Leverage the vehicle’s GPS and route data to deliver contextual ads and deals for businesses along or near the passenger’s route. The idea is to present timely offers — e.g., a discount at a coffee shop coming up on the route, or a promotion at a store near the destination — turning the ride into a chance to drive foot traffic to brick-and-mortar businesses. In an autonomous vehicle, the system could even offer to add a stop or slightly reroute to fulfill the offer if the passenger is interested. This creates a highly actionable ad experience: see an ad, tap “Yes”, and the robo-taxi will conveniently drive you there.
As soon as a ride is in progress and the destination is set, the in-cabin system (or the rider’s app) checks for location-based ads tied to the route. These could be fetched from an ad server that knows the vehicle’s current location and upcoming trajectory. Examples of how it works:
If it’s morning and the rider’s route goes near a café, a screen prompt might say, “Need a caffeine fix? Starbucks on 3rd Street is along your route — get 15% off if we stop by! [Accept Offer]”. The passenger can tap a button or use voice to accept. The autonomous car’s navigation then adds Starbucks as an intermediate stop, and perhaps the passenger’s order is placed ahead (if integrated with the café’s system). This on-the-fly detour capability is uniquely feasible with driverless cars — no driver to convince or compensate for the extra stop.
For shorter rides or when a detour isn’t ideal, the system can offer “scan-to-save” promos: e.g. “20% off at Macy’s (2 miles ahead). Scan this QR code to get the coupon for later!” The tablet or screen would display a QR code that the user can quickly scan with their phone. This way the rider can redeem the discount on their own time if they can’t stop now. Notably, marketers have found that QR codes convert extremely well in a captive rideshare environment — riders often have their phone in hand and can easily scan codes for deals.
The offers can be context-aware: restaurants around meal times, retail stores during weekends, or tourist attractions if the passenger is in a new city (perhaps detected via the pickup/dropoff locations). The system could also consider the passenger’s profile/preferences (if known via the app) — for example, pushing a loyalty offer for a chain the rider frequents.
GPS & Mapping Integration: The vehicle’s navigation system must expose the route and nearby points of interest to the ad system. This is standard in any rideshare or autonomous platform.
In-Car Display or Mobile App: A way to show the offer to the passenger — either on a built-in screen or via a notification in the rideshare’s mobile app. (Both could work in tandem: the car’s screen flashes the offer visually, while the phone app vibrates with a prompt).
Internet Connectivity & Ad Server: The vehicle (or app) should query a server for ads based on location. This requires a database of advertisers keyed to geolocation, similar to how Waze offers pop-up ads for nearby stores. Modern adtech can handle geo-fenced campaigns; indeed, geotargeting in rideshare cars is already used by brands to send relevant messages to riders.
Autonomous Navigation API: If offering automatic rerouting, the car’s control system needs an API to update the destination or add a stop. In an autonomous taxi platform, this would be part of the ride-hailing software — it must allow mid-ride destination changes initiated by the passenger (currently, some ride apps allow adding a stop, so extending it to an “ad-suggested stop” is conceivable).
User Interface for Consent: A simple UI for the passenger to accept or decline an offer. This could be a touch button on the screen (“Yes, take me there” / “No thanks”) or a voice prompt (“Just say ‘yes’ if you want to stop at Starbucks”). Since riders must opt in, this interface needs to be clear and unobtrusive.
Primarily cost-per-action models: local businesses or advertisers pay when a rider actually engages — e.g. clicks the offer or especially if they accept a detour. This could be structured as a cost per redirect/visit (analogous to an online cost-per-click but in physical terms). For instance, a restaurant might pay a few dollars if the car brings a passenger to their door (essentially a paid customer lead). If the offer is just a coupon download (QR scan), it could be cost-per-scan or cost-per-redemption if the coupon is used later. Another model is revenue sharing or commission: the rideshare service could partner with businesses so that any sale resulting from the detour yields a small cut to the platform. Since these ads can directly drive sales in real-time, they’re very valuable to advertisers — much more so than a billboard. There’s even potential for subsidized rides: an advertiser could cover part of the fare if the passenger visits them. (For example, a retail store might say “Free $5 off your ride if you stop here on the way”). This way, the passenger saves money (incentivizing them to accept the ad offer), and the advertiser effectively gets a customer delivery. Such dynamic, hyper-local ad opportunities could command high rates, but they’re only practical with autonomous vehicles handling the flexibility.
While full autonomous detours are just emerging, the basic idea can be tested now. Waymo’s autonomous taxi pilots or Cruise could integrate a system to recommend nearby hotspots to riders. The AMA has discussed that this technology “could start to be integrated now into self-driving test vehicles” like Waymo, showing only ads for destinations within the car’s allowed area. On the simpler end, Uber and Lyft (in conventional rideshares) already experiment with in-app suggestions for nearby deals, though the human driver aspect makes real-time rerouting tricky. A current example: some navigation apps pop up offers (say, a Dunkin’ Donuts along your driving route). In our context, an autonomous ride in 2025 could easily pilot a program in a geo-fenced city zone: imagine Cruise AVs in San Francisco showing riders offers for popular cafes or shops along their route in the city. If a rider taps “Yes”, the car simply adjusts course. The tech is available — the car knows where it is and where it’s going, and cloud systems can feed in matching promotions. As another example, in-vehicle advertising that ties into GPS and can alter routes, indicating how feasible it is. Even without detouring, just displaying context-based QR coupons is doable immediately: a rider headed to a mall could see “Scan to get 10% off at [Store] in that mall.” In summary, by combining GPS data with advertising, autonomous rides can become a platform for contextual commerce — something entirely achievable with today’s mapping and mobile ad tech.