Thermal Solution Design Process; Boundary Condition Definition; Thermal Solution Performance - Intel BX80616I3540 Design Manual

Thermal / mechanical design guide
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Figure 5-3.

Thermal solution Performance

5.3

Thermal Solution Design Process

Thermal solution design guidance for this specification is the same as with previous
products. The initial design must take into account the target market and overall
product requirements for the system. This can be broken down into several steps:

• Boundary condition definition

• Thermal design / modelling
• Thermal testing
5.3.1
Boundary Condition Definition
Using the knowledge of the system boundary conditions (e.g., inlet air temperature,
acoustic requirements, cost, design for manufacturing, package and socket mechanical
specifications and chassis environmental test limits) the designer can make informed
thermal solution design decisions.
The thermal boundary conditions for an ATX tower system are as follows:
• T
EXTERNAL
• T
RISE
• T
AMBIENT
Based on the system boundary conditions, the designer can select a T
to use in thermal modelling. The assumption of a T
the required Ψ
assumed T
Figure 5-4
30
= 35 °C. This is typical of a maximum system operating environment
= 4 °C. This is typical of a chassis compliant to CAG 1.1
= 39 °C (T
= T
AMBIENT
needed to meet TTV T
CA
can utilize a design with a higher Ψ
AMBIENT
shows a number of satisfactory solutions for the processor.
Sensor Based Thermal Specification Design Guidance
+ T
)
EXTERNAL
RISE
AMBIENT
at TDP. A system that can deliver lower
CASEMAX
, which can have a lower cost.
CA
and Ψ
AMBIENT
has a significant impact on
Thermal/Mechanical Design Guide
CA

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Xeon 3500 series

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