Airworthiness Criteria: Special Class Airworthiness Criteria for the MissionGO MGV100 Unmanned Aircraft, 56743-56749 [2022-20001]
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Federal Register / Vol. 87, No. 178 / Thursday, September 15, 2022 / Notices
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William Shpiece,
Chair of the Trade Policy Staff Committee,
Office of the United States Trade
Representative.
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that works with industry and the public
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SUMMARY:
Issued in Washington, DC, on September
12, 2022.
Brandon Roberts,
Executive Director, Office of Rulemaking.
[FR Doc. 2022–20029 Filed 9–13–22; 4:15 pm]
BILLING CODE 4910–13–P
DEPARTMENT OF TRANSPORTATION
Federal Aviation Administration
[Docket No. FAA–2022–0353]
Airworthiness Criteria: Special Class
Airworthiness Criteria for the
MissionGO MGV100 Unmanned
Aircraft
[FR Doc. 2022–19896 Filed 9–14–22; 8:45 am]
BILLING CODE P
Federal Aviation
Administration (FAA), Department of
Transportation (DOT).
ACTION: Notice of proposed
airworthiness criteria.
AGENCY:
DEPARTMENT OF TRANSPORTATION
Federal Aviation Administration
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Aviation Rulemaking Advisory
Committee (ARAC); Renewal
Federal Aviation
Administration (FAA), Department of
Transportation (DOT).
ACTION: Notice of renewal of the
Aviation Rulemaking Advisory
Committee charter.
AGENCY:
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The FAA announces the
availability of and requests comments
on proposed airworthiness criteria for
the MissionGO Model MGV100
unmanned aircraft (UA). This document
proposes the airworthiness criteria the
FAA finds to be appropriate and
applicable for the UA design.
SUMMARY:
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Send comments on or before
October 17, 2022.
ADDRESSES: Send comments identified
by docket number FAA–2022–0353
using any of the following methods:
• Federal eRegulations Portal: Go to
https://www.regulations.gov and follow
the online instructions for sending your
comments electronically.
• Mail: Send comments to Docket
Operations, M–30, U.S. Department of
Transportation (DOT), 1200 New Jersey
Avenue SE, Room W12–140, West
Building Ground Floor, Washington, DC
20590–0001.
• Hand Delivery or Courier: Take
comments to Docket Operations in
Room W12–140 of the West Building
Ground Floor at 1200 New Jersey
Avenue SE, Washington, DC, between 9
a.m., and 5 p.m., Monday through
Friday, except Federal holidays.
• Fax: Fax comments to Docket
Operations at 202–493–2251.
Privacy: The FAA will post all
comments it receives, without change,
to https://regulations.gov, including any
personal information the commenter
provides. Using the search function of
the docket website, anyone can find and
read the electronic form of all comments
received into any FAA docket,
including the name of the individual
sending the comment (or signing the
comment for an association, business,
labor union, etc.). DOT’s complete
Privacy Act Statement can be found in
the Federal Register published on April
11, 2000 (65 FR 19477–19478), as well
as at https://www.dot.gov/privacy.
Docket: Background documents or
comments received may be read at
https://www.regulations.gov at any time.
Follow the online instructions for
accessing the docket or go to the Docket
Operations in Room W12–140 of the
West Building Ground Floor at 1200
New Jersey Avenue SE, Washington,
DC, between 9 a.m., and 5 p.m., Monday
through Friday, except Federal holidays.
FOR FURTHER INFORMATION CONTACT:
Christopher J. Richards, Emerging
Aircraft Strategic Policy Section, AIR–
618, Strategic Policy Management
Branch, Policy and Innovation Division,
Aircraft Certification Service, Federal
Aviation Administration, 6020 28th
Avenue South, Room 103, Minneapolis,
MN 55450, telephone (612) 253–4559.
SUPPLEMENTARY INFORMATION:
DATES:
Comments Invited
The FAA invites interested people to
take part in the development of these
airworthiness criteria by sending
written comments, data, or views. The
most helpful comments reference a
specific portion of the airworthiness
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criteria, explain the reason for any
recommended change, and include
supporting data. Comments on
operational, pilot certification, and
maintenance requirements would
address issues that are beyond the scope
of this document.
Except for Confidential Business
Information as described in the
following paragraph, and other
information as described in 14 CFR
11.35, the FAA will file in the docket all
comments received, as well as a report
summarizing each substantive public
contact with FAA personnel concerning
these proposed airworthiness criteria.
Before acting on this proposal, the FAA
will consider all comments received on
or before the closing date for comments.
The FAA will consider comments filed
late if it is possible to do so without
incurring delay. The FAA may change
these airworthiness criteria based on
received comments.
approximately 76.5 inches. It is
approximately 66.5 inches in fuselage
length and 28.5 inches in height. The
Model MGV100 UA is battery-powered
using electric motors for vertical takeoff,
landing, and forward flight. The
unmanned aircraft system (UAS)
operations would rely on high levels of
automation and include a single UA
operated by a single pilot. MissionGO
anticipates operators will use the Model
MGV100 for delivering packages. The
proposed concept of operations for the
Model MGV100 identifies a maximum
operating altitude of 400 feet above
ground level, a maximum cruise speed
of 38 knots, operations beyond visual
line of sight of the pilot, and operations
over human beings. MissionGO has not
requested type certification for flight
into known icing for the Model
MGV100.
Confidential Business Information
Confidential Business Information
(CBI) is commercial or financial
information that is both customarily and
actually treated as private by its owner.
Under the Freedom of Information Act
(FOIA) (5 U.S.C. 552), CBI is exempt
from public disclosure. If your
comments responsive to these proposed
airworthiness criteria contain
commercial or financial information
that is customarily treated as private,
that you actually treat as private, and
that is relevant or responsive to these
proposed airworthiness criteria, it is
important that you clearly designate the
submitted comments as CBI. Please
mark each page of your submission
containing CBI as ‘‘PROPIN.’’ The FAA
will treat such marked submissions as
confidential under the FOIA, and they
will not be placed in the public docket
of these proposed airworthiness criteria.
Submissions containing CBI should be
sent to the individual listed under FOR
FURTHER INFORMATION CONTACT. Any
commentary that the FAA receives
which is not specifically designated as
CBI will be placed in the public docket
for these proposed airworthiness
criteria.
The FAA establishes airworthiness
criteria to ensure the safe operation of
aircraft in accordance with 49 U.S.C.
44701(a) and 44704. UA are type
certificated by the FAA as special class
aircraft for which airworthiness
standards have not been established by
regulation. Under the provisions of 14
CFR 21.17(b), the airworthiness
standards for special class aircraft are
those the FAA finds to be appropriate
and applicable to the specific type
design.
The applicant has proposed a design
with constraints upon its operations and
an unusual design characteristic: the
pilot is remotely located. The FAA
developed existing airworthiness
standards to establish an appropriate
level of safety for each product and its
intended use. The FAA’s existing
airworthiness standards did not
envision aircraft with no pilot in the
flight deck and the technologies
associated with that capability.
The FAA has reviewed the proposed
design and assessed the potential risk to
the National Airspace System. The FAA
considered the size of the proposed
aircraft, its maximum airspeed and
altitude, and operational limitations to
address the number of unmanned
aircraft per operator and address
operations in which the aircraft would
operate beyond the visual line of sight
of the pilot. These factors allowed the
FAA to assess the potential risk the
aircraft could pose to other aircraft and
to human beings on the ground. Using
these parameters, the FAA developed
airworthiness criteria to address those
potential risks to ensure the aircraft
remains reliable, controllable, safe, and
airworthy.
Background
MissionGO applied to the FAA on
November 4, 2020, for a special class
type certificate under 14 CFR 21.17(b)
for the Model MGV100 UA.
The Model MGV100 consists of a
rotorcraft UA and its associated
elements (AE) including communication
links and components that control the
UA. The Model MGV100 UA has a
maximum gross takeoff weight of 54
pounds. It has a rotor diameter of
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Discussion
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The proposed criteria focus on
mitigating hazards by establishing safety
outcomes that must be achieved, rather
than by establishing prescriptive
requirements that must be met. This is
in contrast to many current
airworthiness standards, used to
certificate traditional aircraft systems,
which prescribe specific indicators and
instruments for a pilot in a flight deck
that would be inappropriate for UA. The
FAA finds that the proposed criteria are
appropriate and applicable for the UA
design, based on the intended
operational concepts for the UA as
identified by the applicant.
The FAA selected the particular
airworthiness criteria proposed by this
notice for the following reasons:
General: In order to determine
appropriate and applicable
airworthiness standards for UA as a
special class of aircraft, the FAA
determined that the applicant must
provide information describing the
characteristics and capabilities of the
UA and how it will be used.
D&R.001 Concept of Operations: To
assist the FAA in identifying and
analyzing the risks and impacts
associated with integrating the proposed
UA design into the National Airspace
System, the applicant would be required
to submit a Concept of Operations
(CONOPS). The proposed criteria would
require the applicant’s CONOPS to
identify the intended operational
concepts for the UA and describe the
UAS and its operation. The applicant
would be required to describe the
information in the CONOPS in
sufficient detail to determine parameters
and extent of testing, as well as
operating limitations that will be placed
in the UA Flight Manual. If the
applicant requests to include collision
avoidance equipment, the proposed
criteria would require the applicant to
identify such equipment in the
CONOPS.
D&R.005 Definitions: The proposed
criteria include a definitions section,
distinguishing the term ‘‘loss of flight’’
from ‘‘loss of control.’’
Design and Construction: The FAA
selected the design and construction
criteria in this section to address
airworthiness requirements where the
flight testing demonstration alone may
not be sufficient to demonstrate an
appropriate level of safety.
D&R.100 UA Signal Monitoring and
Transmission: To address the risks
associated with loss of control of the
UA, the applicant would be required to
design the UA to monitor and transmit
to the AE all information necessary for
continued safe flight and operation.
Some of the AE are located separately
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from the UA, and therefore are a unique
feature to UAS. As a result, no
regulatory airworthiness standards exist
that directly apply to this part of the
system. The FAA based some of the
proposed criteria on existing regulations
that address the information that must
be provided to a pilot in the flight deck
of a manned aircraft, and modified them
as appropriate to the UAS. These
proposed criteria list the specific
minimum types of information the FAA
finds are necessary for the UA to
transmit for continued safe flight and
operation; however, the applicant must
determine whether additional
parameters are necessary.
D&R.105 UAS AE Required for Safe
UA Operations: Because safe UAS
operations depend and rely on both the
UA and the AE, the FAA considers the
AE in assessing whether the UA meets
the criteria that comprise the
certification basis. While the AE items
themselves will be outside the scope of
the UA type design, the applicant must
provide sufficient specifications for any
aspect of the AE, including the control
station, which could affect
airworthiness. The proposed criteria
would require a complete and
unambiguous identification of the AE
and their interface with the UA, so that
their availability or use is readily
apparent.
As explained in FAA Policy
Memorandum AIR600–21–AIR–600–
PM01, dated July 13, 2021, the FAA will
approve either the specific AE or
minimum specifications for the AE, as
identified by the applicant, as part of
the type certificate by including them as
an operating limitation in the type
certificate data sheet and flight manual.
The FAA may impose additional
operating limitations specific to the AE
through conditions and limitations for
inclusion in the operational approval
(i.e., waivers, exemptions, operating
certificates, or a combination of these).
In this way, the FAA will consider the
entirety of the UAS for operational
approval and oversight.
D&R.110 Software: Software for
manned aircraft is certified under the
regulations applicable to systems,
equipment, and installations (e.g.,
§§ 23.2510, 25.1309, 27.1309, or
29.1309). There are two regulations that
specifically prescribe airworthiness
standards for software: Engine
airworthiness standards (§ 33.28) and
propeller airworthiness standards
(§ 35.23). The proposed UA software
criteria are based on these regulations
and tailored for the risks posed by UA
software.
D&R.115 Cyber Security: The
location of the pilot separate from the
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UA requires a continuous wireless
connection (command and control link)
with the UA for the pilot to monitor and
control it. Because the purpose of this
link is to control the aircraft, this makes
the UA susceptible to cyber security
threats in a unique way.
The current regulations for the
certification of systems, equipment, and
installations (e.g., §§ 23.2510, 25.1309,
27.1309, and 29.1309) do not adequately
address potential security
vulnerabilities exploited by
unauthorized access to aircraft systems,
data buses, and services. For manned
aircraft, the FAA therefore issues special
conditions for particular designs with
network security vulnerabilities.
To address the risks to the UA
associated with intentional
unauthorized electronic interactions,
the applicant would be required to
design the UAS’s systems and networks
to protect against intentional
unauthorized electronic interactions
and mitigate potential adverse effects.
The FAA based the language for the
proposed criteria on recommendations
in the final report dated August 22,
2016, from the Aircraft System
Information Security/Protection (ASISP)
working group under the FAA’s
Aviation Rulemaking Advisory
Committee. Although the
recommendations pertained to manned
aircraft, the FAA has reviewed the
report and determined the
recommendations are also appropriate
for UA. The wireless connections used
by UA make these aircraft susceptible to
the same cyber security risks, and
therefore require similar criteria as
manned aircraft.
D&R.120 Contingency Planning: The
location of the pilot and the controls for
the UAS, separate from the UA, is a
unique feature to UAS. As a result, no
regulatory airworthiness standards exist
that directly apply to this feature of the
system.
To address the risks associated with
loss of communication between the
pilot and the UA, and thus the pilot’s
inability to control the UA, the
proposed criteria would require that the
UA be designed to automatically
execute a predetermined action.
Because the pilot needs to be aware of
the particular predetermined action the
UA will take when there is a loss of
communication between the pilot and
the UA, the proposed criteria would
require that the applicant identify the
predetermined action in the UA Flight
Manual. The proposed criteria would
also include requirements for
preventing takeoff when quality of
service is inadequate.
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D&R.125 Lightning: Because of the
size and physical limitations of this UA,
it would be unlikely that this UA would
incorporate traditional lightning
protection features. To address the risks
that would result from a lightning strike,
the proposed criteria would require an
operating limitation in the UA Flight
Manual that prohibits flight into
weather conditions conducive to
lightning. The proposed criteria would
also allow design characteristics to
protect the UA from lightning as an
alternative to the prohibition.
D&R.130 Adverse Weather
Conditions: Because of the size and
physical limitations of this UA, adverse
weather such as rain, snow, and icing
pose a greater hazard to the UA than to
manned aircraft. For the same reason, it
would be unlikely that this UA would
incorporate traditional protection
features from icing. The FAA based the
proposed criteria on the icing
requirements in 14 CFR 23.2165(b) and
(c) and applied them to all of these
adverse weather conditions. The
proposed criteria would allow design
characteristics to protect the UA from
adverse weather conditions. As an
alternative, the proposed criteria would
require an operating limitation in the
UA Flight Manual that prohibits flight
into known adverse weather conditions,
and either also prevent inadvertent
flight into adverse weather or provide a
means to detect and to avoid or exit
adverse weather conditions.
D&R.135 Flight Essential Parts: The
proposed criteria for flight essential
parts are substantively the standards for
normal category rotorcraft critical parts
in § 27.602, with changes to reflect UA
terminology and failure conditions.
Because part criticality is dependent on
safety risk to those on board the aircraft,
the term ‘‘flight essential’’ is used for
those components of an unmanned
aircraft whose failure may result in loss
of flight or unrecoverable loss of UA
control.
Operating Limitations and
Information: Similar to manned aircraft,
the FAA determined that the UA
applicant must provide airworthiness
instructions, operating limitations, and
flight and performance information
necessary for the safe operation and
continued operational safety of the UA.
D&R.200 Flight Manual: The
proposed criteria for the UA Flight
Manual are substantively the same as
those in § 23.2620, with minor changes
to reflect UA terminology.
D&R.205 Instructions for Continued
Airworthiness: The proposed criteria for
the Instructions for Continued
Airworthiness (ICA) are substantively
the same as that in § 23.1529, with
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minor changes to reflect UA
terminology.
Testing: Traditional certification
methodologies for manned aircraft are
based on design requirements verified at
the component level by inspection,
analysis, demonstration, or test. Due to
the difference in size and complexity,
the FAA determined testing
methodologies that demonstrate
reliability at the aircraft (UA) level, in
addition to the design and construction
criteria identified in this proposal, will
achieve the same safety objective. The
proposed testing criteria in sections
D&R.300 through D&R.320 utilize these
methodologies.
D&R.300 Durability and Reliability:
The FAA intends the proposed testing
criteria in this section to cover key
design aspects and prevent unsafe
features at an appropriate level tailored
for this UA. The proposed durability
and reliability testing would require the
applicant to demonstrate safe flight of
the UA across the entire operational
envelope and up to all operational
limitations, for all phases of flight and
all aircraft configurations. The UA
would only be certificated for
operations within the limitations
prescribed for its operating
environment, as defined in the
applicant’s proposed CONOPS and
demonstrated by test. The FAA intends
for this process to be similar to the
process for establishing limitations
prescribed for special purpose
operations for restricted category
aircraft. The proposed criteria would
require that all flights during the testing
be completed with no failures that result
in a loss of flight, loss of control, loss
of containment, or emergency landing
outside of the operator’s recovery zone.
For some aircraft design requirements
imposed by existing airworthiness
standards (e.g., §§ 23.2135, 23.2600,
25.105, 25.125, 27.141, 27.173, 29.51,
29.177), the aircraft must not require
exceptional piloting skill or alertness.
These rules recognize that pilots have
varying levels of ability and attention. In
a similar manner, the proposed criteria
would require that the durability and
reliability flight testing be performed by
a pilot with average skill and alertness.
Flight testing will be used to
determine the aircraft’s ability to
withstand flight loads across the range
of operating limits and the flight
envelope. Because small UA may be
subjected to significant ground loads
when handled, lifted, carried, loaded,
maintained, and transported physically
by hand, the proposed criteria would
require that the aircraft used for testing
endure the same worst-case ground
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loads as those the UA will experience in
operation after type certification.
D&R.305 Probable Failures: The
FAA intends the proposed testing
criteria to evaluate how the UA
functions after failures that are probable
to occur. The applicant will test the UA
by inducing certain failures and
demonstrating that the failure will not
result in a loss of containment or control
of the UA. The proposed criteria contain
the minimum types of failures the FAA
finds are probable; however, the
applicant must determine the probable
failures related to any other equipment
that will be addressed for this
requirement.
D&R.310 Capabilities and
Functions: The proposed criteria for this
section address the minimum
capabilities and functions the FAA finds
are necessary for the design of the UA
and would require the applicant to
demonstrate these capabilities and
functions by test. Due to the location of
the pilot and the controls for UAS,
separate from the UA, communication
between the pilot and the UA is
significant to the design. Thus, the
proposed criteria would require the
applicant to demonstrate the capability
of the UAS to regain command and
control after a loss. As with manned
aircraft, the electrical system of the UA
must have a capacity sufficient for all
anticipated loads; the proposed criteria
would require the applicant to
demonstrate this by test.
The proposed criteria contain
functions that would allow the pilot to
command the UA to deviate from its
flight plan or from its pre-programmed
flight path. For example, in the event
the pilot needs to deconflict the
airspace, the UA must respond to pilot
inputs that override any preprogramming.
In the event an applicant requests
approval for certain features, such as
geo-fencing or external cargo, the
proposed criteria contain requirements
to address the associated risks. The
proposed criteria in this section would
also require the design of the UA to
safeguard against unintended
discontinuation of flight or release of
cargo, whether by human action or
malfunction.
D&R.315 Fatigue: The FAA intends
the proposed criteria in this section to
address the risks from reduced
structural integrity and structural failure
due to fatigue. The proposed criteria
would require the applicant to establish
an airframe life limit and demonstrate
that loss of flight or loss of control due
to structural failure will be avoided
throughout the operational life of the
UA. These proposed criteria would
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require the applicant to demonstrate
this by test, while maintaining the UA
in accordance with the ICA.
D&R.320 Verification of Limits: This
section would evaluate structural safety
and address the risks associated with
inadequate structural design. While the
proposed criteria in D&R.300 address
testing to demonstrate that the UA
structure adequately supports expected
loads throughout the flight and
operational envelopes, the proposed
criteria in this section would require an
evaluation of the performance,
maneuverability, stability, and control
of the UA with a factor of safety.
Applicability
These airworthiness criteria,
established under the provisions of
§ 21.17(b), are applicable to the Model
MGV100 UA. Should MissionGO apply
at a later date for a change to the type
certificate to include another model,
these airworthiness criteria would apply
to that model as well, provided the FAA
finds them appropriate in accordance
with the requirements of subpart D to
part 21.
Conclusion
This action affects only the
airworthiness criteria for the one model
UA. It is not a standard of general
applicability.
Authority Citation
The authority citation for these
airworthiness criteria is as follows:
Authority: 49 U.S.C. 106(g), 40113,
44701, 44702, 44704.
Proposed Airworthiness Criteria
The FAA proposes to establish the
following airworthiness criteria for type
certification of the MissionGO Model
MGV100 UA. The FAA proposes that
compliance with the following would
mitigate the risks associated with the
proposed design and Concept of
Operations appropriately and would
provide an equivalent level of safety to
existing rules:
General
D&R.001 Concept of Operations
The applicant must define and submit
to the FAA a concept of operations
(CONOPS) proposal describing the
unmanned aircraft system (UAS)
operation in the national airspace
system for which unmanned aircraft
(UA) type certification is requested. The
CONOPS proposal must include, at a
minimum, a description of the following
information in sufficient detail to
determine the parameters and extent of
testing and operating limitations:
(a) The intended type of operations;
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(b) UA specifications;
(c) Meteorological conditions;
(d) Operators, pilots, and personnel
responsibilities;
(e) Control station, support
equipment, and other associated
elements (AE) necessary to meet the
airworthiness criteria;
(f) Command, control, and
communication functions;
(g) Operational parameters (such as
population density, geographic
operating boundaries, airspace classes,
launch and recovery area, congestion of
proposed operating area,
communications with air traffic control,
line of sight, and aircraft separation);
and
(h) Collision avoidance equipment,
whether onboard the UA or part of the
AE, if requested.
D&R.005 Definitions
For purposes of these airworthiness
criteria, the following definitions apply.
(a) Loss of Control: Loss of control
means an unintended departure of an
aircraft from controlled flight. It
includes control reversal or an undue
loss of longitudinal, lateral, and
directional stability and control. It also
includes an upset or entry into an
unscheduled or uncommanded attitude
with high potential for uncontrolled
impact with terrain. A loss of control
means a spin, loss of control authority,
loss of aerodynamic stability, divergent
flight characteristics, or similar
occurrence, which could generally lead
to crash.
(b) Loss of Flight: Loss of flight means
a UA’s inability to complete its flight as
planned, up to and through its
originally planned landing. It includes
scenarios where the UA experiences
controlled flight into terrain, obstacles,
or any other collision, or a loss of
altitude that is severe or non-reversible.
Loss of flight also includes deploying a
parachute or ballistic recovery system
that leads to an unplanned landing
outside the operator’s designated
recovery zone.
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Design and Construction
D&R.100 UA Signal Monitoring and
Transmission
The UA must be designed to monitor
and transmit to the AE all information
required for continued safe flight and
operation. This information includes, at
a minimum, the following:
(a) Status of all critical parameters for
all energy storage systems;
(b) Status of all critical parameters for
all propulsion systems;
(c) Flight and navigation information
as appropriate, such as airspeed,
heading, altitude, and location; and
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(d) Communication and navigation
signal strength and quality, including
contingency information or status.
D&R.105 UAS AE Required for Safe
UA Operations
(a) The applicant must identify and
submit to the FAA all AE and interface
conditions of the UAS that affect the
airworthiness of the UA or are otherwise
necessary for the UA to meet these
airworthiness criteria. As part of this
requirement—
(1) The applicant may identify either
specific AE or minimum specifications
for the AE.
(i) If minimum specifications are
identified, they must include the critical
requirements of the AE, including
performance, compatibility, function,
reliability, interface, operator alerting,
and environmental requirements.
(ii) Critical requirements are those
that if not met would impact the ability
to operate the UA safely and efficiently.
(2) The applicant may use an interface
control drawing, a requirements
document, or other reference, titled so
that it is clearly designated as AE
interfaces to the UA.
(b) The applicant must show the FAA
the AE or minimum specifications
identified in paragraph (a) of this
section meet the following:
(1) The AE provide the functionality,
performance, reliability, and
information to assure UA airworthiness
in conjunction with the rest of the
design;
(2) The AE are compatible with the
UA capabilities and interfaces;
(3) The AE must monitor and transmit
to the operator all information required
for safe flight and operation, including
but not limited to those identified in
D&R.100; and
(4) The minimum specifications, if
identified, are correct, complete,
consistent, and verifiable to assure UA
airworthiness.
(c) The FAA will establish the
approved AE or minimum specifications
as operating limitations and include
them in the UA type certificate data
sheet and Flight Manual.
(d) The applicant must develop any
maintenance instructions necessary to
address implications from the AE on the
airworthiness of the UA. Those
instructions will be included in the
instructions for continued airworthiness
(ICA) required by D&R.205.
D&R.110 Software
To minimize the existence of software
errors, the applicant must:
(a) Verify by test all software that may
impact the safe operation of the UA;
(b) Utilize a configuration
management system that tracks,
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56747
controls, and preserves changes made to
software throughout the entire life cycle;
and
(c) Implement a problem reporting
system that captures and records defects
and modifications to the software.
D&R.115
Cybersecurity
(a) UA equipment, systems, and
networks, addressed separately and in
relation to other systems, must be
protected from intentional unauthorized
electronic interactions that may result in
an adverse effect on the security or
airworthiness of the UA. Protection
must be ensured by showing that the
security risks have been identified,
assessed, and mitigated as necessary.
(b) When required by paragraph (a) of
this section, procedures and
instructions to ensure security
protections are maintained must be
included in the ICA.
D&R.120
Contingency Planning
(a) The UA must be designed so that,
in the event of a loss of the command
and control (C2) link, the UA will
automatically and immediately execute
a safe predetermined flight, loiter,
landing, or termination.
(b) The applicant must establish the
predetermined action in the event of a
loss of the C2 link and include it in the
UA Flight Manual.
(c) The UA Flight Manual must
include the minimum performance
requirements for the C2 data link
defining when the C2 link is degraded
to a level where remote active control of
the UA is no longer ensured. Takeoff
when the C2 link is degraded below the
minimum link performance
requirements must be prevented by
design or prohibited by an operating
limitation in the UA Flight Manual.
D&R.125
Lightning
(a) Except as provided in paragraph
(b) of this section, the UA must have
design characteristics that will protect
the UA from loss of flight or loss of
control due to lightning.
(b) If the UA has not been shown to
protect against lightning, the UA Flight
Manual must include an operating
limitation to prohibit flight into weather
conditions conducive to lightning
activity.
D&R.130
Adverse Weather Conditions
(a) For purposes of this section,
‘‘adverse weather conditions’’ means
rain, snow, and icing.
(b) Except as provided in paragraph
(c) of this section, the UA must have
design characteristics that will allow the
UA to operate within the adverse
weather conditions specified in the
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Federal Register / Vol. 87, No. 178 / Thursday, September 15, 2022 / Notices
CONOPS without loss of flight or loss of
control.
(c) For adverse weather conditions for
which the UA is not approved to
operate, the applicant must develop
operating limitations to prohibit flight
into known adverse weather conditions
and either:
(1) Develop operating limitations to
prevent inadvertent flight into adverse
weather conditions; or
(2) Provide a means to detect any
adverse weather conditions for which
the UA is not certificated to operate and
show the UA’s ability to avoid or exit
those conditions.
D&R.135
Flight Essential Parts
(a) A flight essential part is a part, the
failure of which could result in a loss of
flight or unrecoverable loss of UA
control.
(b) If the type design includes flight
essential parts, the applicant must
establish a flight essential parts list. The
applicant must develop and define
mandatory maintenance instructions or
life limits, or a combination of both, to
prevent failures of flight essential parts.
Each of these mandatory actions must
be included in the Airworthiness
Limitations Section of the ICA.
Operating Limitations and Information
D&R.200
Flight Manual
The applicant must provide a Flight
Manual with each UA.
(a) The UA Flight Manual must
contain the following information:
(1) UA operating limitations;
(2) UA operating procedures;
(3) Performance information;
(4) Loading information; and
(5) Other information that is necessary
for safe operation because of design,
operating, or handling characteristics.
(b) Those portions of the UA Flight
Manual containing the information
specified in paragraph (a)(1) of this
section must be approved by the FAA.
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D&R.205 Instructions for Continued
Airworthiness
The applicant must prepare ICA for
the UA in accordance with Appendix A
to part 23, as appropriate, that are
acceptable to the FAA. The ICA may be
incomplete at type certification if a
program exists to ensure their
completion prior to delivery of the first
UA or issuance of a standard
airworthiness certificate, whichever
occurs later.
Testing
D&R.300
Durability and Reliability
The UA must be designed to be
durable and reliable when operated
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16:56 Sep 14, 2022
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under the limitations prescribed for its
operating environment, as documented
in its CONOPS and included as
operating limitations on the type
certificate data sheet and in the UA
Flight Manual. The durability and
reliability must be demonstrated by
flight test in accordance with the
requirements of this section and
completed with no failures that result in
a loss of flight, loss of control, loss of
containment, or emergency landing
outside the operator’s recovery area.
(a) Once a UA has begun testing to
show compliance with this section, all
flights for that UA must be included in
the flight test report.
(b) Tests must include an evaluation
of the entire flight envelope across all
phases of operation and must address, at
a minimum, the following:
(1) Flight distances;
(2) Flight durations;
(3) Route complexity;
(4) Weight;
(5) Center of gravity;
(6) Density altitude;
(7) Outside air temperature;
(8) Airspeed;
(9) Wind;
(10) Weather;
(11) Operation at night, if requested;
(12) Energy storage system capacity;
and
(13) Aircraft to pilot ratio.
(c) Tests must include the most
adverse combinations of the conditions
and configurations in paragraph (b) of
this section.
(d) Tests must show a distribution of
the different flight profiles and routes
representative of the type of operations
identified in the CONOPS.
(e) Tests must be conducted in
conditions consistent with the expected
environmental conditions identified in
the CONOPS, including electromagnetic
interference (EMI) and high intensity
radiated fields (HIRF).
(f) Tests must not require exceptional
piloting skill or alertness.
(g) Any UAS used for testing must be
subject to the same worst-case ground
handling, shipping, and transportation
loads as those allowed in service.
(h) Any UA used for testing must use
AE that meet, but do not exceed, the
minimum specifications identified
under D&R.105. If multiple AE are
identified, the applicant must
demonstrate each configuration.
(i) Any UAS used for testing must be
maintained and operated in accordance
with the ICA and UA Flight Manual. No
maintenance beyond the intervals
established in the ICA will be allowed
to show compliance with this section.
(j) If cargo operations or external-load
operations are requested, tests must
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Sfmt 4703
show, throughout the flight envelope
and with the cargo or external-load at
the most critical combinations of weight
and center of gravity, that—
(1) The UA is safely controllable and
maneuverable; and
(2) The cargo or external-load is
retainable and transportable.
D&R.305 Probable Failures
The UA must be designed such that
a probable failure will not result in a
loss of containment or control of the
UA. This must be demonstrated by test.
(a) Probable failures related to the
following equipment, at a minimum,
must be addressed:
(1) Propulsion systems;
(2) C2 link;
(3) Global Positioning System (GPS);
(4) Flight control components with a
single point of failure;
(5) Control station; and
(6) Any other AE identified by the
applicant.
(b) Any UA used for testing must be
operated in accordance with the UA
Flight Manual.
(c) Each test must occur at the critical
phase and mode of flight, and at the
highest aircraft-to-pilot ratio.
D&R.310 Capabilities and Functions
(a) All of the following required UAS
capabilities and functions must be
demonstrated by test:
(1) Capability to regain command and
control of the UA after the C2 link has
been lost.
(2) Capability of the electrical system
to power all UA systems and payloads.
(3) Ability for the pilot to safely
discontinue the flight.
(4) Ability for the pilot to dynamically
re-route the UA.
(5) Ability to safely abort a takeoff.
(6) Ability to safely abort a landing
and initiate a go-around.
(b) The following UAS capabilities
and functions, if requested for approval,
must be demonstrated by test:
(1) Continued flight after degradation
of the propulsion system.
(2) Geo-fencing that contains the UA
within a designated area, in all
operating conditions.
(3) Positive transfer of the UA
between control stations that ensures
only one control station can control the
UA at a time.
(4) Capability to release an external
cargo load to prevent loss of control of
the UA.
(5) Capability to detect and avoid
other aircraft and obstacles.
(c) The UA must be designed to
safeguard against inadvertent
discontinuation of the flight and
inadvertent release of cargo or external
load.
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Federal Register / Vol. 87, No. 178 / Thursday, September 15, 2022 / Notices
D&R.315 Fatigue
The structure of the UA must be
shown to withstand the repeated loads
expected during its service life without
failure. A life limit for the airframe must
be established, demonstrated by test,
and included in the ICA.
D&R.320 Verification of Limits
The performance, maneuverability,
stability, and control of the UA within
the flight envelope described in the UA
Flight Manual must be demonstrated at
a minimum of 5% over maximum gross
weight with no loss of control or loss of
flight.
Issued in Washington, DC, on September 9,
2022.
Ian Lucas,
Manager, Policy Implementation Section,
Policy and Innovation Division, Aircraft
Certification Service.
[FR Doc. 2022–20001 Filed 9–14–22; 8:45 am]
BILLING CODE 4910–13–P
DEPARTMENT OF TRANSPORTATION
National Highway Traffic Safety
Administration
[Docket No. NHTSA–2019–0020; Notice 2]
FCA US, LLC, Denial of Petition for
Decision of Inconsequential
Noncompliance
National Highway Traffic
Safety Administration (NHTSA),
Department of Transportation (DOT).
ACTION: Denial of petition.
AGENCY:
FCA US, LLC, (f/k/a Chrysler
Group, LLC) ‘‘FCA,’’ has determined
that certain Mopar branded headlamp
assemblies sold as aftermarket
equipment and installed as original
equipment in certain model year (MY)
2017–2018 Dodge Journey motor
vehicles do not fully comply with
Federal Motor Vehicle Safety Standard
(FMVSS) No. 108, Lamps, Reflective
Devices, and Associated Equipment.
FCA filed a noncompliance report for
the replacement equipment dated March
14, 2019, and later amended it on April
9, 2019. FCA also filed a noncompliance
report for the associated vehicles dated
March 14, 2019, and later amended it on
April 9, 2019, and April 25, 2019. FCA
subsequently petitioned NHTSA (the
‘‘Agency’’) on April 5, 2019, and filed a
supplemental petition on May 14, 2019,
for a decision that the subject
noncompliance is inconsequential as it
relates to motor vehicle safety. This
document announces the denial of
FCA’s petition.
FOR FURTHER INFORMATION CONTACT:
Leroy Angeles, Office of Vehicle Safety
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SUMMARY:
VerDate Sep<11>2014
16:56 Sep 14, 2022
Jkt 256001
Compliance, the National Highway
Traffic Safety Administration (NHTSA),
(202) 366–5304, Leroy.Angeles@dot.gov.
SUPPLEMENTARY INFORMATION:
I. Overview
FCA has determined that certain MY
2017–2018 Dodge Journey motor
vehicles and replacement Dodge
Journey headlamp assemblies do not
fully comply with paragraph S8.1.11 of
FMVSS No. 108, Lamps, Reflective
Devices, and Associated Equipment (49
CFR 571.108). FCA filed a
noncompliance report for the
replacement equipment dated March 14,
2019, and later amended it on April 9,
2019. FCA also filed a noncompliance
report for the associated vehicles dated
March 14, 2019, and later amended it on
April 9, 2019, and April 25, 2019,
pursuant to 49 CFR part 573, Defect and
Noncompliance Responsibility and
Reports. FCA subsequently petitioned
NHTSA on April 5, 2019, and filed a
supplemental petition on May 14, 2019,
for an exemption from the notification
and remedy requirements of 49 U.S.C.
chapter 301 on the basis that this
noncompliance is inconsequential as it
relates to motor vehicle safety, pursuant
to 49 U.S.C. 30118(d) and 30120(h) and
49 CFR part 556, Exemption for
Inconsequential Defect or
Noncompliance.
Notice of receipt of FCA’s petition
was published with a 30-day public
comment period, on February 28, 2020,
in the Federal Register (85 FR 12059).
No comments were received. To view
the petition and all supporting
documents, log onto the Federal Docket
Management System’s (FDMS) website
at https://www.regulations.gov/. Then
follow the online search instructions to
locate docket number ‘‘NHTSA–2019–
0020.’’
II. Equipment and Vehicles Involved
Approximately 16,604 Mopar
headlamp assemblies sold as
aftermarket equipment, manufactured
between August 2, 2017, and July 6,
2018, are potentially involved.
Approximately 84,908 MY 2017–2018
Dodge Journey motor vehicles,
manufactured between August 2, 2017,
and July 6, 2018, are potentially
involved.
III. Noncompliance
FCA explains that its subject vehicles
and equipment are noncompliant
because the subject headlamp
assemblies, sold as aftermarket
equipment and equipped in certain MY
2017–2018 Dodge Journey motor
vehicles, contain a front amber side
reflex reflector that does not meet the
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56749
photometric requirements specified in
paragraph S8.1.11 of FMVSS No. 108.
Specifically, the reflex reflector, in the
subject headlamp assemblies, does not
meet the minimum photometry
requirements at the observation angle of
0.2 degrees.
IV. Rule Requirements
Paragraph S8.1.11 of FMVSS No. 108
includes the requirements relevant to
this petition. Each reflex reflector must
be designed to conform to the
photometry requirements of Table XVI–
a, when tested according to the
procedure in paragraph S14.2.3 of
FMVSS No. 108, for the reflex reflector.
V. Summary of FCA’s Petition
The following views and arguments
presented in this section, ‘‘V. Summary
of FCA’s Petition,’’ are the views and
arguments provided by FCA. They do
not reflect the views of NHTSA.
FCA described the subject
noncompliance and stated that the
noncompliance is inconsequential as it
relates to motor vehicle safety. FCA
submitted the following views and
arguments in support of its petition:
1. FCA cites a prior NHTSA decision 1
on a petition for inconsequential
noncompliance and quotes NHTSA, in
part, as stating: ‘‘For the purposes of
FMVSS No. 108, the primary function of
a reflex reflector is to prevent crashes by
permitting early detection of an
unlighted motor vehicle at an
intersection or when parked on or by
the side of the road.’’ 2
2. Per FCA, the reflex reflectors on the
subject vehicles ‘‘perform adequately to
meet the safety purpose of the standard
because they permit the early detection
of an unlighted motor vehicle at an
intersection or when parked,
notwithstanding their deviation from
certain photometric requirements.’’
3. FCA believes that ‘‘the failure of
these reflex reflectors to meet the
photometric requirements does not
reduce their effectiveness in providing
the necessary visibility for oncoming
vehicles and that the difference between
the reflectivity provided by a compliant
reflector is not distinguishable from the
reflectivity provided by a noncompliant
reflector.’’ FCA compared the
performance of two Dodge Journey
vehicles, one equipped with a
compliant front side reflex reflector and
the other a noncompliant front side
reflex reflector parked front end-to-front
end across a road’s surface. Observers
1 See DRV, LLC, Denial of Petition for Decision of
Inconsequential Noncompliance; 82 FR 24204, May
25, 2017.
2 Emphasis added by FCA.
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Agencies
[Federal Register Volume 87, Number 178 (Thursday, September 15, 2022)]
[Notices]
[Pages 56743-56749]
From the Federal Register Online via the Government Publishing Office [www.gpo.gov]
[FR Doc No: 2022-20001]
-----------------------------------------------------------------------
DEPARTMENT OF TRANSPORTATION
Federal Aviation Administration
[Docket No. FAA-2022-0353]
Airworthiness Criteria: Special Class Airworthiness Criteria for
the MissionGO MGV100 Unmanned Aircraft
AGENCY: Federal Aviation Administration (FAA), Department of
Transportation (DOT).
ACTION: Notice of proposed airworthiness criteria.
-----------------------------------------------------------------------
SUMMARY: The FAA announces the availability of and requests comments on
proposed airworthiness criteria for the MissionGO Model MGV100 unmanned
aircraft (UA). This document proposes the airworthiness criteria the
FAA finds to be appropriate and applicable for the UA design.
DATES: Send comments on or before October 17, 2022.
ADDRESSES: Send comments identified by docket number FAA-2022-0353
using any of the following methods:
Federal eRegulations Portal: Go to https://www.regulations.gov and follow the online instructions for sending your
comments electronically.
Mail: Send comments to Docket Operations, M-30, U.S.
Department of Transportation (DOT), 1200 New Jersey Avenue SE, Room
W12-140, West Building Ground Floor, Washington, DC 20590-0001.
Hand Delivery or Courier: Take comments to Docket
Operations in Room W12-140 of the West Building Ground Floor at 1200
New Jersey Avenue SE, Washington, DC, between 9 a.m., and 5 p.m.,
Monday through Friday, except Federal holidays.
Fax: Fax comments to Docket Operations at 202-493-2251.
Privacy: The FAA will post all comments it receives, without
change, to https://regulations.gov, including any personal information
the commenter provides. Using the search function of the docket
website, anyone can find and read the electronic form of all comments
received into any FAA docket, including the name of the individual
sending the comment (or signing the comment for an association,
business, labor union, etc.). DOT's complete Privacy Act Statement can
be found in the Federal Register published on April 11, 2000 (65 FR
19477-19478), as well as at https://www.dot.gov/privacy.
Docket: Background documents or comments received may be read at
https://www.regulations.gov at any time. Follow the online instructions
for accessing the docket or go to the Docket Operations in Room W12-140
of the West Building Ground Floor at 1200 New Jersey Avenue SE,
Washington, DC, between 9 a.m., and 5 p.m., Monday through Friday,
except Federal holidays.
FOR FURTHER INFORMATION CONTACT: Christopher J. Richards, Emerging
Aircraft Strategic Policy Section, AIR-618, Strategic Policy Management
Branch, Policy and Innovation Division, Aircraft Certification Service,
Federal Aviation Administration, 6020 28th Avenue South, Room 103,
Minneapolis, MN 55450, telephone (612) 253-4559.
SUPPLEMENTARY INFORMATION:
Comments Invited
The FAA invites interested people to take part in the development
of these airworthiness criteria by sending written comments, data, or
views. The most helpful comments reference a specific portion of the
airworthiness
[[Page 56744]]
criteria, explain the reason for any recommended change, and include
supporting data. Comments on operational, pilot certification, and
maintenance requirements would address issues that are beyond the scope
of this document.
Except for Confidential Business Information as described in the
following paragraph, and other information as described in 14 CFR
11.35, the FAA will file in the docket all comments received, as well
as a report summarizing each substantive public contact with FAA
personnel concerning these proposed airworthiness criteria. Before
acting on this proposal, the FAA will consider all comments received on
or before the closing date for comments. The FAA will consider comments
filed late if it is possible to do so without incurring delay. The FAA
may change these airworthiness criteria based on received comments.
Confidential Business Information
Confidential Business Information (CBI) is commercial or financial
information that is both customarily and actually treated as private by
its owner. Under the Freedom of Information Act (FOIA) (5 U.S.C. 552),
CBI is exempt from public disclosure. If your comments responsive to
these proposed airworthiness criteria contain commercial or financial
information that is customarily treated as private, that you actually
treat as private, and that is relevant or responsive to these proposed
airworthiness criteria, it is important that you clearly designate the
submitted comments as CBI. Please mark each page of your submission
containing CBI as ``PROPIN.'' The FAA will treat such marked
submissions as confidential under the FOIA, and they will not be placed
in the public docket of these proposed airworthiness criteria.
Submissions containing CBI should be sent to the individual listed
under For Further Information Contact. Any commentary that the FAA
receives which is not specifically designated as CBI will be placed in
the public docket for these proposed airworthiness criteria.
Background
MissionGO applied to the FAA on November 4, 2020, for a special
class type certificate under 14 CFR 21.17(b) for the Model MGV100 UA.
The Model MGV100 consists of a rotorcraft UA and its associated
elements (AE) including communication links and components that control
the UA. The Model MGV100 UA has a maximum gross takeoff weight of 54
pounds. It has a rotor diameter of approximately 76.5 inches. It is
approximately 66.5 inches in fuselage length and 28.5 inches in height.
The Model MGV100 UA is battery-powered using electric motors for
vertical takeoff, landing, and forward flight. The unmanned aircraft
system (UAS) operations would rely on high levels of automation and
include a single UA operated by a single pilot. MissionGO anticipates
operators will use the Model MGV100 for delivering packages. The
proposed concept of operations for the Model MGV100 identifies a
maximum operating altitude of 400 feet above ground level, a maximum
cruise speed of 38 knots, operations beyond visual line of sight of the
pilot, and operations over human beings. MissionGO has not requested
type certification for flight into known icing for the Model MGV100.
Discussion
The FAA establishes airworthiness criteria to ensure the safe
operation of aircraft in accordance with 49 U.S.C. 44701(a) and 44704.
UA are type certificated by the FAA as special class aircraft for which
airworthiness standards have not been established by regulation. Under
the provisions of 14 CFR 21.17(b), the airworthiness standards for
special class aircraft are those the FAA finds to be appropriate and
applicable to the specific type design.
The applicant has proposed a design with constraints upon its
operations and an unusual design characteristic: the pilot is remotely
located. The FAA developed existing airworthiness standards to
establish an appropriate level of safety for each product and its
intended use. The FAA's existing airworthiness standards did not
envision aircraft with no pilot in the flight deck and the technologies
associated with that capability.
The FAA has reviewed the proposed design and assessed the potential
risk to the National Airspace System. The FAA considered the size of
the proposed aircraft, its maximum airspeed and altitude, and
operational limitations to address the number of unmanned aircraft per
operator and address operations in which the aircraft would operate
beyond the visual line of sight of the pilot. These factors allowed the
FAA to assess the potential risk the aircraft could pose to other
aircraft and to human beings on the ground. Using these parameters, the
FAA developed airworthiness criteria to address those potential risks
to ensure the aircraft remains reliable, controllable, safe, and
airworthy.
The proposed criteria focus on mitigating hazards by establishing
safety outcomes that must be achieved, rather than by establishing
prescriptive requirements that must be met. This is in contrast to many
current airworthiness standards, used to certificate traditional
aircraft systems, which prescribe specific indicators and instruments
for a pilot in a flight deck that would be inappropriate for UA. The
FAA finds that the proposed criteria are appropriate and applicable for
the UA design, based on the intended operational concepts for the UA as
identified by the applicant.
The FAA selected the particular airworthiness criteria proposed by
this notice for the following reasons:
General: In order to determine appropriate and applicable
airworthiness standards for UA as a special class of aircraft, the FAA
determined that the applicant must provide information describing the
characteristics and capabilities of the UA and how it will be used.
D&R.001 Concept of Operations: To assist the FAA in identifying and
analyzing the risks and impacts associated with integrating the
proposed UA design into the National Airspace System, the applicant
would be required to submit a Concept of Operations (CONOPS). The
proposed criteria would require the applicant's CONOPS to identify the
intended operational concepts for the UA and describe the UAS and its
operation. The applicant would be required to describe the information
in the CONOPS in sufficient detail to determine parameters and extent
of testing, as well as operating limitations that will be placed in the
UA Flight Manual. If the applicant requests to include collision
avoidance equipment, the proposed criteria would require the applicant
to identify such equipment in the CONOPS.
D&R.005 Definitions: The proposed criteria include a definitions
section, distinguishing the term ``loss of flight'' from ``loss of
control.''
Design and Construction: The FAA selected the design and
construction criteria in this section to address airworthiness
requirements where the flight testing demonstration alone may not be
sufficient to demonstrate an appropriate level of safety.
D&R.100 UA Signal Monitoring and Transmission: To address the risks
associated with loss of control of the UA, the applicant would be
required to design the UA to monitor and transmit to the AE all
information necessary for continued safe flight and operation. Some of
the AE are located separately
[[Page 56745]]
from the UA, and therefore are a unique feature to UAS. As a result, no
regulatory airworthiness standards exist that directly apply to this
part of the system. The FAA based some of the proposed criteria on
existing regulations that address the information that must be provided
to a pilot in the flight deck of a manned aircraft, and modified them
as appropriate to the UAS. These proposed criteria list the specific
minimum types of information the FAA finds are necessary for the UA to
transmit for continued safe flight and operation; however, the
applicant must determine whether additional parameters are necessary.
D&R.105 UAS AE Required for Safe UA Operations: Because safe UAS
operations depend and rely on both the UA and the AE, the FAA considers
the AE in assessing whether the UA meets the criteria that comprise the
certification basis. While the AE items themselves will be outside the
scope of the UA type design, the applicant must provide sufficient
specifications for any aspect of the AE, including the control station,
which could affect airworthiness. The proposed criteria would require a
complete and unambiguous identification of the AE and their interface
with the UA, so that their availability or use is readily apparent.
As explained in FAA Policy Memorandum AIR600-21-AIR-600-PM01, dated
July 13, 2021, the FAA will approve either the specific AE or minimum
specifications for the AE, as identified by the applicant, as part of
the type certificate by including them as an operating limitation in
the type certificate data sheet and flight manual. The FAA may impose
additional operating limitations specific to the AE through conditions
and limitations for inclusion in the operational approval (i.e.,
waivers, exemptions, operating certificates, or a combination of
these). In this way, the FAA will consider the entirety of the UAS for
operational approval and oversight.
D&R.110 Software: Software for manned aircraft is certified under
the regulations applicable to systems, equipment, and installations
(e.g., Sec. Sec. 23.2510, 25.1309, 27.1309, or 29.1309). There are two
regulations that specifically prescribe airworthiness standards for
software: Engine airworthiness standards (Sec. 33.28) and propeller
airworthiness standards (Sec. 35.23). The proposed UA software
criteria are based on these regulations and tailored for the risks
posed by UA software.
D&R.115 Cyber Security: The location of the pilot separate from the
UA requires a continuous wireless connection (command and control link)
with the UA for the pilot to monitor and control it. Because the
purpose of this link is to control the aircraft, this makes the UA
susceptible to cyber security threats in a unique way.
The current regulations for the certification of systems,
equipment, and installations (e.g., Sec. Sec. 23.2510, 25.1309,
27.1309, and 29.1309) do not adequately address potential security
vulnerabilities exploited by unauthorized access to aircraft systems,
data buses, and services. For manned aircraft, the FAA therefore issues
special conditions for particular designs with network security
vulnerabilities.
To address the risks to the UA associated with intentional
unauthorized electronic interactions, the applicant would be required
to design the UAS's systems and networks to protect against intentional
unauthorized electronic interactions and mitigate potential adverse
effects. The FAA based the language for the proposed criteria on
recommendations in the final report dated August 22, 2016, from the
Aircraft System Information Security/Protection (ASISP) working group
under the FAA's Aviation Rulemaking Advisory Committee. Although the
recommendations pertained to manned aircraft, the FAA has reviewed the
report and determined the recommendations are also appropriate for UA.
The wireless connections used by UA make these aircraft susceptible to
the same cyber security risks, and therefore require similar criteria
as manned aircraft.
D&R.120 Contingency Planning: The location of the pilot and the
controls for the UAS, separate from the UA, is a unique feature to UAS.
As a result, no regulatory airworthiness standards exist that directly
apply to this feature of the system.
To address the risks associated with loss of communication between
the pilot and the UA, and thus the pilot's inability to control the UA,
the proposed criteria would require that the UA be designed to
automatically execute a predetermined action. Because the pilot needs
to be aware of the particular predetermined action the UA will take
when there is a loss of communication between the pilot and the UA, the
proposed criteria would require that the applicant identify the
predetermined action in the UA Flight Manual. The proposed criteria
would also include requirements for preventing takeoff when quality of
service is inadequate.
D&R.125 Lightning: Because of the size and physical limitations of
this UA, it would be unlikely that this UA would incorporate
traditional lightning protection features. To address the risks that
would result from a lightning strike, the proposed criteria would
require an operating limitation in the UA Flight Manual that prohibits
flight into weather conditions conducive to lightning. The proposed
criteria would also allow design characteristics to protect the UA from
lightning as an alternative to the prohibition.
D&R.130 Adverse Weather Conditions: Because of the size and
physical limitations of this UA, adverse weather such as rain, snow,
and icing pose a greater hazard to the UA than to manned aircraft. For
the same reason, it would be unlikely that this UA would incorporate
traditional protection features from icing. The FAA based the proposed
criteria on the icing requirements in 14 CFR 23.2165(b) and (c) and
applied them to all of these adverse weather conditions. The proposed
criteria would allow design characteristics to protect the UA from
adverse weather conditions. As an alternative, the proposed criteria
would require an operating limitation in the UA Flight Manual that
prohibits flight into known adverse weather conditions, and either also
prevent inadvertent flight into adverse weather or provide a means to
detect and to avoid or exit adverse weather conditions.
D&R.135 Flight Essential Parts: The proposed criteria for flight
essential parts are substantively the standards for normal category
rotorcraft critical parts in Sec. 27.602, with changes to reflect UA
terminology and failure conditions. Because part criticality is
dependent on safety risk to those on board the aircraft, the term
``flight essential'' is used for those components of an unmanned
aircraft whose failure may result in loss of flight or unrecoverable
loss of UA control.
Operating Limitations and Information: Similar to manned aircraft,
the FAA determined that the UA applicant must provide airworthiness
instructions, operating limitations, and flight and performance
information necessary for the safe operation and continued operational
safety of the UA.
D&R.200 Flight Manual: The proposed criteria for the UA Flight
Manual are substantively the same as those in Sec. 23.2620, with minor
changes to reflect UA terminology.
D&R.205 Instructions for Continued Airworthiness: The proposed
criteria for the Instructions for Continued Airworthiness (ICA) are
substantively the same as that in Sec. 23.1529, with
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minor changes to reflect UA terminology.
Testing: Traditional certification methodologies for manned
aircraft are based on design requirements verified at the component
level by inspection, analysis, demonstration, or test. Due to the
difference in size and complexity, the FAA determined testing
methodologies that demonstrate reliability at the aircraft (UA) level,
in addition to the design and construction criteria identified in this
proposal, will achieve the same safety objective. The proposed testing
criteria in sections D&R.300 through D&R.320 utilize these
methodologies.
D&R.300 Durability and Reliability: The FAA intends the proposed
testing criteria in this section to cover key design aspects and
prevent unsafe features at an appropriate level tailored for this UA.
The proposed durability and reliability testing would require the
applicant to demonstrate safe flight of the UA across the entire
operational envelope and up to all operational limitations, for all
phases of flight and all aircraft configurations. The UA would only be
certificated for operations within the limitations prescribed for its
operating environment, as defined in the applicant's proposed CONOPS
and demonstrated by test. The FAA intends for this process to be
similar to the process for establishing limitations prescribed for
special purpose operations for restricted category aircraft. The
proposed criteria would require that all flights during the testing be
completed with no failures that result in a loss of flight, loss of
control, loss of containment, or emergency landing outside of the
operator's recovery zone.
For some aircraft design requirements imposed by existing
airworthiness standards (e.g., Sec. Sec. 23.2135, 23.2600, 25.105,
25.125, 27.141, 27.173, 29.51, 29.177), the aircraft must not require
exceptional piloting skill or alertness. These rules recognize that
pilots have varying levels of ability and attention. In a similar
manner, the proposed criteria would require that the durability and
reliability flight testing be performed by a pilot with average skill
and alertness.
Flight testing will be used to determine the aircraft's ability to
withstand flight loads across the range of operating limits and the
flight envelope. Because small UA may be subjected to significant
ground loads when handled, lifted, carried, loaded, maintained, and
transported physically by hand, the proposed criteria would require
that the aircraft used for testing endure the same worst-case ground
loads as those the UA will experience in operation after type
certification.
D&R.305 Probable Failures: The FAA intends the proposed testing
criteria to evaluate how the UA functions after failures that are
probable to occur. The applicant will test the UA by inducing certain
failures and demonstrating that the failure will not result in a loss
of containment or control of the UA. The proposed criteria contain the
minimum types of failures the FAA finds are probable; however, the
applicant must determine the probable failures related to any other
equipment that will be addressed for this requirement.
D&R.310 Capabilities and Functions: The proposed criteria for this
section address the minimum capabilities and functions the FAA finds
are necessary for the design of the UA and would require the applicant
to demonstrate these capabilities and functions by test. Due to the
location of the pilot and the controls for UAS, separate from the UA,
communication between the pilot and the UA is significant to the
design. Thus, the proposed criteria would require the applicant to
demonstrate the capability of the UAS to regain command and control
after a loss. As with manned aircraft, the electrical system of the UA
must have a capacity sufficient for all anticipated loads; the proposed
criteria would require the applicant to demonstrate this by test.
The proposed criteria contain functions that would allow the pilot
to command the UA to deviate from its flight plan or from its pre-
programmed flight path. For example, in the event the pilot needs to
deconflict the airspace, the UA must respond to pilot inputs that
override any pre-programming.
In the event an applicant requests approval for certain features,
such as geo-fencing or external cargo, the proposed criteria contain
requirements to address the associated risks. The proposed criteria in
this section would also require the design of the UA to safeguard
against unintended discontinuation of flight or release of cargo,
whether by human action or malfunction.
D&R.315 Fatigue: The FAA intends the proposed criteria in this
section to address the risks from reduced structural integrity and
structural failure due to fatigue. The proposed criteria would require
the applicant to establish an airframe life limit and demonstrate that
loss of flight or loss of control due to structural failure will be
avoided throughout the operational life of the UA. These proposed
criteria would require the applicant to demonstrate this by test, while
maintaining the UA in accordance with the ICA.
D&R.320 Verification of Limits: This section would evaluate
structural safety and address the risks associated with inadequate
structural design. While the proposed criteria in D&R.300 address
testing to demonstrate that the UA structure adequately supports
expected loads throughout the flight and operational envelopes, the
proposed criteria in this section would require an evaluation of the
performance, maneuverability, stability, and control of the UA with a
factor of safety.
Applicability
These airworthiness criteria, established under the provisions of
Sec. 21.17(b), are applicable to the Model MGV100 UA. Should MissionGO
apply at a later date for a change to the type certificate to include
another model, these airworthiness criteria would apply to that model
as well, provided the FAA finds them appropriate in accordance with the
requirements of subpart D to part 21.
Conclusion
This action affects only the airworthiness criteria for the one
model UA. It is not a standard of general applicability.
Authority Citation
The authority citation for these airworthiness criteria is as
follows:
Authority: 49 U.S.C. 106(g), 40113, 44701, 44702, 44704.
Proposed Airworthiness Criteria
The FAA proposes to establish the following airworthiness criteria
for type certification of the MissionGO Model MGV100 UA. The FAA
proposes that compliance with the following would mitigate the risks
associated with the proposed design and Concept of Operations
appropriately and would provide an equivalent level of safety to
existing rules:
General
D&R.001 Concept of Operations
The applicant must define and submit to the FAA a concept of
operations (CONOPS) proposal describing the unmanned aircraft system
(UAS) operation in the national airspace system for which unmanned
aircraft (UA) type certification is requested. The CONOPS proposal must
include, at a minimum, a description of the following information in
sufficient detail to determine the parameters and extent of testing and
operating limitations:
(a) The intended type of operations;
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(b) UA specifications;
(c) Meteorological conditions;
(d) Operators, pilots, and personnel responsibilities;
(e) Control station, support equipment, and other associated
elements (AE) necessary to meet the airworthiness criteria;
(f) Command, control, and communication functions;
(g) Operational parameters (such as population density, geographic
operating boundaries, airspace classes, launch and recovery area,
congestion of proposed operating area, communications with air traffic
control, line of sight, and aircraft separation); and
(h) Collision avoidance equipment, whether onboard the UA or part
of the AE, if requested.
D&R.005 Definitions
For purposes of these airworthiness criteria, the following
definitions apply.
(a) Loss of Control: Loss of control means an unintended departure
of an aircraft from controlled flight. It includes control reversal or
an undue loss of longitudinal, lateral, and directional stability and
control. It also includes an upset or entry into an unscheduled or
uncommanded attitude with high potential for uncontrolled impact with
terrain. A loss of control means a spin, loss of control authority,
loss of aerodynamic stability, divergent flight characteristics, or
similar occurrence, which could generally lead to crash.
(b) Loss of Flight: Loss of flight means a UA's inability to
complete its flight as planned, up to and through its originally
planned landing. It includes scenarios where the UA experiences
controlled flight into terrain, obstacles, or any other collision, or a
loss of altitude that is severe or non-reversible. Loss of flight also
includes deploying a parachute or ballistic recovery system that leads
to an unplanned landing outside the operator's designated recovery
zone.
Design and Construction
D&R.100 UA Signal Monitoring and Transmission
The UA must be designed to monitor and transmit to the AE all
information required for continued safe flight and operation. This
information includes, at a minimum, the following:
(a) Status of all critical parameters for all energy storage
systems;
(b) Status of all critical parameters for all propulsion systems;
(c) Flight and navigation information as appropriate, such as
airspeed, heading, altitude, and location; and
(d) Communication and navigation signal strength and quality,
including contingency information or status.
D&R.105 UAS AE Required for Safe UA Operations
(a) The applicant must identify and submit to the FAA all AE and
interface conditions of the UAS that affect the airworthiness of the UA
or are otherwise necessary for the UA to meet these airworthiness
criteria. As part of this requirement--
(1) The applicant may identify either specific AE or minimum
specifications for the AE.
(i) If minimum specifications are identified, they must include the
critical requirements of the AE, including performance, compatibility,
function, reliability, interface, operator alerting, and environmental
requirements.
(ii) Critical requirements are those that if not met would impact
the ability to operate the UA safely and efficiently.
(2) The applicant may use an interface control drawing, a
requirements document, or other reference, titled so that it is clearly
designated as AE interfaces to the UA.
(b) The applicant must show the FAA the AE or minimum
specifications identified in paragraph (a) of this section meet the
following:
(1) The AE provide the functionality, performance, reliability, and
information to assure UA airworthiness in conjunction with the rest of
the design;
(2) The AE are compatible with the UA capabilities and interfaces;
(3) The AE must monitor and transmit to the operator all
information required for safe flight and operation, including but not
limited to those identified in D&R.100; and
(4) The minimum specifications, if identified, are correct,
complete, consistent, and verifiable to assure UA airworthiness.
(c) The FAA will establish the approved AE or minimum
specifications as operating limitations and include them in the UA type
certificate data sheet and Flight Manual.
(d) The applicant must develop any maintenance instructions
necessary to address implications from the AE on the airworthiness of
the UA. Those instructions will be included in the instructions for
continued airworthiness (ICA) required by D&R.205.
D&R.110 Software
To minimize the existence of software errors, the applicant must:
(a) Verify by test all software that may impact the safe operation
of the UA;
(b) Utilize a configuration management system that tracks,
controls, and preserves changes made to software throughout the entire
life cycle; and
(c) Implement a problem reporting system that captures and records
defects and modifications to the software.
D&R.115 Cybersecurity
(a) UA equipment, systems, and networks, addressed separately and
in relation to other systems, must be protected from intentional
unauthorized electronic interactions that may result in an adverse
effect on the security or airworthiness of the UA. Protection must be
ensured by showing that the security risks have been identified,
assessed, and mitigated as necessary.
(b) When required by paragraph (a) of this section, procedures and
instructions to ensure security protections are maintained must be
included in the ICA.
D&R.120 Contingency Planning
(a) The UA must be designed so that, in the event of a loss of the
command and control (C2) link, the UA will automatically and
immediately execute a safe predetermined flight, loiter, landing, or
termination.
(b) The applicant must establish the predetermined action in the
event of a loss of the C2 link and include it in the UA Flight Manual.
(c) The UA Flight Manual must include the minimum performance
requirements for the C2 data link defining when the C2 link is degraded
to a level where remote active control of the UA is no longer ensured.
Takeoff when the C2 link is degraded below the minimum link performance
requirements must be prevented by design or prohibited by an operating
limitation in the UA Flight Manual.
D&R.125 Lightning
(a) Except as provided in paragraph (b) of this section, the UA
must have design characteristics that will protect the UA from loss of
flight or loss of control due to lightning.
(b) If the UA has not been shown to protect against lightning, the
UA Flight Manual must include an operating limitation to prohibit
flight into weather conditions conducive to lightning activity.
D&R.130 Adverse Weather Conditions
(a) For purposes of this section, ``adverse weather conditions''
means rain, snow, and icing.
(b) Except as provided in paragraph (c) of this section, the UA
must have design characteristics that will allow the UA to operate
within the adverse weather conditions specified in the
[[Page 56748]]
CONOPS without loss of flight or loss of control.
(c) For adverse weather conditions for which the UA is not approved
to operate, the applicant must develop operating limitations to
prohibit flight into known adverse weather conditions and either:
(1) Develop operating limitations to prevent inadvertent flight
into adverse weather conditions; or
(2) Provide a means to detect any adverse weather conditions for
which the UA is not certificated to operate and show the UA's ability
to avoid or exit those conditions.
D&R.135 Flight Essential Parts
(a) A flight essential part is a part, the failure of which could
result in a loss of flight or unrecoverable loss of UA control.
(b) If the type design includes flight essential parts, the
applicant must establish a flight essential parts list. The applicant
must develop and define mandatory maintenance instructions or life
limits, or a combination of both, to prevent failures of flight
essential parts. Each of these mandatory actions must be included in
the Airworthiness Limitations Section of the ICA.
Operating Limitations and Information
D&R.200 Flight Manual
The applicant must provide a Flight Manual with each UA.
(a) The UA Flight Manual must contain the following information:
(1) UA operating limitations;
(2) UA operating procedures;
(3) Performance information;
(4) Loading information; and
(5) Other information that is necessary for safe operation because
of design, operating, or handling characteristics.
(b) Those portions of the UA Flight Manual containing the
information specified in paragraph (a)(1) of this section must be
approved by the FAA.
D&R.205 Instructions for Continued Airworthiness
The applicant must prepare ICA for the UA in accordance with
Appendix A to part 23, as appropriate, that are acceptable to the FAA.
The ICA may be incomplete at type certification if a program exists to
ensure their completion prior to delivery of the first UA or issuance
of a standard airworthiness certificate, whichever occurs later.
Testing
D&R.300 Durability and Reliability
The UA must be designed to be durable and reliable when operated
under the limitations prescribed for its operating environment, as
documented in its CONOPS and included as operating limitations on the
type certificate data sheet and in the UA Flight Manual. The durability
and reliability must be demonstrated by flight test in accordance with
the requirements of this section and completed with no failures that
result in a loss of flight, loss of control, loss of containment, or
emergency landing outside the operator's recovery area.
(a) Once a UA has begun testing to show compliance with this
section, all flights for that UA must be included in the flight test
report.
(b) Tests must include an evaluation of the entire flight envelope
across all phases of operation and must address, at a minimum, the
following:
(1) Flight distances;
(2) Flight durations;
(3) Route complexity;
(4) Weight;
(5) Center of gravity;
(6) Density altitude;
(7) Outside air temperature;
(8) Airspeed;
(9) Wind;
(10) Weather;
(11) Operation at night, if requested;
(12) Energy storage system capacity; and
(13) Aircraft to pilot ratio.
(c) Tests must include the most adverse combinations of the
conditions and configurations in paragraph (b) of this section.
(d) Tests must show a distribution of the different flight profiles
and routes representative of the type of operations identified in the
CONOPS.
(e) Tests must be conducted in conditions consistent with the
expected environmental conditions identified in the CONOPS, including
electromagnetic interference (EMI) and high intensity radiated fields
(HIRF).
(f) Tests must not require exceptional piloting skill or alertness.
(g) Any UAS used for testing must be subject to the same worst-case
ground handling, shipping, and transportation loads as those allowed in
service.
(h) Any UA used for testing must use AE that meet, but do not
exceed, the minimum specifications identified under D&R.105. If
multiple AE are identified, the applicant must demonstrate each
configuration.
(i) Any UAS used for testing must be maintained and operated in
accordance with the ICA and UA Flight Manual. No maintenance beyond the
intervals established in the ICA will be allowed to show compliance
with this section.
(j) If cargo operations or external-load operations are requested,
tests must show, throughout the flight envelope and with the cargo or
external-load at the most critical combinations of weight and center of
gravity, that--
(1) The UA is safely controllable and maneuverable; and
(2) The cargo or external-load is retainable and transportable.
D&R.305 Probable Failures
The UA must be designed such that a probable failure will not
result in a loss of containment or control of the UA. This must be
demonstrated by test.
(a) Probable failures related to the following equipment, at a
minimum, must be addressed:
(1) Propulsion systems;
(2) C2 link;
(3) Global Positioning System (GPS);
(4) Flight control components with a single point of failure;
(5) Control station; and
(6) Any other AE identified by the applicant.
(b) Any UA used for testing must be operated in accordance with the
UA Flight Manual.
(c) Each test must occur at the critical phase and mode of flight,
and at the highest aircraft-to-pilot ratio.
D&R.310 Capabilities and Functions
(a) All of the following required UAS capabilities and functions
must be demonstrated by test:
(1) Capability to regain command and control of the UA after the C2
link has been lost.
(2) Capability of the electrical system to power all UA systems and
payloads.
(3) Ability for the pilot to safely discontinue the flight.
(4) Ability for the pilot to dynamically re-route the UA.
(5) Ability to safely abort a takeoff.
(6) Ability to safely abort a landing and initiate a go-around.
(b) The following UAS capabilities and functions, if requested for
approval, must be demonstrated by test:
(1) Continued flight after degradation of the propulsion system.
(2) Geo-fencing that contains the UA within a designated area, in
all operating conditions.
(3) Positive transfer of the UA between control stations that
ensures only one control station can control the UA at a time.
(4) Capability to release an external cargo load to prevent loss of
control of the UA.
(5) Capability to detect and avoid other aircraft and obstacles.
(c) The UA must be designed to safeguard against inadvertent
discontinuation of the flight and inadvertent release of cargo or
external load.
[[Page 56749]]
D&R.315 Fatigue
The structure of the UA must be shown to withstand the repeated
loads expected during its service life without failure. A life limit
for the airframe must be established, demonstrated by test, and
included in the ICA.
D&R.320 Verification of Limits
The performance, maneuverability, stability, and control of the UA
within the flight envelope described in the UA Flight Manual must be
demonstrated at a minimum of 5% over maximum gross weight with no loss
of control or loss of flight.
Issued in Washington, DC, on September 9, 2022.
Ian Lucas,
Manager, Policy Implementation Section, Policy and Innovation Division,
Aircraft Certification Service.
[FR Doc. 2022-20001 Filed 9-14-22; 8:45 am]
BILLING CODE 4910-13-P