Page 1

DATA SHEET
TSP058A~TSP320A
AXIAL LEAD BI-DIRECTIONAL THYRISTOR SURGE PROTECTOR DEVICE
FEATURES
• Protects by limiting voltages and shunting surge currents away from sensitive circuits
• Designed for telecommunications applications such as line cards, modems, PBX, FAX,
LAN,VHDSL
• Helps meet standards such as GR1089, ITU K.20, IEC950, UL1459&50, FCC part 68
• Low capacitance, High surge (A, B, C rating available), precise voltage limiting, Long life
MECHANICAL DATA
• Case: JEDEC DO-15 molded plastic
• Terminals: Plated Axial leads, solderable per
MIL-STD-750, Method 2026
• Polarity: Bi-directional
• Weight: 0.015 ounce, 0.4 gram
SUMMARY ELECTRICAL CHARACTERISTICS
evititepeRdetaR
etatS-ffOkaeP
egatloV
rebmuNtraP
.xaM .xaM .xaM .xaM .xaM .niM .pyT .xaM .pyT .xaM
V
DRM
V
revokaerB
egatloV
BOI@BOVT
etatS-nO
egatloV
A1@ I
V V V
A850PST 85 77 5 5 008 051 44 66 61 42
A560PST56885 5 00805193465132
A570PST 57 89 5 5 008 051 73 75 31 02
A090PST0903155 00805143452181
A021PST 021 061 5 5 008 051 23 84 21 71
A041PST04108155 0080519274961
A061PST 061 022 5 5 008 051 82 34 9 51
A091PST09106255 0080518204841
A022PST 022 003 5 5 008 051 72 04 8 41
A572PST57205355 0080517283831
A023PST 023 004 5 5 008 051 72 83 8 31
seton)3,1()6,5,3()3()3()3()3,2()3()3()3()3(
DRM
µA
evititepeR
etatS-ffOkaeP
tnerruC
I
DO-15
.034(.86)
.028(.71)
1.0(25.4) MIN.
.300(7.6)
.230(5.8)
.140(3.6)
.104(2.6)
1.0(25.4) MIN.
revokaerB
tnerruC
BO
gnidloH
tenrruC
I
H
C
O
V0@
cd
C
O
Am Am Fp Fp
Unit: inch ( mm )
ecnaticapaCetatS-ffO
Vm51=caV,zHM1=f(
RMS
)
V05@
cd
NOTES:
1. Specific V
values are available by request.
DRM
2. Specific IH values are available by request.
3. All ratings and characteristics are at 25 °C unless otherwise specified.
4. V
applies for the life of the device. I
DRM
5. V
is at 100V/msec, ISC =10Apk, VOC=1KVpk, 10/1000 Waveform
BO1
6. V
is at f = 60 Hz, ISC = 1 A
BO2
, Vac = 1KV
(RMS)
will be in spec during and following operation of the device.
DRM
, RL = 1 KW, 1/2 AC cycle
(RMS)
DATE : SEP.02.2002
PAGE . 1
Page 2

CAPACITANCE CHARACTERISTICS
F = 1 MHz, Vac = 15 mV
A850PST 44 66 04 15 63 94 33 44 61 42
A560PST93465394137482245132
A570PST 73 75 33 24 92 04 62 53 31 02
A090PST43450393627332232181
A021PST 23 84 82 33 42 13 12 62 21 71
A041PST9274522312038152961
A061PST 82 34 52 72 12 42 81 02 9 51
A091PST8204425202327181841
A022PST 72 04 32 52 91 32 61 81 8 41
A572PST7283324291226171831
A023PST 72 83 32 42 91 22 61 71 8 31
rms
rebmuNtraP
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RATING AND CHARACTERISTIC CURVES
C
O
Fp
ecnaticapaCetatS-ffO
f=1 M
HZ
v =15mV AC
dRMS
O
T=25 C
J
60
50
40
V =0VoltsDC
D
30
20
Capacitance (pF)
V =50 Volts DC
D
10
0
50 100 150 200 250
V
DRM
300 350
Typical Capacitance v.s. Rated Repetitive Off-state Voltage
100
10
TSP220SC
m
1
f=1 M
HZ
v =15mV AC
dRMS
O
T=25 C
J
30
25
TSP220SA
20
15
Capacitance (pF)
10
5
0.1 1 10 100
V Off-state Voltage (V)
D
Typical Capacitance v.s. Off-state Voltage
10A, 10/1000 microseconds
300
250
0.1
0.01
D,
I Off-State Current ( A)
0.001
TSP220SA
TSP220SB
0.0001
0 20 40 60 80 100 120 140
O
T(C)
J
Typical Off-state Current v.s Junction Temperature
DATE : SEP.02.2002
150
200
150
H
I , Holding Current (mA)
100
25 0 25 50 75 100 125
T , Junction Temperature ( C)
J
O
Typical Holding Current
PAGE . 2
Page 3

RATING AND CHARACTERISTIC CURVES
10A, 10/1000 microseconds
-0.1
o
-1.0
-1.5
-2.0
-2.5
Temperature Coefficient (mA/ C)
-3.0
-25
0 25 50 75 100 125
T , Junction Temperature ( C)
J
O
Typical Holding Current Temperature Coefficient
10A, 10/1000 microseconds
-1.0
o
-1.5
-2.0
-2.5
-3.0
Temperature Coefficient (mA/ C)
-3.5
150 200 250 300 350
T , Junction Temperature ( C)
J
O
Typical Holding Current Temperature Coefficient
.16
o
0.14
DRM
0.12
0.1
0.08
Temperature Coefficient of V ,%/ C
50 100 150 200 250 300 350
Rated V at T =25 C (V)
DRM J
Temperature Coefficient of V
o
DRM
IMPORTANT NOTICE
This information is intended to unambiguously characterize the product in order to facilitate the customer's evaluation of the device in
the application. It will help the customer's technical experts determine that the device is compatible and interchangeable with similar
devices made by other vendors. The information in this data sheet is believed to be reliable and accurate. The specifications and
information herein are subject to change without notice. New products and improvements in products and their characterization are
constantly in process. This provides a superior performing and the highest value product. The factory should be consulted for the
most recent information and for any special characteristics not described or specified.
© Copyright PanjIt International Inc. 2001
All rights are reserved. Reproduction in whole or in part is prohibited without the prior written consent of the copyright owner.
The information presented in this document does not form part of any quotation or contract, is believed to be accurate and reliable and
may changed without notice. No liability will be accepted by the publisher for any consequence of its use.
Publication thereof does not convey nor imply any license under patent- or other industrial or intellectual property rights.
PanJit Internatioal Inc.
http://www.panjit.com.tw email: sales@panjit.com.tw
DATE : SEP.02.2002
PAGE . 3
Page 4

SELECTION GUIDE
Follow these steps to select the proper Thyristor surge protector for your application:
1. Define the operating parameters for the circuit:
• Ambient operating temperature range
• Maximum telephone line operating current (highest battery and shortest copper loop)
• Maximum operating voltage: (Maximum DC bias + peak ringing voltage)
• Maximum surge current
• System voltage damage threshold
• Select device with an off-state voltage rating (V
3. Select surge current ratings (I
PPS
and I
TSM
) ³ those which the application must withstand.
) above the maximum operating voltage at the minimum operating temperature.
DRM
4. Verify that the minimum holding current of the device at the maximum ambient temperature is above the maximum dc current of the
system.
5. Verify that the maximum breakover voltage of the device is below the system damage threshold.
6. Verify that the circuit's ambient operating temperatures are within the device's operating temperature range.
7. Verify that the device's dimensions fit the application's space considerations.
8. Independently evaluate and test the suitability and performance of the device in the application
MAXIMUM SURGE RATINGS (TJ = 25 °C UNLESS OTHERWISE NOTED)
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lobmyS I
PPS
evaWtnerruCtiucriC-trohS01/2 µs02/8 µs061/01 µs013/5 µs065/01 µs0001/01 µs
evaWegatloVtiucriC-nepO 01/2 µs 05/2.1 µs 061/01 µs 007/01 µs 065/01 µs 0001/01 µs
eulaV
A571A051A001A58A07A05
setoN )6,5,4,2,1( )4,3,2,1(
Notes:
1. Thermal accumulation between successive surge tests is
not allowed.
2. The device under test initially must be in thermal
equilibrium with T
= 25 °C.
J
3. Test at 1 cycle, 60 Hz.
4. Surge ratings are non-repetitive because instantaneous
junction temperatures may exceed the maximum rated T
Nevertheless, devices will survive many surge applications
without degradation. Surge capability will not degrade over
a device's typical operating life.
5. Adjust the surge generator for optimum current-wave
accuracy when both voltage and current wave
specifications cannot be exactly met. The current wave is
more important than the voltage wave for accurate surge
evaluation.
6. The waveform is defined as A/B ms where:
A: (Virtual front time) = 1.25 X Rise time = 1.25 X (T
B (Duration time to 50% level of Ipps) = T
1
- T
- Ta)
b
0
kaePevititepeR-noN
tnerruCegruSetatS-nO
I
TSM
A02
% Ipps
100%
80%
60%
.
J
40%
20%
0%
TbTa T1To
Time
DATE : SEP.02.2002
PAGE . 4
Page 5

MAXIMUM THERMAL RATINGS
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J 051ot04-
egnaRerutarepmeTtneibmAgnitarepO Ta 56ot04-
tinU
O
C
O
C
O
C
Notes:
PCB board mounted on minimum foot print.
THERMAL CHARACTERISTICS
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TsdaeLotnoitcnuJecnatsiseRlamrehT
L
Notes:
The junction to lead thermal resistance represents a minimum limiting value with both leads soldered to a large near-infinite heatsink. The
junction to ambient thermal resistance depends strongly on board mounting conditions and typically is 3 to 6 times higher than the junction
to lead resistance. The data shown is to be used as guideline values for preliminary engineering.
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.sezisdaplacitnediotderedlossdaelhtoB.citsalp
R
θ LJ
02.xaM
O
W/C
ELECTRICAL CHARACTERISTICS (TC = 25°C UNLESS OTHERWISE NOTED)
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Notes:
Specific I
kaePevititepeR
tnerruCetatS-ffO
1tnerruCgnidloH0001/01 µ I,mrofevaws
egatloVetatS-nO I T 003=wT,A1= µ eslup1,s V
values are available by request.
H
D
V
Vdetar= DRM I DRM 5
tnerruCrevokaerB I,zH06=f SC V,smrA1=
ca
CS
R,smrVK1= L K1= Ω elcycCA2/1, I
V,A01=
CO
R,V26= L 004= Ω I
OB
H
T
051Am
µA
008 Am
5 V
DATE : SEP.02.2002
PAGE . 5
Page 6

IPPS
ITSM
IT
IBO
IH
IBR
+I
_
V
VT
_
I
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V
IDRM
BO
I
BO
H
I
I
T
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tnerrucetats-nO noitidnocetats-noehtniecivedehthguorhttnerruC
VDRM
VBR
VBO
+V
esirfoetartnerrucdnaegatlovdeificepsarednu
derusaemnwodkaerbtaroniecivedehtssorcaegatlovmumixaM
BO
)
V
T
V
DRM
I
DRM
I
PPS
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td/vd egatloVetatS-ffOfoesiRfoetaRlacitirC
DATE : SEP.02.2002
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DRM
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)
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DRM
.etats-noehtotetats-ffoehtmorfgnihctiws
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noitacilppaehtmorfstlusertahttnerrucfoeulav)kaep(mumixamehT
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PAGE . 6