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<doc.: IEEE 802.15-doc> <month year> <doc.: IEEE 802.15-doc> January 2013 Project: IEEE P802.15 Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [System level simulation parameters proposal ] Date Submitted: [January 15th, 2013 ] Source: [Marco Hernandez, Huan-Bang Li, Igor Dotlić, Ryu Miura ] Company: [NICT] Address: [3-4 Hikarino-oka, Yokosuka, 239-0847, Japan] Voice:[+81 46-847-5439] Fax: [+81 46-847-5431] E-Mail:[] Re: [In response to call for technical guidance document contributions TG8] Abstract: [ ] Purpose: [Material for discussion in 802.15.8 TG] Notice: This document has been prepared to assist the IEEE P802.15. It is offered as a basis for discussion and is not binding on the contributing individual(s) or organization(s). The material in this document is subject to change in form and content after further study. The contributor(s) reserve(s) the right to add, amend or withdraw material contained herein. Release: The contributor acknowledges and accepts that this contribution becomes the property of IEEE and may be made publicly available by P802.15. Hernandez,Li,Dotlić,Miura (NICT) <author>, <company>

Wireless simulation methodology January 2013 Wireless simulation methodology Hernandez,Li,Dotlić,Miura (NICT)

Link-level vs system-level simulations January 2013 Link-level vs system-level simulations Link-level simulation focuses on the performance of a transmission between terminals. The performance metrics usually include the bit error rate (BER), signal to noise ratio (SNR), achievable data rate, etc. The performance of modulation/demodulation or coding/decoding schemes in different radio channel models can be obtained from the link-level simulation Hernandez,Li,Dotlić,Miura (NICT)

System level simulation January 2013 System level simulation The scenario for the system-level simulation generally consists of a network with multiple terminals. System-level simulation focuses on higher layer performance metrics as expressed by system throughput, user fairness, user-perceived quality of service (QoS), handover delay or success rate, etc. System-level simulation includes the scheduling process, traffic model, power control process, adaptive modulation and coding scheme (MCS) selection process, and other MAC layer processes. Hernandez,Li,Dotlić,Miura (NICT)

System level simulation January 2013 System level simulation Also, the system-level simulation needs to be operated with incorporation of the link-level simulation. The outputs of the link-level simulation are mapped through an interface to the system-level simulation as inputs of the system-level simulation. The link-level simulation is separately abstracted to a set of SNR-BER curves on different Mod/Cod scenarios. Hernandez,Li,Dotlić,Miura (NICT)

MAC protocols parameters January 2013 MAC protocols parameters To analyze MAC protocols and their behavior, we may use five characteristics: Data throughput, in packets, the average amount of received packets in, say 100 rounds, per node Data reception efficiency, the index for data throughput, the data packets successfully received to total data packets transmitted ratio. Collision index, messages which did not reach their destination node, including control messages in relation to the sent attempts. Hernandez,Li,Dotlić,Miura (NICT)

MAC protocols parameters January 2013 MAC protocols parameters Time until success per message, is the average time a node needs to transmit successfully a complete message (latency). Fairness index, according to Jain’s fairness index. Hernandez,Li,Dotlić,Miura (NICT)

January 2013 Interference model In the SINR model, the energy of a signal fades with the distance to the power of a path-loss law (channel models document). If the signal strength received by a device divided by the interfering strength of competitor transmitters is above some threshold , the receiver can decode the message, otherwise it cannot Hernandez,Li,Dotlić,Miura (NICT)

MAC Simulation setup Simulation Area: 1000 x 1000 Number of Nodes: 100 January 2013 MAC Simulation setup Simulation Area: 1000 x 1000 Number of Nodes: 100 Connectivity Model: UDG (unit disk graph) Geometric Node Collection rMax = 100 Distribution model: Uniform random distribution Interference model BER/PER vs SINR: given modulation and FEC coding, . Packet length Hernandez,Li,Dotlić,Miura (NICT)

Comparing protocols Assuming a proposed topology: Density Analysis January 2013 Comparing protocols Assuming a proposed topology: Density Analysis Throughput, latency, fairness, etc., vs No of nodes Packet Length Analysis Throughput, latency, data reception efficiency, vs packet length. Hernandez,Li,Dotlić,Miura (NICT)

TBD for the link-level interface January 2013 TBD for the link-level interface As there is not any PHY approved for the TG8 specification, we may compromise into providing BER vs SNR for the different scenarios of the channel model document for a modulation and FEC approved during the ad-hoc meeting. BER vs SINR if time allows. Hernandez,Li,Dotlić,Miura (NICT)