This collection of simulations are design ideas that demonstrate circuits using Diodes solutions.
The circuits can be used as an aid before actual build of the circuit. However, as with all simulations not all aspects of real circuit performance is modeled and care should be taken with interpretation.
| Part number |
Application area
|
Circuit description |
Circuit notes down load |
Associated documents |
Download schematic |
|
1N4006 |
Power Management |
Cockcroft-Walton Voltage Multiplier providing 2.75kV DC from mains input |
|
|
Cockcroft_Walton_Voltage_Multiplier.sxsch |
|
Adjustable References |
Power Management |
The design shows a simple way to implement a series voltage regulator with current limit using two references. |
|
AN59 |
AN59-02-SeR.sxsch |
|
Adjustable References
|
Power Management |
The design shows a simple way to double the operating voltage range of a reference. |
|
AN61 |
AN61-01-Ref-ZR431.sxsch |
|
Adjustable References |
Power Management |
The design shows a simple way to increase the operating voltage range of a reference by adding a zener diode in series within the feedback loop. |
|
AN61 |
AN61-03-Ref-Zener-Reg.sxsch
|
|
Adjustable References |
Power Management |
The design shows a simple way to increase the operating voltage range of a reference by using two references. |
|
AN61 |
AN61-HVShR-ZR431.sxsch |
|
Adjustable References |
Power Management |
The design shows how two references could be used to implement a voltage window comparator. |
|
AN62 |
AN62-11-WinComp.sxsch |
|
Adjustable References |
Power Management |
The design shows a simple method of using References to implement precision current source (loade = R4) or sink (load = R3). The simlulation combines both. Note that the circuit has a better performance as a current sink than as a current source. |
|
AN62 |
AN62-12-CSo-CSi.sxsch |
AP393
ZXCT1009
|
Power Management |
Current monitor circuit to detect cooling system failure and disable driver |
|
|
Cooler_failure_protection.sxsch |
BFS17H
ZXTP25012EFH
|
DBS |
120MHz video amplifier circuit with gain of 10 |
|
|
Video_Amplifier.sxsch
|
FMMT458
FMMT459
FMMT559
|
Power Management |
400V bipolar Full-bridge driver circuit |
|
|
H-Bridge-NDB.sxsch |
FMMT2369A
FMMT617
FMMT618
|
Power Management |
AN18_A
Circuit shows a method of maintaining the correct
drive level and drive phase, when deriving a
control signal from a 5V logic based controller,
by driving the emitter of a fast switching pre-driver
transistor, FMMT2369A
The transient simulation itime is 600us.
The emmitter Voltage and gate drive are monitored.
current are monitored |
|
AN18 |
AN18_A.sxsch |
|
FMMT459 |
Power Management |
The design shows the use of a Diodes medium
voltage bipolar transistor as the start up
switch for a switch mode power supply. |
|
DN82A |
DN82_bipolar.sxsch
|
FMMT49
FMMT591
|
Power Management |
AN18_B
Circuit shows a level shifted driver for a PMOS
device. The turn on speed is controlled by resistors
R1 and R3. Q3 acts as a level shifter and an
inverter of the control input signal
The transient simulation itime is 1ms.
The emmitter Voltage and gate drive are monitored.
current are monitored |
|
AN18
|
AN18_B.sxsch |
|
ZR431 |
Power Management |
Using a reference as an AC amplifier |
|
AN66 |
AN66-Ref-Amplifier.sxsch |
|
ZR431 |
Power Management |
Using a shunt regulator as a summing amplifier. |
|
AN67 |
AN67-Ref-Add-Mx.sxsch |
|
ZTX650 |
Power Management |
DN28 ZTX650 based 6W
inverter for MOS logic supply. |
|
DN28 |
DN28.sxsch |
|
ZTX653
|
Power Management |
AN2 12 to 20V Flyback Convertor for portable Ni-Cd charger |
|
AN2 |
AN2_12_to_20V_Flyback_Convertor.sxsch |
ZVN4525E6
ZXTx25015
|
Power Management |
Showing a MOSFET startup switch in a flyback convertor |
|
|
MOSFET_start-up_switch_in_flyback_converter.sxsch |
ZVN4525E6
ZXTx25015
|
Power Management |
Showing a MOSFET startup switch with protection in a flyback convertor |
|
|
MOSFET start-up switch with protection.sxsch |
|
ZXCT1009 |
Power Management |
AN39-1-Fig-10A-1009
The design shows a ZXCT1009 used to implement
a current monitor that operates with over-voltage well
above the rated 20V without suffering damage.
The simulation is a transient one run over 1ms with a
supply that ranges from 0 to 60V. The input voltage, Output voltage and level shifted output voltage are monitored |
AN39-1-Fig-10x-1009 |
AN39 |
AN39-1-Fig-10A-1009.sxsch |
|
ZXCT1009 |
Power Management |
AN39-1-Fig-10B-1009
The design shows a ZXCT1009 used to implement
a circuit that is protected against transient voltages
of up to 400V amplitude.
The simulation is a transient one run over 1ms with a voltage
spike of 400V 4µs on top of a 20V supply.
The input voltage, Output voltage and level shifted output voltage are monitored |
AN39-1-Fig-10x-1009 |
AN39 |
AN39-1-Fig-10B-1009.sxsch |
|
ZXCT1009 |
Power Management |
AN39-1-Fig-6-1009
The design shows a ZXCT1009 used to implement
a basic current monitor.
The simulation is a transient one run over 1ms with
a supply varying from 0 to 20V.
Vin, output current and output voltage are monitored |
AN39-1-Fig-6-1009 |
AN39 |
AN39-1-Fig-6-1009.sxsch
|
|
ZXCT1010 |
Power Management |
AN39-1-Fig-12-1010
The design shows a ZXCT1010 used to implement a 200V
high side current monitor by "standing" it on a high voltage
transistor.
Two versions are shown side by side. One with a constant
current load demonstrating the good common mode rejecton
capability, the other with a resistive load showing linearity. |
AN39-1-Fig-12-1010 |
AN39 |
AN39-1-Fig-12-1010.sxsch |
|
ZXCT1010 |
Power Management |
This design shows how a ZXCT1010 (for example) may be used to implement a 1kV current monitor. |
|
|
CM-1kV-1010.sxsch |
|
ZXCT1010 |
Power Management |
This design shows the ZXCT1010 being used as a constant
current source. |
|
|
CM-LED-Driver-1010.sxsch |
|
ZXCT1012 |
Power Management |
ZXCT1012 datasheet circuit |
|
|
ZXCT1012_basic_circuit.sxsch |
|
ZXCT1020
|
Power Management |
ZXCT1020 datasheet circuit |
|
|
ZXCT1020_basic_configuration.sxsch |
|
ZXCT1021 |
Power Management |
This design shows a ZXCT1021 used to implement a x10 AC amplifier. It offers the benefit of being physically smaller than an op-amp equivalent circuit and uses one component
fewer. |
|
|
AC-Amp-1021.sxsch
|
|
ZXCT1022 |
Power Management |
This design shows a ZXCT1022 used to implement
a x100 AC amplifier. It offers the benefit of being smaller
than an op-amp equivalent circuit and uses one component
fewer. |
|
|
AC-Amp-x100-1022.sxsch |
|
ZXCT1030 |
Power Management |
AN39-1-Fig-22-1030
The design shows a ZXCT1030 used to implement
a precision electronic fuse or latching over-current monitor.
The simulation is a transient one run over 10ms with
a current that ramps up from 0 until the circuit finally
trips around 180mA.
Several key points are monitored |
AN39-1-Fig-22-1030 |
AN39 |
AN39-1-Fig-22-1030.sxsch |
|
ZXCT1032 |
Power Management |
ZXCT1032 datasheet circuit |
|
|
ZXCT1032_datasheet_circuit.sxsch |
|
ZXCT1041 |
Power Management |
AN39-1-Fig14-1041
The design shows a ZXCT1041 used to implement
a bidirectional current monitoring applicaiton.
The simulation is a transient one run over 1ms with the
current alternating between ±100mA.
The Vin Flag and Vout are monitored |
AN39-1-Fig-14-1041 |
AN39 |
AN39-1-Fig-14-1041.sxsch |
|
ZXCT1041
|
Power Management |
AN39-1-Fig-14-1009 The design shows two ZXCT1009 being used to implement a bidirectional current monitoring application. The simulation is a transient one run over 1ms with current altering between +/-10mA. |
AN39-1-Fig-14-1009 |
AN39 |
AN39-1-Fig-14-1009.sxsch |
|
ZXCT1041 |
Power Management |
This design shows the ZXCT1041 used to implement
a full wave precision rectifier. |
|
AN55 |
Precision-Rectifier-1041-0810.sxsch
|
|
ZXCT1050 |
Power Management |
AN39 Fig 29
The design shows a ZXCT1050 used to implement
a current monitor that operates at a higher supply voltage
than 20V (30V) and still has a common mode range that includes ground.
The simulation is a transient one run over 1ms.
Several key points are monitored |
|
AN39 |
AN39-1-Fig-29-1050.sxsch |
|
ZXCT1050 |
Power Management |
ZXCT1050 Low Side Monitor |
|
|
ZXCT1050_as_low_side_monitor_on_a_-ve rail.sxsch |
ZXCT1050
ZXCT1009
|
Audio |
Over current protection circuit for audio amplifiers or dual-rail applications |
|
|
Over_Current_Protection_in_Audio.sxsch |
|
ZXCT1051
|
Power Management |
This design shows a ZXCT1051 used to implement a x10 AC amplifier. it offers the benefit of being smaller than an op-amp equivalent circuit and uses three components fewer. |
|
|
AC-Amp-1051.sxsch |
|
ZXCT1080 |
Power Management |
ZXCT1080 datasheet circuit |
|
|
ZXCT1080_basic_configuration.sxsch
|
|
ZXGD3002 |
Lighting |
High current non-inverting gate drive for IGBT in medium power ballast |
|
AN52 |
AN52_ZXGD3002.sxsch |
|
ZXLD1320 |
Lighting |
The design shows a ZXLD1320 driving 1 Common Anode
LED connection at 1500mA from 6-18Vdc |
|
|
ZXLD1320_Common_Anode.sxsch |
|
ZXLD1320 |
Lighting |
ZXLD1320 EV1 Circuit driving 1 LED at
1500mA from 6-18Vdc |
|
|
ZXLD1320_EV1.sxsch |
|
ZXLD1320 |
Lighting |
ZXLD1320 EV3 with an external Mosfet
switch driving 1 LED at 2800mA from 6-18Vdc |
|
|
ZXLD1320_EV3_2.8A_with_ext_switch.sxsch |
|
ZXLD1321
|
Lighting |
ZXLD1321 EV1 Circuit driving 1 LED at
1000mA from 2-3Vdc |
|
|
ZXLD1321_EV1.sxsch |
|
ZXLD1321 |
Lighting |
ZXLD1321 SEPICcirciut driving 1 LED at
500mA from 2-6Vdc |
|
|
ZXLD1321_500mA_SEPIC_LED_driver.sxsch
|
|
ZXLD1322 |
Lighting |
ZXLD1322 EV1 Circuit driving 1 LED at
500mA from 2-6Vdc |
|
|
ZXLD1322_EV1.sxsch |
|
ZXLD1350 |
Lighting |
ZXLD1350 Datasheet Circui tdriving 1 LED at
350mA from 30Vdc |
|
|
ZXLD1350_datasheet_circuit.sxsch |
|
ZXLD1350 |
Lighting |
ZXLD1350 driving 6 LEDs at
350mA from 30Vdc using DC dimming features |
|
|
ZXLD1350_DC_dimming .sxsch |
|
ZXLD1350 |
Lighting |
ZXLD1350 driving 6 LEDs at
350mA from 30Vdc with PWM dimming |
|
|
ZXLD1350_PWM_dimming.sxsch |
|
ZXLD1350
|
Lighting |
DN83
The design shows a ZXLD1350 driving up to 3
LED's at 300mA from and input Voltage of 12Vac or 12Vdc.
R1 is a thermistor and varies from 10k at 25C to about 1.5k at 70 C.As soon as R1 decrease the emitter follower Q1
starts to sink current from the ADJ pin reducing
the LED current and hence the temperature.
The transient simulation itime is 2ms.
The Sense voltage and Voltage and LED current are monitored |
|
DN83 |
DN83.sxsch |
|
ZXLD1350 |
Lighting |
DN86
The design shows a ZXLD1350 driving 3 LEDs at
300mA from 12Vac or 12Vdc as an MR16
replacement |
|
DN86 |
DN86.sxsch |
|
ZXLD1350 |
Lighting |
AN48_1A
This design shows a ZXLD1350 and
external bipolar devices driving up to
6 leds in series at 1A from a
30V supply. |
|
AN48 |
AN48_1A.sxsch |
|
ZXLD1350 |
Lighting |
AN48_700mA
This design shows a ZXLD1350 and
external bipolar devices driving up to
6 leds in series at 700mA from a
30V supply.
|
|
AN48 |
AN48_700mA.sxsch |
ZXLD1350
ZXSBMR16
|
Power Management |
DN89 EMC compliant ZXLD1350 MR16 circiut driving 3 LED's at 350mA from 12Vdc. |
|
DN89 |
DN89_MR6_with_Caps_and_EMC_filter.sxsch |
|
ZXLD1356 |
Lighting |
ZXLD1356 driving up to 10 white
LEDs at 550mA from 60 Vdc in Common Anode configuration |
|
|
ZXLD1356_Common_Anode.sxsch
|
|
ZXLD1356 |
Lighting |
ZXLD1356 Datasheet circuit driving up to 15 LEDs at
550mA from 60Vdc |
|
|
ZXLD1356_Datasheet_circuit.sxsch |
|
ZXLD1356 |
Lighting |
ZXLD1356 driving 15 white LEDs
from 0 to 550mA at 60Vdc using DC dimming |
|
|
ZXLD1356_DC_Dimming.sxsch |
|
ZXLD1356 |
Lighting |
ZXLD1356 driving up to 15 LEDs at
550mA from 60Vdc with PWM Dimming |
|
|
ZXLD1356_PWM_Dimming.sxsch |
|
ZXLD1356 |
Lighting |
ZXLD1356 driving up to 15 LEDs at
550mA from 60Vdc with Soft Start |
|
|
ZXLD1356_Soft_Start.sxsch |
|
ZXLD1360
|
Lighting |
ZXLD1360 Datasheet Circuit driving 1 LED at
1A from 12Vdc |
|
|
ZXLD1360_Datasheet_Circuit.sxsch |
|
ZXLD1360 |
Lighting |
ZXLD1360 driving 6 LEDs at
1A from 30Vdc using DC dimming |
|
|
ZXLD1360_DC_dimming.sxsch
|
|
ZXLD1360 |
Lighting |
ZXLD1360 driving 6 LEDs at
1A from 30Vdc with PWM dimming |
|
|
ZXLD1360_PWM_dimming.sxsch |
|
ZXLD1360 |
Lighting |
ZXLD1360 driving 6 LEDs at
1A from 30Vdc with Soft Start |
|
|
ZXLD1360_Soft_Start.sxsch |
|
ZXLD1360 |
Lighting |
ZXLD 1360 driving 3 white LEDs at 700mA average from 12Vac, without smoothing capacitors. |
|
AN56 |
ZXLD1360_from_12Vac_no_caps.sxsch |
|
ZXLD1362 |
Power Management |
AN57 EMC compliant ZXLD1362 circuit driving a LED at 350mA from 12Vdc |
|
AN57 |
AN57_1362_emc_compliant_at_350mA.sxsch |
|
ZXLD1362
|
Lighting |
ZXLD1362 Datasheet circuit driving 12 LEDs at
1A from 60Vdc |
|
|
ZXLD1362_Datasheet_circuit.sxsch |
|
ZXLD1362 |
Lighting |
ZXLD1362 driving 12 LEDs at
1A from 60Vdc with PWM Dimming |
|
|
ZXLD1362_PWM_Dimming.sxsch
|
|
ZXLD1362 |
Lighting |
ZXLD1362 driving 12 LEDs at
1A from 60Vdc using DC dimming |
|
|
ZXLD1362_DC_Dimming.sxsch |
|
ZXLD1362 |
Lighting |
ZXLD1362 driving 12 LEDs at
1A from 60Vdc with Soft Start |
|
|
ZXLD1362_SoftStart.sxsch |
|
ZXLD1362 |
Lighting |
ZXLD1362 driving 10 LEDs at
1A from 60 Vdc in Common Anode configuration |
|
|
ZXLD1362_Common_Anode.sxsch |
|
ZXLD1362 |
Lighting |
ZXLD1362 driving 10 LEDs in common anode configuration at 1A from 60V |
|
AN64 |
ZXLD1362_Common_Anode.sxsch |
|
ZXLD1366
|
Lighting |
ZXLD1366 driving up to 10 white LEDs
at 1A from 60 Vdc in Common Anode configuration |
|
|
ZXLD1366_Common_Anode.sxsch |
|
ZXLD1366 |
Lighting |
ZXLD1366 Datasheet circuit driving up to 15 LEDs at
1A from 60Vdc |
|
|
ZXLD1366_Datasheet_circuit.sxsch
|
|
ZXLD1366 |
Lighting |
ZXLD1366 driving 15 LEDs at
1A from 60Vdc using DC dimming |
|
|
ZXLD1366_DC_Dimming.sxsch |
|
ZXLD1366 |
Lighting |
ZXLD1366 driving up to 15 LEDs at
1A from 60Vdc with Soft Start |
|
|
ZXLD1366_Soft_Start.sxsch |
|
ZXLD136x |
Lighting |
ZXLD1360 with 2 wire linear dimming of a single LED up to 14V |
|
|
ZXLD1360_2_wire_linear_dimming.sxsch |
|
ZXMN0545FF |
Power Management |
The design shows the use of a Diodes high
voltage MOSFET as the start up switch
for a switch mode power supply. |
|
DN82B |
DN82_MOSFET.sxsch |
|
ZXMN4A06
|
Power Management |
Forward Convertor from 42V to 3.3V with Active Clamp |
|
|
Active_clamp_forward_DC-DC_converter.sxsch |
|
ZXMN4A06 |
Power Management |
200V to 3.3V synchronous rectified flyback convertor |
|
|
Synchonous_rectified_flyback_power_supply.sxsch
|
|
ZXSC 310 |
Lighting |
A simple way to protect a ZXSC310 cct from
LED removal. |
|
|
ZXSC310_no_LED_protection.sxsch |
|
ZXSC300 |
Lighting |
AN50: ZXSC300 with feed forward compensation |
|
AN50 |
AN50_ZXSC300_with_feed_forward_compensation.sxsch |
|
ZXSC310 |
Lighting |
ZXSC310EV4 circiut driving a LED with PWM dimming |
|
|
ZXSC310_PWM_dimming.sxsch |
|
ZXSC310 |
Lighting |
AN65 Figure 6 ZXSC310 Simple diode Under Voltage Lock Out circuit |
|
AN65 |
Diode_UVLO_310_AN65_10nov08.sxsch |
|
ZXSC310
|
Lighting |
AN65 Figure 8 ZXSC310 Hysteretic Under Voltage Lock Out circuit |
|
AN65 |
Hysteretic_UVLO_310_AN65_10nov08.sxsch |
|
ZXSC310 |
Lighting |
AN65 Figure 1 ZXSC310 Boost circuit |
|
AN65 |
ZXSC310_AN65_Basic.sxsch
|
|
ZXSC310 |
Lighting |
AN44
The design shows the ZXSC310 configured
as a buck convertor, driving 3 LEDs at
about 300mA from a 12V input. |
|
AN44 |
AN44.sxsch |
|
ZXSC400 |
Lighting |
DN67. This design shows a ZXSC400 driving a 1W led at a nominal 350mA from a 3V input. The transient simulation itime is 1ms. The Sense voltage and Voltage feedback pins are monitored |
|
DN67 |
DN67.sxsch |
|
ZXSC310 |
Lighting |
DN73
Design shows ZXSC310 driving a 3W LED in buck mode.
The input voltage ranges from 3.8V to 6.2V
with a maximum output current of 1.11A at 6V input.
The transient simulation itime is 1ms.
The Sense voltage and Voltage and LED
current are monitored |
|
DN73 |
DN73.sxsch |
|
ZXSC310 |
Lighting |
DN75
This circuit shows a ZXSC310 LED driver
circuit for a solar powered garden light.
The design shows the output current holding
up as the input Voltage decays below .5V, with
an output current of about 45mA at 1V input.
The transient simulation itime is 2ms.
The Sense voltage and Voltage and LED
current are monitored |
|
DN75 |
DN75.sxsch |
|
ZXSC310 |
Lighting |
DN78
The ZXSC310 and transistor Q1 can be damaged
if the battery is put in the flashlight the wrong way.
Circuit shows a method of reverse protection for
the ZXSC310 by adding current limiting resistor
and Schottky diode.
The transient simulation itime is 2ms.
The Sense voltage and Voltage and LED
current are monitored |
|
DN78 |
DN78.sxsch
|
|
ZXSC310 |
Lighting |
DN69
The schematic shows a ZXSC310 driving
4 LED in parallel.
The input voltage ranges from 1.7V to 2.5V
with maximum output current of 160mA at
2.4V input.
A pwm signal is applied to the Ven input.
The transient simulation itime is 10ms to
show the pwm signal.
The Sense Voltage and current through 1
LED are monitored. |
|
DN69 |
DN69.sxsch |
|
ZXSC310 |
Lighting |
DN61
The circuit shows the ZXSC310 LED driving a 1W LED. The solution is optimized to drive the 1W LED at 350mA DC current from a dual cell input. PWM is applied to the Ven pin
to adjust the brightness without changing the colour. The transient simulation time is 20ms to show the pwm effect. The Sense Voltage, LED current and PWM driveVoltage are monitored. |
|
DN61 |
DN61.sxsch |
|
ZXSC310 |
Lighting |
DN62
This design shows a ZXSC310 driving 3 LEDs at between 8 and 15mA as the input Voltage varies from 3V to 4.3V. The transient simulation runs for 1ms.
The Sense Voltae pins and LED current are monitored |
|
DN62 |
DN62.sxsch |
|
ZXSC310 |
Lighting |
DN63
The deisign uses a ZXSC310 to drive 8 white
leds in seriesand is optimized for an input voltage
range of 3.5V to 4V.
The LED current is set to approximately 25mA
at 4V input voltage .
A pwm wave form applied to the Ven pin reduces
the average LED current without changing the colour.
The transient analysis runs for 5ms.
The Sense Voltage and LED current are monitored. |
|
DN63 |
DN63.sxsch |
|
ZXSC310 |
Lighting |
DN64
The design is a flashlight example using a
ZXSC310 to drive 4 white leds at about 20mA from a 2
cell input.
The transient simulation itime is 1ms.
The Sense Voltage and LED current are monitored |
|
DN64 |
DN64.sxsch
|
|
ZXSC310 |
Lighting |
DN65
This solution iuses a ZXSC310 driving 8 white
LEDs connected in series at about 20mA from
a 4 cell input for an emergency light.
The transient simulation itime is 2ms.
The Sense Voltage and LED current are monitored |
|
DN65 |
DN65.sxsch |
|
ZXSC400 |
Lighting |
DN67
The design shows a ZXSC400 driving
a 1W led at a nominal 350mA from a 3V input
The transient simulation itime is 1ms.
The Sense voltage and Voltage feedback
pins are monitored |
|
DN67 |
DN67.sxsch |
|
ZXSC400 |
Lighting |
DN70
The design shows a ZXSC400 driving
a 1W LED at about 350mA with current control.
The transient simulation itime is 5ms.
The Sense Voltage and Voltage feedback pins
are monitored |
|
DN70 |
DN70.sxsch |
|
ZXSC400 |
Lighting |
DN71
The design shows a ZXSC400 driving
2 1W LEDs at about 700mA from 3V with
current control.
The transient simulation itime is 5ms.
The Sense voltage and Voltage feedback
pins are monitored. |
|
DN71 |
DN71.sxsch |
|
ZXSC400 |
Lighting |
DN84
The design shows a ZXSC400 driving
a 3W led with low loss current control.
The transient simulation itime is 2ms.
The Sense Voltage, feedbackVoltage and LED
current are monitored |
|
DN84 |
DN84.sxsch
|
|
ZXSC400 |
Lighting |
DN85
The design shows a ZXSC400 cnfigured as
a buck convertor driving a 3W LED at 350mA.
The transient simulation itime is 5ms.
The Sense voltage and Voltage and LED
current are monitored |
|
DN85 |
DN85.sxsch |
|
ZXSC400 |
Power Management |
ZXSC400 in Voltage boost mode from 5V - 12V |
|
|
ZXSC400_5V_to_12V_Boost.sxsch |
|
ZXSC400 |
Lighting |
ZXSC400 with pseudo-Darlington increasing the output power of the ZXSC400 to drive 8 LED's |
|
|
ZXSC400_to_8x_white_led.sxsch |
|
ZXSC400 |
Lighting |
ZXSC400 driving 15 LEDs at 20mA current from 12V |
|
|
ZXSC400_driving_15_LEDs.sxsch |
|
ZXSC440
|
Power Management |
ZXSC440 in a 5V-300V boost circuit |
|
|
ZXSC440_5V_to_300V_boost.sxsch |
|
ZXTN19020CFF |
Lighting |
AN17 Resonant push-pull inverter for low DC to high AC voltage conversion for emergency lighting |
|
AN17 |
AN17_Royer_driving_Flourescent.sxsch
|
ZXTN2015
ZXTP2015
|
Power Management |
155V to 6V Quasi Resonant Flyback Converter |
|
|
Quasi-resonant_Flyback_converter.sxsch |
|
ZXTN25040DFH |
Lighting |
DN55: High efficiency Royer driver for CCFLs using BJTs |
|
DN55 |
DN55_bjt_Royer.sxsch |
ZXTP25020
FZT851
|
Audio |
Precision Voltage Regulator designed for low-noise applications |
|
AN51 |
Low_Noise_Voltage_Regulator.sxsch |
|
ZXTX25015
|
Power Management |
155 to 7V flyback convertor with start-up switch |
|
|
Start-up_switch_in_flyback_converter.sxsch |
No telephone support is currently offered for these circuits.
The circuits in this design/application note are offered as design ideas. It is the responsibility of the user to ensure that the circuit is fit for the user's application and meets with the user's requirements. No representation or warranty is given and no liability whatsoever is assumed by Diodes with respect to the accuracy or use of such information, or infringement of patents or other intellectual property rights arising from such use or otherwise. Diodes does not assume any legal responsibility or will not be held legally liable (whether in contract, tort (including negligence), breach of statutory duty, restriction or otherwise) for any damages, loss of profit, business, contract, opportunity or consequential loss in the use of these circuit applications, under any circumstances.