Scenario 16 is a synthetic low density residential like 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 25m height from the surface located at the middle of the street resulting in a lower NLOS rate of approximately 5% . Marsellie urban scenario is configured in 60GHz, with 145 episodes of 40 scenes each, 5 mobile receivers and 1 fixed transmitter.


Marsellie Avenue in France represents a low-density, residential-like urban setting inspired by European city layouts, characterized by wider streets, lower building heights, and more open spatial distribution compared to the dense street canyons of Rosslyn. The modeled portion of the avenue corresponds to a two-way residential street with clearly defined lanes and an effective road width of approximately 12–16 meters. The typical speed limit ranges from 30 to 40 km/h, reflecting moderate residential traffic conditions with fewer intersections and lower pedestrian density than dense business districts. Traffic consists primarily of cars, SUVs, delivery vans, and occasional buses, generating moderate mobility dynamics and intermittent blockages. From a wireless communication perspective, the wider street geometry and lower building profile reduce the severity of the urban canyon effect observed in Rosslyn. However, vehicles moving across the line-of-sight and cornering events still introduce relevant blockage dynamics. Buildings in this scenario contribute to multipath propagation mainly through reflections rather than strong diffractions, producing a propagation environment with fewer abrupt transitions but meaningful variability for evaluating beam tracking, blockage prediction, and mmWave/6G communication robustness in residential-style deployments.


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.

3. Ray tracing data: top 25 rays of highest received power (obtained from Wireless Insite).

  • Received power, time of arrival, elevation angle of departure, azimuth angle of departure, elevation angle of arrival, azimuth angle of arrival, LOS condition, ray phase.
  • Type data: .hdf5 of each episode
  • At database .db file is possible take rays paths and interactions information.

4. Lidar point clouds: from base station and receiver views (obtained from blender through blensor).

  • Vertical resolution: ?
  • Horizontal resolution: From 0° to 360°, resolution of “0.1728” degrees, “2083” samples per complete revolution. Rotation speed 10 degrees per second, 36 seconds for complete revolution.
  • Max distance 120.
  • Noise: mean 0, sigma “0.03”.
  • Type data: .pcd

5. RGB images: from base station and receivers views (obtained from blender through blensor).

  • Images of left, back, right and front views.
  • Image resolution: 360×640 pixels
  • Type data: .PNG

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

3. Lidar matrix: Voxelized data from pcd data, matrix of zeros and 1

  • Type of matrix: 3D
  • Type of coodinate system: Cartesian
  • Quantization parameters: X: [-102, 118] step 1.15. Y: [-42, 39] step 1.25. Z: [0, 10] step 1
  • Type data: .NPZ

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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.