and Specific Propagation Model Selection Supervisor: Dr.Yousef Dama

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Presentation transcript:

and Specific Propagation Model Selection Supervisor: Dr.Yousef Dama - LTE Planning and Specific Propagation Model Selection Prepared by: Khawla Daraghmeh Ola Mashaqi Suhad Malayshi Supervisor: Dr.Yousef Dama

Outline Aims Network Planning phases What we have done regarding planning Coverage Capacity: initial planning results Cell Capacity: initial planning results Site Allocation stages and results Site Specific Propagation Model Hata and Cost Hata Full 3D Design Description Path loss , received power and propagation path results conclusion

Aims Two Main Aims To design LTE network for Nablus city. To Select specific propagation model Accurately

Network Planning Phases (general overview) 1 Pre_Planning Phase Dimensioning 2 Planning Phase Coverage Capacity 3 Detailed Planning Frequency Neighbour Parameter 4 Optimization

What we have done regarding planning Coverage Planning link budget Cell and Site areas Number of sites Capacity Planning Site and Cell Capacity Site Allocation Google earth + MP

Coverage Results Total number of sites to be allocated = 92 Rural Suburban Urban Dense Urban 6.899 1.282 .471 .295 Cell Range (km) 3-sector antenna, BW<=90˚ Site Layout 3 Number of Cells per Site 10.349 1.922 .707 .443 Inter Site Distance (km) .019 6.900 20.000 .550 Deployment area (km2) 1 4 78 9 Site Count Total number of sites to be allocated = 92

Cell Capacity: initial planning results site capacity (Mbps) area DL UP 59.824 29.282 Dense Urban 56.288 26.985 Urban 39.835 16.441 Suburban 30.194 8.732 Rural

Site Allocation Site allocation gives an indication of how the network behavior will be after deployment, so it is an important step in LTE network planning. Tools

Site Allocation Stages Stage One Allocate sites on Google Earth.

Site Allocation Stages Stage Two Site coordinates uploaded to Mentum Planet tool

Site Allocation Stages Stage Three : Antenna Parameters

Site Allocation Results Rx level

Rx level

Site Allocation Results Maximum Achievable Data rate for each user

Percentage Total Area

Site Specific Propagation Model Propagation models have been developed to be able to estimate the radio wave propagation as accurately as possible predict the path loss between the transmitter and receiver

Models Under Study Hata's propagation model is the basis for several widely used propagation models in the cellular industry. The main attraction of Hata's model is its simplicity. Hata's basic model is valid in the frequency range of 150-1500 MHz Cost-Hata model is also known as COST-231 Hata model. It is the extension of Hata model (Okumura Hata model) and it can be used for the frequencies up to 2000 MHz

Models Under Study Full 3D Places no restriction on object shape; it allows buildings to have sloped roofs. It is also the only model which includes transmission through surfaces. It is the only ray-based model . Minimum frequency: 100 MHz Maximum frequency : depends on application

Wireless InSite Tool Our model was created by using Wirless InSite designed by remcom USA powerful electromagnetic modeling predicting the effects of buildings and terrain on the propagation of electromagnetic waves. It predicts how the locations of the transmitters and receivers within an urban area affect signal strength.

Design Description A model similar to Nablus city was used to study the propagation environment.

Design Description The measurements were made on These specifications 1000 m x 600 m area transmitters height =18 m buildings around transmitter height from 12 to16 m

Design Description Materials Antenna Waveforms Building material is concrete with thickness 0.3 m Antenna Waveforms waveform with carrier frequency 900MHz (within GSM900 band) with effective bandwidth 4.8 MHZ (Jawwal Bandwidth)

Receiving Point Scenarios First Scenario two routs ,200 measurements points, 5 meter spacing , around 950 m with height 1.5 m .

Receiving Point Scenarios Second Scenario Grid of receiver points ,to show the behavior of models

Propagation Models Results

Full 3D propagation path

Effects of number of reflections

Effects of number of Transmissions

Hata Path Loss

Cost Hata Path Loss

Full 3D Path Loss

Scenario 2 results

Summery Path Loss results (rout1)

Summery Of Path Loss results (rout2)

Hata Received Power

Cost Hata Received Power

Full 3D Received Power

Summery Of Received Power(rout1)

Summery Of Received Power(rout2)

Conclusion We completed site allocation for Nablus city We used the and the MP tool provided by Jawwal to allocate the sites and the to estimate the received power and the individual data A comparison between Cost-Hata, Hata and Full 3D models using site specific tool named Wireless Insite was carried out. A model similar to Nablus city was used to model the received power, path loss and delay spread where number of reflections and transmissions was modified and studied

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