Custom
Thermal
Shock
Test
Chambers
Meets
JESD22-A106B
Standards
Attribute
|
Value
|
Customized
support
|
OEM
ODM
|
Origin
|
China
|
Material
|
Stainless
Steel
|
Controller
|
Programmable
LCD
Touch
Screen
|
Temp
accuracy
|
0.5°C
|
Temp
uniformity
|
0.5°C
|
Refrigerant
|
Environmental
friendly
|
Custom
Thermal
Shock
Chambers
Meets
JESD22-A106B,
Thermal
Shock
Test
Standards
In
the
highly
competitive
and
innovation-driven
semiconductor
and
electronics
industries,
the
Custom
Thermal
Shock
Chambers,
engineered
to
meet
JESD22-A106B,
Thermal
Shock
test
standards,
emerge
as
a
game-changer
in
ensuring
the
quality
and
durability
of
electronic
components.
Product
Name
and
Purpose
This
custom-built
thermal
shock
chamber
is
dedicated
to
subjecting
a
diverse
range
of
semiconductor
and
electronic
components,
such
as
integrated
circuits,
transistors,
capacitors,
and
connectors,
to
the
exacting
thermal
shock
testing
protocol
mandated
by
JESD22-A106B.
It
serves
as
an
indispensable
tool
for
semiconductor
manufacturers,
electronics
design
houses,
and
quality
assurance
laboratories.
The
overarching
objective
is
to
evaluate
the
ability
of
these
components
to
withstand
rapid
and
extreme
temperature
transitions.
By
replicating
the
thermal
shock
conditions
that
components
may
encounter
during
their
manufacturing
processes,
operational
lifetimes,
and
in
various
environmental
scenarios,
manufacturers
can
identify
and
rectify
potential
weaknesses,
optimize
production
processes,
and
enhance
the
overall
reliability
and
performance
of
their
electronic
products.
Product
Features
-
Robust
and
High-Performance
Chamber
Construction
-
The
chamber
is
constructed
with
heavy-duty,
heat-resistant
materials
that
can
endure
the
intense
thermal
forces.
-
The
walls
are
fabricated
from
high-strength
alloy
steel,
combined
with
advanced
thermal
insulation
layers
to
minimize
heat
transfer
between
the
hot
and
cold
zones.
-
The
door
is
engineered
with
a
precision
sealing
mechanism
and
a
viewing
window,
allowing
operators
to
closely
monitor
the
testing
process
without
compromising
the
chamber's
integrity.
-
The
interior
is
designed
with
custom
racks
and
fixtures,
enabling
the
accommodation
of
a
wide
variety
of
component
sizes
and
shapes
and
ensuring
uniform
exposure
to
the
thermal
shock
conditions.
-
Ultra-Precision
Temperature
Control
and
Cycling
System
-
Temperature
Range
and
Cycling:
Capable
of
achieving
a
wide
temperature
range,
typically
from
-80°C
to
+150°C.
The
system
can
execute
rapid
temperature
cycling
between
the
hot
and
cold
zones,
with
a
transition
time
as
short
as
a
few
seconds.
This
is
crucial
for
mimicking
the
abrupt
temperature
changes
that
electronic
components
may
experience.
The
temperature
control
is
accurate
to
within
±0.2°C,
providing
highly
reliable
and
repeatable
test
results.
-
Programmable
Temperature
Profiles:
The
chamber's
control
system
allows
for
the
creation
and
execution
of
complex,
custom
temperature
profiles.
Operators
can
define
specific
temperature
levels,
dwell
times
in
each
zone,
and
the
sequence
and
number
of
thermal
shock
cycles
to
replicate
a
diverse
range
of
real-world
manufacturing
and
operating
conditions.
This
flexibility
enables
comprehensive
testing
of
components
under
different
mission-critical
scenarios.
-
Intuitive
Control
Panel
and
Data
Acquisition
Interface
-
The
control
panel
is
designed
for
ease
of
use
by
semiconductor
and
electronics
engineers.
It
offers
a
user-friendly
interface
that
allows
effortless
setting
and
adjustment
of
all
test
parameters,
including
temperature,
cycling
times,
and
component
identification.
-
The
panel
also
provides
real-time
displays
of
the
current
temperature
in
both
zones,
the
status
of
the
testing
process,
and
any
alarms
or
warnings.
-
The
chamber
is
integrated
with
a
comprehensive
data
acquisition
system
that
records
all
relevant
test
data.
This
includes
detailed
temperature
histories,
cycle
counts,
and
any
observable
changes
in
the
electrical,
physical,
or
performance
characteristics
of
the
tested
components.
-
The
data
can
be
stored
in
a
secure,
encrypted
format
in
the
chamber's
built-in
memory
or
exported
to
external
storage
devices
for
in-depth
analysis
and
reporting.
The
system
can
also
generate
detailed
test
reports
in
various
standardized
formats.
-
Enhanced
Safety
and
Security
Features
-
To
ensure
the
safety
of
operators
and
the
protection
of
sensitive
test
samples
and
the
chamber
itself,
a
suite
of
advanced
safety
and
security
features
is
incorporated.
-
These
include
multiple
layers
of
over-temperature
and
over-current
protection,
emergency
stop
buttons
with
redundant
circuitry,
and
alarms
for
any
abnormal
temperature
fluctuations,
equipment
malfunctions,
or
security
breaches.
-
The
chamber
is
also
equipped
with
access
control
mechanisms,
such
as
biometric
authentication
or
smart
card
readers,
to
prevent
unauthorized
access
and
safeguard
classified
testing
activities.
-
Additionally,
it
has
a
self-contained
fire
suppression
system
and
proper
ventilation
and
exhaust
mechanisms
to
handle
any
potentially
hazardous
gases
or
vapors
that
may
be
generated
during
testing.
Specific
Parameters
-
Temperature
Range
and
Accuracy
-
The
-80°C
to
+150°C
temperature
range
with
±0.2°C
accuracy
offers
a
comprehensive
and
precise
testing
envelope.
-
Electronic
components
often
have
strict
temperature
tolerance
requirements
due
to
their
complex
internal
structures
and
functions.
-
For
example,
a
transistor's
electrical
characteristics
can
change
significantly
with
temperature,
and
accurate
temperature
control
is
essential
for
evaluating
its
stability.
-
The
wide
temperature
range
allows
for
the
assessment
of
components
under
both
extremely
cold
and
hot
conditions,
ensuring
compliance
with
JESD22-A106B.
-
Thermal
Shock
Cycle
Parameters
-
The
chamber
can
be
programmed
to
perform
a
highly
customizable
number
of
thermal
shock
cycles,
ranging
from
a
few
dozen
to
several
thousand,
depending
on
the
specific
requirements
of
the
component
and
its
expected
service
life.
-
The
dwell
time
in
each
temperature
zone
can
be
adjusted
from
milliseconds
to
hours,
enabling
the
simulation
of
a
vast
array
of
manufacturing
and
operational
scenarios.
-
For
instance,
an
integrated
circuit
used
in
a
mobile
device
may
need
to
withstand
short,
frequent
thermal
shock
cycles
during
its
use,
while
a
component
in
a
server
may
experience
longer,
less
frequent
cycles.