Submission doc.: IEEE 802.11-15/1100r2 September 2015 Slide 1 Chittabrata Ghosh, Intel Discussion on Deep and Shallow Sleep States Date: 2015-09-14 Authors:

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Presentation transcript:

Submission doc.: IEEE /1100r2 September 2015 Slide 1 Chittabrata Ghosh, Intel Discussion on Deep and Shallow Sleep States Date: Authors: NameAffiliationsAddressPhone Ghosh ChittabrataIntel 2200 Mission College Blvd., Santa Clara, CA,

Submission doc.: IEEE /1100r2 Abstract The Simulations Scenario document [1] described the common power model parameters in Deep Sleep, Shallow Sleep, Listen, Receive, and Transmit states Current consumption in all the states, except the Deep Sleep state, are well defined for 20MHz, 40MHz, and 80MHz channel bandwidths However, current consumption in Deep Sleep state in either of the channel bandwidths is not defined in [1] In this contribution, we propose specific values for current consumption in Deep Sleep state We also propose to modify the current definition of Deep Sleep and Shallow Sleep states Slide 2 Chittabrata Ghosh, Intel September 2015

Submission doc.: IEEE /1100r2 Different State Transitions in ax Slide 3 Chittabrata Ghosh, Intel September 2015

Submission doc.: IEEE /1100r2 Various Power States Definition in [1] Slide 4 Based on contribution [2], the Simulation Scenarios document [1] of IEEE ax specifies the following common power model parameters for all simulation scenarios Chittabrata Ghosh, Intel September 2015 Power State parameters Average Current Consumption [mA] Voltage = 1.1V, Band = { 2.4 GHz, 5 GHz }, NSS = { 1 }, Number of TX/RX antennas = { 1 }, TX power per antenna = { 15 dBm } Power StateBandwidth = { 20 MHz }Bandwidth = { 40 MHz }Bandwidth = { 80 MHz } Transmit280 mA Receive100 mA140 mA200 mA Listen50 mA60 mA75 mA Shallow Sleep0.9 mA Deep SleepTBD

Submission doc.: IEEE /1100r2 Proposed Current Consumption in Deep Sleep Slide 5 We propose to replace the TBD values for Deep Sleep state in the Simulation Scenarios document [1] of IEEE ax Chittabrata Ghosh, Intel September 2015 Power State parameters Average Current Consumption [mA] Voltage = 1.1V, Band = { 2.4 GHz, 5 GHz }, NSS = { 1 }, Number of TX/RX antennas = { 1 }, TX power per antenna = { 15 dBm } Power StateBandwidth = { 20 MHz }Bandwidth = { 40 MHz }Bandwidth = { 80 MHz } Transmit280 mA Receive100 mA140 mA200 mA Listen50 mA60 mA75 mA Shallow Sleep0.9 mA Deep Sleep0.09mA

Submission doc.: IEEE /1100r2 Deep and Shallow Sleep State Definition [1] Chittabrata Ghosh, IntelSlide 6 Deep Sleep [2] power state is defined as a sleep state with the least (non-zero) power consumed and the longest transition time to Listen state. Shallow Sleep [2] power state is defined as a sleep state when the STA consumes more power but transitions faster to Listen state when compared to the Deep Sleep power state September 2015 Proposed modifications to Deep and Shallow Sleep state definition: Deep sleep power state of a wireless module is defined as a sleep state with the wireless radio turned off, i.e., RF, baseband and MAC processors are all switched off. The only power consumed by the wireless module is leakage power. Shallow sleep power state of a wireless module is defined as a sleep state with baseband and MAC processors turned on, but RF is switched off.

Submission doc.: IEEE /1100r2 Power and Latency Transitions Among States in IEEE ax [1, 3] Slide 7 Chittabrata Ghosh, Intel September 2015 Power Transition parameters State TransitionsTransition Time (ms) Average Power Consumption (mW) Transmit ListenT TL =0.01ms75mW Receive Listen0.001ms55mW Listen TransmitT LT = 0.01msP LT = 100mW Transmit Shallow SleepT TS =0.01msP TS = 15mW Receive Shallow SleepT RS =0.2msPRS = 15mW Listen Shallow SleepT LS =0.2ms PLS = 5mW Shallow Sleep Listen0.5 ms (T SL ) Listen Deep SleepT LD P DS = 5mW Deep Sleep ListenT SDL = 3ms

Submission doc.: IEEE /1100r2 Proposed Latency in Transition from Deep Sleep to Listen State in [1] Slide 8 Chittabrata Ghosh, Intel September 2015 Power Transition parameters State TransitionsTransition Time (ms) Average Power Consumption (mW) Transmit ListenT TL =0.01ms75mW Receive Listen0.001ms55mW Listen TransmitT LT = 0.01msP LT = 100mW Transmit Shallow SleepT TS =0.01msP TS = 15mW Receive Shallow SleepT RS =0.2msPRS = 15mW Listen Shallow SleepT LS =0.2ms PLS = 5mW Shallow Sleep Listen0.5 ms (T SL ) Listen Deep SleepT LD = 1ms P DS = 5mW Deep Sleep ListenT SDL = 10ms

Submission doc.: IEEE /1100r2 Conclusion In this submission, we have proposed current consumption values in Deep Sleep state for 20MHz, 40MHz, and 80MHz channel bandwidths We have also proposed to modify definition of Shallow and Deep Sleep states Finally, we have proposed to modify the latency in transition from Deep Sleep to Listen state Slide 9Chittabrata Ghosh, Intel September 2015

Submission doc.: IEEE /1100r2 References [1] S. Merlin et. al., “TGax Simulation Scenarios,” IEEE r14, July 2015 [2] C. Ghosh et. al., “Sleep states in-IEEE ax Simulation Scenarios,” IEEE r2, March 2015 [3] C. Ghosh et. al., “Power Consumption and Latency Values in State Transitions for IEEE ax Simulation Scenarios,” IEEE r0, May 2015 Slide 10 Chittabrata Ghosh, Intel September 2015

Submission doc.: IEEE /1100r2 Straw poll 1 Do you agree to define the current consumption value in Deep Sleep state in the Simulation Scenarios document as proposed in Slide 5? Slide 11 September 2015 Chittabrata Ghosh, Intel

Submission doc.: IEEE /1100r2 Straw poll 2 Do you agree to include the modified definition for Shallow and Deep Sleep state in the Simulation Scenarios document as discussed in Slide 6? Slide 12 September 2015 Chittabrata Ghosh, Intel

Submission doc.: IEEE /1100r2 Straw poll 3 Do you agree to modify the transition time from Deep Sleep to Listen state in the Simulation Scenarios document as proposed in Slide 8? Slide 13 September 2015 Chittabrata Ghosh, Intel