Time Session
9:30 am-9:45am Welcome
Introduction of JEDEC Chairman
Overview of event

Presented by John J. Kelly, President, JEDEC & Mark Kellogg, Program Chair, JEDEC
9:45 am-
10:15 am

Introduction
An overview of the evolutionary migration from DDR to DDR2 to DDR3 will be covered, including the timeframe from start of standardization efforts to production. The broad range of DDR3-related standards will be summarized covering memory devices, support devices, modules, interfaces and packaging standards - with participating JEDEC committees identified. The JEDEC standardization process will be reviewed, including the extensive use of task groups to complete the detailed analysis and document creation efforts.
Presented by Mian Quddus, Samsung and JEDEC Chairman

10:15 am-10:45 am

Why Migrate to DDR3?
A customer-based overview will be provided summarizing the processor/bandwidth/performance and density needs that were that led to the DDR3 production definition. An overview of the performance, features and functional improvements with DDR3 will be shown, in an effort to help memory users determine if/when a migration to DDR3 is appropriate.
Presented by Geof Findley, Intel

10:45 am-12:00 pm DDR3 Density, Addressing and Packaging
This presentation will review the DDR3 device density roadmap, planned data widths, speed bins and addressing. The memory device addressing will be shown, by density, including page size implications. The package and pin assignments will be reviewed, including a rationale of the pin placements, return paths, wiring escape examples, support balls and other PCB implications. The memory device "common footprint" concept and rationale will be covered. DDR3 package options will be discussed, including stacked packages.

Specific examples will be shown of designs using the new DDR3 packages, for illustrative purposes.
Presented by Rich Parent, Nanya

12:00 pm-
1:00 pm

Lunch

1:00 pm-
2:45 pm

DDR3 Initialization Sequence & Reset
This session will cover the DDR3 initialization sequence, including power supply ramp, device initialization, warm boot, an overview of the mode registers and the memory device state diagram. Examples of actual system power-on situations will be covered, including historical system power supply ramp and/or initialization failures and some design considerations to avoid such problems in new designs. The presentation will provide further insight into the memory device, bus and system operations taking place during the memory power-up process.
Presented by DY Lee, Samsung

DDR3 Write/Read Leveling
The read and write leveling operation will be introduced for DDR3, including why the function is needed (based on example system wiring topologies, flight times, etc) and the limiting affect on memory operating frequency if this new feature is not used. Real-life single and multi-rank memory subsystem examples will be used to demonstrate the need, operation and benefit of the new feature in maximizing the useful operating frequency of DDR3 in new applications. On-die termination will be introduced, as well as the MPR (multi-purpose register) and key device timing parameters associated with write and read leveling.
Presented by DY Lee, Samsung

2:45 pm-
3:00 pm

Break

3:00 pm-
4:00 pm
DDR3 Write/Read Operations
Read and write operations will be reviewed in detail, including latency definition (AL, CWL, CL), burst length modes (burst chop OTF), read-write and write-read back-to-back operations will be shown, as well as rank interleaving, precharge, data mask, auto refresh, etc. Key read and write timing parameters will be identified, including tDQSQ, tDQSS, tQH, tDQSCK, etc, with actual memory subsystem examples/simulations used to demonstrate operability at various DDR3 data rates.
Presented by DY Lee, Samsung
4:00 pm-
5:00 pm
Industry Reception

Visit the JEDEC program site frequently as the program is subject to change.


Session
9:30 am-
11:00 am

DDR3 ODT & Dynamic ODT
The DDR3 on-die termination function will be reviewed, including a description and rationale for the function, ODT control modes, synchronous ODT, asynchronous ODT and dynamic ODT. Extensive memory subsystem examples will be used, at a range of operating speeds, bus structures (pt-to-pt, multi-drop, fly-by, etc) and drive conditions. Key ODT timing parameters, mode register settings and ODT functionality during various memory operations will be covered. Timing diagrams and simulation results will allow attendees to comprehend the benefits of the ODT feature when properly applied to various applications ranging from on-board to multi-rank.
Presented by Todd Farrell, Micron Technology

DDR3 Timings, Input/Output Specifications, Etc.
This session will round-out the DDR3 specification overview by describing the AC and DC specifications/reference loads for the new technology, in addition power management, frequency change procedures, optional features such as DLL on/off, ASR, extended temperature operation, clock jitter specifications, capacitance specifications, etc.

The presentation will offer a greater understanding and the rationale behind the selected values, interpretation of the values (including the reference loads), measurement methods and common system problems associated with failures to meet theses values. In addition, DDR3 functions not previously covered will be described, ensuring that all major attributes of the technology are understood.
Presented by Todd Farrell, Micron Technology

11:00 am-
12:00 pm

DDR3 Interface Review and Design Considerations
This session will cover a broad range of DDR3 interface specifications and provide real-world examples (net structures, simulation waveforms) and demonstrate the application of specification de-ratings that may apply for various waveforms. Topics will include driver and receiver characteristics, ZQ calibration (short/long), driver sensitivity (temp/voltage), set-up and hold time specifications, de-rating based on slew rates and/or non-linear transitions, etc.

Through the use of real-world examples and simulations, the DDR3 interface specifications will be shown to enable operation using various net structures over the full DDR3 operating range - when available programmable features are properly applied. This session will further suggest optimal net structures, data eye measurement methods and interface timing calculation methods (timing budgets) to ensure adequate operational margins.
Presented by William Shen, Qimonda

12:00 pm-
1:00 pm

Lunch

1:00 pm -
2:00 pm

DDR3 Modules: Introduction and Overview
In addition to the development of DDR3 memory devices and interfaces, a wide variety of memory modules have been developed to cover a broad range of application conditions, as well as a number of interface devices that may be used on these modules or in device-level applications. This presentation will cover the major memory module families (UDIMMs, RDIMMs, SO DIMMs, FB DIMMs, etc), including a review of possible applications for each module type, the key features/attributes, mechanical information, pinout, dimensions, memory configurations, etc for each module family.

Planned/available raw card designs will be reviewed for each module family, with available gerber file designs and Design Specifications summarized. An overview of the support devices such as PLL's, registers and AMB devices will be shown, as well as an overview of the SPD's and the SPD revision methodology planned for the DDR3 generation. The material will also include a review of some of the design considerations for the major module families, including net topologies, cross-sections/board impedances and signal referencing - with the expectation that this information may be useful both to module and non-module applications.
Presented by Takao Ono, Elpida

2:00 pm-
3:00 pm
Application Viewpoint
To round-out the DDR3 workshop, this presentation will be completed from the system viewpoint - covering the integration, use and benefits/tradeoffs for the new technology in real-life applications. The material will include a review of the application conditions and performance/density objectives, in addition to simulation and hardware results as applicable. Observations regarding the use of the DDR3 memory technology will be summarized, including feedback regarding the new memory features - with attendees benefiting through the experience of these early adopters. The presentation may be based on the assumptions, design groundrules, specific RDIMM/FBDIMM/UDIMM/SO DIMM designs and associated simulation results - as a means of both demonstrating actual operation and the process the committees go through when developing modules consistent with the new standard.
Presented by Simon Muff, Qimonda
3:00 pm-
3:15 pm
Break
3:15 pm-
3:30 pm
Closing Summary
The wrap-up presentation will highlight the breadth of the JEDEC committee efforts to develop a "total solution" - comprised of a broad range of device, module, package and interface standards to help ensure product compatibility and facilitate industry adoption and success with the new DDR3 memory technology. Other memory standards now being defined within these committees will be summarized, including GDDR5, LPDDR2 and DDR4 - methods of participating in these and related standards will be offered, and workshops on these standards are planned.

Information will be shown regarding JEDEC publications and how to locate specifications on the JEDEC site, including a review of how JEDEC member companies can access all memory-related meeting presentations and pre-publication documents.
Presented by Mark Kellogg, Program Chair, JEDEC

3:30 pm-
4:30 pm
Roundtable Discussion
A roundtable discussion will be held, comprised of technical leaders in the industry as associated with DDR3 and related technologies/products. Questions can be posed to these experts, as associated with the new technologies and specifications, JEDEC itself, and other related topics.
Moderator: Mark Kellogg, JEDEC - Participants: Geof Findley, Intel, Rich Parent, Nanya, DY Lee, Samsung,
Todd Farrell, Micron, Takao Ono, Elpida, and Simon Muff, Qimonda

Visit the JEDEC program site frequently as the program is subject to change .