5G internal Antenna

This coaxial fixed attenuator is designed to handle up to 10 watts of power and operates effectively across a frequency range from direct current (DC) to 3000 megahertz (3 GHz). The attenuator features a female connector on one end and a male connector on the other, allowing it to be easily integrated into RF systems. It is commonly used in various RF applications to reduce signal strength and prevent distortion or overload.

• 10W: This indicates the maximum power handling capability of the attenuator, which is 10 watts. It means the attenuator can handle signals up to 10 watts without damage.

• 0-3000MHz: This is the frequency range over which the attenuator operates. In this case, it’s designed to work from 0 to 3000 megahertz (3 GHz). It’s worth noting that the attenuator is designed to work efficiently within this frequency range.

• 30dBi: This is likely a misunderstanding or typo, as 30 dBi refers to a gain measurement for antennas, not attenuators. For attenuators, you would typically see attenuation values like 10 dB, 20 dB, etc.

• Female to Male: This indicates the type of connectors on the attenuator. A female connector is one with a socket, and a male connector has pins that fit into a socket. This attenuator has one female and one male connector, allowing it to be connected between other male and female connectors.

• DC-6GHz / DC-3GHz: These frequencies indicate the operating range of the attenuator. DC (direct current) to 6 GHz or 3 GHz suggests the range of frequencies over which the attenuator is effective. You’ll want to confirm which frequency range is accurate for your specific needs.

Enhance your device’s connectivity with our high-performance 5G Flexible PCB Internal Antenna. Designed to meet the demanding needs of modern communication, this antenna delivers exceptional signal strength and reliability for 5G applications.

Key Features:

• Frequency Support: Optimized for 5G frequencies, ensuring robust connectivity and superior performance.
• Gain: 14dBi gain, providing enhanced signal reception and transmission capabilities.
• Flexible PCB Design: The flexible printed circuit board (PCB) allows for easy integration into compact or curved spaces, making it ideal for internal installations in various devices.
• Cable: Includes a 1.13mm coaxial cable with a length of 10 cm (L-10cm), offering flexibility in positioning and installation within your device.
• Connector: Equipped with a UFL (U.FL) connector for secure and reliable attachment to the device’s mainboard or other components.
• Compact and Lightweight: Designed to be unobtrusive and fit seamlessly within your device’s enclosure, minimizing space usage without compromising performance.

Applications:

• IoT Devices: Perfect for Internet of Things devices requiring high-speed 5G connectivity.
• Mobile Routers: Enhances the performance of mobile routers and hotspots.
• Consumer Electronics: Suitable for use in smartphones, tablets, and other consumer electronics that support 5G.

A 5G 2dBi surface mount internal PCB antenna is designed to be integrated directly onto the printed circuit board (PCB) of a device and is optimized for 5G frequency bands. Here’s a comprehensive overview of what you need to know about this type of antenna:

1. Gain:

   • 2dBi Gain: The antenna has a gain of 2dBi (decibels over isotropic). This is a measure of the antenna’s ability to direct or focus energy in a particular direction compared to an isotropic radiator. A 2dBi gain is typical for compact, internal antennas and provides a balance between size and performance.

2. Design:

   • Surface Mount: This type of antenna is designed to be mounted directly onto the surface of the PCB. It simplifies the integration process and is suitable for devices with limited space.
   • Compact Size: Surface mount antennas are usually compact, which helps in maintaining a slim profile for the device.

3. Frequency Bands:

   • 5G Compatibility: Ensure that the antenna is designed to operate across the necessary 5G frequency bands. This includes sub-6 GHz bands and, potentially, millimeter-wave (mmWave) bands depending on your application.

A 5G internal PCB antenna is a type of antenna designed to be integrated directly onto a printed circuit board (PCB) within electronic devices to support 5G wireless communication. Here are some key aspects to consider about internal PCB antennas for 5G:

1. Frequency Bands: 5G technology operates across a range of frequency bands, including sub-6 GHz and millimeter-wave (mmWave) frequencies. Internal PCB antennas must be designed to operate effectively across these bands, which might require different designs or tuning for each band.

2. Size and Form Factor: Since these antennas are internal, they must be compact to fit within the confines of the device. This can be challenging, particularly for mmWave frequencies, which have higher wavelength constraints.

3. Antenna Types:

   • Monopole: A simple and common design, effective for a range of frequencies.
   • Dipole: Provides a balanced radiation pattern and can be used for various frequency bands.
   • Patch: A type of microstrip antenna that can be tuned for specific frequency bands and is commonly used for compact designs.
   • Inverted-F Antenna (IFA): Often used in mobile devices due to its compact size and good performance characteristics.

4. Performance Metrics:

   • Gain: Measures how well the antenna directs radio waves in a particular direction. Higher gain can improve signal reception and transmission.
   • Efficiency: Indicates how effectively the antenna converts input power into radio waves. Higher efficiency means better performance.
   • Bandwidth: The range of frequencies over which the antenna operates effectively. A wider bandwidth is often needed for 5G to cover multiple frequency bands.

5. Integration with PCB: The antenna needs to be designed in conjunction with the PCB layout. Proper placement and routing are crucial to avoid interference with other components and to maximize performance.

The 5G Internal PCB Antenna is designed to offer robust performance for high-speed 5G connectivity in compact electronic devices. Featuring a 1.13mm coaxial cable and a UFL connector, this antenna is ideal for applications requiring reliable and efficient wireless communication.

Key Features:

• 5G Compatibility: Optimized for 5G networks, ensuring high-speed data transmission and improved network performance.

• Internal PCB Design: Compact and easily integrable into printed circuit board (PCB) designs, making it suitable for space-constrained applications.

• Cable Specifications: Equipped with a 1.13mm diameter coaxial cable, measuring 10cm in length. This cable provides flexibility for positioning and connecting the antenna within the device.

• Connector Type: Comes with a UFL (Ultra Fine Connector) for secure and reliable connections. The UFL connector is known for its small size and strong connection, suitable for high-frequency applications.

• Compact Form Factor: Designed to fit in tight spaces, ideal for use in smartphones, tablets, IoT devices, and other small electronic devices requiring 5G connectivity.

• High Efficiency: Provides excellent signal reception and transmission, contributing to improved device performance and user experience.

Applications:

• Smartphones and tablets
• IoT devices and wearables
• Wireless routers and modems
• Any compact electronic device requiring 5G connectivity

Upgrade your device’s connectivity with our 5G Internal PCB Antenna. This high-performance antenna is designed for seamless integration into a variety of devices, providing robust and reliable 5G signal reception and transmission.

Key Features:

• 5G Compatibility: Specifically engineered to support 5G frequencies, ensuring optimal performance for high-speed data transmission and reception.
• Internal PCB Design: Compact and flexible PCB construction allows for easy installation within tight spaces inside your device.
• Cable: Comes with a 1.13mm coaxial cable, measuring 10 cm in length (L-10cm), offering versatility in positioning and integration.
• Connector: Features a UFL (U.FL) connector for secure and efficient connection to your device’s mainboard or other components.

Applications:

• IoT Devices: Ideal for enhancing 5G connectivity in Internet of Things (IoT) applications.
• Mobile Devices: Perfect for smartphones, tablets, and other mobile devices requiring internal antenna solutions.
• Networking Equipment: Suitable for use in routers, modems, and other networking devices to improve signal strength and stability.

Using a 5G internal PCB antenna with a 1.13mm cable and a U.FL (or IPEX) connector involves several components and considerations to ensure optimal performance and integration within your device. Here’s a breakdown of what you need to know:

1. Antenna:

   • Type: Depending on your application, the antenna could be a monopole, dipole, patch, or another type suitable for 5G frequencies. Ensure it’s designed to handle both sub-6 GHz and potentially mmWave frequencies if needed.
   • Integration: The antenna needs to be designed for optimal placement on the PCB to minimize interference and maximize signal performance.

2. 1.13mm Cable:

   • Cable Type: The 1.13mm cable is a type of coaxial cable commonly used in RF applications due to its small size and low loss. It’s suitable for connecting antennas to the main PCB but might not support extremely high frequencies as well as other cable types (e.g., 0.81mm or 0.6mm cables).
   • Length: The length of 10 cm (L-10CM) should be managed carefully to avoid excessive signal loss or reflection, especially at higher frequencies. Cable length and routing can impact signal integrity.

3. U.FL Connector:

   • Connector Type: U.FL connectors are compact RF connectors used for connecting antennas to PCBs. They are commonly used in small devices and are suitable for frequencies up to several GHz, which makes them suitable for 5G applications.
   • Installation: Ensure proper soldering of the U.FL connector to the PCB to avoid connection issues. The connector needs to be aligned precisely with the antenna cable for reliable performance.

A 5G internal PCB antenna is a type of antenna designed to be integrated directly onto a printed circuit board (PCB) within electronic devices to support 5G wireless communication. Here are some key aspects to consider about internal PCB antennas for 5G:

1. Frequency Bands: 5G technology operates across a range of frequency bands, including sub-6 GHz and millimeter-wave (mmWave) frequencies. Internal PCB antennas must be designed to operate effectively across these bands, which might require different designs or tuning for each band.

2. Size and Form Factor: Since these antennas are internal, they must be compact to fit within the confines of the device. This can be challenging, particularly for mmWave frequencies, which have higher wavelength constraints.

3. Antenna Types:

   • Monopole: A simple and common design, effective for a range of frequencies.
   • Dipole: Provides a balanced radiation pattern and can be used for various frequency bands.
   • Patch: A type of microstrip antenna that can be tuned for specific frequency bands and is commonly used for compact designs.
   • Inverted-F Antenna (IFA): Often used in mobile devices due to its compact size and good performance characteristics.

4. Performance Metrics:

   • Gain: Measures how well the antenna directs radio waves in a particular direction. Higher gain can improve signal reception and transmission.
   • Efficiency: Indicates how effectively the antenna converts input power into radio waves. Higher efficiency means better performance.
   • Bandwidth: The range of frequencies over which the antenna operates effectively. A wider bandwidth is often needed for 5G to cover multiple frequency bands.

5. Integration with PCB: The antenna needs to be designed in conjunction with the PCB layout. Proper placement and routing are crucial to avoid interference with other components and to maximize performance.

Optimize your device’s 5G connectivity with our Internal PCB Antenna, designed for high-performance and seamless integration. This antenna provides excellent signal reception and transmission for 5G applications, making it ideal for internal use in various electronic devices.

Key Features:

• 5G Frequency Support: Engineered to deliver robust performance on 5G networks.
• Internal PCB Design: Compact and flexible, designed for easy installation within your device.
• Cable: Includes a 1.13mm coaxial cable, 10 cm in length (L-10CM), offering flexibility in placement.
• Connector: Equipped with a UFL (U.FL) connector for a secure and reliable connection.

Applications:

• IoT Devices: Enhances 5G connectivity for Internet of Things applications.
• Mobile Electronics: Ideal for smartphones, tablets, and other compact devices.
• Networking Equipment: Suitable for internal use in routers, modems, and similar devices.

Installation Notes:

• Ensure proper attachment of the UFL connector for optimal performance.
• Position the antenna for the best possible signal reception and minimize interference.

Package Includes:

• 1 x 5G Internal PCB Antenna
• 1 x 1.13mm Coaxial Cable (10 cm)
• 1 x UFL Connector

Elevate your device’s 5G performance with this efficient and easy-to-install internal PCB antenna.

The 5G Internal PCB Antenna is designed to provide robust 5G connectivity within compact electronic devices. Ideal for modern applications that require high-speed wireless communication, this antenna integrates seamlessly into your device’s internal layout.

Key Features:

• 5G Compatibility: Specifically tuned for 5G frequencies, ensuring high performance and reliable signal reception in 5G networks.

• PCB Design: The antenna is built on a printed circuit board, offering durability and ease of integration into various electronic devices.

• Compact Cable: Comes with a 1.13mm diameter coaxial cable, known for its thin profile which is suitable for space-constrained applications. The cable length is 10cm, providing flexibility for positioning within your device.

• UFL Connector: Equipped with a UFL (or u.FL) connector, allowing for a secure and compact connection to the device’s PCB. This type of connector is commonly used in wireless communication applications for its reliable performance and small form factor.

• Benefits:

  • Compact Size: Designed for use in devices where space is limited without compromising on performance.
  • Enhanced Connectivity: Optimized for 5G frequencies, ensuring high-speed and reliable wireless communication.
  • Ease of Integration: The UFL connector and compact cable design simplify the integration process into your device’s PCB.

Using a 5G internal PCB antenna with a 1.13mm cable and a U.FL (or IPEX) connector involves several components and considerations to ensure optimal performance and integration within your device. Here’s a breakdown of what you need to know:

1. Antenna:

   • Type: Depending on your application, the antenna could be a monopole, dipole, patch, or another type suitable for 5G frequencies. Ensure it’s designed to handle both sub-6 GHz and potentially mmWave frequencies if needed.
   • Integration: The antenna needs to be designed for optimal placement on the PCB to minimize interference and maximize signal performance.

2. 1.13mm Cable:

   • Cable Type: The 1.13mm cable is a type of coaxial cable commonly used in RF applications due to its small size and low loss. It’s suitable for connecting antennas to the main PCB but might not support extremely high frequencies as well as other cable types (e.g., 0.81mm or 0.6mm cables).
   • Length: The length of 10 cm (L-10CM) should be managed carefully to avoid excessive signal loss or reflection, especially at higher frequencies. Cable length and routing can impact signal integrity.

3. U.FL Connector:

   • Connector Type: U.FL connectors are compact RF connectors used for connecting antennas to PCBs. They are commonly used in small devices and are suitable for frequencies up to several GHz, which makes them suitable for 5G applications.
   • Installation: Ensure proper soldering of the U.FL connector to the PCB to avoid connection issues. The connector needs to be aligned precisely with the antenna cable for reliable performance.