Johns Hopkins APL

Role

UX Research

SPONSOR

johns hopkins applied physics lab

Project type

speculative research

Project Overview

An Exploratory Research project exploring the future integration of autonomous vehicles on college campuses conducted at Purdue University in collaboration with Johns Hopkins Applied Physics Laboratory (APL).

How might we support perceptions of safety and decision-making of campus road users in an autonomous future?

deliverables

Ecosystem Map, Low-to-Mid-Fidelity Prototype — ideal AV of 2040, Design Fiction Vignette, Phased Implementation Roadmap

The Process

Exploring the Current State of Autonomous Vehicles (AVs)

methods

literature review touching on human-av interaction, road safety perception, familiarity, & trust

desk review of forums & social media posts regarding av interactions, accessibility, and further perception

safety

  • fear of malfunctions in autonomation

  • concerns for road safety

design

  • distinguishable look

  • advanced driver assistance systems

    (ADAS)

trust

  • increase familiarity to combat algorithmic aversion

  • offer user autonomy

suggestions

  • Educate technology perfromance & accuracy

  • Mandate usability testing

System Status Indication

limited feedback/indication of ADS


detection methods

cameras & radars

end-end networks

sensor fusion


vehicle interactions

intentional disruption of avs

lack of external communication

accessibility

lack of accommodation for disabled users

methods

comaprative analysis of av competitors  to create a comprehensive list of important safety features & design systems

subject matter expert interviews with 11 representatives from the av industry to gain professional insight on the current state & future of avs

comparative analysis

Subject Matter Expert Interviews

We Compared…

“Reduction of private ownership is in everybody’s favor... the world will be safer, environmentally too, especially with fewer vehicles on the road.”

— Satvir Singh, Director of Product Safety at MayMobility

“As humans we’ve learned to pick up on little things and react accordingly, which autonomy might not be able to pick up on these nuances.”

— Lexi Basantis, Human Centered Design Strategist at JHU APL

design & programming

  • End-to-end network architectures

  • Clear external communication via projected signals or auditory alerts

  • suv strucutre

infrastructure

  • Repurposing parking spaces

policy recommendations

  • Dedicated AV lanes in high-traffic areas to enhance efficiency and safety

  • Advanced detection and prediction models

private vs public use

  • Implementation of publicly-owned AVs to reduce the need for privately-owned vehicles

  • emphasis on public transporation & accessibility

Identifying Gaps in Exsiting State Policies

method

secondary research on existing autonomous vehicle legislations across states with varying levels of AV maturity

arizona

california

indiana

Policy Gaps & Phases for Improvement

we created a scale of implementation, assessing whether policies could be envisioned as practical, scalable, or transformative

av testing on public roads

accessibility

on-campus av certification

lIdar & weather requirements

libarility in av-only crashes

av/time-zone signage

Policy Area Analysis Measuring:

Defining & Understanding Interactions of the Campus Ecosystem

User Survey

User Interviews

Observations

Non-Vehicle Road Users on Campus

Non-Vehicle Road Users on Campus

trafficed intersections on campus

“It’s like seeing a car from the 50s. You’re curious on the outside but you’re concerned about how long it can last.”

— Interviewee

“I’m concerned about its capability to react, but inability to predict what a pedestrian can do. People driving a car are able to have better pattern recognition.”

— interviewee

Showcasing the Future of Autonomous Vehicles on College Campuses

01 Policy Recommendations

02 AV Prototypes

03 Design Fiction Vignette

AV Interior

AV Exterior

Ideation to Shape Our Designs

Prototyped Results

AV Exterior

AV Interior

AV Passenger Interface

Key Features:

Key Features:

Turquoise Headlights

Front & Back Bumper Screen

Projected Crossing Signals

360 LED Signaling Lighting System

Exterior Speakers

360 Camera & LiDAR System

Removal of Side-View Mirrors

SUV Model

Ramp for Wheelchair/Stroller Access

Tinted Windows

Key Features:

Removal of Steering Wheel

Rearranged Seating

Foldable/Extendable Tables

Head-Level Speakers

Haptic Feedback Installation

Full-Size Heads Up Display (HUD) on Windshield

Center Stack Display

Lights to Indicate ADAS/AVA Activation

Camera Monitor

Interactive Touchscreen Display

Display of Alerts, Hazards, & Suggestions

Customization Comfort & Media Controls

Navigation Map Presenting Destination & estimated Time of Arrival

Constant Display of AV’s Environment & Decision Process

Let’s Get in Touch