HTOOL NanoVNA F V3

Contents

HTOOL NanoVNA F V3 Handheld Portable Vector Network Analyzer

User Manual

1. Introduction

The NanoVNA-F V3 is a portable vector network analyzer designed for measuring and analyzing RF circuits. This 2023 improved and upgraded version of the NanoVNA series offers enhanced performance and user experience. It is an essential tool for electronics enthusiasts, engineers, and students working with radio frequency applications.

The device features a 4.3-inch touch screen, providing a larger display area and a more intuitive interface. It supports a wide frequency range from 1MHz to 6GHz, ensuring high accuracy and stability for various measurements.

The NanoVNA-F V3 can measure component parameters such as resistance, capacitance, and inductance, as well as RF characteristics like S-parameters, attenuation, and Voltage Standing Wave Ratio (VSWR).

For advanced analysis and data management, the device can be connected to a computer via a USB port, allowing for data transfer, software control, image display, data analysis, and export.

2. Package Contents

Upon opening your NanoVNA-F V3 package, please verify that all the following items are included:

  • NanoVNA-F V3 Unit ×1
  • SMA OPEN/SHORT/LOAD calibration kit ×1
  • SMA-KK adapter ×1
  • SMA-JJ adapter ×1
  • SMA-JKW adapter ×1
  • 20cm SMA-JJ RG405 coaxial cable ×2
  • USB Type-C cable ×1
Shipping list and included accessories for NanoVNA-F V3
Figure 2.1: NanoVNA-F V3 Package Contents

3. Specifications

The NanoVNA-F V3 offers the following technical specifications:

CharacteristicValue
Frequency Range1MHz-6GHz
RF Output Power-10dBm (Max)
RF Interface0dBm (Max), DC=5V
Frequency Accuracy±1ppm
Stepped Frequency10kHz (Min)
S21 Dynamic Range65dB (3GHz), 60dB (6GHz)
S11 Dynamic Range50dB (3GHz), 40dB (6GHz)
Screen4.3" IPS TFT (800x480)
USB-A Power out5V/1A
Charge/Data PortUSB Type-C
Li-Battery3.7V/4500mAh
Battery Life5 hours
Calibration points801
Scan Point101 ~ 801
Traces4
Markers4
Calibration Result Storage12
Sweep Speed200 pts/s
Detailed specifications table for NanoVNA-F V3
Figure 3.1: NanoVNA-F V3 Specifications
Dimensions of the NanoVNA-F V3: 125 x 75 x 20mm (4.9 x 3 x 0.8 inches)
Figure 3.2: NanoVNA-F V3 Dimensions

4. Device Overview

Familiarize yourself with the physical components and ports of your NanoVNA-F V3:

Labeled diagram of NanoVNA-F V3 ports and controls: Type-C, ON/OFF, 5V/1A output, indicator light, physical buttons, SMA connectors.
Figure 4.1: NanoVNA-F V3 Ports and Controls
  • PORT 1 (S11) & PORT 2 (S21): SMA connectors for connecting to the Device Under Test (DUT). These are stable and durable.
  • TYPE-C Port: Used for charging the device and for data transfer to a computer.
  • ON/OFF Switch: Powers the device on or off.
  • 5V/1A Output: A USB-A port providing 5V/1A power output.
  • Indicator Light: Provides status information, such as charging status.
  • Physical Buttons: For navigation and control within the device's menu.
Close-up of the stable and durable SMA connectors (TX/Port 2, RX/Port 1) on the NanoVNA-F V3.
Figure 4.2: SMA Connectors

5. Setup

5.1 Initial Charging

Before first use, ensure the NanoVNA-F V3 is fully charged. Connect the provided USB Type-C cable to the device's Type-C port and a 5V/1A USB charger. The LED charging indicator will illuminate during charging.

NanoVNA-F V3 being charged via USB Type-C, recommending a 5V/1A charger.
Figure 5.1: USB Type-C Charging

5.2 Powering On/Off

To power on the device, slide the ON/OFF switch to the 'ON' position. To power off, slide it to the 'OFF' position.

5.3 Calibration

For accurate measurements, it is crucial to perform a calibration using the included SMA OPEN/SHORT/LOAD calibration kit. Refer to the on-screen instructions or the detailed software manual for the calibration procedure. The device supports 801 calibration points and can store up to 12 calibration results.

6. Operation

6.1 Basic Measurements

The NanoVNA-F V3 covers MF/LF/HF/VHF/UHF bands, suitable for testing antennas, filters, amplifiers, attenuators, cables, duplexers, and couplers. Connect your Device Under Test (DUT) to PORT 1 (S11) for reflection measurements or between PORT 1 and PORT 2 (S21) for transmission measurements.

Diagram illustrating S-parameters (S11, S21) and signal flow in a Vector Network Analyzer.
Figure 6.1: S-Parameters Diagram
NanoVNA F V3 with RF Demo Kit and accessories.
Figure 6.2: NanoVNA F V3 in use with RF Demo Kit

6.2 Touch Screen Interface

The 4.3-inch IPS LCD touch screen allows for intuitive control and data visualization. Use the included stylus or your finger to navigate menus, adjust parameters, and view measurement results. The screen is designed for clear visibility even outdoors.

User interacting with the 4.3-inch large touch screen of the NanoVNA-F V3.
Figure 6.3: Touch Screen Interaction
NanoVNA-F V3 highlighting its 4.3" IPS LCD for clear outdoor visibility.
Figure 6.4: 4.3" IPS LCD

6.3 Frequency Range and Display

The device can display various plots, including Smith charts, for analyzing RF characteristics across its 1MHz-6GHz frequency range.

NanoVNA-F V3 displaying a Smith chart for frequency range 1MHz-6GHz.
Figure 6.5: 1MHz-6GHz Frequency Range Display

6.4 Time Domain Reflector (TDR)

Utilize the TDR function for cable length measurement and cable break point checking. This feature helps in diagnosing issues in coaxial cables and transmission lines.

NanoVNA-F V3 displaying a Time Domain Reflector (TDR) measurement for cable length and fault detection.
Figure 6.6: Time Domain Reflector (TDR) Function

6.5 Desktop Software

Connect the NanoVNA-F V3 to your computer via the USB Type-C port to use the feature-rich desktop software. This software allows for advanced sweep control, detailed data analysis, and various plot visualizations beyond what is available on the device's screen.

Screenshot of the feature-rich desktop software for NanoVNA-F V3, showing sweep control, Smith chart, and other plots.
Figure 6.7: Desktop Software Interface

6.6 RF Demo Kit Usage

The included RF Demo Kit can be used to practice measurements and understand various RF components. Connect the NanoVNA-F V3 to the demo board using the provided coaxial cables and adapters to measure filters, attenuators, and other circuits.

RF Demo Kit connected to NanoVNA-F, demonstrating filter measurement.
Figure 6.8: RF Demo Kit in Action
Video 6.1: NanoVNA-F V2 (similar to V3) demonstrating real-time network analysis.

7. Maintenance

7.1 General Care

Keep the device clean and free from dust and moisture. Use a soft, dry cloth for cleaning. Avoid exposing the device to extreme temperatures or direct sunlight.

7.2 Battery Care

The NanoVNA-F V3 is equipped with a built-in 4500mAh Li-Battery, providing approximately 5 hours of working time. To prolong battery life, avoid fully discharging the battery frequently and store the device with a partial charge if not used for extended periods.

NanoVNA-F V3 showing built-in 4500mAh rechargeable battery and LED charging indicator.
Figure 7.1: Built-in 4500mAh Rechargeable Battery
NanoVNA-F V3 with a 4500mAh Li-Battery, indicating 5 hours standby time.
Figure 7.2: Battery Life Indication

8. Troubleshooting

  • Device not powering on: Ensure the battery is charged. Connect the device to a 5V/1A charger using the USB Type-C cable.
  • Inaccurate measurements: Perform a full calibration using the SMA OPEN/SHORT/LOAD kit. Check cable connections for looseness or damage.
  • Screen unresponsive: Try restarting the device. If the issue persists, ensure the screen is clean and free from debris.
  • Cannot connect to PC: Ensure the USB Type-C cable is securely connected to both the device and the computer. Install any necessary drivers for the NanoVNA-F V3 on your computer.

9. User Tips

  • Impedance Matching: The NanoVNA-F V3 operates with a standard 50-ohm impedance, which is crucial for accurate RF measurements. Ensure your DUT and cables are also 50-ohm for best results.
  • Data Transfer: You can transfer measurement data to a PC via the USB Type-C port for more in-depth analysis and storage using the dedicated desktop software.
  • Firmware Updates: Regularly check for firmware updates from the manufacturer's official channels to ensure optimal performance and access to new features.
  • Protective Case: Consider using a protective case to safeguard the device during transport and field use, especially given its portable nature.
Image showing the NanoVNA-F V3 with a protective case and stylus.
Figure 9.1: NanoVNA-F V3 with Protective Case

10. Warranty and Support

For warranty information, technical support, or service inquiries, please refer to the contact information provided by your retailer or the manufacturer's official website. Keep your purchase receipt as proof of purchase.

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