Hemal Electronics

XL6009 module is a non-isolated step-up boost voltage converter featuring adjustable output voltage, high efficiency. It converts input voltage of 5-32V DC to an output voltage of 4-38V DC.

Features:-

• Wide input voltage 3V ~ 32V, optimum operating voltage range is 5 ~ 32V;
  
• Wide Output voltage 5V ~ 35V;
  
• Built-4A efficient MOSFET switches enable efficiency up to 94%; (LM2577 current is 3A)
  
• High switching frequency 400KHz, can use a small-capacity filter capacitors that can achieve very good results, the ripple smaller and smaller. (LM2577 frequency only 50KHz)
  

Test Results:-

Input 3V Output 12V 0.4A 4.8W

Input 5V Output 12V 0.8A 9.6W

Input 7.4V Output 12V 1.5A 18W

Input 12V Output 15V 2A 30W

Input 12V Output 16V 2A 32W

Input 12V Output 18V 1.6A 28.8W

Input 12V Output 19V 1.5A 28.5W

Input 12V Output 24V 1 A 24W

Vin * Iin * Efficiency = Vout * Iout

Vin: Input Voltage

Iin: Input current

Vout: Output Voltage

Iout: Output current

Technical Parameters:-

• Module Properties: Non-isolated boost (BOOST)
  
• Rectification: Non-Synchronous Rectification
  
• Input Voltage Range: 3V ~ 32V
  
• Output Voltage RAnge: 5V ~ 35V (Note: If you want to get the max voltage, you should make the input current as least 3A)
  
• Input Current: 4A (max), no-load 18mA (5V input, 8V output, no-load is less than 18mA. Higher the voltage, the greater the load current.)
  
• Conversion efficiency: <94% (greater the pressure, the lower the efficiency)
  
• Switching frequency: 400KHz
  
• Output Ripple: 50mV (the higher the voltage, the greater the current, the greater the ripple)
  
• Load Regulation: ± 0.5%
  
• Voltage Regulation: ± 0.5%
  
• Operating Temperature: -40 ? ~ +85 ?
  
• Dimensions: 43mm * 21mm * 14mm (L * W * H)
  

When using these modules remember that the output current will be a lot less than the input current, (remember - W = VA). For example, if you have a 10V output at 1A from a 5V input, the input current will be around 3.6A. The real-life maximum amount of power you can get out of these things is around 10W. 

Output current is greater than 2.5A (or output power greater than 10W) to work long hours, please add heat sink.

• Use TM1638 digital tube drive chip to drive a common cathode LED digital tube.
• Can be extended to 3 * 8 buttons, led digital tube and can be controlled separately.
• Support 8 brightness control, led digital tube and use the same brightness.
• Support cascading up to 6 of the same module.
• Wiring: VCC GND connected the 5V power supply, STB CLK DIO connected microcontroller IO port.
• 8 LED, 8-bit digital tube and 8 buttons, common cathode LED digital tube, such as STC microcontroller can be directly connected.

• Using original IRF520 Power MOS, you can adjust the output PWM
• Can drive up to 24V allows the load, such as LED lights, DC motors, miniature pumps, solenoid valves
• PWM dimming LED can be used to achieve step less dimming, variable speed motor.

• Voltage: 3.3V and 5V
• Port: Digital level
• Output load voltage: 0-24V
• Output load current: <5A (1A or more need to add heat sink )
• Platform: Arduino, MCU, ARM , Raspberry Pi
• Size: 33*24mm
• Weight: 10g

The MP1584 Step Down Module is based on MP1584 Switching Step Down Regulator from Monolithic Systems. The switching frequency of the module is very high, therefore small capacitors, with low ESR value can be used, which contributes to the small size of the module. Also, the life of the module increases as it does not include the bulky, low life cycle electrolytic capacitors. By switching at 1.5 Mhz high frequency, the module also prevents EMI noise problems, such as those found in AM Radio and ADSL Applications. Also the quiescent current of the module is very less, typically 125 µA. So, its applicable in low power devices.

The MP1584 Step Down Module is a variable voltage buck / step down regulator. It has a very sensitive variable resistor using which the output voltage can be set to required level.

• High Frequency Switching Step Down Voltage Regulator
• Up to 1.5 Mhz Switching Frequency
• Input Voltage Range: 4.5 V to 23 VDC
• Output Voltage Range: 0.8 V to 20 VDC
• Internal Current Limiting and Thermal Shutdown
• Low Quiescent current

NE555 is a Pulse Frequency Duty Cycle Adjustable Module Square Wave Signal Generator. The output frequency range is selectable. Duty cycle and frequency is not separately adjustable, adjusting the duty cycle will change the frequency. Single channel signal output, the output square wave duty ratio is about fifty percent.

The general use of module generates pulses from approximately 4Hz to 1.3Khz. Utilizes the popular NE555 timer IC operating as an astable multivibrator. The module has ten-turn frequency adjustment control and power on LED. Use for stepper motor pulses, testers etc.

The555 timer IC is an integrated circuit(chip) used in a variety of timer, pulse generation, and oscillator applications. The 555 can be used to provide time delays, as an oscillator, and as a flip-flop element. Derivatives provide up to four timing circuits in one package. Introduced in 1971 by Signetics, the 555 is still in widespread use due to its ease of use, low price, and stability. It is now made by many companies in the original bipolar and also in low-power CMOS types.

This module can be used as a square-wave signal generator. It generates square wave signals used for experimental development. It also generates square wave signal driving motor drive. With adjustable pulses generated for use by the MCU and adjustable pulse control related circuits.

1. Color: Blue
2. Working voltage: 5-12V
3. Minimum 50% duty cycle, 3.7 Hz & Maximum 98% duty cycle, 1.3KHz
4. 100% Brand new and high quality!
5. A single channel output, the output duty cycle square wave is about fifty percent.
6. Onboard adjustable resistance, resistance can be controlled to adjust the output frequency.
7. Best choice for yourself or your friend. You will not be disappointed!

1 x NE555 Frequency Adjustable Pulse Square Wave Signal Generator Module

This versatile DC-DC boost power supply/converter module steps up any input voltage from 10V to 32V to any output voltage from 12V to 35V at up to 150W output power and 6A current.

This 150W DC-DC Boost Converter 10-32V to 12-35V 6A Step-Up Adjustable Power Supply is well into the heavy-duty end of the spectrum @ 150W; as you can tell by the huge toroidal inductor and dual heatsinks.

It is especially useful for automotive 12V applications, where standard 12V battery power can be boosted to 19V for use as a laptop computer power supply, or to 18V or 24V for other applications requiring higher voltages.

Please note there is no reverse polarity protection. A series diode is recommended. For high loads this might not be an option; so be cautious of the input polarity or you might fry the module!

Specifications and Features :-

• Input voltage :10-32V
  
• Output voltage: 12-35V (adjustable)
  
• Output Current: 10A (MAX)
  
• Input Current: 16A (MAX) (Please enhance heat dissipation if more than 10A)
  
• The non-isolated step-up power conversion module
  
• Onboard LED illuminates when the voltage is applied to the module
  
• Equips Multi-turn Potentiometer.
  
• Easy to drive 65W 90W dual-core notebook.
  
• The output voltage is continuously adjustable on OUT+ and OUT- screw terminals (Output voltage must be greater than input voltage)
  

Applications:-

• DIY adjustable output vehicle power supply. Provide 12V input, the output voltage can be continuously adjusted from 14V to 35V (output voltage cannot be lower than the input voltage).
  
• Universal car laptop power supply. Provide 12V input, the output voltage is adjustable to your notebook to work. Can easily drive dual-core or quad-core notebooks at 19V and up to 6A output current.
  
• Boost Charger, to convert your car’s 12V power to greater than 12V, such as 18V or 24V
  
• Power supply for your electronic devices, as long as the voltage is adjusted to the voltage and does not exceed the module’s rated current.
  

Note:-

• Set the output voltage to the desired level using a voltmeter before connecting it to your equipment or load.
  
• Short circuit protection: None, please use caution to protect the module from overcurrent
  
• Input reverse polarity protection: None, please use a diode in series with the input to protect against input reverse polarity

The Double BTS7960 43A H-Bridge High-Power Stepper Motor Driver Module is; a fully integrated high current H bridge for motor drive applications using the BTS7960 high current half bridge. the BTS7960 is part of the NovalithICTM family. This containing one p-channel high side MOSFET and one n-channel low side MOSFET; with an integrated driver IC in one package. Due to the p-channel high side switch; the need for a charge pump is eliminated thus minimizing EMI.

Interfacing to a microcontroller is made easy by the integrated driver IC which features logic level inputs; diagnosis with current sense, slew rate adjustment; dead time generation and protection against overtemperature, overvoltage, under voltage; overcurrent, and short circuit.
The Double BTS7960 43A H-Bridge High-Power Stepper Motor Driver Module provides; a cost-optimized solution for protected high current PWM motor drives with very low board space consumption.

1. PWM capability of up to 25 kHz combined with active freewheeling.
2. Switched mode current limitation for reduced power dissipation in overcurrent.
3. Status flag diagnosis with current sense capability.
4. Overtemperature shut down with latch behavior.
5. Overvoltage lockout.
6. Under voltage shut down.
7. Driver circuit with logic level inputs.
8. Adjustable slew rates for optimized EMI.
9. 74AHC244 Schmitt-trigger Octal buffer/line driver for ESD protection (Inputs accepts voltages higher than VCC).

Input port:

1. RPWM: forward level or PWM signal input, active high.
2. LPWM: Reverse level or PWM signal input, active high.
3. R_EN: forward drive enable input, high-level enable, low level off.
4. L_EN: Reverse drive enable input, high-level enable, low level off.
5. R_IS: forward drive current alarm output.
6. L_IS: Reverse drive current alarm output.
7. VCC: +5 V power output, 5V power supply connection with the microcontroller.
8. GND: signal common low end.