What is Airfiber Technology?

In today's rapidly evolving digital world, constant internet access is essential. Among the various developments in internet technology, AirFiber is revolutionary. However, what is the difference between AirFiber technology and conventional wireless internet? This article will define what is Airfiber internet, how Airfiber works, what are its benefits, and how to get an ACT broadband connection.

Understanding AirFiber Technology

Before we dive deeper into AirFiber technology, let us understand what is AirFiber internet.

What is Airfiber Technology?

As a wireless communication system, AirFiber Technology is a highly innovative P2P and P2MP radio wave-based wireless internet solution. AirFiber uses radio frequency to transmit data over long distances, unlike normal broadband, which uses fiber optic or copper cables. This method is quite effective where there is poor or difficult infrastructural setup on physical structures.

AirFiber is used by Internet service providers to provide a high internet connection speed close to a fiber optics connection. It is known for operating at a steady state speed and very low delay time, making it ideal for both home and business use.

How Does Airfiber Work?

Now, let’s discuss how Air Fiber Internet works. To comprehend how AirFiber operates, one must first understand point-to-point communication. Two essential parts of AirFiber are a transmitter and a receiver. These devices are placed strategically to create direct wireless communication, usually on towers or rooftops. The transmitter's high-frequency radio waves make data transmission over great distances possible.

Here’s a breakdown of the working process:

• High-Frequency Transmission:
  AirFiber devices transmit data using high-frequency radio waves, such as 24GHz or 60GHz. Such frequencies enable faster data transmission, but the transducers that send and/or receive data need to have an optimal line of sight.
• Point-to-Point or Point-to-Multipoint Setup:
  The technology can connect two places (point-to-point) or link several sites (point-to-multipoint) via a central tower or hub. The antennas are placed to remain aligned squarely to ensure functionality and minimal interference.
• Low Latency and High Bandwidth:
  AirFiber offers the much-desired gigabit speeds and latency, just like fiber cable networks. Because of this, it is suitable for bandwidth-intensive applications like cloud computing, gaming, and other services that require video conferences.
• Power Over Ethernet (PoE):
  Most AirFiber devices support the Power over Ethernet (PoE) system, simplifying installation because the devices' power is supplied through the same cable as the data.

Difference Between AirFiber vs. Wireless Internet

While both AirFiber and traditional wireless internet utilize radio waves, there are notable differences between the two:

AirFiber is often preferred for businesses and communities that demand consistent, high-speed internet with minimal downtime.

What are the Coverage Areas of AirFiber?

AirFiber coverage area is determined mainly by the region's terrain and particular deployment. Under ideal circumstances, the technology can travel a few kilometers to more than 100 km because it depends on a direct line of sight between devices.

• Urban Areas: AirFiber can connect buildings or towers within a city to create a high-speed network in densely populated urban environments. However, obstacles such as skyscrapers may limit the range and require additional devices to bypass these barriers.
• Rural and Remote Areas: In rural and remote locations where traditional broadband or fiber services are unavailable, AirFiber shines by providing reliable internet over vast distances. It can be deployed across valleys or open fields, connecting previously underserved regions.
• Customized Deployments: AirFiber systems can also be customized to suit specific needs, such as private networks for businesses, educational institutions, or government agencies.

Factors Influencing Coverage

• Line of Sight (LOS): A clear LOS must be between the transmitting and receiving antennas for best performance. Obstacles like hills, trees, and buildings may impact the signal.
• Frequency Bands: The coverage and penetration levels of various frequency bands differ. While lower frequencies can travel farther, higher frequencies offer faster speeds but a lesser range.
• Weather: Although contemporary AirFiber systems are built to counteract these effects, unfavorable weather circumstances like persistent rain and snow can affect signal quality.

Benefits of AirFiber Technology

Several benefits make AirFiber an appealing option for internet connectivity:

• High-Speed Internet: Fiber-optic speeds are comparable to high-speed internet, yet physical cabling is not required.
• Quick Deployment: It can be installed faster than regular broadband, particularly in difficult-to-reach places.
• Cost-Effective: Minimizes the requirement for costly infrastructure expenditures.
• Scalable and Flexible: Able to readily adjust to shifting bandwidth requirements and regional growth.
• Reliable Performance: Reliable performance, especially over extended distances, is characterized by low latency and great stability.

Conclusion

AirFiber technology offers blazingly fast, low-latency internet in places without fiber-optic infrastructure, making it a potent substitute for conventional broadband options. The ACT broadband new connection provides a dependable, scalable connection for current connectivity needs in urban areas or isolated villages. The need for faster and more effective internet is increasing, and AirFiber is well-positioned to help close the digital divide. To avail high-speed internet at competitive costs, you can choose ACT Fibernet.