CSE 291 High Performance Interconnect Fall 2012 University of California, San Diego Course Information Instructor CK Cheng, 858 534-6184.

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CSE 291 High Performance Interconnect Fall 2012 University of California, San Diego Course Information Instructor CK Cheng, Schedule Lectures: 5:00-6:20PM, TTH, CSE 2217 Textbooks (H) High Speed Signal Propagation: Advanced Black Magic Howard Johnson and Martin Graham (D) Digital Systems Engineering William J. Dally, John W. Poulton Content 1. Structure of Interconnect and Packaging 2. Electrical and Physical Scaling 3. Interconnect Modeling: Wire and Transmission Line Models 4. Interconnect Signaling 5. Transmitters and Receivers 6. Power Distribution Network 7. Clock Distribution 8. Extraction and Simulation 9. Thermal Issues 1

System Example: Blue Gene/L 2005 Overall View 8x8 Racks: 65,536 compute nodes 25KW/Rack 2 Midplanes/Rack 16 Node cards/Midplane 16 Compute cards/Node card 2 PUs/Compute card 64x32x32 Torus 1.4Gb/s differential link, 700MHz clock 2

System Example: Blue Gene/L 2005 Compute card 14.3W/ASIC node: power density 10.4W/cm 2 206mm x 55mm/compute card 14 layers: 6 signal, 8 power 3

System Example: Blue Gene/L 2005 Air cooling 25KW/ 0.91 x 0.91 m 2 ≈ 3W/cm 2 Air displacement 1.4m 3 /s, Average velocity 6.7m/s Fan speed is optimized individually Plenum: θ, β, EMI screen Elliptical vane 4

System Example: Blue Gene/L 2005 Clock Length matching, differential pairs with termination Interconnect Pre-emphasis, On-chip termination Vdd/Vss noise: ps delay Midplane: reduce longest path between boards 18 layers um width trace at 1.0ounce copper for 100ohm differential pairs 100um width trace at 0.5 ounce copper for short wires 5

System Example: z196 z196 (2012): 45nm tech, released 9/ cores, 5.2GHz, 770GB Memory/node 3KW/PU book, 4PU books/backplane MCM 1MCM/PU book, 2KA/MCM 6PCs, 2 Cache/MCM 96x96mm 2, 103 layers, 7,356pins/MCM 6

System Example: z196 Water cooling option humidity and atmospheric pressure -> dew point + 6°C 3.25 gallons/minute for each processor module Lower temperatures -> lower processor power consumption No refrigeration compressors Air conditioning of the room: energy reduced by a factor of 3 Save 4 kW/4PU books 7

System Example: z196 Power Distribution at ±5% tolerance Locate power conversion close to the chip –DCA-> 40-48V –Gearboxes -> 1.1V, 17 power domains –Feedback control Redundancy N+2 (N=2), V, I, T sensing for failure detection Previous version: 600W copper losses, 5 ounces metal plane Now 400W (1/3 on copper, 2/3 on power conversion) Deep trench capacitor: 25 times density, 15uF -> 5.2 GHz on chip 8

System Example: z196 Power network impedance evaluation (10mΩ) Set on-off sequence for clock tree to create stimulus pattern Measure voltage with probes Average 7,864 times, 2M samples for 2ms interval at 1GHz sample rate Z(f)=V(f)/I(f) 9