THE LEGAL LANDSCAPE OF AUTONOMOUS VEHICLES: ISSUES OF LIABILITY BY - MRUNALI BALASAHEB KHAVALE
THE LEGAL LANDSCAPE OF AUTONOMOUS
VEHICLES: ISSUES OF LIABILITY
AUTHORED BY
- MRUNALI BALASAHEB KHAVALE
Roll No. –
43 Div - A Semester – III 2024-2025
DEPARTMENT
OF LAW LL.M. – II
P. E. SOCIETY’S
MODERN LAW COLLEGE (Ganeshkhind, University Circle, Pune)
Abstract:
This article is an attempt to
investigate the means and need for the legislation for liability by the conceptual study of existing
regulatory framework covering motor vehicle in India, through the study of legislations in United
Kingdom and United States of America, both of which have remarkably excelled in developing their legal provisions to accommodate autonomous vehicles. It delves
into the multifaceted ethical landscape surrounding autonomous vehicles, exploring
the challenges, dilemmas,
and the imperative role of ethical
decision-making in shaping
the future of transportation. Recently,
on 15th September,2024 Bengaluru has implemented an AI-driven Adaptive Traffic
Control System (ATCS) at 41 junctions, reducing the need for manual traffic management. This upgrade is part of
Bengaluru’s broader initiative to
fully automate its traffic control systems, reducing the need for human
intervention and aiming for more efficient
traffic management.
KEYWORDS: AI-driven
Adaptive Traffic Control
System (ATCS), Technological advancement, Product liability,
Negligence.
Introduction:
Autonomous vehicle: a car that runs on driver assistance software and
does not require a human driver. Automobile
automation comes in six levels, from completely
manual driving at stage 0 to
fully automated self-driving cars at stage 5. Even though the phrases
autonomous and self- driving are
sometimes used interchangeably, automobiles that are now on the market cannot function entirely on their own and require
human interaction to operate. Using the phrase
automated is typical practice in the industry. Radar, GPS, cameras,
lidar, and other remote sensing
technologies are used by autonomous cars to monitor and map their surroundings
in three dimensions. Typically, this environment consists
of road signs, traffic signals,
pedestrians, other cars, and street infrastructure. As sensors continuously communicate changes
about the car's surroundings, powerful computer systems assess the collected
data and make decisions about how to
operate the vehicle, continuously altering the steering, cruising speed, acceleration, and braking.[1]
Evolution:
Around the 1920s, in the USA, due
to the large number of accidents
caused by the carelessness of drivers,
the development of driverless vehicles was discussed. Thus, in August 1921, the first vehicle without
driver on board was presented, which was radio-controlled from an army vehicle located 30m behind it.[2]
It can be said that this is the pioneer of cars without
a driver. The development of this
prototype being closely linked to the technology owned by the army,. Of course, after this presentation, other
vehicles appeared either based on the same technology
or on something more innovative:
·
in
1925, the electronic engineer Francis P. Houdina, equipped an ordinary vehicle
with the equipment necessary to
perform driving maneuvers, being
controlled remotely by radio waves,
·
in 1939 during the exhibition
“Futurama”, an innovative concept
propelled by magnetic field generated by the electric circuit incorporated in
the running track was presented. It
was made by industrial designer Norman Bel Geddes with the support of General
Motors,
·
in
1958 – the first “automatically guided automobile” completed a one-mile test at
the GM Technical Centre (Michigan). It
was a Chevrolet that had two electronic
sensors mounted in the front that followed
a cable stretched along the track, thus, controlling the position of the steering wheel and implicitly the steering wheels.
·
in the 1980s, research
on autonomous vehicles
took off in many countries, both
·
academically and industrially.
·
in
1994 in the PROMETHEUS-Project, Ernst Dickman’s team developed with the help of Mercedes Benz W140 – a robotic vehicle, which was able to travel on
congested highways around Paris at speeds of up to 130 Km/h,
Thus, manufacturers companies
such as: Mercedes-Benz, General Motors, Continental Automotive System, Autoliv, Bosch, Nissan, Toyota,
Audi, Hyundai Motor
Company, Volvo, Tesla
Motors, Peugeot, Navya, Google,
BMW, Local Motors,
Easy Mile, etc., have developed and are still developing new prototypes of autonomous vehicles.
Due to this technological boom, the legislative framework on the testing and circulation of autonomous/automated/robotic
vehicles in many countries needs to be rethought. In this sense, in 2013 the UK government allowed their
testing on public roads, after that, in 2014, the French Government adopted the same legislative measures, followed by
other European countries and not only
(in 2015, 5 US states allow AV testing on public
roads: Nevada, Florida, California, Virginia, Michigan).
Technological Advancements in Autonomous Vehicles:
Artificial Intelligence or AI is evolving into a powerful tool that
enables machines to think and act like humans. There is considerable empirical evidence to infer that AI is "Cognitive Computing" where machines (Specifically computers) are being made to infer, reason,
perceive, think, sense and act like humans.
Autonomous Vehicles or Self-Driven Cars use AI to control the car.
Autonomous cars works and is
dependent on sensors, actuators, complex algorithms, machine learning systems
and powerful processors to implement
software. Autonomous cars sense the environment based on a variety of sensors situated in different
parts of the vehicle.
Radars sensors monitor the position
and distance of the nearby vehicle. Cameras detect traffic lights, road signs,
track other vehicles and look for
pedestrians. LIDAR (Light detection and ranging) sensors bounce a pulse of light off the car's surroundings to
measure distance, detect road edges and identify lane marking.[3]
As of now, the concern is not weather India is in the position to
accommodate Autonomous vehicles, but whether Indian Laws are
capable to tackle the problem arising
out of it i.e., liability
for accidents.
Automated vehicle systems are based on artificial intelligence and
machine learning. Vehicles are
educated to learn from the complicated data they acquire through machine
learning, which enhances the
algorithms they run on and increases their capacity for road navigation. Vehicle systems may now make decisions about how
to function without requiring precise instructions for every scenario
that might arise
while driving thanks
to artificial intelligence. linked car technology Through radio waves, vehicles can "see" each other and their surroundings, allowing them to view a
larger
picture
of
their
surroundings. Technology in connected cars makes it possible to communicate
with infrastructure and other cars.
Challenges of current AV technology: 6 major challenges:
1.
Traffic Management
AV evangelists often
refer to the traffic flow efficiency that could be created by self-driving vehicles. Cars that communicate with one another
can avoid accidents
and travel much more
closely together, maximizing space. Much of the current AV conversation,
however, has been focused on personal
vehicles. There is enormous potential for self-driving trucks in platooning, the concept for big rigs to drive in
caravans extremely close to each other, or self- driving shuttles that can help solve first mile/last mile traffic
issues. The problem with these estimates, according
to the report, is that if self-driving vehicles become available too quickly,
that may lead to more personal
vehicles on the road, thus disincentivizing more traffic-efficient public transportation options. AVs could lead to
longer commutes, because riders could use their time for reading or perusing social media on a smartphone. Seattle may be able to reap the benefits of limited AV deployment by requiring traffic data to better inform the city
departments on how traffic flow is
and where the congestion points are. Currently, Seattle’s Advances Traffic Management System (ATMS) is capable of collecting on-street traffic data, but transmitting AV traffic data to ATMS could optimize
traffic patterns through signal manipulation or direct communication.
2. Infrastructure
Because of the radical change that AVs will bring to the current system
of transportation, infrastructure pitfalls
will become a glaring need. Often, AVs need clear lane striping,
places to store the data
collected by driving and if they run on electricity a more robust charging network. Without properly anticipating the
sometimes opaque challenges, the system could be crippled in its infancy. The report recommends opening dialog
now in order to prioritize public investments in infrastructure. Engaging
in community and industry outreach
could help officials understand whether it would be
necessary to expand existing infrastructure or establish new features for AVs.
3. Revenue
In its ultimate form, AVs will
not run red lights, they will not
speed down the highway over the limit or overstay metered parking
spots. This will, however, impact the city’s budget. In Seattle, traffic fines constitute 2.6 percent of the city’s
operating fund. Seattle will have to generate
new revenue streams in order to counteract the loss of funding. One suggestion
from the report is for the city to develop a mileage tax or an AV registration tax.
4. Liability
Insurance
One of the murkiest areas for self-driving vehicles is the issue of liability and insurance. How will insurance companies handle fender
benders while a driver was reading and not paying attention to the road?
Furthermore, who will constitute as the “driver;” who has ultimate “control”? The answer again lies in community partnerships. The report recommends opportunities for partnering with AV companies to facilitate the
smooth introduction to AVs. And while
many insurance and liability issues
are not under city jurisdiction, Seattle should remain informed of developing liability
policies.
5. Police and Emergency
Response
More questions arise from AVs when thinking about law enforcement. How
will police officers be able to
recognize if a tailgating car is actually a series of connected AVs? It is not
hard to imagine AVs being used as
drug mules to transport narcotics. Local police departments could also become confused if during a routine
traffic stop, an AV is pulled over. In
the short term, the report suggests developing specific training procedures for
police and emergency services
interactions with AVs. In the long run,
law enforcement agents may want to
work with manufacturers on creating a “kill switch” to disable an AV that could
be suspected of transporting illegal
cargo. In the medium term, emergency services could coordinate with AVs to automate some police surveillance efforts or ambulance
dispatch.
6. Social Justice and Equity
Among the most challenging issues facing the onset of AVs is the danger
that it could overly benefit the
wealthy and create more burdens for lower income residents. If AVs follow
typical ownership models, the
technology will be exclusively owned by the upper class, and lower- income community members will
inadvertently be forced to bear the
brunt of traffic fines. Those without
AVs may also be disadvantaged when it comes to employment, as those with AVs would be able to work and answer emails while commuting. There
is no easy solution to this problem. “Seattle should proactively consider both
the positive and negative impacts of AV technologies and
policy responses on disadvantaged groups at every
stage of regulation development and infrastructure funding,” the report reads.
Only by actively staying aware of the
benefits and drawbacks will Seattle officials be able to distribute the benefits equally.[4]
LEGAL AND REGULATORY FRAMEWORK
FOR
AUTONOMOUS VEHICLES:
Law Relating
To Registration Of Vehicle:
Registration is a proof of ownership, and it is also an important
document for the sale of a vehicle
and transfer of its ownership.[5]
Vehicle Registration is mandatory under the purview of section 39 of The Motor Vehicle Act, 1988
that falls under the Concurrent List of Schedule VII
of the Constitution of India. Section 39 prohibits driving of any unregistered
motor vehicle and states
that no owner of the vehicle should
permit driving of an unregistered vehicle in public place, which is not registered
under the provision of the MV Act. The exception to this provision is cars with the dealers. Section 192 of The Motor
Vehicle Act, 1988, states that whoever
drives a motor vehicle or causes or allows a motor vehicle to be used in
contravention of the provisions of
Section 39 shall be punishable with a fine, which may extend to five thousand rupees but shall not be less than
two thousand rupees for a second time or subsequent offence with imprisonment which may extend to one year or with
fine which may extend to ten thousand rupees but shall not be less than five thousand rupees or with both.
Car Manufacturers Vs. Legislative Reality:
A well-established system for assessing
blame and fault for human operated automotive accidents currently exists. However, no easy solution exists or
is available for state legislatures or courts to deal with the problem of accident aftermath
involving AVs. AVs are used in such a
limited capacity right now, compared to regular car usage, that legislatures
are not likely to fully address these
issues now or in the near future Uncertainty remains. Both Ford and BMW have announced that fully autonomous
vehicles most likely will not be ready until 2021. Even so, 2021 seems like a lofty goal to some. Car manufacturers have
yet to properly teach AVs to traverse certain weather conditions and certain scenarios
where it may be necessarily safer for an AV to break the law (even though this
would contradict how AVs are programmed to act). However, the Insurance Institute for Highway Safety (IIHS)
predicts there will be 3.5 million AVs
by 2025 and 4.5 million AVs by 2030.In addition, the IIHS added that these AVs
would not be fully autonomous. This
shows a rapid increase in production and thus an increasing need for establishing laws.
Product Liability
And Its Implications For AV Manufacturers:
AV manufacturers must prepare for potential product liability risk when
individuals or property are damaged
by or in circumstances surrounding autonomous vehicles. Such product liability matters are most likely to centre around
the AV technology, as opposed to driver, road, and weather conditions (thereby limiting defences). Product
liability plaintiffs will likely pursue what a company did to fully understand its artificial intelligence (“AI”) capabilities, what inputs
were used to guide AI, and how a product was programmed to react
to various inputs. As responsibility for accidents shifts away from drivers and toward those that design,
manufacture, and maintain AVs, the pool of companies potentially liable
for accidents will deepen—as will the
complexity of sorting out who should be held responsible. One anticipated challenge will be assessing whether
software or hardware caused a particular event, which will require litigants and courts to delve
into, among other fairly novel subjects, the interactions between them. This may be particularly
troubling for entities within the supply chain that lack access to proprietary source code, which often sits at the root of sorting this out.[6] The manufacturer can also defend their product failure and are not defense less as described
below.
1. Comparative negligence:
The manufacturer has a comparative negligence defense, arguing that they
cannot be fully or partially held
liable because of the negligence of the claimant. The court will analyze the claimant’s conduct when the accident happened, e.g., the operator
decided not to intervene when the
accident happened, etc. Similarly, a claimant reading a book is more negligent
as compared to an attentive driver.
The disabled driver cannot do anything, but for an attentive driver, evidence isrequired that the
accident could not have been prevented even with operator intervention. However, the situation is
more complex for diminished capabilities and distracted drivers. On the other hand, manufacturers cannot avoid liability
by forcing anyone to be attentive.
2. Misuse:
The Manufacturer can also use a misuse defense. A manufacturer can only
warn people that an accident will
happen if the product will be misused. The manufacturer is not liable for all
kinds of misuses. However, reading
a book is not misusing the AV.
3. State of the art:
The state of the art defense can be used against design defect and
warning defect claims. For warning
defects, the manufacturer can only warn based on current technology and
scienti?c knowledge at the time of production. Similarly, for design
defect, the manufacturer can only be liable if he has not used an advanced
design at the time of production to make the AV safe. A
claimant can only win the claim if he proves hat a better
design/technology was available and was not used
by the manufacturer at the time of production.
4. Assumption of risk:
The manufacturers have to inform the buyer about the potential risk of
using the product to use this
defence. For example, the user must be informed that he must take control of
the AV in snowy conditions. Assume
that the consumer has no idea that the snow will start during the journey. Then, the snow starts during the
trip, and the AV asks the operator to take control. However, whether the manufacturer can use this defence or not
will depend on who is the operator at
that time, as a disabled driver cannot do anything. Similarly, it depends on
the capability of the diminished capability driver, whether
he can take control or not. For a distracted driver, the AV can ask the
driver to ace control. The attentive driver should take control in such a situation.
Legal Challenges
For India:
The current legal framework that governs automobiles in India poses a
serious obstacle for the introduction
of the automated vehicles in India and a serious legal-policy transformation
needs to be undertaken to achieve the needful.
Currently, automobiles and their operation in India are regulated and
governed by a statute named the motor
vehicles act, 1988 which does not
legally permit and sanction the usage of autonomous
vehicles in India. In fact,
the regulatory system is so restrictive and complicated in nature that even testing
of AVs is not allowed
within India. The draft
motor vehicles (amendment) bill of 2017 does provide for testing. However, not
much progress has been made post the proposing of the bill.
Another significant issue that arises with respect to providing legal
sanction to AVs is the allocation of liability in case a self-driven vehicle
hits a pedestrian or another
automobile on the road. As per the current laws in
India, there arises a no-fault liability as per section 140 of the motor
vehicle act, 1988 on the owner or insurance
company in case of fatality or permanent disability. There are also
apprehensions regarding privacy issues that arise with the emergence of AVs, as these vehicles require an enormous amount of personal
data and user preferences.[7]
Ethical Considerations in Autonomous Vehicle Development:
As technology propels us toward a future of self-driving cars, the
intersection of innovation, safety,
and moral responsibility takes centre stage. The very nature of autonomous
vehicles, which operate through
algorithms and machine learning, raises ethical questions that challenge both developers and society.
The Core Ethical Considerations
1.
Safety and Liability: Determining who bears responsibility
in the event of accidents involving autonomous vehicles is a pressing ethical
concern.
2.
Decision-Making Algorithms: Autonomous vehicles must be
programmed to make split-second ethical
decisions, such as choosing between
protecting occupants or pedestrians.
3.
Privacy: Autonomous vehicles
gather vast amounts
of data about passengers' movements
and preferences, sparking concerns about data privacy.
4.
Job
Displacement: As autonomous vehicles replace human drivers, ethical
considerations arise around the impact on employment
in the transportation sector.
Advantages of Ethical Considerations in Autonomous Vehicle
Development
1.
Public Trust: Ethical decision-making fosters public trust, essential
for the successful adoption of autonomous vehicles.
2.
Safety Enhancement: Ensuring ethical algorithmic decision-making can lead to safer road environments for all users.
3.
Privacy Preservation: Addressing privacy concerns safeguards user data, promoting
ethical behaviour in autonomous systems.
4.
Societal Integration: Ethical development ensures
that autonomous vehicles
seamlessly integrate with existing societal norms.
Safety and Liability: The Moral Quandary
·
The
Trolley Problem: Autonomous vehicles face scenarios where they must make life- and-death decisions. Balancing the moral
outcomes in such cases poses a significant challenge.
·
The Responsibility Spectrum: Determining the party responsible—be
it the vehicle manufacturer, software
developer, or human occupant—in case of accidents
is a complex issue.
Privacy in the Age of Data Collection
·
Data Collection: Autonomous vehicles gather extensive
data about occupants, their locations, and behaviours. Striking a balance between data collection and
user privacy is crucial.
·
Anonymization and Data Security: Protecting data through anonymization and robust cybersecurity measures ensures that privacy is maintained.
Job Displacement and Ethical Dilemmas
·
Impact on Drivers: The
transition to autonomous vehicles could lead to job displacement
among human drivers, necessitating ethical strategies to mitigate negative consequences.
·
Responsibility to Workers: Ethical considerations require
addressing the welfare of drivers whose jobs are at risk.
·
Algorithmic Transparency: Ensuring that the decision-making algorithms of autonomous vehicles
are transparent is vital for accountability.
·
Liability and Regulation: Legal frameworks and regulations must
be established to hold manufacturers and developers accountable for ethical considerations.
Ethics in Practice: Guiding Principles
·
Prioritizing Human Safety: Ensuring the safety of all road users must be the primary
ethical principle.
·
Transparency: Developers must be transparent about how autonomous
systems make decisions, fostering public trust.
·
Privacy by Design: Designing systems with privacy in mind, minimizing data collection, and ensuring consent are ethical practices.
·
Collaboration and Education: Ethical development requires collaboration among stakeholders and educating the public about the technology's capabilities and limitations.
The voyage toward autonomous vehicles is not merely a technological
endeavour; it is a moral expedition that requires us to confront
challenging ethical questions. As engineers and innovators
steer the course of autonomous vehicle development, the ethical considerations
that underpin this journey become
increasingly vital. The decisions made today will ripple through our society, shaping the way we navigate
roads, interact with technology, and safeguard our values. By embracing ethical principles, fostering transparency,
and prioritizing human safety, we can
ensure that the road ahead is not only paved with technological innovation but
also guided by a commitment to the
greater good. As we stand at the crossroads of technology and morality, our ethical choices will
determine whether autonomous vehicles become a beacon of progress, safety, and convenience or a source of ethical
dilemmas and unintended consequences.[8]
Conclusion:
It is important to remember that the welfare and security of the general
population are the main goals of
every new technology. No innovation is perfect, and antivirus software is no
different. Therefore, sufficient testing is required to guarantee their security requirements for human users, and stricter measures pertaining to
culpability determination must be included in future regulations. Furthermore, the government's concerns
about job losses and unemployment following the deployment of autonomous vehicles
(AVs) in India
are not entirely unfounded. It is impossible to deny, though, that
technology will make it easier for a number of freshers, more varied career paths to emerge, including
those in artificial intelligence, information technology, engineering, robotics, automotive, and software
development in India.
[1] https://www.researchgate.net/publication/353858131_Autonomous_vehicles_classification_technology_and
evolution last seen dated 09/09/2024.
[2] Maurer M, Gerdes J C., Lenz B, and Winner H 2015
Autonomous Driving
[3] https://www.synopsys.com/automotive/what-is-autonomous-car.html
last seen dated 09/09/2024
[4] https://www.govtech.com/fs/the-6-challenges-of-autonomous-vehicles-and-how-to-overcome-them.html
last seen dated 09/09/2024.
[5] Section 50 of The Motor Vehicles Act,1988 talks
states that Transfer of ownership should be reported within 14 days of the
transfer if the vehicle is sold within the State and 45 days if the vehicle is
sold outside the State.
[6] https://www.automotiveworld.com/articles/autonomous-vehicles-driving-regulatory-and-liability-
challenges/ last dated 10/09/2024
[7]
https://blog.ipleaders.in/legal-issues-related-autonomous-vehicles/ last seen
dated 11/09/2024
[8] https://www.indikaai.com/blog/understanding-ethics-of-autonomous-vehicle-
development#:~:text=Safety%20and%20Liability%3A%20Determining%20who,between%20protecting%20occ
upants%20or%20pedestrians. Last seen dated 11/09/2024.