TS820600 ,8A SCRsapplications such as overvoltage crowbarprotection, motor control circuits in power toolsand kitche ..
TS820-600B ,8A SCRSTN8, TS8 and TYNx08 Series®SENSITIVE & STANDARD 8A SCRs MAIN
TS820-600B ,8A SCRSapplications such as overvoltage crowbarprotection, motor control circuits in power toolsand kitche ..
TS820-600B-TR ,8A SCRSFEATURES:ASymbol Value UnitGI8AT(RMS)KV /V600 to 1000 VDRM RRM AAI0.2 to 15 mAGTKAGDESCRIPTIONKAIPA ..
TS820-600B-TR ,8A SCRSapplications such as overvoltage crowbarprotection, motor control circuits in power toolsand kitche ..
TS820-600B-TR ,8A SCRSTN8, TS8 and TYNx08 Series®SENSITIVE & STANDARD 8A SCRs MAIN
UA79M05 ,5V, 500mA Fixed Negative Voltage Regulator
UA79M05C , NEGATIVE-VOLTAGE REGULATORS
UA79M08CKVURG3 ,3 Pin 500mA Fixed (-8V) Negative Voltage Regulator 3-TO-252 0 to 125
UA79M08CKVURG3 ,3 Pin 500mA Fixed (-8V) Negative Voltage Regulator 3-TO-252 0 to 125
UA79M08CKVURG3 ,3 Pin 500mA Fixed (-8V) Negative Voltage Regulator 3-TO-252 0 to 125
UA79MGU1C , 4-Terminal Adjustable Voltage Regulators
TS820600
8A SCRs
1/9
TN8, TS8 and TYNx08 Series
SENSITIVE & STANDARD 8A SCRs
April 2002 - Ed: 4A
MAIN FEATURES:
DESCRIPTIONAvailable either in sensitive (TS8) or standard
(TN8 / TYN) gate triggering levels, the 8A SCR
series is suitable to fit all modes of control, found
in applications such as overvoltage crowbar
protection, motor control circuits in power tools
and kitchen aids, inrush current limiting circuits,
capacitive discharge ignition and voltage
regulation circuits...
Available in through-hole or surface-mount
packages, they provide an optimized performance
in a limited space area.
ABSOLUTE RATINGS (limiting values)
TN8, TS8 and TYNx08 Series2/9
ELECTRICAL CHARACTERISTICS (Tj = 25°C, unless otherwise specified) SENSITIVE STANDARD
THERMAL RESISTANCESS= copper surface under tab
TN8, TS8 and TYNx08 Series3/9
PRODUCT SELECTOR
ORDERING INFORMATION
TN8, TS8 and TYNx08 Series4/9
OTHER INFORMATION
Note: x = voltage
Fig. 1: Maximum average power dissipation
versus average on-state current.
Fig. 2-1: Average and D.C. on-state current
versus case temperature.
Fig. 2-2: Average and D.C. on-state current
versus ambient temperature (device mounted on
FR4 with recommended pad layout) (DPAK).
Fig. 3-1: Relative variation of thermal impedancejunction to case versus pulse duration.
TN8, TS8 and TYNx08 Series5/9
Fig. 3-2: Relative variation of thermal impedancejunction to ambient versus pulse duration
(recommended pad layout, FR4 PC board forAK).
Fig. 4-1: Relative variation of gate trigger currentand holding current versus junction temperature
for TS8 series.
Fig. 4-2: Relative variation of gate trigger currentand holding current versus junction temperature
for TN8 & TYN series.
Fig. 5: Relative variation of holding current
versus gate-cathode resistance (typical values)
for TS8 series.
Fig. 6: Relative variation of dV/dt immunity
versus gate-cathode resistance (typical values)
for TS8 series.
Fig. 7: Relative variation of dV/dt immunityversus gate-cathode capacitance (typical values)
for TS8 series.
TN8, TS8 and TYNx08 Series6/9
Fig. 8: Surge peak on-state current versusnumber of cycles. TS8/TN8/TYN.
Fig. 9: Non-repetitive surge peak on-state
current for a sinusoidal pulse with width<10 ms, and corresponding values of I²t.
Fig. 10: On-state characteristics (maximumvalues).
Fig. 11: Thermal resistance junction to ambientversus copper surface under tab (Epoxy printed
circuit board FR4, copper thickness: 35 μm)
(DPAK).
