Ordering number : ENA1569A LA4809M Monolithic Linear IC Stereo Headphone Amplifier Overview LA4809M is a 2-channels power amplifier to drive the headphone with wide supply voltage range. To minimize the effects of power supply, the regulator circuit for control of the output power is built-in to enable setting of the output power value adequate for the headphone amplifier (2 types of set value available). This product also has the standby function, and is suitable as a driver for wide-ranging headphone. Applications Headphone driver for TV and audio equipment Features • 2-channels power amplifier built-in (maximum output power value changeable according to the setting) Maximum output power A = 55mW Standard (Pin 10 : Open) Maximum output power B = 160mW Standard (Pin 10 : GND) *VCC = 12V, RL = 16Ω, THD = 10% *Change to another power value possible by adding the external parts • Regulator built-in : Limited change of the output power value due to fluctuation of supply voltage High-Ripple rejection ratio • Standby function (also used for voice muting) : Current drain at standby = 0.01μA Standard (VCC = 12V) • Overheat protection circuit built-in • Wide supply voltage range (differing according to the set value of maximum output power) : VCC = 3.6V to 17V Any and all SANYO Semiconductor Co.,Ltd. products described or contained herein are, with regard to "standard application", intended for the use as general electronics equipment (home appliances, AV equipment, communication device, office equipment, industrial equipment etc.). The products mentioned herein shall not be intended for use for any "special application" (medical equipment whose purpose is to sustain life, aerospace instrument, nuclear control device, burning appliances, transportation machine, traffic signal system, safety equipment etc.) that shall require extremely high level of reliability and can directly threaten human lives in case of failure or malfunction of the product or may cause harm to human bodies, nor shall they grant any guarantee thereof. If you should intend to use our products for applications outside the standard applications of our customer who is considering such use and/or outside the scope of our intended standard applications, please consult with us prior to the intended use. If there is no consultation or inquiry before the intended use, our customer shall be solely responsible for the use. Specifications of any and all SANYO Semiconductor Co.,Ltd. products described or contained herein stipulate the performance, characteristics, and functions of the described products in the independent state, and are not guarantees of the performance, characteristics, and functions of the described products as mounted in the customer' s products or equipment. To verify symptoms and states that cannot be evaluated in an independent device, the customer should always evaluate and test devices mounted in the customer' s products or equipment. O2809 SY 20091023-S00004 / O2109 SY PC No.A1569-1/15 LA4809M Specifications Maximum Ratings at Ta = 25°C Parameter Symbol Conditions Maximum supply voltage VCC max Without signal Allowable power dissipation Pd max * Mounted on a printed circuit board. Ratings Unit 18 V 1.75 W Maximum junction temperature Tj max 150 °C Operating temperature Topr -30 to +75 °C Storage temperature Tstg -40 to +150 °C * Evaluation board of SANYO Semiconductor : 50mm × 50mm × 0.8mm (Glass epoxy double-side PCB) Operating Conditions at Ta = 25°C Parameter Symbol Recommended supply voltage VCC Recommended load resistance RL Operating supply voltage range VCC op-1 VCC op-2 VCC op-3 Conditions Ratings Unit 12 V 16 to 32 Ω mode-B (for PO max = 160mW) 6.2 to 17 V mode-A (for PO max = 55mW) 4.2 to 17 V * Depending on the output power value when the external part is added 3.6 to 17 V * Determine the supply voltage with due consideration of the allowable power dissipation. * Note that the supply voltage range is limited depending on the setting of the maximum output power value. Electrical Characteristics at Ta = 25°C, VCC = 12V, RL = 16Ω, fin = 1kHz, V3 = 2V, Pin 10 : open Parameter Symbol Ratings Conditions min Quiescent current drain typ Unit max ICCOP No signal Standby current drain ISTBY No signal, Standby mode (V3 = 0.3V) Maximum output power-A POMAXA THD = 10%, mode-A Maximum output power-B POMAXB THD = 10%, mode-B (Pin 10 : gnd) 87 160 Voltage gain VG Vin = -20dBV 10.2 11.7 13.2 dB -1.5 dB 30 3.8 6.5 0.01 5 55 mA μA mW mW Channel balance CHB Vin = -20dBV Total harmonic distortion THD Vin = -20dBV 0 +1.5 0.15 0.7 Output noise voltage VNOUT Rg = 620Ω, 20 to 20kHz % 18 50 μVrms Channel separation CHsep Vin = -15dBV Mute attenuation level VMT Vin = -10dBV, Standby mode (V3 = 0.3V) Ripple rejection ratio SVRR Rg = 620Ω, fr = 100Hz, Vr = -10dBV Pin 2 voltage-A V2A Pin 2 voltage-B V2B STBY control HIGH voltage VSBH (Circuit power mode) 2 9 V STBY control LOW voltage VSBL (Circuit standby mode) 0 0.6 V 60 72 dB -80 -88 dBV 70 81 dB mode-A 2.1 V mode-B (Pin 10 : gnd) 3.1 V * mode-A (Pin 10 = open) : PO max = 55mW Pin 2 voltage : V2 = 2.1V, Internal regulator voltage : Vreg = 2 × V2 = 4.2V, Amp operating reference voltage : Vref = 1 × V2 = 2.1V mode-B (Pin 10 = gnd) : PO max = 160mW Pin 2 voltage : V2 = 3.1V, Internal regulator voltage : Vreg = 2 × V2 = 6.2V, Amp operating reference voltage : Vref = 1 × V2 = 3.1V No.A1569-2/15 LA4809M Package Dimensions unit : mm (typ) 3384 Pd max -- Ta TOP VIEW SIDE VIEW BOTTOM VIEW 5.0 (3.4) (2.6) 0.63 6.4 4.4 12 1 2 0.15 0.3 0.8 (0.5) 1.75 1.5 1.05 1.0 0.5 0.3 Independent IC 0.18 0 – 30 – 20 1.7 MAX Mounted on a specified board (evaluation board of SANYO Semiconductor) : 50mm × 50mm × 0.8mm (glass epoxy double-side PCB) SANYO evaluation board 0 20 40 60 75 80 100 Ambient temperature, Ta -- °C 0.05 (1.5) SIDE VIEW Maximum power dissipation, Pd max -- W 2.0 SANYO : MFP12S(225mil) Evaluation board Copper foil pattern diagram (Dimensions : 50mm × 50mm × 0.8mm) Top Layer (Top view) Bottom Layer (Top view) No.A1569-3/15 LA4809M Block Diagram and Sample Application Circuit Vin2 *Output power limiter setting Pin 10 open PO max = 55mW Pin 10 gnd PO max = 160mW + 12 IN2 11 NC 10 PLS 9 OUT2 8 NC 7 GND + GND V Vref = Vrf REG VCC + Vrf IN1 BIAS RF 1 STBY 2 3 OUT1 NC 4 VCC 5 6 + Vin1 from CPU Test Circuit Diagram 620Ω S12 Load resistance 16Ω VOUT2 S1 0.1μF + 100μF 12 11 10 9 8 7 IN2 NC PLS OUT2 NC GND 1μF S11 IN1 RF STBY OUT1 NC VCC 1 2 3 4 5 6 0.1μF + 2.2μF SG 620Ω Vstby 100μF VOUT1 Load resistance 16Ω VCC No.A1569-4/15 LA4809M Pin Functions Pin No. Pin Name 1 IN1 12 IN2 Pin Voltage (V) mode-A mode-B 2.1 3.1 Description Equivalent Circuit Amplifier input pin. VCC VCC OUT 1 12 45kΩ VREF 2 RF 2.1 3.1 Reference voltage pin. VCC 39μA VCC 54kΩ 2 ×2 VREG ×1 VREF 26kΩ 77kΩ PLS-cnt 3 STBY Applied Applied Standby control pin. STBY-cnt VCC (to which the external voltage is applied) VCC 35kΩ 3 45kΩ 4 OUT1 9 OUT2 2.1 3.1 Amplifier output pin. VCC VREG VCC IN + 4 - 9 10kΩ VREF 5 NC NC pin. 8 11 6 VCC Applied Applied Power pin. (to which the external voltage is applied) 7 GND GND GND GND pin. 10 PLS 0.69 GND Output power selection pin. VCC VCC 22μA 10 10kΩ No.A1569-5/15 LA4809M Cautions for use 1. Input coupling capacitors (Cin1, Cin2) Cin1 (Cin2) is an input coupling capacitor, which is intended for DC cut. This capacitor forms a high pass filter together with the internal resistance of 45kΩ attenuating the bass frequency signal. Set the capacitance value with due consideration of the cut-off frequency. Note that the cut-off frequency is expressed as follows : 1ch ⇒ fc1 = 1/ (2π × Cin1 × 45000) 2ch ⇒ fc2 = 1/ (2π × Cin2 × 45000) This capacitor also affects the pop noise at a time of falling. Note that setting the higher capacitance value causes delay of the capacitor discharge rate, causing louder pop noise. 2. Output coupling capacitors (Cout1, Cout2) Cout1 (Cout2) is an output coupling capacitor, which is intended for DC cut. This capacitor forms a high pass filter together with the load impedance of RL, attenuating the bass frequency signal. Set the capacitance value with due consideration of the cut-off frequency. Normally, the chemical capacitor is used. When setting the capacitance value, take into account the characteristics of the chemical capacitor, namely, the capacitance value of chemical capacitor tends to decrease at low temperature. Note that the cut-off frequency is expressed as follows : 1ch ⇒ fc3 = 1/ (2π × Cout1 × RL) 2ch ⇒ fc4 = 1/ (2π × Cout2 × RL) This capacitor also affects the pop noise at a time of rising. Note that setting the higher capacitance value causes louder pop noise. 3. Power supply line capacitor (CVCC) CVCC is intended to stabilize the power supply line. Arrange this capacitor as near to IC as possible and always use the ceramic capacitor with superior high frequency characteristics. Increase the capacitance value when the power supply line is relatively unstable. 4. Pin 2 capacitor (Crf) Crf is a capacitor to determine the transient response characteristics of the Pin 2 voltage (reference voltage) : Vrf. At a time of rising, this is charged by the internal constant-current source (about 39μA). At a time of falling, this is discharged by the internal resistance (about 157kΩ). Due attention must be paid because pop noise and the amplifier rise / fall time change depending on the transient response characteristics of Pin 2 voltage. Decreasing the capacitance value to shorten the response time, pop noise becomes louder. Therefore, the use of the value shown below as the capacitance value is recommended. As this capacitor reduces the power supply ripple component, decrease in the capacitance value results in lowering of the ripple removal ratio. Crf recommended values : 1μF to 3.3μF 5. Voltage gain The voltage gain of amplifier is determined by the internal resistance and is fixed at about 11.7dB. When the output level is to be changed, attempt attenuation with the resistor in the forward stage of input as shown in Fig.1. To enhance the degree of attenuation, use two resistors as shown in Fig.2 so as to reduce internal-resistor variation factors. Though attenuation in the backward stage of output as shown in Fig.3 is possible, this may cause decrease in the maximum output power. OUT other IC IN LA4809M (Low attenuation degree) Fig.1 OUT other IC IN LA4809M (High attenuation degree) Fig.2 OUT + LA4809M Fig.3 6. Load capacitance When connecting a capacitor between the output pin and GND for an anti-electric wave radiation measure, this capacitor may cause decrease in the phase margin of power amplifier, resulting in the oscillation phenomenon. When connecting this capacitor, pay attention to its capacitance value. Recommended capacitance value : 560pF or less, or 0.01μF to 0.1μF No.A1569-6/15 LA4809M 7. Selection of the maximum output power value (handling of Pin 10) This IC enables selection of two types of maximum output power value according to the handling method of Pin 10. The regulator circuit for output power control is built in, in which, by changing the voltage of Pin 2, the regulator voltage : Vreg is changed to enable selection of the maximum output power value. Mode-A (PO max = 55mW) : Pin 10 set to the OPEN state Pin 2 voltage : V2 = 2.1V, Internal regulator voltage : Vreg = 4.2V, Amplifier operating reference voltage : Vref = 2.1V Mode-B (PO max = 160mW) : Pin 10 connected to the GND line Pin 2 voltage : V2 = 3.1V, Internal regulator voltage : Vreg = 6.2V, Amplifier operation reference voltage : Vref = 3.1V When the maximum output power value is to be changed under CPU VCC control, use the NPN transistor as shown in Fig.4, so that the Pin 10 22μA PLS voltage approaches the GND potential (0.1V or below) sufficiently. 10 10kΩ from CPU Fig.4 8. Change of the maximum output power value (by handling Pin 2) Pin 2 voltage : V2 is determined from the constant-current source and internal resistance as shown in Fig.5. Operating ⇒ Mode-A : 54kΩ used Mode-B : 80kΩ (54kΩ + 26kΩ) used Not operating (at a time of falling) ⇒ 157kΩ (54kΩ + 26kΩ + 77kΩ) used The internal regulator voltage and amplifier operating reference voltage are generated from this Pin 2 voltage. Regulator voltage : Vreg = V2 × 2 Amplifier operating reference voltage : Vref = V2 × 1 Accordingly, to change the maximum output power value, connect the resistance : Rrf between Pin 2 and GND as shown in Fig.5. This will cause change in the Pin 2 voltage. Note that, in view of circuit operation, the Pin 2 voltage must be set to 1.6V or above. If the discharge constant is not to be changed, Use the NPN transistor to control the Rrf connection as shown in Fig.6. VCC Rrf 2 RF 39μA RF 2 Rrf Crf 54kΩ 26kΩ Crf 77kΩ PLS-cnt STBY-cnt 3 STBY from CPU Fig.5 Fig.6 9. Standby pin (Pin 3) By controlling the standby pin, the mode can be changed over between standby and operation. Though this control is possible directly by the CPU output port, the control may be exposed to adverse affect of digital noise from CPU. It is recommended therefore to insert series resistance (1kΩ or more). Standby mode ⇒ V3 = 0V to 0.6V Operation mode ⇒ V3 = 2V to 9V (for VCC = 9V or above), V3 = 2V to VCC (for VCC = less than 9V) Continued on next page. No.A1569-7/15 LA4809M Continued from preceding page. When the standby function is not to be used, Pin 3 may be interlocked with power supply as shown in Fig.7. However, due care must be taken in this case because such interlock makes the effectiveness of the pop noise reduction circuit null, resulting in extremely large pop noise at a time of rising and falling. There are also methods to reduce the pop noise by using two capacitors as shown in Fig.8. If pop noise is to be suppressed sufficiently, CPU control of the standby pin is recommended. Note that the approximate inrush current; I3 into the standby pin is calculated as follows : Pin 3 inrush current (unit : A) : I3 = (5 × VCC - 4) × 10-5 /Rst 6 VCC Rst 6 VCC + Cst2 3 STBY Rst VCC 3 STBY Fig.7 VCC + Cst1 Fig.8 10. Operating power supply voltage range The applicable power supply voltage range varies depending on the setting conditions of the maximum output power value. Use this range while taking into account the Pin 2 voltage. As a guideline, the supply voltage at the lowest point to be used must be two times the Pin 2 voltage. Note that the minimum operating supply voltage must be 3.6V. mode-B ⇒ VCC op = 6.2V to 17V mode-A ⇒ VCC op = 4.2V to 17V At change of the output power value due to external resistance ⇒ VCC op = 2 × V2 to 17V (V2 ⇒ Pin 2 voltage) 11. Handling of NC pins (Pins 5, 8, and 11) NC pins are not connected to anything internally and may be left in the OPEN state. To enhance the heat sink effect as much as possible, connection of NC pins to the GND line is recommended. In particular, Pin 5 should be connected to the GND line so as to protect Pin 4 (the first output). If the pins 4 and 5 section and the pins 5 and 6 section are bridged with solder simultaneously, the output pin enters the powering (short to power) state, allowing the large current to flow into the output pin, resulting in deterioration or damage of internal elements. Risk of deterioration or damage may be reduced when Pin 5 is connected to GND. When the output pin voltage is about 0.7V or less, drive and power stages of the power amplifier circuit used becomes inoperable. In this context, the protection in case of ground fault is provided. 12. Heat protective circuit The heat protective circuit is incorporated in IC and can reduce the risk of damage/deterioration in case of abnormal heat generation due to certain reasons. This protective circuit is activated when the junction temperature : Ti of the chip in IC increases to about 160°C, shutting OFF current supply to the power amplifier. The signal is not output anymore. When the chip temperature lowers (to about 130°C), the circuit is automatically reset. Note that this circuit is not always capable of preventing damage/deterioration and should be handled with utmost care. In case of abnormal heating, turn OFF power supply immediately and identify the probable causes. 13. Short-circuit between pins Power ON while leaving the pins in the short-circuit state may cause deterioration or damage. When installing IC to the substrate, check if pins are short-circuited with solder before turning power supply ON. 14. Load short-circuit Leaving the loads in the short-circuit state over a long period of time may cause deterioration or damage. Never short-circuit loads. 15. Maximum rating When the product is used near the maximum rating, even the smallest change in the conditions may cause exceeding of the maximum rating, possibly leading to the fracture accident. Take the sufficient fluctuation margin for the supply voltage and always use the product within a range never exceeding the maximum rating. The package used for this IC has the low heat sink effect as a single unit. When the working supply voltage is high, solder the backside heat sink pad to ensure sufficient heat sink performance with copper foil of printed circuit board. No.A1569-8/15 16 Ω 10 7 5 3 2 1 7 5 3 2 0.1 THD -- PO 100 7 5 mode-B VCC = 12V fin = 1kHz 3 2 10 7 5 3 2 1 7 5 3 2 0.1 2 1 3 5 7 2 10 3 5 7 1 100 2 3 5 Output power, PO -- mW 60 2 3 5 7 100 2 3 5 7 1000 PO -- VCC 180 mode-B RL = 16Ω fin = 1kHz V3 = 2V 160 THD = 10% Output power, PO -- mW Output power, PO -- mW mode-A RL = 16Ω fin = 1kHz V3 = 2V 7 10 Output power, PO -- mW PO -- VCC 70 50 1% 40 30 THD = 10% 140 1% 120 100 80 20 4 6 8 10 12 14 16 60 4 18 6 8 Supply voltage, VCC -- V 12 14 16 18 16 18 PO -- VCC 110 mode-A RL = 32Ω fin = 1kHz V3 = 2V mode-B RL = 32Ω fin = 1kHz V3 = 2V 100 Output power, PO -- mW 35 10 Supply voltage, VCC -- V PO -- VCC 40 Output power, PO -- mW 16Ω 3 2 Total harmonic distortion, THD -- % mode-A VCC = 12V fin = 1kHz RL = 32Ω THD -- PO 100 7 5 RL =3 2Ω Total harmonic distortion, THD -- % LA4809M THD = 10% 30 1% 25 THD = 10% 90 80 1% 70 60 50 20 40 15 30 4 6 8 10 12 14 16 18 4 6 8 Supply voltage, VCC -- V THD -- VCC 0.3 0.2 mode-A mode-B 0.1 12 14 THD -- VCC 0.5 PO = 10mW fin = 1kHz RL = 16Ω Total harmonic distortion, THD -- % Total harmonic distortion, THD -- % 0.4 10 Supply voltage, VCC -- V PO = 1mW fin = 1kHz RL = 16Ω 0.4 0.3 0.2 mode-B mode-A 0.1 0 0 2 4 6 8 10 12 14 Supply voltage, VCC -- V 16 18 3 4 5 6 7 8 Supply voltage, VCC -- V No.A1569-9/15 LA4809M THD -- f 7 5 3 2 e-A mod e-B mod 0.1 10 2 3 5 7 100 2 3 5 7 1k 2 3 VNO -- VCC 18 VCC = 12V PO = 10mW RL = 16Ω Output noise voltage, VNO -- μVrms Total harmonic distortion, THD -- % 1 5 7 10k 2 3 Rg = 620Ω Din audio filter 17 RL = 32Ω 16Ω 16 15 4 5 7100k 6 8 Frequency, f -- Hz VG -- fin 15 10 5 0 10 2 3 5 7 100 2 3 5 7 1k 2 3 5 7 10k 2 3 12 RL = 32Ω 11.5 11 4 5 7100k 6 8 14 16 18 0.8 7V V CC =1 Power dissipation, Pd -- W 9V fin = 1kHz RL = 32Ω 7V 7V =1 V CC Power dissipation, Pd -- W 12 Pd -- PO 1.0 0.6 V 12 0.4 9V 0.2 0 0 1 2 3 5 7 10 2 3 5 7 100 2 3 5 7 1000 1 2 3 5 7 10 Output power, PO -- mW/ch 5 7 100 2 3 5 7 1000 3 5 VCC = 12V fin = 1kHz RL = 32Ω 7 5 Current drain, ICC -- A 5 3 ICC -- PO 0.1 VCC = 12V fin = 1kHz RL = 16Ω 7 2 Output power, PO -- mW/ch ICC -- PO 1 Current drain, ICC -- A 10 Supply voltage, VCC -- V V 12 0.4 18 16Ω Pd -- PO 0.8 16 12.5 fin = 1kHz RL = 16Ω 1.2 14 Vin = -20dBV fin = 1kHz Cout = 100μF Input frequency, f in -- Hz 1.6 12 VG -- VCC 13 VCC = 12V Vin = -20dBV RL = 16Ω Cout = 100μF Voltage gain, VG -- dB Voltage gain, VG -- dB 20 10 Supply voltage, VCC -- V 3 2 0.1 7 5 3 2 0.01 7 5 3 3 2 2 0.01 0.001 1 2 3 5 7 10 2 3 5 7 100 Output power, PO -- mW/ch 2 3 5 7 1000 1 2 3 5 7 10 2 3 5 7 100 2 71000 Output power, PO -- mW/ch No.A1569-10/15 LA4809M CHsep -- fin Channel separation, CHsep -- dB 80 70 = Ω 32 Ω 16 60 50 10 2 3 5 7 100 2 3 5 7 1k 2 3 CHsep -- VCC 80 VCC = 12V Vin = -15dBV Rg = 620Ω SEP = Vin-Vout RL Channel separation, CHsep -- dB 90 5 7 10k 2 3 Vin = -15dBV fin = 1kHz Rg = 620Ω RL = 16Ω SEP = Vin-Vout 75 16Ω 70 65 60 4 5 7100k 6 8 Input frequency, fin -- Hz 2 3 5 7 2 1 3 5 Capacitance, Crf -- μF 7 RL = 32Ω --85 16Ω --90 --95 8 10 12 RL = 32Ω --85 16Ω --90 14 2 3 5 7 100 16 SVRR -- fin 5 7 10k 2 3 5 7100k --70 2Ω --80 RL =3 16Ω --90 --100 --25 --20 --15 --10 --5 0 SVRR -- VCC 90 Ripple rejection ratio, SVRR -- dB A eod B m 75 70 10 2 3 Input voltage, Vin -- dBV VCC = 12V Vin = -10dBV Rg = 620Ω RL = 16Ω Din audio filter 80 5 7 1k VMT -- Vin --110 --30 18 mo de- Ripple rejection ratio, SVRR -- dB 85 2 3 VCC = 12V f = 1kHz V3 = 0.3V Supply voltage, VCC -- V 90 18 --80 --60 --80 6 16 Input frequency, fin -- Hz Vin = -10dBV fin = 1kHz Rg = 620Ω V3 = 0.3V 4 14 VCC = 12V Vin = -10dBV RL = 16Ω V3 = 0.3V --95 10 10 VMT -- VCC --75 Mute attenuation level, VMT -- dBV Mute attenuation level, VMT -- dBV 60 Mute attenuation level, VMT -- dBV Channel separation, CHsep -- dB 70 50 0.1 12 VMT -- fin --75 VCC = 12V Vin = -15dBV fin = 1kHz Rg = 620Ω RL = 16Ω SEP = Vin-Vout 80 10 Supply voltage, VCC -- V CHsep -- Crf 90 RL = 32Ω Vin = -10dBV frin = 100Hz Rg = 620Ω RL = 16Ω 80 mode-A B mode- 70 60 50 40 2 3 5 7 100 2 3 5 7 1k 2 3 5 7 10k Input frequency, fin -- Hz 2 3 5 7100k 3 5 7 9 11 13 15 17 Supply voltage, VCC -- V No.A1569-11/15 LA4809M SVRR -- Crf 90 VCC = 12V RL = 16W rise time ⇒ VRF × 0.7 rise time of RF voltage 3 2 A demo B demo 80 70 60 1000 7 5 B deA demo mo 3 2 100 7 5 3 2 50 0.1 2 3 5 7 2 1 3 5 7 Capacitance, Crf -- μF 5 2 3 5 7 2 1 3 5 7 10 7 10 Capacitance, Crf -- μF Off time -- Crf 10000 7 5 VCC = 12V RL = 16Ω on time of amplifier 7 10 0.1 10 On time -- Crf 1000 VCC = 12V RL = 16Ω off time of amplifier 3 2 3 2 Off time -- ms On time -- ms Rise time -- Crf 10000 7 5 VCC = 12V Vrin = -10dBV fr = 100Hz Rg = 620Ω RL = 16Ω Din audio filter Rise time -- ms Ripple rejection ratio, SVRR -- dB 100 100 7 5 B de- 1000 7 5 mo A de- mo 3 2 3 100 7 5 2 3 10 0.1 10 0.1 2 3 5 7 2 1 3 5 Capacitance, Crf -- μF 7 10 PO max -- Rrf 140 120 -B de mo 100 80 60 mode-A 40 20 0 100 2 7 2 1 3 5 ICCOP -- VCC V3 = 2V no load no signal 6 5 4 mode-B mode-A 3 2 2 3 5 7 2 1000 4 6 8 10 12 14 16 18 Supply voltage, VCC -- V ISTBY -- VCC V2 -- V3 4 V3 = 0.3V no load no signal Pin 2 control voltage, V2 -- V Standby current drain, ISTBY -- nA 5 Capacitance, Crf -- μF Resistance, Rrf -- kΩ 10 3 7 VCC = 12V RL = 16Ω THD = 10% Quiescent current drain, ICCOP -- mA Maximum output power, PO max -- mW 2 8 6 4 2 0 VCC = 12V mode-B 3 mode-A 2 1 0.4 2 4 6 8 10 12 14 Supply voltage, VCC -- V 16 18 0 0.5 1 1.5 2 2.5 3 Pin 3 control voltage, V3 -- V No.A1569-12/15 LA4809M 7 5 PO max -- Ta 1 VCC = 12V RL = 16Ω f = 1kHz THD = 10% Total harmonic distortion, THD -- % Maximum output power, PO max -- mW 1000 3 2 mode-B 100 7 mode-A 5 3 2 10 --50 --25 0 25 50 75 7 THD -- Ta VCC = 12V RL = 16W f = 1kHz PO = 10mW 5 3 2 0.1 --50 100 --25 Ambient temperature, Ta -- °C VG -- Ta 15 40 Output noise voltage, VNO -- μV 10 0μ F Co ut = Voltage gain, VG -- dB Influence of output capacitors discounted 10 5 0 VCC = 12V RL = 16Ω f = 1kHz Vin = -20dBV --5 --50 --25 0 25 50 75 Mute attenuation level, VMT -- dBV Channel separation, CHsep -- dB 70 25 50 75 --25 Quiescent current drain, ICCOP -- mA Ripple rejection ratio, SVRR -- dB 80 25 50 Ambient temperature, Ta -- °C 25 50 75 100 75 100 VMT -- Ta --90 --95 VCC = 12V Vin = -10dBV f = 1kHz V3 = 0.3V RL = 16Ω 5 90 0 0 --25 0 25 50 Ambient temperature, Ta -- °C SVRR -- Ta --25 100 10 --100 --50 100 VCC = 12V Vin = -10dBV frin = 100Hz RL = 16Ω 70 --50 75 20 Ambient temperature, Ta -- °C 100 100 30 --85 80 0 75 Ambient temperature, Ta -- °C CHsep -- Ta --25 50 VNO -- Ta 0 --50 100 VCC = 5V Vin = -15dBV f = 1kHz RL = 16Ω 60 --50 25 VCC = 12V RL = 16Ω Rg = 620Ω Din audio filter Ambient temperature, Ta -- °C 90 0 Ambient temperature, Ta -- °C 75 100 ICCOP -- Ta VCC = 12V no load no signal mode-A 4 3 2 --50 --25 0 25 50 Ambient temperature, Ta -- °C No.A1569-13/15 100 7 5 ISTBY -- Ta 2 no load no signal Pin 3 control voltage, V3cnt -- V Standby current drain, ISTBY -- nA LA4809M 3 2 6V 10 7 5 V CC =1 V 12 3 2 1 7 5 3 2 0.1 --50 --25 0 25 50 75 100 Ambient temperature, Ta -- °C V3cnt -- Ta VCC = 12V 1.8 1.6 1.4 mod e-A mod e-B 1.2 1 --50 --25 0 25 50 75 100 Ambient temperature, Ta -- °C •Transient response characteristics (Rising characteristics) mode-A (with no signal) mode-A (with signal) 50ms/div 50ms/div Load end : 20mV/div Load end : 20mV/div Output pin : 1V/div Output pin : 1V/div Pin 3 : 5V/div Pin 3 : 5V/div mode-B (with no signal) mode-B (with signal) 50ms/div Load end : 20mV/div 50ms/div Load end : 20mV/div Output pin : 1V/div Output pin : 1V/div Pin 3 : 5V/div Pin 3 : 5V/div No.A1569-14/15 LA4809M •Transient response characteristics (Falling characteristics) mode-A (with no signal) mode-A (with signal) 100ms/div 100ms/div Load end : 20mV/div Load end : 20mV/div Output pin : 1V/div Output pin : 1V/div Pin 3 : 5V/div Pin 3 : 5V/div mode-B (with no signal) mode-B (with signal) 100ms/div 100ms/div Load end : 20mV/div Load end : 20mV/div Output pin : 1V/div Output pin : 1V/div Pin 3 : 5V/div Pin 3 : 5V/div SANYO Semiconductor Co.,Ltd. assumes no responsibility for equipment failures that result from using products at values that exceed, even momentarily, rated values (such as maximum ratings, operating condition ranges, or other parameters) listed in products specifications of any and all SANYO Semiconductor Co.,Ltd. products described or contained herein. SANYO Semiconductor Co.,Ltd. strives to supply high-quality high-reliability products, however, any and all semiconductor products fail or malfunction with some probability. It is possible that these probabilistic failures or malfunction could give rise to accidents or events that could endanger human lives, trouble that could give rise to smoke or fire, or accidents that could cause damage to other property. When designing equipment, adopt safety measures so that these kinds of accidents or events cannot occur. Such measures include but are not limited to protective circuits and error prevention circuits for safe design, redundant design, and structural design. In the event that any or all SANYO Semiconductor Co.,Ltd. products described or contained herein are controlled under any of applicable local export control laws and regulations, such products may require the export license from the authorities concerned in accordance with the above law. No part of this publication may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying and recording, or any information storage or retrieval system, or otherwise, without the prior written consent of SANYO Semiconductor Co.,Ltd. Any and all information described or contained herein are subject to change without notice due to product/technology improvement, etc. When designing equipment, refer to the "Delivery Specification" for the SANYO Semiconductor Co.,Ltd. product that you intend to use. Information (including circuit diagrams and circuit parameters) herein is for example only; it is not guaranteed for volume production. Upon using the technical information or products described herein, neither warranty nor license shall be granted with regard to intellectual property rights or any other rights of SANYO Semiconductor Co.,Ltd. or any third party. SANYO Semiconductor Co.,Ltd. shall not be liable for any claim or suits with regard to a third party's intellctual property rights which has resulted from the use of the technical information and products mentioned above. This catalog provides information as of October, 2009. Specifications and information herein are subject to change without notice. PS No.A1569-15/15