ASU Campus 1 Scenario
DeepMIMO
ASU Campus 1
- An outdoor scenario based on a section of the ASU Campus in Tempe, Arizona
- GPS bounding box [33.418081, 33.420961, -111.932875, -111.928567]
(KMZ available) - 1 base station and 131,931 users are available!
- Dataset is available at operating frequency 3.5 GHz
Key components
- 1 base station (BS): BS1
- BS1 details:
- Height: 22 m
- (x,y,z) = (166, 104, 22)
- Latitude and longitude coordinates: [33.4203, 111.9286916]
- Each antenna array element at the BS is modeled as an isotropic antenna
- 1 x-y user grids (UGs)
- All user grids are uniformly sampled across x and y dimensions.
- Total number of users = 131,931 users
- The first user in the user grid is always the user with the lowest (x,y) coordinate
- The height of all user grids is 2 m
- Each antenna array element at each user is an isotropic antenna
- User Grid 1:
- Number of rows : 321 rows
- User per row: 411 users
- Row indices: 1 to 321
- Spacing between adjacent users: 1 m
- Number of users = 131,931 users
- Users status:
- No path (-1) = 46774 (35%)
- NLOS (0) = 59159 (45%)
- LOS (1) = 25998 (20%)
- Among users with paths: 30.5% are in LOS and 69.5% are in NLOS
- The site is constructed base on a section of the Arizona State University (ASU) Campus, in Tempe, Arizona
- The material used in the ray tracing simulations is ITU concrete for both the buildings and floor
- The ray-tracing angle spacing is 0.25° (degree)
- Maximum bounces per path (for each bounce type):
- 6 reflections
- 1 diffraction
- 1 diffuse scattering
- Maximum number of path bounces between base stations and user: 7
(Note: the maximum number only happens with a diffraction and all reflections.) - Diffuse scattering is only considered for paths with at most 3 bounces (2 reflections and 1 diffraction)
- Only one diffraction is considered per path.
- Only the 10 paths strongest paths are considered for each user
Examples of Scenario Data
![los_old los_old](http://44.228.171.44/wp-content/uploads/elementor/thumbs/los_old-1-qm6xo60cnrxip5oq1b1fsvm3a23pw4ddm4rjrsxxj4.jpg)
Figure 1. LoS status of users
![toa toa](http://44.228.171.44/wp-content/uploads/elementor/thumbs/toa-3-qm6wckgkksrss0tqz8ck1e0scmpl3wepejhdwdimm8.jpg)
Figure 2. Time of arrival
![pathloss pathloss](http://44.228.171.44/wp-content/uploads/elementor/thumbs/pathloss-1-qm6xbalx2gb5pedu78qd5mjuf3jrhc9pif566e10qo.jpg)
Figure 3. Path loss
![phase phase](http://44.228.171.44/wp-content/uploads/elementor/thumbs/phase-1-qm6xbnrnq4t67xuq2ef54j8aqhqwh3py889yw9hibk.jpg)
Figure 4. Phase
![doa_azi doa_azi](http://44.228.171.44/wp-content/uploads/elementor/thumbs/doa_azi-qm6x5wz5yky39q73lx17vzew1q25fox03sr5be04cg.png)
Figure 5. Main path Direction of Arrival (azimuth)
![doa_ele doa_ele](http://44.228.171.44/wp-content/uploads/elementor/thumbs/doa_ele-qm6x6gpry3p41jefenkducfkitcuxc3d6igce76ups.png)
Figure 6. Main path Direction of Arrival (elevation)
![dod_azi dod_azi](http://44.228.171.44/wp-content/uploads/elementor/thumbs/dod_azi-qm6x763f2mnur0dkagjb7o10k7vrp5w4a02gco581s.png)
Figure 7. Main path Direction of Departure (azimuth)
![dod_ele dod_ele](http://44.228.171.44/wp-content/uploads/elementor/thumbs/dod_ele-qm6x9tyyfqb3n8iaqlz99zu15ir7iagqn6lzaw72f4.png)
Figure 8. Main path Direction of Departure (elevation)
![bounce1 bounce1](http://44.228.171.44/wp-content/uploads/elementor/thumbs/bounce1-1-qm6wfewz9qo1xioxcymw36613molewpg4mlb7japs0.jpg)
Figure 9. Main path number of bounces
![bounce2 bounce2](http://44.228.171.44/wp-content/uploads/elementor/thumbs/bounce2-1-qm6wfndiz8zmu0cmzkaj7m16g3iwc6n15sgoj0y680.jpg)
Figure 10. Main path first bounce type
![bounce3 bounce3](http://44.228.171.44/wp-content/uploads/elementor/thumbs/bounce3-1-qm6wfzlfg3gd0xuw07kom0y663uo48zjjgxzrmg1z4.jpg)
Figure 11. Main path bounce profile
Download the ray-tracing data files of the ASU Campus 1 Scenario
- 3.5 GHz operating frequency: ‘ASU_Campus1_Scenario’ (zipped file) or ‘ASU_Campus1_Scenario’ (folder)
Applications of the Boston5G scenario
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