ParkPlus AGV Automated Parking System at 200 E 83rd Street, Upper East Side Manhattan NY
30
Automated Parking Spaces
18
EV Charging Spaces
3 levels
Subterranean AGV Grid
2024
Year Completed

Robotic parking with EV charging beneath a landmark Upper East Side tower

200 East 83rd Street is a 35-story luxury condominium on New York’s Upper East Side, co-developed by Naftali Group and the Rockefeller Group and designed by Robert A.M. Stern Architects. ParkPlus completed the installation of a 30-space AGV Automated Parking System across three subterranean floors — segregated by vehicle type — in 2024.

The resident experience is frictionless from the moment of arrival. Residents pull into the porte cochere, press a remote, and a vertical reciprocating conveyor canopy lifts to allow them to drive in and leave the vehicle. The AGV robots handle everything from there: free-roaming, self-charging, omni-directional carriers use traffic management software, embedded markers, and vision systems to retrieve each vehicle’s tray and store it below grade until retrieval is requested.

18 of the 30 spaces include integrated EV charging — 60 percent of the system’s capacity — reflecting the direction of New York City’s regulatory environment and the expectations of buyers at this level of the market. The installation is one of five EV-enabled AGV systems ParkPlus has completed in New York, alongside Jardim, Greenwich West at 110 Charlton St, 111 Varick St, and 70 Vestry St.

  • System Type AGV Automated Parking
  • Location Upper East Side, Manhattan, NY
  • Developer Naftali Group & Rockefeller Group
  • Architect Robert A.M. Stern Architects
  • Completion Year 2024
  • Total Spaces 30 (18 with EV charging)
  • Configuration 3 subterranean levels
  • Building Type Luxury Residential — 35 Stories

60% EV-ready, zero footprint expansion

The three-level subterranean AGV grid eliminates the need for ramps, drive aisles, or turning lanes within the parking structure. By removing those spatial requirements, the system reduces the parking footprint by 60 to 80 percent compared to a conventional garage delivering the same number of spaces — recovering floor area within the building envelope for the residential program above.

The EV charging integration at 18 of 30 spaces is the more forward-looking value driver. As New York City progressively mandates EV provisioning in new residential construction, a system where charging is built into the storage infrastructure — invisible to residents, automatic in operation — is the appropriate long-term solution. The 200 East 83rd installation demonstrates the model at scale: automated parking and EV readiness as a single integrated system, not a retrofit.

Footprint reduction figures based on comparison with conventional parking structures of equivalent capacity. EV space count per installed configuration.

Value Unlocked
60%
of Spaces EV Charging-Enabled
60–80%
Footprint Reduction vs Conventional Garage
3 levels
Subterranean, Vehicle-Type Segregated
Zero driving
Residents Never Enter the Parking Structure

Project Photos

See It in Action

AGV Automated Parking System at 200 E 83rd Street, Upper East Side Manhattan — project video
The Challenge

30 spaces below grade with EV charging in a Robert A.M. Stern tower

Upper East Side luxury residential development leaves almost no margin for conventional parking infrastructure. The subterranean program at 200 East 83rd needed to deliver 30 spaces across three floors without consuming the ceiling clearance and structural area that ramps, lanes, and turning radii require. And it needed to do it in a building where the resident experience — from lobby to bedroom — is designed to the highest standard in New York.

The growing EV provisioning requirement added a second dimension: a meaningful share of the spaces needed integrated charging, without creating the management complexity of a plug-in-yourself garage environment. The residents of a building at this price point will not be walking down to the subterranean level to manage a charging cable.

The Solution

Three-level AGV grid with vehicle-type segregation and integrated EV

ParkPlus configured the three subterranean floors by vehicle type, with the AGV carrier system operating across all three levels and routing vehicles to the appropriate floor automatically based on vehicle profile. Residents interact only with the porte cochere entry point — the vertical reciprocating conveyor canopy lifts on remote, the vehicle is driven in, and the system takes over entirely.

EV charging is integrated into 18 of the 30 parking trays, activating automatically when a qualifying vehicle is stored. No resident involvement required. The system charges the vehicle while it is parked and delivers it ready to drive. At 60 percent EV-ready capacity, the installation is positioned well ahead of New York City’s regulatory trajectory.

Charging built in. Nothing for residents to manage.

18 of 30 spaces at 200 East 83rd include integrated EV charging — built into the parking trays, not mounted to walls. When a qualifying vehicle is stored, the charging connection is made automatically as part of the storage sequence. The vehicle charges while parked. When retrieval is requested, it arrives ready to drive.

200 East 83rd is one of several EV-enabled AGV systems ParkPlus has completed in New York City, including Jardim, Greenwich West, 111 Varick St, and 70 Vestry St. The model is proven and ready to scale.

Integrated EV charging tray in the AGV Automated Parking System at 200 E 83rd St, Manhattan
The charging dock and power connection ready to receive a vehicle tray.
EV charging infrastructure integrated with AGV parking tray at 200 E 83rd St, Manhattan
The integrated EV charging unit mounted within the automated parking bay.
AGV robotic parking system with EV charging capability at 200 E 83rd St, Upper East Side
A vehicle tray docked in position with the charging cable connected to the car.

System Specifications

System Type
AGV Automated Parking
Total Capacity
30 spaces
EV Charging Spaces
18 (60% of total)
Configuration
3 subterranean levels
Vehicle Segregation
Levels assigned by vehicle type
Entry System
Vertical reciprocating conveyor with remote-activated canopy
Carrier Type
Free-roaming, self-charging, omni-directional AGV robots
Vehicle Guidance
Traffic management software, floor markers, vision systems
Vehicle Load Capacity
6,000 lbs max
Max Vehicle Dimensions
18′ L × 7′-3″ W × 6′-8″ H
Footprint Reduction
60–80% vs conventional garage

Common questions about AGV parking with EV charging

How does the AGV parking entry process work at 200 East 83rd?

Residents pull into the porte cochere and press a remote to activate the entry sequence. A vertical reciprocating conveyor canopy lifts, and the resident drives the vehicle onto the entry platform and exits. From that point, the AGV system takes over: free-roaming robotic carriers retrieve the vehicle’s tray and transport it to the assigned storage position on the appropriate subterranean level. The resident has no further interaction with the parking structure until retrieval.

Retrieval is initiated from a lobby terminal or remote. The system locates the vehicle, dispatches a carrier, and delivers it to the exit platform. The canopy opens and the resident drives out.

How does integrated EV charging work in an AGV parking system?

EV charging is built into the parking trays themselves rather than into fixed wall or floor-mounted charge points. When an EV is stored on a charging-enabled tray, the charging connection is made automatically as part of the storage sequence. The vehicle charges while parked, and the system manages the charging cycle without any resident involvement. At 200 East 83rd, 18 of the 30 trays are EV-enabled, meaning qualifying vehicles begin charging automatically when stored on those trays.

This approach eliminates the inconvenience of manual plug-in, and avoids the access management complexity of a conventional EV charging garage where residents need to move vehicles when charging is complete.

Why are the three subterranean levels segregated by vehicle type?

Sedans and SUVs have meaningfully different height and weight profiles. Configuring each level for a specific vehicle type allows the structural clearances and carrier specifications on each floor to be optimized for that vehicle class, rather than sizing all three floors to the maximum SUV envelope. This improves storage density and allows the AGV carrier system to operate efficiently within each level’s geometry. Residents register their vehicle type at enrollment, and the system routes each vehicle to the correct level automatically on every storage cycle.

How much space does an AGV system save compared to a conventional garage?

AGV systems eliminate the primary space consumers in a conventional garage: drive aisles, turning radii, and ramp structures. Because robotic carriers can navigate the full grid at low speed without the clearances a human driver requires, the same number of spaces can be achieved in 60 to 80 percent less floor area. In a subterranean installation like 200 East 83rd, that footprint reduction translates directly into reduced excavation and structural cost, and more usable building envelope above grade.

Is AGV parking with integrated EV charging available for new residential developments?

Yes. ParkPlus has completed five AGV installations with integrated EV charging in New York City, including 200 East 83rd Street, Jardim, Greenwich West at 110 Charlton St, 111 Varick St, and 70 Vestry St. The system is available for new residential construction and is designed to be integrated during the development process rather than retrofitted. Early engagement with ParkPlus during the design phase allows the parking program to be optimized for the specific building footprint, vehicle profile, and EV provisioning requirements of the project. ParkPlus is also delivering a 312-space AGV system at South Flagler House in West Palm Beach, one of the largest AGV residential installations in Florida.

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