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HCPL Power Bipolar Transistor Base Drive Optocoupler Data Sheet Description The HCPL consists of a Silicondoped GaAs LED optically coupled to an integrated circuit with a power output stage.

1 HCPL Power Bipolar Transistor Base Drive Optocoupler Data Sheet Description The HCPL consists of a Silicondoped GaAs LED optically coupled to an integrated circuit with a power output stage. This optocoupler is suited for driving power bipolar transistors and power Darlington devices used in motor control inverter applications. The high peak and steady state current capabilities of the output stage allow for direct interfacing to the power device without the need for an intermediate amplifier stage. With a CMR rating of kv/µs this optocoupler readily rejects transients found in inverter applications. The LED controls the state of the output stage. Transistor Q in the output stage is on with the LED off, allowing the base of the power device to be held low. Turning on the LED turns off transistor Q and switches on transistor Q in the output stage which provides current to drive the base of a power bipolar device. Features High output current: I O (. A Peak,. A continuous) I O (. A Peak,. A continuous) kv/µs minimum Common Mode Rejection (CMR) at V CM = V Wide range (. to volts) µs typical propagation delay Recognized under UL for dielectric withstand proof test voltage of vac, minute Applications Isolated bipolar transistor base drive AC and DC motor drives General purpose industrial inverters Uninterruptable power supply Functional Diagram HCPL ANODE CATHODE Q Q V O TRUTH TABLE LED OUTPUT ON HIGH LEVEL OFF LOW LEVEL Q ON OFF Q OFF ON THE USE OF A.µF BYPASS CAPACITOR CONNECTED BETWEEN PINS AND IS RECOMMENDED. ALSO, CURRENT LIMITING RESISTORS ARE RECOMMENDED (SEE FIGURE, NOTE, AND NOTE ). V O CAUTION: It is advised that normal static precautions be taken in handling and assembly of this component to prevent damage and/or degradation which may be induced by ESD.

2 Schematic I CC ANODE Q CATHODE Q I O V O I O V O Ordering Information HCPL is UL Recognized with Vrms for minute per UL. Option Part Surface Gull Tape Number RoHS Compliant Package Mount Wing & Reel Quantity E mil DIP per tube HCPL E X X per tube E X X X per reel To order, choose a part number from the part number column and combine with the desired option from the option column to form an order entry. Example : HCPLE to order product of mil DIP Gull Wing Surface Mount package in Tape and Reel packaging and RoHS compliant. Example : HCPLE to order product of mil DIP package in Tube packaging and RoHS compliant. Option datasheets are available. Contact your Avago sales representative or authorized distributor for information. Remarks: The notation #XXX is used for existing products, while (new) products launched since July, and RoHS compliant will use XXXE.

3 Outline Drawing. (.). (.).9 (.). (.9) TYPE NUMBER DATE CODE A XXXX YYWW. (.). (.). (.).9 (.). (.). (.) HCPL 9. (.). (.) ANODE VCC. (.) TYP. (.). (.) CATHODE Q VO Q.9 (.).9 (.). (.). (.) VO.9 (.9).9 (.). (.). (.) Regulatory Information The HCPL has been approved by the following organizations: UL Recognized under UL, Component Recognition Program, File E. Demonstrated ESD Performance Human Body Model: MILSTD Method.: Class Machine Model: EIAJ IC 9 (9.. Version ), Test Method, Condition C: V

4 Insulation and Safety Related Specifications Parameter Symbol Value Units Conditions Min. External Air Gap L(IO). mm Shortest distance measured through air, between (External Clearance) two conductive leads, input to output Min. External Tracking L(IO). mm Shortest distance path measured along outside surface Path (External Creepage) of optocoupler body between the input and output leads Min. Internal Plastic. mm Through insulation distance conductor to conductor Gap (Internal Clearance) inside the optocoupler cavity Absolute Maximum Ratings Parameter Symbol Min. Max. Unit Conditions Fig. Note Storage Temperature T S C Operating Temperature T A C Input Continuous Current ma 9 Reverse Voltage V R V T A = C Supply Voltage V Output Continuous Current I O. A, Peak Current. A Pulse Width < µs, Duty cycle = % Voltage V O V Output Continuous Current I O. A,, Peak Current. A Pulse Width < µs, Duty cycle = % Output Power Dissipation P O mw Total Power Dissipation P T mw Lead Solder Temperature C for s,. mm below seating plane Recommended Operating Conditions Parameter Symbol Min. Max. Units Power Supply Voltage. V Input Current (ON) (ON) * ma Input Current (OFF) (OFF). ma Operating Temperature T A C *The initial switching threshold is ma or less. Recommended Protection for Output Transistors During switching transitions, the output transistors Q and Q of the HCPL can conduct large amounts of current. Figure describes a recommended circuit design showing current limiting resistors R and R which are necessary in order to prevent damage to the output transistors Q and Q (see Note ). A bypass capacitor C is also recommended to reduce power supply noise.

5 V HCPL Ω Q C (. V V) POWER TRANSISTOR MODULE HVDC CONTROL INPUT TTL OR LSTTL TOTEM POLE OUTPUT GATE Q R R I O PHASE AC R = Ω R = Ω BYPASS CAPACITOR C =. µf HVDC Figure. Recommended output transistor protection and typical application circuit. Electrical Specifications Over recommended temperature (T A = C to C) unless otherwise specified. Parameter Sym. Min. Typ. Max. Units Test Conditions Fig. Note Input Forward Voltage V F.. V = ma, T A = C..9 V =. ma, T A = C Input Reverse Current I R µa V R = V, T A = C Input Capacitance C IN pf V F = V, f = khz, T A = C Output Low Level V OL.. V = V, I O =. A,,, Voltage R L = Ω, = ma Leakage I OL µa = V O = V, V O = V, Current = ma Output High Level V OH.. V = V, I O =. A,, Voltage = ma, V O = V 9 Low Level V OL.. V = V, I O =. A,, Voltage = ma Leakage I OL µa = V, = ma, Current V O = V Supply High Level I CCH 9 ma T A = C Current = V, = ma Low Level I CCL ma T A = C = V, = ma Low to High LH... ma T A = C Threshold Input,, Current.. ma = V, R L = Ω, R L = Ω

6 Switching Specifications (T A = C) Parameter Sym. Min. Typ. Max. Units Test Conditions Fig. Note Propagation Delay t PLH µs = V, = ma,,, Time to High Output R L = Ω, R L = Ω, Level Propagation Delay Time t PHL to Low Output Level Rise Time t r. Fall Time t f. Output High Level CM H kv/µs V CM = V Peak, Common Mode = ma, R L = Ω, Transient Immunity R L = kω, V H =. V Output Low Level CM L kv/µs V CM = V Peak, Common Mode = ma, R L = Ω, Transient Immunity R L = kω, V L =. V Package Characteristics Parameter Sym. Min. Typ. Max. Units Test Conditions Fig. Note InputOutput Momentary V ISO V rms RH = % to %,, Withstand Voltage* t = min., T A = C Resistance R IO x Ω V IO = V, T A = C, (InputOutput) RH = % to % Capacitance C IO. pf f = MHz (InputOutput) *The InputOutput Momentary Withstand Voltage is a dielectric voltage rating that should not be interpreted as an inputoutput continuous voltage rating. For the continuous voltage rating refer to the IEC/EN/DIN EN Insulation Characteristics Table (if applicable), your equipment level safety specification, or Avago Application Note, Optocoupler InputOutput Endurance Voltage. Notes:. Derate absolute maximum ratings with ambient temperatures as shown in Figures 9,, and.. A bypass capacitor of. µf or more is needed near the device between and when measuring output and transfer characteristics.. LH represents the forward current when the output goes from low to high.. Device considered a two terminal device; pins are shorted together and pin are shorted together.. For devices with minimum V ISO specified at V rms, in accordance with UL, each optocoupler is prooftested by applying an insulation test voltage V rms for one second (leakage current detection limit, I IO µa).. The t PLH and t PHL propagation delays are measured from the % level of the input pulse to the % level of the output pulse.. R sets the base current (I O in Figure ) supplied to the power bipolar device. R limits the peak current seen by Q when the device is turning off. For more applications and circuit design information see Application Note Power Transistor Gate/Base Drive Optocouplers.

7 HCPL HCPL Q Q V O R L V OL I O Q Q V O V OH I O V O V O Figure. Test circuit for low level output voltage V OL. Figure. Test circuit for high level output voltage V OH. HCPL HCPL Q Q I OL Q V O I OL Q V O V O V O Figure. Test circuit for leakage current I OL. Figure. Test circuit for leakage current I OL. HCPL SWEEP Q R L V O Q V O R L V O Figure. Test circuit for threshold input current LH. HCPL t r= t f=. µs V IN Z o= Ω Ω HCPL Q Q V O R L V O R L A SW B Q Q V CM V O V O R L R L V O V O V CM V CM V IN WAVE FORM t PLH t PHL % CM H, VO SW AT A, = ma V OH 9% % V OH V WAVE FORM % CM L, VO V OL V OL t r t f SW AT B, I = ma F Figure. Test circuit for t PLH, t PHL, t r and t f. Figure. Test circuit for CM H and CM L.

8 LED FORWARD CURRENT I (ma) F IC OUTPUT POWER DISSIPATION P o (mw) TOTAL POWER DISSIPATION P tot (mw) (LED AND IC) Figure 9. LED forward current vs. ambient temperature. Figure. Maximum IC output power dissipation vs. ambient temperature. Figure. Maximum total power dissipation vs. ambient temperature. PEAK OUTPUT CURRENT I P (A) I MAX (PULSE) I MAX (CONTINUOUS) DC (T = C) A ms ms ms SINGLE OSC. PULSE T A = C I S. (MAX) DC FORWARD CURRENT (ma) T A = C C C C C NORMALIZED THRESHOLD INPUT CURRENT T = C A. OUTPUT VOLTAGE V (V) FORWARD VOLTAGE V F (V) SUPPLY VOLTAGE (V) Figure. Typical peak output current vs. output voltage (safe operating area Q). Figure. Typical forward current vs. forward voltage. Figure. Normalized low to high threshold input current vs. supply voltage. NORMALIZED THRESHOLD INPUT CURRENT..... = V LOW LEVEL OUTPUT VOLTAGE V L (V) = V R L = Ω T = C A = ma LOW LEVEL OUTPUT VOLTAGE V L (V)..... I =. A. A. A = V R L = Ω I = ma F OUTPUT CURRENT I (A) AMBIENT TEMPERATURE T ( C) A Figure. Normalized low to high threshold input current vs. ambient temperature. Figure. Typical low level output voltage vs. output current. Figure. Typical low level output voltage vs. ambient temperature.

9 HIGH LEVEL OUTPUT VOLTAGE V L (V) = V T A = C = ma HIGH LEVEL OUTPUT VOLTAGE V H (V) I O =. A. A. A V CC = V = ma LOW LEVEL OUTPUT VOLTAGE V L (V) = V T A = C = ma OUTPUT CURRENT I (A) OUTPUT CURRENT I (A) Figure. Typical high level output voltage vs. output current. Figure 9. Typical high level output voltage vs. ambient temperature. Figure. Typical low level output voltage vs. output current. LOW LEVEL OUTPUT VOLTAGE V L (V)..... I O =. A. A. A = V = ma HIGH LEVEL SUPPLY CURRENT I (ma) CCH I = ma F T = C A C C LOW LEVEL SUPPLY CURRENT I (ma) CCL = ma T = C A C C SUPPLY VOLTAGE (V) SUPPLY VOLTAGE (V) Figure. Typical low level output voltage vs. ambient temperature. Figure. Typical high level supply current vs. supply voltage. Figure. Typical low level supply current vs. supply voltage. PROPAGATION DELAY TIME t PHL, t PLH (µs) t PHL = V R L = Ω R L = Ω = ma t PLH T = C A C C T A = C C C PROPAGATION DELAY TIME t, t (µs) PHL PLH = V R L = Ω R L = Ω = ma t PLH t PHL FORWARD CURRENT I (ma) F Figure. Typical propagation delay time vs. forward current. Figure. Typical propagation delay time vs. ambient temperature. 9

10 For product information and a complete list of distributors, please go to our website: Avago, Avago Technologies, and the A logo are trademarks of Avago Technologies Limited in the United States and other countries. Data subject to change. Copyright Avago Technologies Limited. All rights reserved. Obsoletes 999EN AVEN July,

Agilent HCPL-3100/HCPL-3101 Power MOSFET/IGBT Gate Drive Optocouplers

Agilent HCPL-3100/HCPL-3101 Power MOSFET/IGBT Gate Drive Optocouplers Agilent HCPL/HCPL Power MOSFET/IGBT Gate Drive Optocouplers Data Sheet Description The HCPL/ consists of an LED* optically coupled to an integrated circuit with a power output stage. These optocouplers