Ins. BTA12-xxxB X X 50 mA Standard TO-220AB Ins. BTA12-600TW X 5 mA SnubberlessM TO-220AB Ins. BTA12-xxxSW X X 10 mA SnubberlessM TO-220AB Ins. BTA12-xxxCW X X 35 mA TM TO-220AB Ins. Snubberless TM BTA12-xxxBW
surface under tab PRODUCT SELECTOR Voltage (xxx) Part Number Sensitivity Type Package 600 V 800 V BTA/BTB12-xxxB X X 50 mA Standard TO-220AB BTA/BTB12-xxxBW X X 50 mA Snubberless TO-220AB BTA/BTB12-xxxC X X 25 mA Standard TO-220AB BTA/BTB12-xxxCW X X 35 mA Snubberless TO-220AB BTA/BTB12-xxxSW X X 10
surface under tab PRODUCT SELECTOR Voltage (xxx) Part Number Sensitivity Type Package 600 V 800 V BTA/BTB12-xxxB X X 50 mA Standard TO-220AB BTA/BTB12-xxxBW X X 50 mA Snubberless TO-220AB BTA/BTB12-xxxC X X 25 mA Standard TO-220AB BTA/BTB12-xxxCW X X 35 mA Snubberless TO-220AB BTA/BTB12-xxxSW X X 10
for insulated BTA A2 • High commutation (4Q) or very high commutation (3Q, Snubberless™) capability • BTA series UL1557 certified (file ref: 81734) G G • Packages are RoHS (2002/95/EC) compliant A12 A1A2 • Insulated
BTA316B-600C 3Q Hi-Com Triac Symbol Parameter Conditions Min Typ Max Unit V = 12 V; I = 0.1 A; T2- G-; 2 - 35 mA D T Tj= 25 °C; Fig. 7 5. Pinning information Table 2. Pinning information Pin Symbol Description
- - Without snubber Tj = 125°C 8.5 - 8.5 14 STANDARD (4 Quadrants) Symbol Test Conditions Quadrant BTA/BTB16 Unit C B GT (1) I - II - III 25 50 mA V = 12 V R = 33 IV MAX. 50 100 D L VGT ALL MAX. 1.3 V V GD V D V DRM RL= 3.3 k Tj = 125°C ALL MIN. 0.2 V IH(2) IT= 500 mA MAX. 25 50 mA I I = 1.2 I I - III
- - Without snubber Tj = 125°C 8.5 - 8.5 14 STANDARD (4 Quadrants) Symbol Test Conditions Quadrant BTA/BTB16 Unit C B GT (1) I - II - III 25 50 mA V = 12 V R = 33 IV MAX. 50 100 D L VGT ALL MAX. 1.3 V V GD V D V DRM RL= 3.3 k Tj = 125°C ALL MIN. 0.2 V IH(2) IT= 500 mA MAX. 25 50 mA I I = 1.2 I I - III
)c = 10 V/µs Tj= 125°C MIN. 2.8 - 1.5 2.98 - - A/ms Without snubber Tj= 125°C - 4.5 - - 4.5 7 2/11 BTA08, BTB08 and T8 Series ■ Standard (4 quadrants) BTA08 / BTB08 Symbol Test Conditions Quadrant Unit C B I - II - III 25 50 GT (1) IV MAX. 50 100 mA VD= 12 V RL= 30 Ω V ALL MAX. 1.3 V GT V V = V R = 3.3
µsT = 125°C MIN. 1.2 2.4 - - A/ms j Without snubber Tj= 125°C - - 3.5 5.3 ■ Standard (4 quadrants) BTA06 / BTB06 Symbol Test Conditions Quadrant Unit C B I (1) I - II - IIMAX. 25 50 mA GT V = 12 V R = 30 Ω IV 50 100 D L VGT ALL MAX. 1.3 V VGD V D V DRM R L 3.3 kΩ T j 125°C ALL MIN. 0.2 V I (2) I = 500
BTA16 B BTB16 B STANDARD TRIACS FEATURES . HIGH SURGE CURRENT CAPABILITY COMMUTATION : (dV/dt)c> 10V/ s BTAFamily : INSULATINGVOLTAGE= 2500V (RMS) (UL RECOGNIZED : E81734) DESCRIPTION A1 The BTA/BTB16 B
timal device selection for a given power to be controlled is given in the following table: ITSM ex. BTA06-600CW LIGHT POWER MAINS VOLTAGE V AC(V) (W) ITSM at TJ initial⋅C 240 110 t = 8.3mA:63A 600 BTA 06 600 CW BTA 08 400 CW t = 10ms: 60A 1,000 BTA 08 600 CW BTA 12 400 CW The choice of the Triac is defined by the following > 1,000 BTA X 600 CW BTA X 400 CW applicationparameters: X = 10 X = 12 a)The starting performance, and the ratio of X = 12 X = 16 (A) the nominal resistance to the cold resis- X = 16 tance,KR Ref: High Performance
4 Quadrants TRIACs BTA100 Series Description: High current density due to double mesa trchnology; BTA100 Series triacs is suitable for general purpose AC switching. Applications: they can be used as an ON/OFF function
Ratio between I H+ and IGT (QI) for sensitive and standard TRIACs Triac H+ /GT (QI) Sensitive TRIAC 12 Arms (TW type) 2.5 (approx.) Standard TRIAC 12 Arms (C type) 1.4 (approx.) Example: BTA/BTB12-600TW: if I GT (QI) = 1.5 mA then H+ = 3.8 mA. BTA/BTB12-600C: if I GT (QI) = 10 mA then IH+ = 14 mA. In
to select a device with a sufficient ITSM (max peak current for 10 ms) for example 120 to 250 Amp. BTA06-600TW BTA16-600BW (IGT < 5mA) 4/ Prefereddevices : –Current ratings : The nominal RMS current through the circuit is not the main criteria but the surge current capability. We suggest the following
metres. Effective basic four character grouping. As an example, one -6504 cc mtr.st e.h. .eme.t can be .bta. . . . employing any - . . . -.d two -65.8 d.vices will form a 20. .aract.r string. . . . of the following optical filter products: Panelgraphic: lhese devices may be soldered onto a printed circuit
Light dimmer applications Application requirements Power Device Feature - Low IH (holding current=> BTA08-600SW Insulated AC Switch sensitive gate TRIAC) to avoid BTA12-600SW Insulated AC Switch risk of flickering due to LC filter oscillations BTB08-600SW Non-Insulated - High ITSM (non repetitive 60 to
the internal capacitance, C , of the TRIAC. T For example, the typical internal capacitances of 1 A, 12 A and 24 A TRIACs are respectively 12 pF, 90 pF and 180 pF (without direct voltage junction polarisation, worst case). Without snubber circuit and for most part of inductive loads, the damping factor
DSH_50003_v1v3 AT Command Reference 5 of 33 escape sequence guard time is specified by S Register 12 and is the same as per the ^^^ escape sequence. By default the guard time is set to 100 milliseconds. The remote device issues ATO as normal to return to data mode. (Refer to 2.2.12) For this command
HF-R DALI 55 - - HF-RT Not all types within a lamp family are standardised and PL-T 2 pin 18-26 BPL,BTA - - for some new lamp types there are as yet no standards PL-T 4 pin 18-57 BPL,BTA SiS10, HF-M,HF-P,HF-R, at all. S2,S10, HF-R DALI,HF-RT Apart from these worldwide standards there are S2E,S10E equivalent
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