Semiconductor Optimization Technische Universität München Semiconductor Optimization Pirmin Fontaine Elena Gräfenstein Andreas Kirsch Christina Maier Daniel.

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Presentation transcript:

Semiconductor Optimization Technische Universität München Semiconductor Optimization Pirmin Fontaine Elena Gräfenstein Andreas Kirsch Christina Maier Daniel Opritescu Nicole Wochatz

Semiconductor Optimization Technische Universität München What are Semiconductors? Courtesy of Intel Inc.

Semiconductor Optimization Technische Universität München What are Semiconductors? Semiconductors are conductors that only conduct electric current in one direction. An LED is a semiconductor

Semiconductor Optimization Technische Universität München What are Semiconductors? Usually though one refers to something more advanced: Chips

Semiconductor Optimization Technische Universität München Chips They are an important component of most modern inventions...

Semiconductor Optimization Technische Universität München Chips … computers, of course Courtesy of Apple, Inc.

Semiconductor Optimization Technische Universität München Chips … mobile phones Courtesy of Apple

Semiconductor Optimization Technische Universität München Chips … cars Courtesy of Lamborghini

Semiconductor Optimization Technische Universität München Chips … and lots of other modern products

Semiconductor Optimization Technische Universität München Internal Structure of a Chip Courtesy of Intel Inc.

Semiconductor Optimization Technische Universität München Internal Structure of a Chip Chips are made up of lots of layers. The bottom most layer contains switching elements called transistors. The remaining layers contain the wiring required for interconnecting all the transistors.

Semiconductor Optimization Technische Universität München Transistors Transistors are very basic semiconductors that allow an electric current to pass or not depending on a controlling voltage.

Semiconductor Optimization Technische Universität München Transistors Chips contain billions of these little transistors. Wired together cleverly they make up all the control logic of computers, mobile phones, etc..

Semiconductor Optimization Technische Universität München Wiring The wiring layers interconnect different transistors. Because there are so many different connections multiple layers are needed.

Semiconductor Optimization Technische Universität München Wiring For technical reasons the wires on one layer have to be parallel to each other. Only the size of the gap between them can be varied.

Semiconductor Optimization Technische Universität München Heat Transistors always lose energy when their state changes. This energy is directly converted into heat. Infrared Image of an IBM chip Courtesy of IBM

Semiconductor Optimization Technische Universität München Heat Moreover every time the current on a wire changes, its electric field is changed, too. This also causes an energy loss and heat emission. Strength of the Induced Electromagnetic Field Created with MatLAB

Semiconductor Optimization Technische Universität München Magnitude of the Heat Problem

Semiconductor Optimization Technische Universität München Energy Consumption Supercomputers dont do anything else but processing data and most of the energy is directly converted into heat as unwanted by-product. Courtesy of Jülich Forschungszentrum

Semiconductor Optimization Technische Universität München Cooling Up to 45% of the energy consumption is needed by the cooling equipment to keep super-computers at working temperatures. Energy Consumption:

Semiconductor Optimization Technische Universität München Optimization is Imperative Thus it is very important to reduce the energy consumption and consequently the amount of cooling needed. Energy Consumption:

Semiconductor Optimization Technische Universität München Optimization Methods

Semiconductor Optimization Technische Universität München What do we optimize? The point of attack we chose was the wiring of the transistors. Changing the ordering and spacing of wires doesnt require changes to the underlying design of the transistor layer itself. Two separate problems to solve: Wire Ordering Wire Spacing

Semiconductor Optimization Technische Universität München Idea for Wire Spacing Optimization The further apart two wires are the less heat is emitted because of electric induction when one of the wires switches. Heat is emitted from switching wires

Semiconductor Optimization Technische Universität München Idea for Wire Spacing Optimization If two wires are very active, that is switch a lot, it would be better to increase the distance between them.

Semiconductor Optimization Technische Universität München Wire Spacing If we use the combined activity of two neighboring wires as a hint for the distribution of the space between wires, we find the optimal solution.

Semiconductor Optimization Technische Universität München Wire Ordering Arranging the wires with increasing activity towards the center wire yields the optimal wire ordering.

Semiconductor Optimization Technische Universität München Wire Ordering

Semiconductor Optimization Technische Universität München Outlook Special algorithms can be developed that deal with additional information like groups of wires that always switch at the same time or with a certain probability.