Scenario 8 is a synthetic street-level urban canyon scenario with mobile vehicles, ray-traced channels, LIDAR, RGB cameras, GPS and full MIMO channel matrices at 60 GHz. In this scenario, the base station antenna is positioned at 5m height from the surface making the link more vulnerable to dynamic blockages (buses, trucks) and cornering. The transition rate (LOS<>NLOS) is about 4.5% of the scenes stressing both prediction and scheduling. Rosslyn urban scenario is configured in 60GHz, with 100 episodes of 50 scenes each, 10 mobile receivers and 1 fixed transmitter.


Rosslyn Avenue (Arlington, VA โ€“ Approx. Lat/Long: 38.8950ยฐ N, 77.0715ยฐ W) is located in the dense urban core of Rosslyn, Arlington, VA, forming part of a grid of narrow streets surrounded by mid- and high-rise buildings. The modeled portion of the avenue in this scenario is a two-way urban street with no marked lanes (common in narrower segments of the Rosslyn district). The effective road width is approximately 8โ€“10 meters, supporting slow, mixed traffic flow. The typical speed limit ranges from 25 to 30 mph (โ‰ˆ 40โ€“48 km/h), characteristic of urban business districts with frequent intersections and pedestrian activity. Traffic is composed of cars, SUVs, delivery vans, buses, and occasional trucks, all of which introduce diverse mobility patterns and dynamic blockages. From a wireless communication perspective, the absence of lane markings, combined with the narrow street geometry and tall surrounding buildings, produces a pronounced urban canyon effect. Vehicles moving close to the base station line-of-sight can create partial or complete blockages, while buildings generate significant multipath via reflections and diffractions. These characteristics make Rosslyn Avenue a challenging and representative environment for evaluating beam tracking, blockage prediction, and mmWave/6G communication robustness.


1. Statements: Mobility scenario, communication system originally configurated as SISO.
From this statement some data from simulation were collected.

2. GNSS: Positions of receivers (obtained from SUMO mapping).

  • Latitude, longitude and height position of each receiver antenna.
  • Type data: .csv
  • At database .db file is possible take position and pointing angle of each object in scene.

SISO -> MIMO expansion was used to generate beam forming data through array signal processing.
This is a far field approch, the arrays types generated were ULAs, which used Discrete Fourrier Cobooks (have same number of codewords that antennas on transmitter or receiver).

1. Channel output: Is the equivalent channel magnitudes

  • obtained after apply precoding and combining codebooks at channel matrix constructed from rays contributions. It contains the magnitud information of each beam pair possible from codebooks given.
  • Type data: .NPZ

2. Beam output: Best beam pair based on received signal strength

  • The beam pair index of highest magnitud from equivalent channel
  • Type data: .NPZ

Raymobtime Scenario 14 – V2I Rosslyn 60 GHz

If you want to use the dataset or scripts on this page, please use the link below to generate the final list of papers that need to be cited.


The dataset is organized into several folders, each corresponding to a different sensing or communication modality. All files follow consistent formats and indexing rules, making the dataset suitable for multimodal research in sensing, mmWave propagation, beam tracking, and machine learning.