and process that allows system safety to function without
creating an unwarranted bureaucratic burden.
In its comments on the 1997 NPRM, Metra agreed with the value of a
system safety plan, but believed that such plans should not be
regulated. Metra recommended the rule contain only a top-level system
safety plan requirement for railroads to identify the most serious
safety risks within their specific operations, and then allow each
railroad to create its own programs to reduce those risks. Metra
explained that a railroad's system safety plan should project beyond
current practice to continuously improve that practice and that Federal
enforcement of such a plan would continually find violations because
current practice would not reflect the ideals set forth in the plan.
Metra believed that FRA regulation would make a system safety plan a
useless tool for improving safety, as the plan would be limited to
mimicking Federal regulation and describing current practice. In
addition, Metra noted that a system safety plan is distinct from a
document that describes current practice for routine and regulated
activities. Metra proposed that this document, a safety policy,
reference all current-practice safety-related procedures and require
railroads to adhere to them.
Bombardier commented that the 1997 NPRM does not provide the
latitude for each railroad to tailor or customize its system safety
plan to its individual operations and needs. Further, Bombardier
believed that the NPRM confuses the requirements for the railroad's
system safety plan with those required for equipment acquisition. If
FRA insists that the rule contain a requirement for a system safety
plan, according to Bombardier, it should be limited to requiring each
railroad to develop its own plan based on MIL-STD-882C or APTA's Manual
for the Development of a System Safety Plan for Commuter Railroads.
Separately, the rule should require a system safety plan specifically
addressing equipment procurement.
The BRC commented that FRA must mandate the contents of system
safety plans to ensure that vital topics are included in such plans.
Further, the BRC believed FRA must have the power to enforce compliance
with system safety plans. Otherwise, the BRC believed the plans
themselves would amount to little more than suggested operating
practices. The BRC also believed that FRA must review each railroad's
system safety plan and approve it only if it complies with Federal
regulations. Similarly, the UTU commented that the 1997 NPRM's
provisions on system safety plans is the most important section of the
rule. The UTU believed FRA should continue to treat it as such and not
allow it to be weakened.
The NTSB commented that it supports FRA mandating the contents of
system safety plans for minimal consistency and oversight, rather than
allowing the railroads to regulate themselves in this area, so that
important safety elements are consistently included in each safety
plan. The NTSB believed that the system safety plans should be
comprehensive and address the entire railroad system in which the
passenger equipment operates. The NTSB observed that if the industry
does not have a comprehensive system safety plan, it may not be able to
identify, track, monitor, or rectify situations that can lead to unsafe
conditions. Further, the NTSB remarked that system safety should be a
continuous, iterative process that has a built-in feedback mechanism
and should be used throughout the program's life cycle to arrive at the
best plan possible.
The NTSB noted that it has made safety recommendations urging FRA
to include specific safety requirements in a system safety plan. It
urged FRA to incorporate the following recommendations into FRA's
general requirements for system safety plans:
Require carriers to train employees in emergency procedures to
be used after an accident, to establish priorities for emergency
action, and to conduct accident simulation to test the effectiveness
of the program, inviting civic emergency personnel participation.
(R-76-29)
Develop and validate through simulated disaster exercises a
model emergency response plan for the guidance of the railroad
industry in formulating individual plans to be utilized by their
train crewmembers in the event of an emergency. (R-80-6)
In this regard, FRA did issue final regulations governing the
preparation, adoption, and implementation of emergency preparedness
plans by railroads connected with the operation of passenger trains, in
the passenger train emergency preparedness rulemaking. See 63 FR 24630,
May 4, 1998. That rule specifically requires emergency preparedness
plans to address such subjects as communication, employee training and
qualification, joint operations, tunnel safety, liaison with emergency
responders, on-board emergency equipment, and passenger safety
information. The plan adopted by each affected railroad is also subject
to formal review and approval by FRA.
FRA believes the approach taken in the emergency preparedness
rulemaking in requiring railroads to adopt a safety plan addressing
specific topics is more appropriate than imposing a general requirement
for railroads to adopt a comprehensive system safety plan. FRA believes
this is consistent with the view of the commenters to mandate the
contents of safety program plans for minimal consistency and oversight,
so that important safety elements are included in each safety plan. At
the same time, focusing the safety planning requirements and
streamlining the rule will facilitate the regulated community's
understanding of the rule's requirements and thereby aid in its
compliance. As further specified, the final rule will require that each
railroad adopt safety program plans addressing:
Fire safety;
Employee training and qualifications;
Equipment inspection, testing, and maintenance;
Pre-revenue service acceptance testing of equipment; and
Train hardware and software safety.
In addition, more particular safety planning requirements are imposed
on Tier II passenger equipment, as discussed below, reflecting both the
greater risks to safety from operating the equipment at such high
speeds and the importance of advanced planning in order to meet new
safety challenges.
As FRA recognized in the 1997 NPRM, FRA's proposed approach to
system safety focused principally on rail passenger equipment. This was
not a pure system safety approach, inasmuch as FRA did not focus on
safety planning for others elements of the railroad infrastructure such
as the track and signal system, or for a host of items including
platform safety, security and trespasser prevention.
FRA will closely monitor Tier I railroad operations in their
development and adherence to voluntary, comprehensive system safety
plans. FRA has already established a liaison relationship with APTA and
has already begun participating in system safety plan audits on
commuter railroads. FRA is using this involvement to enrich FRA's
Safety Assurance and Compliance Program (SACP) efforts on these
railroads--which, unlike the triennial audit process for system safety
plans, is a continuous activity with frequent on-property involvement
by FRA safety professionals. FRA will reconsider its decision not to
impose a general requirement for system safety plans on Tier I railroad
operations if the need to do so arises. FRA expects that
[[Page 25550]]
Tier I railroad operations will be able to integrate the specific
safety planning requirements contained in this final rule into their
own system safety plans, in the same way the railroads will incorporate
into their plans the emergency planning requirements contained in 49
CFR part 239.
FRA is retaining more extensive safety planning requirements for
Tier II railroad operations. These requirements are directed at
ensuring the safety of the equipment in its operating environment and
that the introduction of novel technology is thoroughly analyzed prior
to procurement of the equipment. Tier II railroad operations will be
operations with new characteristics that require special attention and
have heightened safety risks due to the speed of the equipment. In
particular, each railroad must a have safety program plan for the
operation of its Tier II passenger equipment prior to placing the
equipment into revenue service. In addition, each railroad must have a
safety program plan for each procurement of Tier II passenger equipment
or major upgrade or introduction of new technology in Tier II passenger
equipment. The railroad must also receive FRA approval of a pre-revenue
service acceptance testing plan, as well as FRA approval prior to
placing such new or modified equipment into revenue service.
In general, however, the final rule does not require that FRA
approve a railroad's safety plans required under the rule. As noted,
FRA believes it best to focus its resources on Tier II passenger
equipment operations due to their special circumstances. Further, FRA
approval may not be necessary when, by operation of the rule, each
railroad must independently comply with specific safety planning
requirements or face sanction from FRA. Under 49 CFR Sec. 238.11 of the
final rule, any person who violates any requirement of this part or
causes the violation of any such requirement is subject to a civil
penalty.
F. Side Exit Doors on Passenger Cars
In the 1997 NPRM, FRA generally proposed that new passenger cars
have a minimum of four exterior side doors--or the functional
equivalent of four such doors--each door permitting at least one 95th-
percentile male to pass through at a single time. See 62 FR 49807
(Sec. 238.237), and 62 FR 49820 (Sec. 238.441). Exterior side doors are
the primary means of egress from a passenger train, yet there is no
Federal requirement that a passenger car be equipped with such doors.
FRA does recognize that in an emergency passengers would generally be
able to move through a passenger car's end doors to seek refuge in
adjacent cars. In fact, it is safer for passengers to remain on a train
unless doing so in itself risks their safety, because of hazards along
the railroad right-of-way such as electrified rails and other trains.
However, the tragic September 22, 1993 Amtrak train derailment near
Mobile, Alabama, and the February 16, 1996 collision involving MARC and
Amtrak passenger trains near Silver Spring, Maryland, show that in a
life-threatening situation passengers have no alternative but to exit
the train. All of the 42 passenger fatalities in the Mobile, Alabama
train derailment resulted from asphyxia due to drowning (NTSB Railroad-
Marine Accident Report 94/01), and the deaths of at least eight of the
eleven persons killed in the Silver Spring, Maryland train collision
resulted from the fire that ensued (NTSB Railroad Accident Report (RAR)
97/02). FRA is not suggesting that the cars involved in those accidents
lacked a sufficient number of emergency exits; nevertheless, these are
examples of instances where passengers have died because they could not
leave the train. (However, the NTSB did note in its investigation
report of the Silver Spring, Maryland train collision that ``[e]xcept
for those passengers who died of blunt trauma injuries, others may have
survived the accident, albeit with thermal injuries, had proper and
immediate egress from the car been available.'' Id. at page 63. The
NTSB explained in its explicit findings on the collision that ``the
emergency egress of passengers was impeded because the passenger cars
lacked readily accessible and identifiable quick-release mechanisms for
the exterior doors, removable windows or kick panels in the side doors,
and adequate emergency instruction signage.'' Id. at 73.)
So that each passenger car has sufficient doorway openings to allow
passengers and crewmembers to exit quickly in a life-threatening
situation, FRA proposed requiring that passenger cars be equipped with
side doors. Exiting a passenger train through a functioning emergency
window exit is slower than exiting a train through a functioning door,
and presents a risk of non-fatal injury. FRA made clear in the 1997
NPRM that the proposed side door requirement was not a recommendation
of the Working Group, although FRA believed such a requirement
necessary at least as an interim measure. See 62 FR 49770. FRA also
recognized that existing designs of passenger cars do not always
provide for four side doors, and, in fact, the proposed requirement did
not specifically require that passenger cars have four side doors. For
instance, the requirement would have been met if a passenger car had
two double-wide doors that permit two 95th-percentile males to pass
through each such door at the same time--the functional equivalent of
four side doors having openings of the same size in the aggregate. FRA
invited comments concerning the extent to which existing designs of
passenger cars could not comply with the proposed requirement, noting
that modifications to the proposal may be necessary based on the
information supplied. Further, as a long-term approach, FRA explained
that it is investigating an emergency evacuation performance
requirement similar to that used in commercial aviation where a
sufficient number of emergency exits must be provided to evacuate the
maximum passenger load in a specified time for various types of
emergency situations.
In its comments on the 1997 NPRM, APTA stated that the proposed
requirement would eliminate certain types of cars as well as certain
desirable car design safety features. Specifically, Amtrak would not be
able to procure Viewliner cars and NJT would not be able to increase
the number of Comet IV cab cars with extra structural protection for
train operators, according to APTA. APTA recommended that the rule text
be modified to include passenger car end doors in the calculation of
the required number of door exits. APTA believed this would encourage
structural changes that involve the elimination of a side door to
provide additional protection to train operators and allow Amtrak to
continue its Viewliner cars in service.
Amtrak, in commenting on the proposal, expressed particular concern
that the proposed requirement would prevent the future construction of
its Bi-Level Superliner equipment in a configuration that maximizes the
equipment's economic performance. Amtrak noted that its current policy
calls for equipping every window in such equipment with at least one
emergency pane, and that the proposed requirement would not take that
into consideration. Amtrak supported APTA's recommended modification to
the rule text.
The NARP also questioned the proposed side exterior door
requirement for passenger cars. The NARP noted that the most common way
to exit a car in an emergency is through the car's end doors, and it
suggested that emergency window exits are probably more reliable than
additional doors, believing the
[[Page 25551]]
doors are more likely to be rendered inoperable. The NARP stated that
research should focus on the relationship between a car's seating
capacity and layout and its emergency-exit capacity. The NARP opposed
requiring four doors on a 44-foot Talgo car, and saw little benefit
from adding additional doors to a Superliner dining car without a
costly stairwell installation. The NARP asserted that a requirement for
four side doors may be economically fatal for a single-level dining
car, and advised instead that one side door may be provided in the
hallway opposite the kitchen and a second side door placed in the
kitchen.
In commenting on the proposal, WDOT believed it not appropriate to
require four side doors on a 44-foot Talgo passenger car, which is
approximately half the length of conventional passenger cars. WDOT
stated that a Talgo passenger car has two exterior doors for a maximum
of 36 people in each car, while an Amtrak Horizon coach has four
exterior doors and seats 72 passengers. WDOT maintained that the rule
should reflect these differences or provide clear, concise performance-
based standards in the alternative. In this regard, WDOT found the term
``functional equivalent'' as used in the rule to be vague and in need
of better definition. Further, WDOT commented that, traditionally,
dining and bistro cars have not had exterior side doors; and requiring
such doors in these cars would significantly decrease the amount of
available dining space, decrease revenue-generating space, and add
substantial costs. WDOT recommended FRA remove dining and bistro cars
from any exterior side door requirement as it would decrease the amount
of available dining space and thereby reduce passenger convenience,
comfort and satisfaction. Talgo similarly commented that the proposed
requirement should be modified to state that the functional equivalent
of four side doors in a car of conventional length is two side doors in
a car of half the length, and that dining and bistro cars be exempted
from any requirement.
In response to the proposal in the NPRM, Bombardier recommended
that the wording of the rule be changed to require that each passenger
car have a minimum of two side doors. Bombardier noted that on Amtrak's
high-speed trainsets (HST), the passenger cars that will be positioned
next to the power cars are equipped with only two exterior side doors,
both of which are located on the end nearest to the power car. In the
event of an evacuation, Bombardier explained that passengers could exit
through those side doors as well as through the door at the opposite
end of the car. Bombardier believed the use of such end doors should be
considered in determining the time needed to evacuate a passenger car,
and it noted in this regard that intercity passenger cars generally
carry fewer passengers than commuter cars.
Based on the comments received, FRA has decided to modify the
requirement for exterior side doors on Tier I passenger cars ordered on
or after September 8, 2000 or placed in service for the first time on
or after September 9, 2002, and for any Tier II passenger car placed in
service. The final rule requires that each such passenger car have a
minimum of two exterior side doors, and each door must have a minimum
clear opening of 30 inches horizontally by 74 inches vertically. Since
the minimum number of required side doors has been reduced from that
proposed in the NPRM, this provision should not hinder railroads from
removing the locomotive engineer's exterior side door in cab car and MU
locomotive control compartments for purposes of adding to the
structural integrity of the equipment. As the BLE raised in its
comments on the rule, removing this side door allows for a continuous
side sill structure along the control compartment, thereby enhancing
the compartment's structural integrity and reducing the risk the
compartment will be crushed in a corner or side impact. A dining car or
other food service car is subject to the side door requirement as a
passenger car under this rule, since FRA believes that all passenger
cars must have exterior side doorway openings to allow for passenger
and crew escape in a life-threatening situation, and also permit
emergency rescue access.
Unlike the proposed rule, FRA has specified the dimensions of the
doorway opening in inches rather than retain the language referencing a
95th-percentile adult male. This modification clarifies the rule for
the regulated community in that what constituted a 95th-percentile
adult male was originally not defined. FRA believes that a doorway with
a minimum clear opening of 30 inches horizontally by 74 inches
vertically will provide passage for a large, fully-clothed person and
accommodate emergency response personnel equipped with fire and rescue
gear. For instance, see the discussion below of Sec. 238.113 (Emergency
window exits) for detail on the sizes of adult backboards used by
emergency responders to evacuate injured persons. FRA has specified the
vertical dimension of 74 inches based on the height of the 95th-
percentile adult male (72.8 inches) stated in Table 2 of Public Health
Service Publication No. 1000, Series 11, No. 8, ``Weight, Height, and
Selected Body Dimensions of Adults,'' June 1965. (A copy of this
document has been placed in the public docket for this rulemaking.) The
stated height of 72.8 inches was recorded for adult males not wearing
shoes, and FRA has adjusted for this. FRA did not find this Public
Health Service Publication that useful for purposes of specifying a
horizontal dimension of the doorway as the stated body dimensions were,
in effect, recorded without clothing (see page 5)--and of course did
not address the size of equipment carried by emergency response
personnel. FRA notes that the Americans with Disabilities Act (ADA)
Accessibility Specifications for Transportation Vehicles also contain
requirements for doorway width clearance (See 49 CFR part 38). These
ADA requirements apply by their own force independent of the
requirements of this rule.
Further, unlike the proposed rule, the final rule no longer
provides that a passenger car may have the functional equivalent of the
specified number of side doors. Each passenger car must have at least
two separate, exterior side doorway openings. This will increase the
likelihood that at least one of a passenger car's side doorway openings
will allow passage in the event a train collision or derailment results
in either, or both, structural damage to--or blockage of--the door. In
this regard, railroads should consider where the passenger car side
doors are located so as to facilitate passenger and crew escape in a
life-threatening situation.
FRA reemphasizes that this requirement is only an interim measure
that will prevent passenger cars from being introduced into service
without side exterior doors. In Phase II of the rulemaking, FRA will
focus on formulating a systems approach to emergency egress that
provides for a sufficient number of emergency exits to evacuate the
maximum passenger car load in a specified time for various types of
emergency situations. FRA will evaluate with the Working Group whether
APTA's recommended approach to emergency egress under development in
APTA's PRESS Task Force should be incorporated into the Phase II
rulemaking.
G. Fuel Tank Standards
Locomotive diesel fuel tanks are vulnerable to damage from
collisions, derailments, and debris on the roadbed due to their
location on the underframe and between the trucks of locomotives.
Damage to the tank frequently results in spilled fuel, creating the
safety problem
[[Page 25552]]
of an increased risk of fire and the environmental problem of cleanup
and restoration of the spill site. Although 49 CFR 229.71 does require
a minimum clearance of 2.5 inches between the top of the rail and the
lowest point on a part or appliance of a locomotive, such as a fuel
tank, FRA regulations do not address the safety of fuel tanks in
particular.
In 1992, the NTSB issued a report identifying concerns regarding
safety problems caused by diesel fuel spills from ruptured or punctured
locomotive fuel tanks. Entitled ``Locomotive Fuel Tank Integrity Safety
Study,'' the NTSB report cited in particular a collision involving an
Amtrak train and an MBTA commuter train on December 12, 1990, as both
trains were entering a station in Boston, Massachusetts. (NTSB Safety
Study-92/04.) Fuel spilled from a tank which had separated from an
Amtrak locomotive during the collision. The fuel ignited. Smoke and
fumes from the burning diesel fuel filled the tunnel, increasing the
hazard level in the post-crash phase of the accident, and hindering
emergency response activity. As a result of the safety study, the NTSB
made several safety recommendations to FRA, including in particular
that FRA:
Conduct, in conjunction with the Association of American
Railroads, General Electric, and the Electro-Motive Division of
General Motors, research to determine if the locomotive fuel tank
can be improved to withstand forces encountered in the more severe
locomotive derailment accidents or if fuel containment can be
improved to reduce the rate of fuel leakage and fuel ignition.
Consideration should be given to crash or simulated testing and
evaluation of recent and proposed design modifications to the
locomotive fuel tank, including increasing the structural strength
of end and side wall plates, raising the tank higher above the rail,
and using internal tank bladders and foam inserts. (Class II,
Priority Action) (R-92-10)
Establish, if warranted, minimum performance standards for
locomotive fuel tanks based on the research called for in
recommendation R-92-10. (Class III, Longer Term Action) (R-92-11)
The NTSB reiterated Safety Recommendation R-92-10 in a letter to FRA
dated August 28, 1997, conveying the NTSB's final safety
recommendations arising from the February 16, 1996, collision between a
MARC commuter train and an Amtrak passenger train. During the
collision, the fuel tank on the lead Amtrak locomotive ruptured
catastrophically. The fuel sprayed into the exposed interior of the
MARC cab control car and ignited, engulfing the car. (Letter at 12.)
As explained in FRA's report to Congress on locomotive
crashworthiness and working conditions, FRA believes that fuel tank
design has a direct impact on safety. Minimum performance standards for
locomotive fuel tanks should be included in Federal safety regulations.
Accordingly, FRA proposed in the 1997 NPRM that AAR Recommended
Practice No. 506 (RP-506), Performance Requirements for Diesel-Electric
Locomotive Fuel Tanks, be incorporated into the rule as the external
fuel tank requirements for Tier I passenger locomotives. FRA believes
that RP-506 represents a good, interim safety standard for Tier I
passenger locomotives. In the final rule, FRA has restated the
requirements of RP-506 as Appendix D to part 238, as explained below,
and has thereby incorporated it into the final rule.
FRA does note that further study may yield additional safety
improvements for locomotive fuel tank design, and in September of 1997
FRA convened a Locomotive Crashworthiness Working Group of the Railroad
Safety Advisory Committee (RSAC) to develop standards regarding a broad
range of crashworthiness issues for both passenger and freight
locomotives, including fuel tanks. Freight locomotive fuel tanks can
cause a risk to passengers in the event of a train-to-train collision
involving a passenger and a freight train. Therefore, in addition to
the economy that can be achieved from standard fuel tank design
requirements for the entire industry, industry-wide design requirements
benefit both public and employee safety. Based on currently available
information through the Locomotive Crashworthiness Working Group, it
appears that locomotives built with AAR RP-506-compliant fuel tanks are
performing well in derailments and highway-rail crossing collisions.
In its comments on the proposed rule, the NTSB agreed that external
fuel tanks on Tier I locomotives should incorporate at a minimum, and
on an interim basis, RP-506. Yet, the NTSB believed that more demanding
safety standards for passenger locomotives be included in the permanent
Tier I fuel tank regulations, specifically: higher ground clearance,
compartmentalization, and a bottom skid plate. The NTSB noted that the
advantages of higher fuel tank ground clearance were shown in Amtrak
derailments in Kingman, Arizona, and Garden City, Georgia. According to
the NTSB, investigation of both accidents revealed that essentially no
fuel loss occurred in the involved locomotive units (GE Models P40 and
P42), despite a substantial accumulation of debris beneath the fuel
tanks that may have otherwise damaged current, conventional frame-
suspended fuel tanks. The NTSB attributed the maintenance of fuel tank
integrity to higher than typical fuel tank ground clearance, not found
in conventionally designed, frame-suspended fuel tanks. Accordingly,
the NTSB specifically recommended that fuel tank regulations should
require higher ground clearance for both Tier I and Tier II operations.
In light of the strong potential safety benefits associated with higher
locomotive fuel tank ground clearance, FRA will carefully consider with
the Working Group how best to implement the NTSB's recommendation in
Phase II of this rulemaking.
In addition, FRA invited comments whether the proposed rule should
require that locomotive fuel tanks be compartmentalized. The Working
Group specifically discussed requiring whether the interior of fuel
tanks be divided into a minimum of four separate compartments so that a
penetration in the exterior skin of any one compartment results in loss
of fuel only from that compartment. The Working Group recommended that
such a requirement be addressed in the second phase of the rulemaking,
to allow for additional research to remedy fuel feeding disruptions
that may result from the compartmentalization of fuel tanks. Commenters
were therefore requested to provide the results of specific research
and operating experience showing how compartmentalization can be
practically accomplished. Commenters were also asked to explain why the
issue of compartmentalization should or should not be addressed in the
final rule of this first phase of the rulemaking.
The NTSB commented that it supported continued research for fuel
tank compartmentalization to remedy fuel loss during derailments. It
stated that compartmentalization is required in aviation applications,
where fuel tanks within the airframe contour must be able to resist
rupture and retain fuel under inertial forces prescribed for emergency
landing conditions (citing 14 CFR 25.963). Therefore, research should
be conducted to determine if similar successes can be attained in
railroad application, according to the NTSB. The BLE also commented
that it supports requirements for compartmentalized fuel tanks on all
passenger locomotives. Noting that diesel fires create devastating
results in passenger train accidents, the BLE believed every effort
should be made to avoid them, including using the most advanced
technology possible. Further, APTA commented that it believes fuel tank
compartmentalization has the potential to reduce the amount of fuel
[[Page 25553]]
spilled in a railroad accident; recommended that FRA consider requiring
compartmentalized fuel tanks on new locomotives if the technical
difficulties resulting in interruptions in fuel flow are resolved; and
suggested that FRA make a priority to resolve these technical
difficulties. In accordance with these comments, FRA will carefully
consider with the Working Group in Phase II of the rulemaking a
requirement to compartmentalize fuel tanks on new locomotives, drawing
upon research conducted and experience gained in the interim through
the Locomotive Crashworthiness Working Group and the APTA PRESS Task
Force.
H. Train Interior Safety
Based on previous research results, the interior passenger
protection requirements for Tier I and II passenger equipment rely on
``compartmentalization'' as a passenger protection strategy. Such a
strategy has the advantages of being passive, i.e., requiring no action
to be taken on the part of the occupants, of being effective for a
range of occupant sizes, and potentially being effective in a wide
range of interior configurations. Research results indicate that during
a collision the interior environment of a passenger coach car is
substantially less hostile than the interiors of automobiles and
aircraft. Owing to this lower hostility in a collision environment, the
interior of a typical passenger coach car can provide a level of
protection to passengers without active restraints at least as
effective in preventing fatality as that protection afforded to
automobile and transport aircraft passengers with active restraints.
See the discussion on train interior safety in the NPRM for more
detail. 62 FR 49745-49749.
Conclusions from the research previously conducted on passenger
protection in train collisions show that lap belts and shoulder
restraints, if used, provide the highest level of occupant protection
of those protection strategies studied--greater than the level of
protection afforded by compartmentalization. However, as noted in the
NPRM, FRA believes that more research is necessary to determine the
feasibility and effectiveness of these active restraints, as well as
the impact on seat design and strength necessary to support the loads
associated with use of the restraints. In this regard, FRA requested
information and comment from interested parties whether there is any
existing research or experience which would justify active seat
restraints in this phase of the rulemaking. See 62 FR 49745.
In comments on the NPRM, Simula Technologies, Inc., (Simula) stated
that there may be a potential for a higher level of occupant protection
offered by passive or active restraints than by compartmentalization.
Simula noted that cost effectiveness considerations differ when
considering the application of occupant protection strategies to a
train crew as compared to passengers. For instance, it believed that
the relatively high expense of passive restraints may be justified for
one or two crewmembers in a particularly severe environment--for
instance, a locomotive cab. Simula agreed with FRA that more research
is needed to determine the most cost effective means of providing
occupant safety improvements.
APTA, in its comments on the NPRM, believed that FRA has taken the
correct approach in not mandating active seat restraints in this stage
of the rulemaking. APTA found accurate the description of the physics
of passenger motion during a collision which was contained in the
preamble of the NPRM. APTA noted that active seat restraints provide
the most benefit in high passenger deceleration situations, such as in
automobile collisions; whereas, in the case of the low decelerations of
passenger train collisions, other types of protection measures such as
compartmentalization to minimize the distance a passenger travels
before striking an interior surface and padding of interior surfaces
can be as effective as active seat restraints in protecting passengers
from secondary collisions.
In its comments on the NPRM, the BRC stated that, ideally,
passenger equipment should have seat belts or other restraints to keep
occupants from striking seats from behind or striking other interior
surfaces and occupants. The BRC believed this to be a true cause of
serious injury and death during rapid decelerations in collisions and
derailments. The BRC further commented that a seat must be strong
enough to hold an occupant utilizing such restraints and yet resist the
force(s) of other unrestrained occupants striking the seat. In
addition, a member of the public commented that Amtrak should provide
its passengers with lap belts and shoulder harnesses, noting that they
can reduce injuries to all occupants when used.
FRA has continued to pursue research into implementing seat belts
and shoulder restraints in intercity and commuter passenger equipment.
The purpose of this research is to develop the information required by
FRA to determine if occupant restraints should be required in future
regulations. This research is being conducted in three steps:
preliminary design studies; design development; and engineering
modeling, construction, and testing. The first step of the research has
been completed. Principal conclusions from the research to date are
that an existing inter-city passenger coach seat can be modified to
accept lap and shoulder belts. In particular, for Amtrak's traditional
seat design, appropriate modification of the connections between the
seat and floor, and between the seat pan and seat back, allow it to
support the loads associated with two restrained 95th-percentile adult
males occupying the seats as well as the loads associated with being
struck from behind by two 95th-percentile adult males. Such seats can
be designed to compartmentalize safely an unrestrained single 5th-
percentile adult female striking the seat from behind.
Existing three-position commuter seat designs cannot be modified to
accept lap and shoulder belts. The additional loads associated with the
third restrained and the third unrestrained occupant cause multiple
structural failures for existing three-position commuter seat designs--
these designs simply fold up under the load. In order to meet weight
requirements, advanced structural materials and fabrication techniques
are likely to be required to develop a three-position commuter seat
design which can support the loads associated with three restrained
95th-percentile adult males in the seats and the loads associated with
being struck from behind the seats by three 95th-percentile adult
males.
For the intercity passenger coach seat, FRA currently plans to
complete work on the details of the necessary modifications to Amtrak's
traditional seat design, modify accordingly four to six pairs of seats
for testing, and then dynamically sled test these seats. For the
commuter seat, a study is planned to develop an engineering model
design of a three-position commuter car passenger seat which
incorporates lap and shoulder belts. Composite structures and advanced
manufacturing techniques will be considered in this study. Principal
design considerations include the need to address secondary collision
loads, as well as manufacturing and maintenance costs, weight, and
durability.
In the second phase of the rulemaking, FRA and the Working Group
will reevaluate the feasibility and effectiveness of requiring active
restraints such as lap belts and shoulder harnesses in passenger
equipment, based on the results of the ongoing research.
[[Page 25554]]
I. Fire Safety
In 1984, FRA published guidelines recommending test methods and
performance criteria for the flammability, smoke emission, and fire
endurance characteristics for categories and functions of materials to
be used in the construction of new or rebuilt rail passenger equipment.
See 49 FR 33076, Aug. 20, 1984; 49 FR 44582, Nov. 7, 1984. The
guidelines were originally developed by the Volpe Center for the Urban
Mass Transit Administration (UMTA now FTA) of DOT in the late 1970s,
and were intended for application to rail transit vehicles. See 47 FR
53559, Nov. 26, 1982; 49 FR 32482, Aug. 14, 1984. FRA recommended
applying the guidelines to intercity and commuter rail cars, due to the
similarity of use for many of the materials in these cars.
The intent of the guidelines is to prevent fire ignition and to
maximize the time available for passenger evacuation if fire does
occur. FRA later reissued the guidelines in 1989 to update the
recommended test methods. See 54 FR 1837, Jan. 17, 1989. Test methods
cited in the FRA guidelines include those of the American Society for
Testing and Materials (ASTM) and the Federal Aviation Administration
(FAA). In particular, the ASTM and FAA testing methods provide a useful
screening device to identify materials that are especially hazardous.
FRA sought comments in the ANPRM on the need for more thorough
guidelines or Federal regulations concerning fire safety. See 61 FR
30696. FRA noted that fire resistance, detection, and suppression
technologies have all advanced since the guidelines were first
published. In addition, FRA explained that a trend toward a systems
approach to fire safety is evident in most countries with modern rail
systems. In response, the National Fire Protection Association (NFPA)
commented that perhaps more thorough guidelines are needed, or at least
should be evaluated. Fire Cause Analysis also responded that, at a
minimum, more in depth guidelines based on current system safety
procedures and available fire safety engineering techniques are needed.
The commenter noted in particular that Federal maintenance standards
related to fire safety are necessary to ensure that materials carefully
qualified for use in rail passenger vehicles because of their fire
safety characteristics are not replaced with either substandard
materials or materials whose origin and fire performance cannot be
determined.
The 1997 NPRM addressed fire safety by proposing to make FRA's fire
safety guidelines mandatory for the construction of new passenger
equipment as well as the refurbishing of existing equipment. See 62 FR
49803. As explained below in the discussion of this final rule, FRA has
simplified and revised the table of tests and performance criteria for
the flammability and smoke emission characteristics of materials used
in passenger cars and locomotive cabs. In addition, FRA has clarified
in the final rule the application of the required tests and performance
criteria. As proposed in the NPRM, the final rule also furthers fire
safety through a fire protection plan and program to be carried out by
each operating railroad, which will include conducting a fire safety
analysis of existing passenger equipment and taking appropriate action
to reduce the risk of personal injuries.
As noted in the NPRM, the National Institute of Standards and
Technology (NIST) of the United States Department of Commerce is
conducting research under the direction of FRA and the Volpe Center
involving the fire safety of rail passenger vehicles. The NIST project
is investigating the use of alternative fire testing methods and
computer hazard analysis models to identify and evaluate approaches to
passenger train fire safety. The evaluation is examining the effects
and tradeoffs of passenger car and system design (including materials),
fire detection and suppression systems, and passenger egress time. A
peer review committee has been established to provide project guidance
and review interim results and reports. The committee includes
representatives from FRA, the Volpe Center, the NFPA, builders of rail
passenger vehicles, producers of materials, Amtrak and commuter
railroads, and testing laboratories.
In the first phase of the NIST project, selected materials which
satisfy the testing methods referenced in FRA's fire safety guidelines
were evaluated using the ASTM E1354 Cone Calorimeter.\1\ The Cone
Calorimeter provides a measurement of heat release rate (the amount of
energy that a material produces while burning), specimen mass loss,
smoke production, and combustion gases. For a given confined space such
as a rail car interior, the air temperature and risk of harm to
passengers are increased as the heat release rate increases. As a
result, even if passengers do not come in direct contact with a fire,
they may likely be injured from the high temperatures, high heat
fluxes, and large amounts of toxic gases emitted by materials involved
in the fire. The results of the Phase I tests showed a strong
correlation between the FRA-cited test data and the Cone Calorimeter
test data.
---------------------------------------------------------------------------
\1\ ``Fire Safety of Passenger Trains: Phase I Material
Evaluation (Cone Calorimeter).'' (DOT/FRA/ORD/-98/01-DOT-VNTSC-FRA-
98-2, January, 1999). A copy of the report has also been placed in
the public docket of this rulemaking.
---------------------------------------------------------------------------
Phase I test data were used in the second phase of the NIST project
to perform a fire hazard analysis of selected passenger train fire
scenarios. Also included in this analysis were data obtained from tests
of larger interior components, including seat assemblies, using the
ASTM E 1537 Furniture Calorimeter. The analysis employed computer
modeling to assess the impact on passenger train fire safety for a
range of construction materials and system design. The interim report
documenting Phase II is in final preparation by NIST. In the final
phase of the project, selected real-scale proof tests using an Amfleet
coach rail car and interior assemblies will be performed to verify the
small-scale (bench-scale) criteria and hazard analysis studies in
actual end use configurations.
Overall, the NIST research effort follows upon FRA-sponsored
studies by the National Bureau of Standards in 1984 and NIST in 1993
which noted, among their findings, that the performance of individual
components of a rail passenger car in a real-world fire environment may
be different from that experienced in bench-scale tests due to vehicle
geometry and materials interaction.\2\ The results of the NIST research
project will help in developing a broad set of performance criteria for
materials using the Cone Calorimeter and the Furniture Calorimeter in a
context similar to that provided generally in the table of FRA fire
safety requirements contained in Appendix B to part 238. In addition,
unlike data derived from most test methods referenced in Appendix B,
heat release rate and other measurements obtained from the Cone
Calorimeter and the Furniture Calorimeter can be used in a fire
modeling methodology to evaluate the contribution of materials to the
overall fire safety of a passenger train. Although FRA has targeted for
consideration in the second phase of the
[[Page 25555]]
rulemaking a broad set of performance criteria employing the Cone
Calorimeter and Furniture Calorimeter for materials used in passenger
cars and locomotive cabs, FRA has introduced use of the Cone
Calorimeter and Furniture Calorimeter in a limited manner in this final
rule as explained below in the discussion of Appendix B to part 238.
---------------------------------------------------------------------------
\2\ ``Fire Tests of Amtrak Passenger Rail Vehicle Interiors.''
(NBS Technical Note 1193, May 1984); ``Fire Safety of Passenger
Trains: A Review of U.S. and Foreign Approaches.'' (DOT/FRA/ORD-93/
23--DOT-VNTSC-FRA-93-26, December, 1993). The 1993 report is
available to the public through the National Technical Information
Service, Springfield, VA 22161. A copy of both reports have been
placed in the public docket for this rulemaking.
---------------------------------------------------------------------------
FRA notes that the ASTM has developed a standard which describes
how to evaluate fire hazard assessment techniques (ASTM E 1546, Guide
for the Development of Fire Hazard Assessment Standards). An ASTM
group, the E-5.17 Subcommittee on Transportation, is currently
completing a document entitled ``Standard Guide for Fire Hazard
Assessment of Rail Passenger Vehicles.'' The proposed guide is intended
to provide an alternative approach to ensuring an equivalent level of
fire safety using a performance-based approach which examines fire
scenarios, as well as design considerations, to evaluate the potential
fire hazard of a rail transportation vehicle. One of the principal
issues related to the proposed guide is that calculation methods are
suggested which use models that have not been validated for application
to rail cars. In this regard, the results of the NIST fire safety
research will be helpful for the ASTM subcommittee, as NIST is using
the Hazard I computer model to develop correlations between small-scale
tests of materials and full-scale tests of rail cars.
In the NPRM, FRA explained that the NFPA publishes a standard (NFPA
130) covering fire protection requirements for fixed guideway transit
systems and for life safety from fire in transit stations, trainways,
vehicles, and outdoor maintenance and storage areas. See 62 FR 49744-5.
(A copy of the 1997 edition of this standard has been placed in the
public docket for this rulemaking.) However, this standard has not
historically been applied to passenger railroad systems, including
those that provide commuter service (NFPA 130 1-1.2). FRA noted that an
APTA representative on the Working Group who is a member of the NFPA
initiated an NFPA-sponsored task force to revise the scope of NFPA 130
to cover all rail passenger transportation systems, including intercity
and commuter rail, and revise other provisions as necessary. The NFPA
task force met several times in 1997 and 1998, and submitted
recommended revisions to the NFPA 130 Committee in August, 1998.
Although the NFPA 130 Committee accepted the task force recommendations
in principle, the standard revision approval process will not be
complete until late 1999.
In its comments on the NPRM, the NFPA urged FRA to adopt NFPA 130
upon completion of its revision. The NFPA cited the National Technology
Transfer and Advancement Act of 1995, Pub. L. 104-113, and one of its
provisions which requires, in general, that Federal agencies ``use
technical standards that are developed or adopted by voluntary
consensus standards bodies'' (Section 12, paragraph (d)(1)). In the
second phase of this rulemaking, FRA will consider with the Working
Group the incorporation of NFPA 130, as revised, into this rule.
In response to the NPRM, FRA received a number of other comments on
the provisions of the rule related to fire safety. Those comments on
the proposed fire protection plan and program are noted in particular,
below, in the discussion of 49 C.F.R. Sec. 238.103 in the final rule.
In regard to the proposed table of tests and performance criteria for
the flammability and smoke emission characteristics of materials used
in passenger cars and locomotive cabs contained in Appendix B to part
238, Fire Cause Analysis commented on the advisability of making such
tests and performance criteria mandatory without considerable and
detailed enabling language. Fire Cause Analysis noted in particular
that the table of tests and performance criteria in Appendix B
contained confusing and overlapping component and function categories
for materials; that application of the tests and performance criteria
to ``small parts'' requires special consideration to provide
flexibility for car builders; and that the fire performance of
electrical wiring and cable was not expressly addressed in the NPRM,
although addressed by NFPA 130.
A member of the public commented that he considered FRA's fire
safety guidelines good in some but not all respects. The commenter
stated in particular that the current acceptance levels of smoke
emission are inadequate to protect passengers from toxic levels of
smoke; and that permitting glazing and lighting lenses to have a flame
spread index of 100 with flaming running and flaming dripping is not
justified based on the location of these objects, ease of ignition, and
Btu content of polycarbonate. Nonetheless, the commenter recommended
adoption of the guidelines into law, noting that some vendors, car
builders, and agencies operating rail equipment have not taken the
guidelines seriously. Otherwise, the commenter believed that the fire
safety guidelines will be discounted.
APTA, in its comments on the NPRM, supported the proposed materials
selection criteria for new equipment (as well as the proposed fire
safety program for new equipment discussed below). APTA also
recommended that FRA consider updating the fire safety standards based
on the work of the NFPA 130 task force and the research being conducted
by the NIST. The BRC, in its comments on the NPRM, stated that interior
materials in passenger equipment must be required to meet strict
standards for flammability and smoke emission. The BRC believed that
compliance with the current guidelines alone is insufficient for
safety, and that additional technology, preventative measures, and fire
safety standards must be considered.
In the final rule, FRA has not significantly changed the table of
test methods and performance criteria for the flammability and smoke
emission characteristics of materials used in passenger cars and
locomotive cabs, as contained in Appendix B to part 238. FRA has sought
to maintain the current high levels of safety provided by the fire
safety guidelines, while developing a more workable framework for their
use as a regulation. In fact, as part of the NIST fire safety research,
specific input on the 1989 FRA fire safety guidelines was solicited
from rail system operators, car builders, and consultants at a workshop
held at the NIST Building and Fire Research Lab (BFRL) in July, 1997.
(The minutes of that workshop are contained in Follow-Up Workshop
Notes.\3\ ) This input was used to help simplify and revise the table
of tests and performance criteria contained in Appendix B. In summary,
the specific changes FRA has made to the table in the final rule
include:
---------------------------------------------------------------------------
\3\ ``Follow-Up Notes: NIST/CFR FRA Project, Meeting/Workshop of
7/23/97.'' September 15, 1997. Prepared by J. Zicherman. A copy of
this document has been placed in the public docket for this
rulemaking.
---------------------------------------------------------------------------
Reorganizing table component and function categories;
Adding a dynamic testing requirement for cushions;
Adding a new test method for evaluating seat assemblies;
Providing a test exception and test alternative for small
component parts;
Adding express requirements for wire and cable testing;
Updating test methods for elastomers;
Providing an alternative test method for smoke generation;
Adding express requirements for structural assemblies
other than floors; and
Renumbering and adding notes to the table to reflect the
changes.
[[Page 25556]]
The discussion of Appendix B to part 238, below, provides a detailed
explanation of the changes made to the table of test methods and
performance criteria for the flammability and smoke emission
characteristics of materials used in passenger cars and locomotive
cabs.
VI. Inspection and Testing of Brake Systems and Mechanical
Components
A. Background Prior to 1997 NPRM
In 1992, Congress amended the Federal rail safety laws by adding
certain statutory mandates related to power brake safety. These
amendments specifically address the revision of the power brake
regulations and state in pertinent part:
(r) POWER BRAKE SAFETY.--(1) The Secretary shall conduct a
review of the Department of Transportation's rules with respect to
railroad power brakes, and not later than December 31, 1993, shall
revise such rules based on such safety data as may be presented
during that review.
* * * * *
Pub. L. No. 102-365, Sec. 7; codified at 49 U.S.C. 20141, superseding
45 U.S.C. 431(r).
In response to the statutory mandate, various recommendations to
improve power brake safety, and due to its own determination that the
power brake regulations were in need of revision, FRA published an
ANPRM on December 31, 1992, concerning railroad power brake safety. See
57 FR 62546. The ANPRM provided background information and presented
questions on various subjects related to intercity passenger and
commuter train operations, including: training of testing and
inspection personnel; electronic braking systems; cleaning, oiling,
testing, and stenciling (COT&S) requirements; performance of brake
inspections; and high speed passenger train brakes. Following
publication of the ANPRM, FRA conducted a series of public workshops.
The ANPRM and the public workshops were intended as fact-finding tools
to elicit views of those persons outside FRA charged with ensuring
compliance with the power brake regulations on a day-to-day basis.
Furthermore, on July 26, 1993, the NTSB made the following
recommendation to FRA: ``Amend the power brake regulations, 49 Code of
Federal Regulations 232.12, to provide appropriate guidelines for
inspecting brake equipment on modern passenger cars.'' (R-93-16). The
recommendation arose out of the NTSB's investigation of the December
17, 1991, derailment of an Amtrak passenger train in Palatka, Florida.
The derailed equipment struck two homes and blocked a street north of
the Palatka station. The derailment resulted in eleven passengers
sustaining serious injuries and 41 others receiving minor injuries. In
addition, five members of the operating crew and four onboard service
personnel received minor injuries. By letter dated September 16, 1993,
FRA told the NTSB that it was in the process of reviewing and rewriting
the power brake regulations and would consider the NTSB's
recommendation during the process.
Based on comments and information received, FRA published a Notice
of Proposed Rulemaking in 1994 (1994 NPRM) regarding revision of the
power brake regulations. The 1994 NPRM contained specific requirements
related to intercity passenger and commuter train operations,
including: general design requirements; movement of defective
equipment; employee qualifications; inspection and testing of brake
systems and mechanical components; single car testing requirements and
periodic maintenance; operating requirements; and requirements for the
introduction of new train brake system technology. See 59 FR 47676,
47722-53, September, 16, 1994. Following publication of the 1994 NPRM,
FRA held a series of public hearings in 1994 to allow interested
parties the opportunity to comment on specific issues addressed in the
1994 NPRM. Due to the strong objections raised by a large number of
commenters, FRA announced by notice published on January 17, 1995, that
it would defer action on the 1994 NPRM and permit the submission of
additional comments prior to making a determination as to how it would
proceed in this matter. See 60 FR 3375.
After review of all the comments submitted, FRA determined that in
order to limit the number of issues to be examined and developed in any
one proceeding it would proceed with the revision of the power brake
regulations via three separate processes. In light of the testimony and
comments received on the 1994 NPRM, emphasizing the differences between
passenger and freight operations and the brake and mechanical equipment
utilized by the two, FRA decided to separate passenger equipment power
brake and mechanical standards from freight equipment power brake
standards.
As passenger equipment power brake and mechanical standards are a
logical subset of passenger equipment safety standards (see 49 U.S.C.
20133(c)), FRA requested the Passenger Equipment Safety Standards
Working Group to assist FRA in developing appropriate power brake and
mechanical standards for passenger equipment. The 1997 NPRM, upon which
this final rule is based, was developed by FRA in consultation with
this Working Group.
In addition, FRA determined that a second NPRM covering freight
equipment power brake standards would be developed with the assistance
of FRA's RSAC. See 61 FR 29164, June 7, 1996. Furthermore, in the
interest of public safety and due to statutory as well as internal
commitments, FRA determined that it would separate the issues related
to two-way end-of-train-telemetry devices from both the passenger and
freight issues. FRA convened a public regulatory conference and
published a final rule on two-way end-of-train devices on January 2,
1997. See 62 FR 278.
Beginning in December of 1995, the Passenger Equipment Safety
Standards Working Group adopted the additional task of attempting to
develop power brake and mechanical inspection and maintenance standards
applicable to intercity passenger and commuter train operations and
equipment. The Working Group met on four separate occasions, for a
total of ten days of meetings, with a good portion of these meetings
being devoted to discussion of power brake and mechanical inspection
and maintenance issues. From the outset, a majority of the members, as
well as FRA, believed that any requirements developed by the group
regarding the inspection and testing of the brake and mechanical
equipment should not vary significantly from the current requirements
and should be consistent with current industry practice.
FRA's accident/incident data related to intercity passenger and
commuter train operations support the assumption that the current
practices of these operations in the area of power brake inspection,
testing, and maintenance are for the most part sufficient to ensure the
safety of the public. Between January 1, 1990 and October 31, 1996,
there were only five brake related accidents involving commuter and
intercity passenger railroad equipment. No casualties resulted from any
of these accidents and the total damage to railroad equipment totaled
approximately $650,000, or $96,000 annually. In addition, between
January 1, 1995 and October 31, 1996, FRA inspected approximately
13,000 commuter and intercity passenger rail units for compliance with
49 CFR part 232. The defect ratio for these units during this period
was approximately 0.8 percent. Furthermore, during this same period FRA
inspected approximately 6,300 locomotives for
[[Page 25557]]
compliance with 49 CFR part 229. The brake defect ratio for these units
was approximately 4.65 percent. Consequently, the defect ratio for
brake related defects on locomotives and other passenger equipment
during this period was approximately 2.08 percent.
The existing regulations covering the inspection and testing of the
braking systems on passenger trains are contained in 49 CFR part 232.
The current regulations do provide some requirements relevant to
passenger train operations, including: initial terminal inspection and
testing, intermediate inspections, running tests, and general
maintenance requirements. See 49 CFR 232.12, 232.13(a), 232.16, and
232.17. However, most of the existing regulations are written to
address freight train operations and do not sufficiently address the
unique operating environment of commuter and intercity passenger train
operations or the equipment currently being used in those operations.
Therefore, it has been necessary for FRA to provide interpretations of
some of the current regulations in order to address these unique
concerns.
Currently, all non-MU (multiple unit) commuter trains that do not
remain connected to a source of compressed air overnight and all MU
commuter trains equipped with RT-5 or similar brake systems must
receive an initial terminal inspection of the brake system pursuant to
Sec. 232.12(c)-(j) prior to the train's first departure on any given
calendar day. All non-MU commuter trains that remain connected to a
source of compressed air over-night are permitted to receive an initial
terminal inspection of the brake system sometime during each 24-hour
period in which they are used. Furthermore, all intercity passenger
trains must receive an initial terminal inspection of the brake system
at the point where they are originally made up and must receive an
intermediate inspection in accordance with Sec. 232.12(b) every 1,000
miles.
There are currently no regulations which specifically require the
inspection of the mechanical components on passenger equipment.
Although the current regulations do not contain any mechanical
inspection requirement of passenger equipment, virtually every
passenger railroad currently performs some type of daily mechanical
inspection on its passenger equipment with highly qualified personnel.
For several years Amtrak has been conducting voluntary mechanical
safety inspections of passenger train components.
As noted previously, most of the members of the Working Group
believed that any requirements developed by the group regarding the
inspection, testing, and maintenance of the brake and mechanical
equipment should not vary significantly from the current requirements
and should be consistent with current industry practice. However, the
Working Group was unable to reach consensus on any power brake or
mechanical equipment standards, despite the positing of multiple
alternatives, use of a facilitator, and the foundation provided by the
1994 NPRM. The Working Group identified and discussed options with
which the agency and labor can agree, and others with which FRA and the
railroads can agree. However, bridging the gap between those various
options proved elusive. Consequently, as the Working Group could not
reach any type of consensus on the inspection and testing requirements,
it was determined that FRA would address these issues unilaterally,
based on the information and discussions provided by the Working Group
and the information gathered from the 1994 NPRM.
B. 1997 NPRM on Passenger Safety Equipment Standards
During the Working Group discussions, labor representatives,
particularly the BRC, insisted that a comprehensive power brake
inspection must be performed prior to a train's first run on a given
calendar day. The BRC also believed that it is necessary for the first
inspection of the day to determine whether the brake shoes and the disc
pads actually apply as intended. The BRC further contended that in
order to perform a comprehensive inspection equivalent to an initial
terminal inspection the train must be walked or otherwise inspected on
a car-to-car basis and that these principal inspections should be
performed only by carmen or other qualified mechanical personnel as
they are the only employees sufficiently trained to perform the
inspections. Rail labor representatives also advocated a daily
inspection of all safety-related mechanical components with pass/fail
criteria or limits written into the Federal safety standards much like
the requirements contained in 49 CFR part 215 addressing freight
equipment.
Representatives of intercity passenger and commuter railroads
expressed the desire to have the flexibility to conduct comprehensive
in-depth inspections of the brake and mechanical system sometime during
the day in which the equipment is utilized. These parties argued that
safety would be better served by allowing the railroads the flexibility
to conduct these inspections on a daily basis as it would allow the
railroads to conduct the inspections at locations that are more
conducive to permitting a full inspection of the equipment than many of
the outlying locations where trains are stationed overnight and where
the ability to observe all the equipment may be hampered. It was
further contended that, if the railroads are allowed some flexibility
in conducting these type of inspections, then the equipment can be
moved to a location where a fully qualified mechanical inspector can
perform detailed inspections under optimum conditions.
Several parties also pointed out that, with proper maintenance,
``tread brake units'' and other friction brake components, commonly
used in commuter train operations, are highly reliable and that the
non-functioning of any individual unit would in no way compromise the
overall safety of the train. Furthermore, permitting the inspection of
brake components in the middle of the day, rather than at the beginning
of the day, involves no greater safety risk to passengers because
friction brake systems and their components degrade in performance
based largely on use, and nothing short of a continuous brake
inspection can guarantee 100-percent performance at all times. Railroad
representatives suggested an inspection scheme that would permit an in-
depth, comprehensive brake inspection to be performed sometime during
the day in which the equipment is used with a brake inspection being
performed prior to the first run of the day verifying the continuity of
the trainline by performing a set and release on the rear car of the
train.
APTA and other passenger railroad representatives strongly
maintained that specific inspection criteria or limits related to the
mechanical components of passenger equipment were not necessary. During
the ongoing meetings of the Working Group, FRA repeatedly requested
that railroad representatives provide a recommended list of mechanical
components and criteria for their inspection. These representatives
consistently responded with very broad requirements basically limited
to inspections for obvious and visible defects. Although passenger
railroad representatives did not object to the safety principle of a
mechanical inspection, they did not want their operations to be bound
by a rigid list of components and criteria for the inspection.
Based on consideration of all of the information outlined above,
FRA published an NPRM on Passenger Equipment Safety Standards on
September 23, 1997. See 62 FR 49728.
[[Page 25558]]
This NPRM contained specific proposals related to the inspection,
testing, and maintenance of both the brake and mechanical components on
passenger equipment. The proposal attempted to balance the concerns of
rail labor representatives and representatives of intercity and
commuter railroads.
1. Proposed Brake System Inspections
In the 1997 NPRM, FRA proposed to abandon the terminology related
to the power brake inspection and testing requirements contained in the
current regulations, and proposed to identify various classes of
inspections based on the duties and type of inspection required. See 62
FR 49737, 49774-77, 49810-11. FRA believed that this type of
classification system would avoid confusion with the power brake
inspection and testing requirements applicable to freight operations
and would avoid the connotations historically attached to the current
terminology. FRA also believed that this approach was better suited for
providing operational flexibility to commuter operations while
maintaining the safety provided by the current inspection and testing
requirements. Although FRA proposed a change in the terminology used to
describe the various power brake inspections and tests, the
requirements of the inspections and tests closely tracked the current
requirements with some modifications made to address the unique
operating environment of, and equipment operated in, commuter and
intercity passenger train service. Members of the Working Group
appeared receptive to this kind of classification system and discussed
various options using some of this terminology. Consequently, FRA
proposed four different types of brake inspections, ``Class I,''
``Class IA,'' ``Class II,'' and ``running brake test,'' that were to be
performed by commuter and intercity passenger railroads some time
during the operation of their equipment.
In the proposal, FRA also divided passenger train operations into
two distinct types for purposes of brake inspections and testing. FRA
recognized that there were major differences in the operations of
commuter or short-distance intercity passenger trains, and long-
distance intercity passenger trains. Commuter and short-distance
intercity passenger trains tend to operate for fairly short distances
between passenger stations and generally operate in relatively short
turn-around service between two terminals several times in any given
day. In contrast, long-distance intercity passenger trains tend to
operate for long distances, with trips between the beginning terminal
and ending terminal taking a day or more and traversing multiple states
with relatively long distances between passenger stations.
Consequently, FRA proposed the terms ``commuter train,'' ``short-
distance intercity passenger train,'' and ``long-distance intercity
passenger train'' in order to identify the inspection and testing
requirements associated with each. See 62 FR 49737-38, 49774-76, 49810-
11. For the most part, commuter and short-distance intercity passenger
trains were treated similarly, whereas long-distance intercity
passenger trains had slightly different proposed inspection and testing
requirements. In addition, FRA proposed slightly different requirements
with regard to the movement of defective equipment in long-distance
intercity passenger trains (see the discussion below on the ``Movement
of Equipment with Defective Brakes'').
The proposed Class I brake test basically required an inspection
similar to an initial terminal inspection as currently described at
Sec. 232.12(c)-(j), but was somewhat more extensive and specifically
aimed at the types of equipment being used in commuter and intercity
passenger train service. See 62 FR 49738-39, 49774-76, 49810. The
proposed Class I brake test would require an inspection of the
application and release of the friction brakes on each side of each car
as well as an inspection of the brake shoes, pads, discs, rigging,
angle cocks, piston travel, and brake indicators if the equipment is so
equipped. The Class I brake test would also require testing of the
communication signal system and the emergency braking control devices.
In recognition of the advanced technology and various designs used in
many of these operations, which make observation of the piston travel
virtually impossible, FRA proposed to permit the inspection of the
piston travel to be conducted either through direct observation of the
clearance between the brake shoe and the wheel or by observation of a
brake actuator. Furthermore, FRA proposed to require a brake pipe
leakage test only when leakage will affect service performance.
As FRA proposed that Class I brake tests be comprehensive
inspections of the braking system, FRA believed that commuter and
short-distance intercity passenger train operations should be permitted
some flexibility in conducting these inspections. Consequently, FRA
proposed that commuter and short-distance intercity passenger train
operations perform a Class I brake test sometime during the calendar
day in which the equipment is used. FRA believed that the flexibility
permitted by the proposed requirement would allow railroads to move
equipment to locations that are most conducive to the inspection of the
brake equipment and would allow railroads to combine the daily
mechanical inspections with the brake inspection for added efficiency.
In the NPRM, FRA recognized the differences between commuter or
short-distance intercity operations and long-distance intercity
passenger train operations. FRA noted that long-distance intercity
passenger trains do not operate in shorter turn around service over the
same sections of track on a daily basis for the purpose of transporting
passengers from major centers of employment. Instead, these trains tend
to operate for extended periods of time, over long distances with
greater distances between passenger stations and terminals. Further,
these trains may operate well over 1,000 miles in any 24 hour period.
Thus, FRA believed that the opportunity for conducting inspections on
these trains was somewhat diminished. Therefore, FRA determined that a
thorough inspection of the braking system on these types of operations
must be conducted prior to the train's departure from an initial
starting terminal. Consequently, FRA proposed that a Class I brake
inspection be performed on long-distance intercity passenger trains
prior to departure from an initial terminal. See 62 FR 49810. FRA did
not believe there would be any significant burden placed on these
operations as the current regulations require that an initial terminal
inspection be performed at these locations.
FRA also recognized that these long-distance intercity passenger
trains could conceivably travel significant distances if Class I
inspections were required only once every 24 hours the equipment is in
service as proposed for commuter and short-distance intercity passenger
trains. Thus, FRA believed that some outside mileage limit had to be
placed on these trains between brake inspections. Under the current
regulations a passenger train is permitted to travel no farther than
1,000 miles from its initial terminal, at which point it must receive
an intermediate inspection of brakes that includes an application of
the brakes and the inspection of the brake rigging to ensure it is
properly secured. See 49 CFR 232.12(b). However, in recognition of the
improved technology used in passenger train brake systems combined with
the comprehensive nature of the proposed Class I brake tests and
mechanical safety inspections being
[[Page 25559]]
performed by highly qualified inspectors, FRA proposed to permit long-
distance passenger trains to travel up to 1,500 miles between Class I
brake tests. Under FRA's proposal a comprehensive Class I brake test
would be performed once every calendar day that the equipment is used
or every 1,500 miles, which ever occurred first. See 62 FR 49739,
49775, 49810.
FRA also proposed that the brake inspection and testing intervals
proposed for long-distance passenger trains apply to all Tier II
equipment (i.e., equipment operating at speeds greater than 125 mph but
not exceeding 150 mph), regardless of whether it is used in short-or
long-distance intercity trains. As FRA's proposal permitted operators
of Tier II equipment to develop inspection and testing criteria and
procedures, these operations would be required to develop a brake test
that is equivalent to a Class I brake test for Tier II equipment. Due
to the speeds at which this equipment will be allowed to operate, FRA
believed it was a necessity that an equivalent Class I brake test be
performed on Tier II equipment before it departs from its initial
terminal. Similarly, FRA proposed that the equivalent Class I brake
test be performed every calendar day in which Tier II equipment is used
or every 1,500 miles, whichever comes first. See 62 FR 49739, 49784,
49821.
The proposed Class IA brake test was somewhat less comprehensive
than the proposed Class I brake test but included a detailed inspection
of the brake system to verify the continuity of the brake system and
the proper functioning of the brake valves on each car. A Class IA
brake test would be similar to the intermediate brake inspection
currently required for freight trains prescribed at Sec. 232.13(d)(1).
The proposed Class IA brake test would generally require a walking
inspection of the set and release of the brakes on each car; however,
the proposal allowed brake indicators to be used to verify the set and
release if the railroad determined that operating conditions pose a
safety hazard to an inspector walking along the train. The Class IA
brake test also required a leakage test if leakage affects service
performance, as well as an inspection of: angle cocks; piston travel,
if determinable; brake indicators; emergency brake control devices; and
communication of brake pipe pressure changes at the rear of train to
the controlling locomotive. See 62 FR 49738-39, 49776-77, 49810.
FRA proposed that a Class IA brake test would be performed prior to
a commuter or short-distance intercity passenger train's first
departure on any given day. FRA believed that the proposed Class IA
brake was sufficiently detailed to ensure the proper functioning of the
brake system yet not so intensive that it would require individuals to
perform an inspection for which they are not qualified. Although FRA
tended to agree with the position advanced by many labor
representatives that some sort of car-to-car inspection must be made of
the brake equipment prior to the first run of the day, FRA did not
agree that it is necessary to perform a full Class I brake test in
order to ensure the proper functioning of the brake equipment in all
situations. However, contrary to the position espoused by APTA, FRA
believed that something more than just a determination that the brakes
on the rear car set and release is necessary.
In addition to the proposed Class I and Class IA brake tests, FRA
also proposed a Class II brake test. The proposed Class II brake test
would be an inspection intended to verify the continuity of the train
brake system and would be similar to the intermediate terminal
inspection currently prescribed at Sec. 232.13(a). A Class II brake
test basically required a set and release of the brakes on the rear
car. The proposed Class II test would be required in those
circumstances where minor changes to a train consist occur, such as the
change of a control stand, the removal of cars from the consist, the
addition of previously tested cars, and the situations in which an
operator first takes control of the train. See 62 FR 49739, 49777,
49811.
FRA also proposed that a running brake test be conducted as soon as
conditions safely permit it to be conducted after a train receives a
Class I, Class IA, or Class II brake test. FRA believed that this test
should be conducted in accordance with each railroad's operating rules.
The proposed ``running brake test'' requirement was similar to the
``running test'' requirements currently contained at Sec. 232.16. See
62 FR 49740, 49777, 49811.
2. Proposed Mechanical Inspections
In the 1997 NPRM, FRA proposed three types of mechanical
inspections, these included: a calendar day exterior and interior
inspection, and a periodic inspection. See 62 FR 49771-73, 49807-09.
The proposed exterior calendar day mechanical inspection for passenger
cars and unpowered vehicles used in passenger trains was patterned
after a combination of the current calendar day inspection required for
locomotives under the Railroad Locomotive Safety Standards and the pre-
departure inspection for freight cars under the Railroad Freight Car
Safety Standards. See 49 CFR 229.21 and 215.13, respectively. FRA
proposed that the calendar day mechanical inspection apply to all
passenger cars and all unpowered vehicles used in passenger trains
(which includes, e.g., not only coaches, MU locomotives, and cab cars
but also any other rail rolling equipment used in a passenger train),
and that all exterior mechanical inspections be performed by highly
qualified personnel. A mechanical safety inspection of freight cars has
been a longstanding Federal safety requirement, and FRA believed that
the lack of a similar requirement for passenger equipment created a
serious void in the current Federal railroad safety standards.
Rail labor representatives advocated a daily inspection of all
safety-related mechanical components with pass/fail criteria or limits
written into the Federal safety standards much like the requirements
contained in 49 CFR part 215, whereas APTA and other passenger railroad
representatives on the other hand strongly maintained that specific
inspection criteria or limits are not necessary. During the meetings of
the Working Group, FRA repeatedly requested that railroad
representatives provide a recommended list of mechanical components and
criteria for their inspection. These representatives consistently
responded with very broad requirements basically limited to inspections
for obvious and visible defects. Although passenger railroad
representatives did not object to the safety principle of a mechanical
inspection, they did not want their operations to be bound by a rigid
list of components and criteria for the inspection.
FRA agreed with labor representatives that a specific list of
components to be inspected with enforceable inspection or pass/fail
criteria needed to be included as part of the proposed Passenger
Equipment Safety Standards. In the 1997 NPRM, FRA identified the
components that were to be inspected as part of the exterior calendar
day mechanical safety inspection and provided measurable inspection
criteria for the components. The proposal required the railroad to
ascertain that each passenger car, and each unpowered vehicle used in a
passenger train conforms with the conditions enumerated in the
proposal. The Working Group members generally agreed that the
components contained in the proposal represented valid safety-related
components that should be frequently inspected by railroads.
[[Page 25560]]
However, members of the Working Group had widely different opinions
regarding the criteria to be used to inspect the components. Therefore,
as FRA was not provided any clear guidance from the Working Group, FRA
selected inspection criteria based on the locomotive calendar day
inspection and the freight car safety pre-departure inspection required
by 49 CFR parts 229 and 215, respectively. FRA believed that passenger
equipment should receive an inspection which is at least equivalent to
that received by locomotives and freight cars. The components and
conditions identified by FRA to be included in the exterior calendar
day mechanical inspection included: couplers; suspension system;
trucks; side bearings; wheels; jumpers; cable connections; buffer
plates; products of combustion; batteries; diaphragms; and secondary
brake systems. See 62 FR 49807-08.
FRA also proposed that each railroad perform an interior calendar
day mechanical inspection by individuals qualified by the railroad to
do so. FRA originally contemplated requiring the interior inspections
to be performed by highly qualified personnel to track the exterior
calendar day mechanical inspection requirements. However, after several
discussions with members of the Working Group and several other
representatives of passenger railroads, FRA determined that the
training and experience typical of a mechanical inspector is not
necessary and often does not apply to inspecting interior safety
components of passenger equipment. In addition, the most economical way
to accomplish the mechanical inspection is to combine the exterior
inspection with the Class I brake test and then have a crew member or
train coach cleaner combine the interior mechanical inspection with
coach cleaning. FRA listed the following components that were to be
inspected as part of the interior calendar day mechanical inspection:
trap doors; end and side doors; manual door releases; safety covers,
doors and plates; vestibule step lighting; and safety-related signs and
instructions. See 62 FR 49808.
Because FRA intended the daily exterior and interior mechanical
inspections to serve as the time when the railroad repairs defects that
occurred en route, FRA further proposed that safety components not in
compliance with this part would be required to be repaired before the
equipment was permitted to remain in or return to passenger service
after the performance of the mechanical inspections. In other words,
FRA intended for the flexibility to operate defective equipment in
passenger service to end at the calendar day mechanical inspection.
Initially, FRA considered requiring a more extensive list of
components to be checked at each interior calendar day mechanical
inspection. However, based on discussions conducted with the Working
Group, FRA determined that the daily inspection and repair of some
interior items could be burdensome to the railroads without producing
an offsetting safety benefit. As a result, FRA proposed a periodic
mechanical inspection for passenger cars in order to reduce the
frequency with which certain components require inspection. FRA
proposed that the following components be inspected for proper
operation and repaired, if necessary, as part of the periodic
maintenance of the equipment: emergency lights; emergency exit windows;
seats and seat attachments; overhead luggage racks and attachments;
floor and stair surfaces; and hand-operated electrical switches. See 62
FR 49808-09.
FRA determined that virtually all passenger railroads have defined
periodic maintenance intervals for all of the equipment they operate
with intervals varying from 60 to 180 days, depending on the type of
equipment and the service in which it is used. Although FRA did not
intend to limit the railroad's flexibility to set periodic maintenance
intervals, FRA believed that an outside limit had to be placed on the
performance of the periodic mechanical inspection. Thus, FRA proposed
that the periodic mechanical inspection be performed at least every 180
days, as that appeared to be the outside limit of currently established
maintenance cycles.
In addition to the daily and periodic mechanical inspections, FRA
also proposed extensive requirements regarding the performance of
single car tests on passenger equipment. FRA believed that the proposed
single car test has proven itself effective in uncovering brake system
problems that are the root cause of certain wheel defects or that have
been caused by repairs made to the brake system. The current
regulations require that a single car test be performed on passenger
cars whenever they are on a shop or repair track. As the current
requirement carries the potential of permitting a railroad to avoid the
performance of the test by calling a repair track something other than
a repair track, FRA believed it was prudent to base the requirement to
perform a single car test on the type of defect or repair involved
rather than the location where the defect is repaired. Therefore, FRA
proposed a list of defective conditions and the repair or replacement
of certain components which would trigger the requirement to perform a
single car test. See 62 FR 49774, 49809. In an attempt to promote the
prompt repair of defective equipment, FRA proposed some flexibility in
the performance of the test by permitting cars to be moved to a
location where the test could be performed if repairs were made at a
location that could not perform the test.
3. Proposed Qualifications of Inspection and Testing Personnel
In the 1997 NPRM, FRA proposed the terms ``qualified person'' and
``qualified mechanical inspector'' to differentiate between the type of
personnel that will be permitted to perform certain brake or mechanical
inspections required in the proposal. A ``qualified person'' was
defined as a person determined by the railroad to have the knowledge
and skills necessary to perform one or more functions required under
this part. Whereas, a ``qualified mechanical inspector'' was defined as
a ``qualified person'' who as a part of the training, qualification,
and designation program required by the proposal had received
instruction and training that included ``hands-on'' experience (under
appropriate supervision or apprenticeship) in one or more of the
following functions: trouble-shooting, inspection, testing, and
maintenance or repair of the specific train brake and other components
and systems for which the inspector is assigned responsibility.
Further, the mechanical inspector was to be a person whose primary
responsibility includes work generally consistent with those functions.
See 62 FR 49754.
As FRA intended for Class I brake inspections and exterior calendar
day mechanical inspections to be in-depth inspections of the entire
braking system and the safety-critical mechanical components, which
most likely will be performed only one time in any given day in which
the equipment is used, and because of the flexibility FRA proposed in
the performance of such inspections, FRA proposed that these
inspections had to be performed by individuals possessing not only the
knowledge to identify and detect a defective condition in all of the
brake equipment required to be inspected but also the knowledge to
recognize the interrelational workings of the equipment and the ability
to ``troubleshoot'' and repair the equipment. Consequently, FRA
proposed that only qualified mechanical inspectors would be permitted
to
[[Page 25561]]
perform Class I brake tests and exterior calendar day mechanical
inspections.
As the definition of qualified mechanical inspector required the
person's primary responsibility to be the inspection, testing, or
maintenance of passenger equipment, the definition largely ruled out
the possibility of train crew members becoming qualified mechanical
inspectors because the primary responsibility of a train crew member is
generally the operation of the train. FRA intended the definition to
allow the members of the trades associated with the testing and
maintenance of equipment such as carmen, machinists, and electricians
to become qualified mechanical inspectors. However, FRA made clear that
membership in labor organizations or completion of apprenticeship
programs associated with these crafts was not required to be designated
a qualified mechanical inspector. The two primary qualifications were
the possession of the knowledge required to do the job and a primary
work assignment inspecting, testing, or maintaining the equipment.
FRA included a clear definition of ``qualified person'' to allow
railroads the flexibility of having train crews perform Class IA, Class
II, and running brake tests and interior calendar day mechanical
inspections. A qualified person had to be trained and designated as
able to perform the types of brake and mechanical inspections and tests
that the railroad assigned to him or her. However, a qualified person
did not need the extensive knowledge of brake systems or mechanical
components or be able to trouble-shoot and repair them. The qualified
person was considered to be the ``checker.'' He or she was to possess
the knowledge and experience necessary to be able to identify brake
system problems.
C. Overview of Comments Relating to Proposed Inspection and Testing
Requirements
Those parties filing comments, presenting testimony and
participating in the Working Group meetings with regard to the proposed
inspection and testing requirements have provided the ag
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