IEICE TRANSACTIONS on Communications
A Dynamic Channel Assignment Strategy Using Information on Speed and Moving Direction for Micro Cellular Systems
Summary :
The dynamic channel assignment (DCA) strategy proposed here uses information on the mobile station speed and direction of motion to reduce the number of forced call terminations and channel changes in micro cellular systems. This SMD (speed and moving direction) strategy is compared with the main DCA strategies by simulating a one-dimensional service area covering a road on which there are high-speed mobile stations (HSMSs) and low-speed mobile stations (LSMSs).The simulation results show that the SMD strategy has the best performance in terms of forced call termination and channel change. The performance difference between the SMD strategy and the other DCA strategies increases as cell size decreases and as HSMS speed increases. While the SMD strategy does not yield the best total call blocking rate, its total carried load is the best when cells are small and HSMS speed is high. Also, the SMD performance improves when the HSMS offered load is small and the LSMS offered load is large. Although the SMD strategy requires information on the speed and direction of each mobile station and it increases call blockings somewhat, it reduces the number of forced call terminations and channel changes considerably, which is important in micro cellular systems.
- Publication
- IEICE TRANSACTIONS on Communications Vol.E79-B No.3 pp.279-288
- Publication Date
- 1996/03/25
- Publicized
- Online ISSN
- DOI
- Type of Manuscript
- Special Section PAPER (Special Issue on Advanced Adaptive Radio Communication Technologies)
- Category
- Access, Network
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Kazunori OKADA, Duk-kyu PARK, Shigetoshi YOSHIMOTO, "A Dynamic Channel Assignment Strategy Using Information on Speed and Moving Direction for Micro Cellular Systems" in IEICE TRANSACTIONS on Communications,
vol. E79-B, no. 3, pp. 279-288, March 1996, doi: .
Abstract: The dynamic channel assignment (DCA) strategy proposed here uses information on the mobile station speed and direction of motion to reduce the number of forced call terminations and channel changes in micro cellular systems. This SMD (speed and moving direction) strategy is compared with the main DCA strategies by simulating a one-dimensional service area covering a road on which there are high-speed mobile stations (HSMSs) and low-speed mobile stations (LSMSs).The simulation results show that the SMD strategy has the best performance in terms of forced call termination and channel change. The performance difference between the SMD strategy and the other DCA strategies increases as cell size decreases and as HSMS speed increases. While the SMD strategy does not yield the best total call blocking rate, its total carried load is the best when cells are small and HSMS speed is high. Also, the SMD performance improves when the HSMS offered load is small and the LSMS offered load is large. Although the SMD strategy requires information on the speed and direction of each mobile station and it increases call blockings somewhat, it reduces the number of forced call terminations and channel changes considerably, which is important in micro cellular systems.
URL: https://global.ieice.org/en_transactions/communications/10.1587/e79-b_3_279/_p
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@ARTICLE{e79-b_3_279,
author={Kazunori OKADA, Duk-kyu PARK, Shigetoshi YOSHIMOTO, },
journal={IEICE TRANSACTIONS on Communications},
title={A Dynamic Channel Assignment Strategy Using Information on Speed and Moving Direction for Micro Cellular Systems},
year={1996},
volume={E79-B},
number={3},
pages={279-288},
abstract={The dynamic channel assignment (DCA) strategy proposed here uses information on the mobile station speed and direction of motion to reduce the number of forced call terminations and channel changes in micro cellular systems. This SMD (speed and moving direction) strategy is compared with the main DCA strategies by simulating a one-dimensional service area covering a road on which there are high-speed mobile stations (HSMSs) and low-speed mobile stations (LSMSs).The simulation results show that the SMD strategy has the best performance in terms of forced call termination and channel change. The performance difference between the SMD strategy and the other DCA strategies increases as cell size decreases and as HSMS speed increases. While the SMD strategy does not yield the best total call blocking rate, its total carried load is the best when cells are small and HSMS speed is high. Also, the SMD performance improves when the HSMS offered load is small and the LSMS offered load is large. Although the SMD strategy requires information on the speed and direction of each mobile station and it increases call blockings somewhat, it reduces the number of forced call terminations and channel changes considerably, which is important in micro cellular systems.},
keywords={},
doi={},
ISSN={},
month={March},}
Copy
TY - JOUR
TI - A Dynamic Channel Assignment Strategy Using Information on Speed and Moving Direction for Micro Cellular Systems
T2 - IEICE TRANSACTIONS on Communications
SP - 279
EP - 288
AU - Kazunori OKADA
AU - Duk-kyu PARK
AU - Shigetoshi YOSHIMOTO
PY - 1996
DO -
JO - IEICE TRANSACTIONS on Communications
SN -
VL - E79-B
IS - 3
JA - IEICE TRANSACTIONS on Communications
Y1 - March 1996
AB - The dynamic channel assignment (DCA) strategy proposed here uses information on the mobile station speed and direction of motion to reduce the number of forced call terminations and channel changes in micro cellular systems. This SMD (speed and moving direction) strategy is compared with the main DCA strategies by simulating a one-dimensional service area covering a road on which there are high-speed mobile stations (HSMSs) and low-speed mobile stations (LSMSs).The simulation results show that the SMD strategy has the best performance in terms of forced call termination and channel change. The performance difference between the SMD strategy and the other DCA strategies increases as cell size decreases and as HSMS speed increases. While the SMD strategy does not yield the best total call blocking rate, its total carried load is the best when cells are small and HSMS speed is high. Also, the SMD performance improves when the HSMS offered load is small and the LSMS offered load is large. Although the SMD strategy requires information on the speed and direction of each mobile station and it increases call blockings somewhat, it reduces the number of forced call terminations and channel changes considerably, which is important in micro cellular systems.
ER -
English
