AN79L07 PANASONIC | Alldatasheet
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1Publication date: December 2001 SFF00006CEB AN79Lxx/AN79LxxM Series 3-pin negative output voltage regulator (100 mA type) I Overview The AN79Lxx series and the AN79LxxM series are 3-pin, fixed negative output type monolithic voltage regulators. Stabilized fixed output voltage is obtained from un- stable DC input voltage without using any external compo- nents. 12 types of output voltage are available: −4V, −5V, and −24V. They can be used widely in power circuits with current capacity of up to 100mA. I Features
- No external components
- Output voltage: −4V, −5V, −6V, −7V, −8V, −9V,−10V,
- Built-in overcurrent limit circuit
- Built-in thermal overload protection circuit SSIP003-P-0000 AN79Lxx series Unit: mm HSIP003-P-0000B AN79LxxM series Unit: mm 5.0±0.2 5.1±0.213.5±0.5 (1.0)(1.0) 4.0±0.2 2.3±0.2 0.6±0.15 0.43+0.1 –0.05 2.54 0.43+0.1 –0.05 213 2.6 typ. 1.6 max. 1.8 max. 4.6 max. 3.0 1.5 1.5 321 4.25 max. 2.6 max.0.8 min. I Block Diagram (AN79Lxx series) Common (1) Output (3) Input (2) Starter Voltage Reference Error Amp. Pass Tr. RSC Current Limiter Thermal Protection R Note) The number in ( ) shows the pin number for the AN79LxxM series. 1 : Common 2 : Input 3 : Output 1 : Output 2 : Common 3 : Intput Note) The packages (SSIP003-P-0000 and HSIP003- P-0000B) of this product will be changed to lead-free type (SSIP003-P-0000S and HSIP003-P-0000Q). See the new package di- mensions section later of this datasheet.
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I Absolute Maximum Ratings at Ta = 25°C I Electrical Characteristics at Ta = 25°C
- AN79L04 (−4V type) VI PD Topr Tstg V V mW Parameter Symbol Rating Unit −35 *1 −40 *2 650 *3 −20 to +80 −55 to +150 −55 to +125 Input voltage Power dissipation Operating ambient temperature Storage temperature AN79Lxx series AN79LxxM series *1 AN79L04, AN79L05/M, AN79L06, AN79L07, AN79L08/M, AN79L09/M, AN79L10, AN79L12/M, AN79L15/M, AN79L18 *2 AN79L20, AN79L24 *3 Follow the derating curve. When Tj exceeds 150°C, the internal circuit cuts off the output. AN79LxxM series is mounted on a standard board (glass epoxy: 20mm × 20mm × t1.7mm with Cu foil of 1cm2 or more). Parameter Symbol Conditions Min Typ Max Output voltage VO VTj = 25°C Output voltage tolerance VO VVI = −7 to −19V, IO = 1 to 70mA Line regulation REGIN mVVI = −6 to −20V, Tj = 25°C mV Load regulation REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −7 to −17V, Tj = 25°C mATj = 25°C Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −9V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C Bias current IBias mAVI = −7 to −19V, Tj = 25°CBias current fluctuation to input ∆IBias(IN) mABias current fluctuation to load ∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Output noise voltage Vno dB f = 10Hz to 100kHz, Ta = 25°C Ripple rejection ratio RR VI = −7 to −17V, f = 120Hz, Ta = 25°C VTj = 25°CMinimum input/output voltage difference VDIF(min) mAOutput short-circuit current IO(Short) mV/°C VI = −35V, Tj = 25°C Output voltage temperature coefficient ∆VO/Ta IO = 5mA Unit −4.16−4 0.5 0.1 −4.2 −3.84 −3.8 0.8 200 − 0.4 4.5
I Electrical Characteristics at Ta = 25°C (continued)
- AN79L05, AN79L05M (−5V type)
- AN79L06 (−6V type) VO VTj = 25°C VO VVI = −9 to −21V, IO = 1 to 70mA REGIN mVVI = −8 to −22V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −9 to −19V, Tj = 25°C mATj = 25°CIBias mAVI = −9 to −21V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −9 to −19V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −6.24−6 120 0.5 0.1 −6.3 −5.76 −5.7 0.8 200 − 0.4 5.5 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −11V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit VO VTj = 25°C VO VVI = −8 to −20V, IO = 1 to 70mA REGIN mVVI = −7 to −21V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −8 to −18V, Tj = 25°C mATj = 25°CIBias mAVI = −8 to −20V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C −4.8 RR VI = −8 to −18V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −5.2−5 100 0.5 0.1 −5.25 −4.75 0.8 200 − 0.4 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −10V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C (AN79L05) and Tj = 0 to 100°C (AN79L05M) Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit
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I Electrical Characteristics at Ta = 25°C (continued)
- AN79L07 (−7V type)
- AN79L08, AN79L08M (−8V type) VO VTj = 25°C VO VVI = −11 to −23V, IO = 1 to 70mA REGIN mVVI = −10 to −24V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −11 to −21V, Tj = 25°C mATj = 25°CIBias mAVI = −11 to −23V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −11 to −21V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA, Tj = 0 to 125°C −8.32−8 160 0.5 0.1 −8.4 −7.68 −7.6 0.8 200 − 0.6 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −14V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C (AN79L08) and Tj = 0 to 100°C (AN79L08M) Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit VO VTj = 25°C VO VVI = −10 to −22V, IO = 1 to 70mA REGIN mVVI = −9 to −23V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −10 to −20V, Tj = 25°C mATj = 25°CIBias mAVI = −10 to −22V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −10 to −20V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −7.28−7 140 0.5 0.1 −7.35 −6.72 −6.65 0.8 200 − 0.5 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −12V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit
I Electrical Characteristics at Ta = 25°C (continued)
- AN79L09, AN79L09M (−9V type)
- AN79L10 (−10V type) VO VTj = 25°C VO VVI = −13 to −25V, IO = 1 to 70mA REGIN mVVI = −12 to −26V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −13 to −23V, Tj = 25°C mATj = 25°CIBias mAVI = −13 to −25V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −13 to −23V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −10.4−10 160 0.5 0.1 −10.5 100 −9.6 −9.5 0.8 200 − 0.7 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −16V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit VO VTj = 25°C VO VVI = −12 to −24V, IO = 1 to 70mA REGIN mVVI = −11 to −25V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −12 to −22V, Tj = 25°C mATj = 25°CIBias mAVI = −12 to −24V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −12 to −22V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA, Tj = 0 to 125°C −9.36−9 160 0.5 0.1 −9.45 −8.64 −8.55 0.8 200 − 0.6 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −15V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C (AN79L09) and Tj = 0 to 100°C (AN79L09M) Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit
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I Electrical Characteristics at Ta = 25°C (continued)
- AN79L12, AN79L12M (−12V type)
- AN79L15, AN79L15M (−15V type) VO VTj = 25°C VO VVI = −18 to −28V, IO = 1 to 70mA REGIN mVVI = −17.5 to −33V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −18 to −28V, Tj = 25°C mATj = 25°CIBias mAVI = −18 to −30V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −18 to −28V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −15.6−15 200 0.5 0.1 100 −15.75 130 −14.4 −14.25 0.8 200 − 0.9 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −23V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C (AN79L15) and Tj = 0 to 100°C (AN79L15M) Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit VO VTj = 25°C VO VVI = −15 to −27V, IO = 1 to 70mA REGIN mVVI = −14.5 to −30V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −15 to −25V, Tj = 25°C mATj = 25°CIBias mAVI = −15 to −27V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −15 to −25V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −12.5−12 200 0.5 0.1 100 −12.6 100 −11.5 −11.4 0.8 200 − 0.8 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −19V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C (AN79L12) and Tj = 0 to 100°C (AN79L12M) Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit
I Electrical Characteristics at Ta = 25°C (continued)
- AN79L18 (−18V type)
- AN79L20 (−20V type) VO VTj = 25°C VO VVI = −21 to −33V, IO = 1 to 70mA REGIN mVVI = −21 to −33V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −21 to −32V, Tj = 25°C mATj = 25°CIBias mAVI = −21 to −33V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −22 to −32V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −18.7−18 200 110 0.5 0.1 100 −18.9 160 −17.3 −17.1 0.8 200 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −27V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit VO VTj = 25°C VO VVI = −23 to −35V, IO = 1 to 70mA REGIN mVVI = −23 to −35V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −24 to −34V, Tj = 25°C mATj = 25°CIBias mAVI = −23 to −35V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −24 to −34V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −20.8−20 200 135 0.5 0.1 100 −21 180 −19.2 −19 0.8 200 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −29V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit
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I Electrical Characteristics at Ta = 25°C (continued)
- AN79L24 (−24V type) I Main Characteristics VO VTj = 25°C VO VVI = −27 to −38V, IO = 1 to 70mA REGIN mVVI = −27 to −38V, Tj = 25°C mV REGL mVIO = 1 to 100mA, Tj = 25°C mVIO = 1 to 40mA, Tj = 25°C VI = −27 to −37V, Tj = 25°C mATj = 25°CIBias mAVI = −27 to −38V, Tj = 25°C∆IBias(IN) mA∆IBias(L) µV IO = 1 to 40mA, Tj = 25°C Vno dB f = 10Hz to 100kHz, Ta = 25°C RR VI = −28 to −38V, f = 120Hz, Ta = 25°C VTj = 25°CVDIF(min) mAIO(Short) mV/°C VI = −35V, Tj = 25°C ∆VO/Ta IO = 5mA −25−24 200 170 0.5 0.1 100 −25.2 200 100 −23 −22.8 0.8 200 Parameter Symbol Conditions Min Typ Max Output voltage Output voltage tolerance Line regulation Load regulation Note 1) The specified condition Tj = 25°C means that the test should be carried out within so short a test time (within 10ms) that the characteristic value drift due to the chip junction temperature rise can be ignored. Note 2) Unless otherwise specified, VI = −33V, IO = 40mA, CI = 2µF, CO = 1µF, Tj = 0 to 125°C Bias current Bias current fluctuation to input Bias current fluctuation to load Output noise voltage Ripple rejection ratio Minimum input/output voltage difference Output short-circuit current Output voltage temperature coefficient Unit 1.0 0.8 0.6 0.4 0.2 0 20 40 60 80 100 120 140 160 Ambient temperature Ta (°C) Power dissipation PD (W) PD Ta (AN79Lxx series) −5.12 −5.08 −5.04 −5.00 −4.96 −4.92 −4.88 −4.84 −4.80 Junction temperature Tj (°C) Output voltage VO (V) VO Tj −25 0 25 50 75 100 125 AN79L05 VI = −10V IO = 1mA 1.0 0.8 0.6 0.4 0.2 0 20 40 60 80 100 120 140 160 Ambient temperature Ta (°C) Power dissipation PD (W) PD Ta (AN79LxxM series) Independent IC without a heat sink R th(j-a) = 190°C/W PD = 658mW (25°C) Mounted on standard board (glass epoxy: 20 mm × 20 mm × t1.7mm with Cu foil of 1cm2 or more)
I Main Characteristics (continued) 120 100 10 100 AN79L05 I O = 5mA 1k 10k 100k Frequency f (Hz) Ripple rejection ratio RR (dB) RR f 02468 1 0 Time t (µs) −10 −20 Output voltage fluctuation (mV) Input voltage VI (V) Input transient response AN79L05 0 1 02 03 04 05 0 Time t (µs) 200 100 Output voltage fluctuation (V) Load current IO (mA) Load transient response AN79L05 1.4 1.2 1.0 0.8 0.6 0.4 −50 0 50 100 150 Junction temperature Tj (°C) Minimum input/output voltage difference VDIF(min) (V) VDIF(min) Tj IO = 100mA IO = 20m AIO = 10m AIO = 1mA AN79L05 I Basic Regulator Circuit COCI Input−VI −VOOutput AN79Lxx Common 3 1 Connect CI of 2µF when the input line is long. CO improves the transient response. 1µF
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- Cautions for a basic circuit CI: When a wiring from a smoothing circuit to a three-pin regulator is long, it is likely to oscillate at output. A capacitor of 0.1µF to 0.47µF should be connected near an input pin. CO: Deadly needed to prevent from oscillation (0.33µF to 1.0µF). It is recommended to use a capacitor of a small internal imped- ance (ex. tantalum capacitor) when using it under a low tem- perature. When any sudden change of load current is likely to occur, con- nect an electrolytic capacitor of 10 µF to 100 µF to improve a transitional response of output voltage. D i: Normally unnecessary. But add it in the case that there is a residual voltage at the output capacitor Co even after switching off the supply power because a current is likely to flow into an output pin of the IC and damage the IC. 2. Other caution items 1) Short-circuit between the input pin and GND pin If the input pin is short-circuitted to GND or is cut off when a large capacitance capacitor has been con- nected to the IC's load, a voltage of a capacitor con- nected to an output pin is applied between input/out- put of the IC and this likely results in damage of the IC. It is necessary, therefore, to connect a diode, as shown in figure 2, to counter the reverse bias between input/output pins. 2) Floating of GND pin If a GND pin is made floating in an operating mode, an unstabilized input voltage is outputted. In this case, a thermal protection circuit inside the IC does not normally operate. In this state, if the load is short-circuited or overloaded, it is likely to damage the IC. I Application Circuit Example Figure 1 CO VO CI VI Di 1 3 In GND Out Figure 2 CO Output1 3 2 − −VO 2µF 1µF IBias AN79Lxx 3 1 2 R2 VO' −VI Input Common Output |VO | = VO' 1 + + IQR1R2 Note) VO varies due to sample to sample variation of IBias . Never fail to adjust individually with R1 .
I New Package Dimensions (Unit: mm)
- SSIP003-P-0000S (Lead-free package)
- HSIP003-P-0000Q (Lead-free package) (1.00) (1.00) 5.00±0.20 4.00±0.20 2.30±0.200.60±0.15 0.40±0.10 5.00±0.20 13.30±0.50 0.40+0.10 -0.05 1.27 1.27 0.42+0.10 -0.05 1.00+0.10 -0.20 0.40+0.10 -0.05 4.00+0.25 -0.20 2.50±0.10 4.50±0.10 1.55±0.20 2.65±0.10 (0.40) 1.50±0.10 (0.75)3.00 1.50 M0.15 0.10 0.50+0.10 -0.05 0.40+0.10 -0.05
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