Cell Phone Signal Booster For Modern Era

NFV is an imperative network evolution; learn how to ease the transition

January 21, 2017

As systems advance to convey progressively complex administrations and to meet the difficulties of detonating information and disintegrating incomes, communications service providers (CSPs) are hustling to actualize virtualization procedures. The objective is to influence computerization to empower more system adaptability and nimbleness while lessening expenses and driving efficiencies.


The move to programming characterized systems will, at last, encourage quick advancement and fast time-to-market for new administrations, empowering CSPs to better contend with hyper-scale and over-the-top players. In any case, it's not as straightforward as flipping a light switch. As physical parts offer an approach to virtualized network functions (VNFs), the subsequent hybrid network makes new difficulties to network administration and monitoring.

Service affirmation gives 360-degree network permeability to enhance client encounter while diminishing OPEX through NFV:

For instance, service chaining, which facilitates movement over different VNFs to make a conclusion to end administration, is a noteworthy favourable position empowered by network functions virtualization (NFV). Be that as it may, guaranteeing the execution of that administration over a half and the half system requires a mix of physical and virtual tests, which makes it troublesome for system administrators to have finish permeability into a solitary session as it navigates the system.


NETSCOUT works with customers around the globe to take care of this very issue. The move to NFV, albeit overflowing with potential for inefficiencies and waste, can be a smooth procedure with the correct accomplice and the correct instruments.


Dr. Vikram Saksena, NETSCOUT's chief solutions architect for virtualization, examined NETSCOUT's legacy in giving venture clients and system administrators with administration confirmation network expected to empower adaptable, versatile and dependable on systems while enhancing client experience and exploiting the efficiencies and cost reserve funds guaranteed by the move to virtual.


A vital range of center for NETSCOUT is the conveyance of observing and confirmation answers for cloud-based system frameworks that bolster virtualization, which Saksena said is presently quickly moving from the undertaking to the specialist organization showcase.


"Service providers are going a stage past what undertakings have done on the grounds that they need to have the capacity to drive more computerization and furthermore lessen a greater amount of their OPEX," he said. "They need to be sprier and dynamic since they have a client base that needs to be more coordinated and dynamic."


Notwithstanding equipment based tests, NETSCOUT adjusted its innovation to place observing operators inside VNFs, which can be run anyplace from a hypervisor to a CPE gadget for "on-the-fly" administration conveyance, Saksena said.


"Having continuous permeability into this dynamic environment has been a test. We must be exceptionally cautious to abstain from over-burdening the hidden foundation, yet at the same time pick up perceivably while these things are moving around. What we have done is extended our answer suite to give organize administrators the expectation to minimize disturbances brought about by the flow of virtual situations."


Based on NETSCOUT's Adaptive Service Intelligence (ASI) innovation, the nGeniusONE benefit confirmation stage rapidly recognizes system, application and administration issues utilizing a profoundly versatile metadata display. nGeniusONE can be sent on exposed metal or for all intents and purposes to screen critical administrations including VoLTE, Wi-Fi calling, IP, and HTTP video, informing, OTT administrations, carrier-grade business services, and high-speed internet.


"Virtualization has tossed a considerable measure of new difficulties at us and we have adjusted our innovation," Saksena said. "We have extended our answer suite to ensure that CSPs can be lithe and dynamic and not lose the consistent, 360-degree execution and observation required for administrations crosswise over both physical and virtualized frameworks."

 

In Building Wireless Technology for 5G generation will make you question the world you live

January 4, 2017

Present development traits and tenant desires are reasonably at odds – at a time when building homeowners and hire holders more and more view wireless as a utility, new construction geared towards energy effectivity normally as the part result of degrading wi-fi insurance policy. The obvious strategy to clear up for in-building wireless is an allotted antenna method; however, the excessive price point places DAS out of attaining many small- and medium-sized services.

Ruckus wi-fi, a division of Brocade, which used to be not too long ago got by using Broadcom pending closing machinations, is betting on the blend of shared spectrum models and impartial host small cells as the strategy into addressing the construction of wireless without the primary investment that incorporates a DAS deployment. Ruckus wireless calls this process OpenG.

Wi-Fi Enterprise:

“The wi-fi enterprise is dramatically moving as mobile and Wi-Fi technologies converge, and contours are blurring between traditional spectrum management units … with the brand new coordinated shared spectrum 3.5 GHz model.” Selina Lo, CEO of the Ruckus wireless industry United for Brocade mentioned. “OpenG technological knows how to combine coordinated shared spectrum capabilities with the neutral host in a position of small cells to allow building house owners of all sizes to deploy price-effective in-building cell protection for all of their client and employee needs.”

Last year, the U.S. Federal Communications commission spread out a hundred and fifty megahertz of spectrum in the 3.5 GHz band. Dubbed the residents Radio Broadband service, the new commercially accessible spectrum was previously committed to the U.S. Division of protection. The CBRS Alliance, led by means of Ruckus, Google, Intel, Nokia, Ericsson, Federated wi-fi, and Qualcomm, was fashioned to perpetuate shared spectrum solutions geared towards use in the 3.5 GHz band. The applicable FCC rules make use of the spectrum while coordinating new uses established on precedence and region.


Wi-Fi Deployment:

For a corporation, this makes a cellular deployment work like a Wi-Fi deployment, chopping costs through leveraging existing Wi-Fi infrastructure.

Impartial host small cells are seen as a pleasant substitute to DAS, in particular for organization shoppers. Even as a DAS helps a couple of carriers, it’s enormously extra high priced than small cells, which have most of the time been a one-carrier resolution. That doesn’t fairly work for many companies, above all given the convey-your-own-gadget pattern. ABI research identifies two neutral host small telephone items: “A community operated by way of a single manufacturer where assets are being shared by means of multiple mobile community operators…the special case of network sharing by way of the identical small mobile phone device with the capability of internet hosting multiple RANs.”

Expect company customers to more and more look to maintain stagnant service spending via embracing spectrum sharing and neutral host small cells as a way to remedy for his or her own in constructing wi-fi problems.


 

A COMPLETE ANALYSIS OF LONG TERM EVOLUTION(LTE)

December 28, 2016
LTE is the short kind of long term Evolution. It's the development of GSM innovation which has developed from GSM/GPRS/aspect (2G/2.5 G/2.75 G) to WCDMA (3G) to LTE and LTE-evolved as four (G). Probably the most real contrasts in these GSM improvements is within the multiplexing approach at the air interface. LTE utilizes OFDMA (Orthogonal Frequency Division Multiplexing access) in down connection and SC-OFDMA (Single carrier OFDMA) in up connection as in opposition to TDMA in 2G and WCDMA in 3G. In OFDMA, an extensive bearer is aside into little transporters of a hundred and eighty KHz; consumer know-how is pressured on these sub-transporters and joined and sent over the air interface. The larger the switching velocity of the transporter, the extra the portions of sub bearers (of one hundred eighty kHz each and every) and hence larger the information fee bolstered by the system. (For illustration, a 5 MHz bearer will be section into 300 no’s of sub-transporters of one hundred eighty kHz each and every). 

Some of the tremendous focal features of LTE is that transporter could be of any information transmission from 1. 25 MHz to 20 MHz in no way like WCDMA the place bearer transfer velocity is settled as 5 MHz; however, know-how rate bolstered with the aid of an LTE procedure will rely on the genuine knowledge switch capability of the transporter. 
LTE is a total internet Protocol (IP) based process. It takes a shot at IP on air-interface, in backhaul and likewise in the center procedure; on this method IP-founded applications are much simpler to convey in LTE 

Like UMTS and CDMA, LTE radio will get to organize reuses an identical recurrence for each some of the cells. 
One other imperative component of LTE is the utilization of MIMO – multiple input multiple Output innovation. 3GPP –Standardisation assortment of GSM household, has made compulsory the utilization of MIMO in LTE systems from the very starting when you consider that 2008 when LTE particulars had been in the beginning issued. In MIMO, a few understanding surges of a bearer are transmitted via quite a lot of receiving wires fittingly divided bringing about to higher know-how fee. 


Voice in LTE Networks:

LTE is a parcel organize; Jitter and fluctuating postponement of voice bundles in LTE programs had been handled by way of allotting principal property like transfer pace, QOS and many others for the length of the voice call. 
For that reason, three GPP, the institutionalizing staff of GSM loved ones, has embraced IP Multimedia Subsystem (IMS) as the method section to control voice in LTE techniques. IMS small print has been concluded with the aid of 3GPP in unlocking 5 in 2005 and it selected to make use of IMS for voice when LTE particulars had been in the beginning discharged in 2008. 

On this method more than a few GSM framework and gadget merchants met up and concluded as to which IMS functionalities might be utilized as a part of taking care of voice in LTE methods; it was given the title VoLTE – Voice over LTE. From that point ahead VoLTE particulars are being improved a persistent premise by means of the moveable business to provide voice QOS just about circuit exchanged techniques. 

LTE developed: 

To be precise, LTE is 3. 9 G and LTE - evolved is 4G, nevertheless, common comprehension is that LTE is 4G. LTE –developed meets all benchmarks of IMT –developed which has been named 4G by ITU. 

Low Latency and carrier Aggregation is the fundamental recognizing spotlight of LTE-advanced. By way of the carrier, Aggregation LTE-developed system can complete numerous Carriers to give so much bigger understanding rate? It is intricate to get a solitary bearer of one hundred MHz information transmission in a solitary band; nevertheless, via transporter complete systems in LTE-evolved, a hundred MHz transfer velocity will also be entire by way of becoming a member of bearers from more than a few corporations. Most extreme bearer assortment in LTE evolved is 5 groups, each band with a finest of 20 MHz giving a finest general data transfer potential of a hundred MHz. A bigger transmission ability implies larger expertise expense and throughput and a splendid client encounter. The expertise price in LTE-advanced is the request Gbps.

 

The 5G Era and Network Virtualization

December 7, 2016

5G can revolutionize communications by not solely providing higher capability, however conjointly providing new services that service suppliers are ready to deploy across their network in a {very} very short and straightforward manner, leading to quicker time-to-market and stronger competition among prime service and application suppliers.

This comes as results of the basic modification within the means networks will be designed within the 5G era. Architectures and technologies like SDN (software outlined networking), NFV (network operate virtualization), MEC (mobile edge computing) and C-RAN (cloud RAN) exist nowadays, however solely on a smaller scale. the most important self-propelled vehicle {that can which will that may} be needed in an exceedingly mobile network once introducing 5G technology will alter a sleek migration to those technologies and can end in the advantages represented higher than.

A strategic a part of the design and technology modification, are at the wireless back haul domain, as 5G can involve the virtualization of wireless back haul. Network virtualization allows operators to dramatically improve operational potency by creating their infrastructure and resource employment rather more economical and versatile. It conjointly allows a awfully quick introduction of recent services and technology throughout the assorted network domains.

Wireless back haul virtualization can serve 2 aspects of network virtualization:

SDN integration:

Wireless back haul can integrate, via open interfaces, with the end-to-end SDN and NFV infrastructure and alter SDN applications to realize network resource improvement (spectrum, power), higher service convenience (with good re-route mechanisms), and quicker introduction of services and technologies. All of those square measure applicable within the wireless transmission domain, furthermore as in multi-domain and multi-vendor environments (assuming trafficker alignment to standard-based interfaces and applications).

One application that may increase operational potency within the wireless transmission domain is that the adjustment of power consumption at every web site, per the traffic running through the location at any given instance. Meanwhile, dynamic frequency allocation are performed throughout the network supported needed capability climate. This can provide considerable savings on spectrum and prices.

Cloud RAN support:

Separating baseband units (into BBU hotels at information centres) and remote radio heads can produce important advantages to mobile operators. However, such a model heavily depends on what's nowadays an extremely inefficient I/Q interface between the 2 parts (CPRI, for instance). This interface ought to be transported via wireless transmission (and not solely over fibre) so as to form an economical transition to C-RAN. This can be enabled by higher capability wireless front haul, furthermore as a migration to LAN based mostly front haul that may permit operators to scale back the capability needed for property between the BBU and also the RRH.

These 2 network virtualization options can alter operators to agilely and quickly introduce new services and technologies – which you'll expect to ascertain, take centre stage within the coming back years.

 

DEFINITION OF WI-FI AND ITS BENEFITS

November 11, 2016

In 1999 a new technology called Airport was introduced by Apple Computers. The technology enabled a mobile user to establish and maintain a connection to a network without being physically linked to it by some sort of cable. This technology was then adopted and developed by the rest of the IT industry, then changed to the name we are all familiar today, Wi-Fi stands for wireless fidelity’.  The use of wireless technology is quickly becoming the most popular way to connect to a network. Wi-Fi is one of the many available technologies that offer us the convenience of mobile computing. The thought of working anywhere and sending data to and from a device without physical connection is becoming increasingly attractive for many consumers and businesses. The name of a popular wireless networking technology that uses radio waves to provide wireless high-speed internet and network connections. The Wi-Fi Alliance, the organization that owns the Wi-Fi (registered trademark) term specifically defines Wi-Fi as any "wireless local area network (WLAN) products that are based on the Institute of Electrical and Electronics Engineers' (IEEE) 802.11 standards." Wi-Fi works with no physical wired connection between sender and receiver by using radio frequency (RF) technology, a frequency within the electromagnetic spectrum associated with radio wave propagation.

Benefits of using Wi-Fi

Wi-Fi has a lot of advantages. Wireless networks are easy to set up and inexpensive. They're also unobtrusive -- unless you're on the lookout for a place to use your laptop, you may not even notice when you're in a hotspot. A wireless network uses radio waves, just like cell phones, televisions and radios do. In fact, communication across a wireless network is a lot like two-way radio communication. Here's what happens:

1. A computer's wireless adapter translates data into a radio signal and transmits it using an antenna.

2. A wireless router receives the signal and decodes it. The router sends the information to the Internet using a physical, wired Ethernet connection. The process also works in reverse, with the router receiving information from the Internet, translating it into a radio signal and sending it to the computer's wireless adapter. The radios used for Wi-Fi communication are very similar to the radios used for walkie-talkies, cell phones and other devices. They can transmit and receive radio waves, and they can convert 1s and 0s into radio waves and convert the radio waves back into 1s and 0s. But Wi-Fi radios have a few notable differences from other radios: They transmit at frequencies of 2.4 GHz or 5 GHz. This frequency is considerably higher than the frequencies used for cell phones, walkie-talkies and televisions. The higher frequency allows the signal to carry more data.

They use 802.11 networking standards, which come in several flavours:

802.11a transmits at 5 GHz and can move up to 54 megabits of data per second. It also uses orthogonal frequency-division multiplexing (OFDM), a more efficient coding technique that splits that radio signals into several sub-signals before they reach a receiver. This greatly reduces interference.

802.11b is the slowest and least expensive standard. For a while, its cost made it popular, but now it's becoming less common as faster standards become less expensive. 802.11b transmits in the 2.4 GHz frequency band of the radio spectrum. It can handle up to 11 megabits of data per second, and it uses complementary code keying (CCK) modulation to improve speeds.

802.11g transmits at 2.4 GHz like 802.11b, but it's a lot faster -- it can handle up to 54 megabits of data per second. 802.11g is faster because it uses the same OFDM coding as 802.11a.

 

A DISTRIBUTED ANTENNA SYSTEM (DAS)

October 28, 2016

A Distributed Antenna System (DAS) has several antennas as opposed to one antenna to provide wireless coverage to the same area but with reduced total power and additional reliability. A DAS use RF directional couplers and/or wireless amplifiers to split and amplify the wireless signal from the source out to the distributed antennas. Most of the times DAS will use a combination of low loss coaxial cabling as well as fiber optic cabling supporting radio over fiber (RoF) technology to distribute the wireless signals to the antennas. The wireless services typically provided by a DAS includes PCS, cellular, Wi-Fi, police, fire, and emergency services.

A distributed antenna system (DAS) or a distributed radio system (DRS) generally refers to a radio access architecture comprising a large number of antennas distributed widely across a large coverage area and connected to a centralized Access Point (AP). The radiation coverage of each antenna typically has a much smaller footprint than that of a base-centrally-located antenna/base station in a conventional cellular system.

The DAS architecture has two main advantages:

First, it is possible to achieve high spatial re-use capacity due to the small coverage area of each antenna.

Second, the centralized access point has complete control of all the radio resources used for each antenna and can, therefore, coordinate the transmission and reception of signals to minimize interference in an increased system capacity.

 

A DAS installation consists of a network of separately installed antenna nodes that are connected to a common source through fiber or coaxial cable. Typically, the antennas in a DAS connected to the AP through optical fibers. The AP may process the received (uplink) signals from multiple devices using appropriate combining techniques, such as maximum ratio combing (MRC) or interference rejection combining (IRC). On the downlink, the AP may transmit to multiple devices using zero forcing or dirty paper coding to suppress interference if the forward link channel is known.

 

 

 

Cantanna is a real device, not just a play of words!

September 16, 2016

Cantenna devices function by focusing and strengthening the radio wave receiving area of communication devices such as wireless phones, internet, television and radios as opposed to conventional antennas which receive signals over a broader area with minimal strength. When a radio wave enters the opening of the can it bounces off the can walls until it reaches the receiving wire within the can. This receiving wire sends the information to the communication device with minimal static or interference.

The area in which the Cantenna can receive the optimum signal is also adjustable, allowing the Cantenna to be used in a variety of locations and environments. A Cantenna consists of a hollow tube (usually a 40oz can) and a coaxial cable. This cantenna acts as a microwave waveguide by capturing, confining and propagating the radio frequency signal within its metallic walls. The radio frequency is introduced into the can by a protruding conductor of a coaxial cable. The probe can transmit and receive signals from the waveguide. The frequency that a Cantenna can propagate is a function of the diameter of the tube. Cantenna operate as high pass filters since they can only propagate signal above a certain cut-off frequency. In the case our project, we will be using the common wireless networking (WLAN) standard, IEEE 802.11n-2009 which is transmitted at a frequency of 2.4GHz.

The WI-FI Antenna booster gives increased signal strength at locations where the signal strength goes low as the distance increases. It also provides us with a cost-effective product as compared to the boosters available at the market. So this approach is more suitable for the small-scale use.

Wireless networks are clear benefits (mobility, flexibility, ease of installation, low maintenance cost, and scalability) but also has some disadvantages (use demanding equipments for operating parameters such as humidity, temperature etc). Smart Antennas can be used to achieve different benefits.  The most important is higher network capacity. It provides better range or coverage by focusing the energy sent out into the cell, multi-path rejection by minimizing fading and other undesirable effects of multi-path propagation. Smart antennas are a solution to capacity and interference Problems. Good quality and powerful Wi-Fi signal amplifiers can increase the signal strength threefold. Bidirectional Wi-Fi signal boosters increase the strength of transmitted, as well as received signals. That is, they work both ways. They boost signal strength by as much as 600%. Thus the Wi-Fi booster antenna is used in improving the signal strength by considering the above mentioned points. It is basically effective in locations where there is coverage problem in case of mobile or when the signal strength becomes less as the distance increases. Further concluding that, on testing the antenna the signal strength reduces with the increase in the distance between the antenna and the Wi-Fi access point.

APPLICATION

• Hot spots similar to those serviced by today’s Wi-Fi systems (airports, hotel lobbies, etc.)

• Academic campuses, in various self-contained areas (quads, auditoriums, cafeterias, etc.)

• Stadiums and arenas, again, which offer self-contained environments.

• Malls and shopping areas, favoured by large numbers of younger, Internet-savvy users.

• Mass transportation (trains, etc.) with users looking for interaction and entertainment.

• Enclosed parks and recreation areas.

• Residential homes, supplanting DSL/Cable services

 

Fusion-5 amplifier with all the bells and whistles

August 16, 2016

The SureCall Fusion-5 (CM-Fusion-5) is the first five-band signal booster that was designed as a cost-effective all-in-one cellular solution for mid-sized to small businesses. It combines PCS and Cellular dual-bands with LTE and AWS frequencies for Verizon, AT&T and T-Mobile as a total cellular amplification solution.

For maximum flexibility, this full-featured signal booster/amplifier includes adjustable gain control and automatic shutdown. Extremely competitively priced, it requires 1/5th the space requirements of its competitors and is a fraction of the cost compared to similar amplifiers with its capabilities. This device is ideal for locations with a low cellular data and voice signal. It covers upto 10,000 square feet.


Kit includes:

The Fusion-5 amplifier apart from the list mentioned below requires at least one outside antenna, one inside antenna, and cables to connect the antennas to the amplifier in order to operate.

  • Fusion-5 amplifier 

  • 5dB attenuator 

  • 10dB attenuator 

  • AC power supply 

  • User manual 

  • Mounting kit

Features that hold this product unique in the market:

  • Most affordable 5-band amplifier on the market

  • Automatic Shutdown to prevent interference to cell towers

  • Supports All 2G, 3G and 4G standards except WiMax and Nextel

  • Supports up to 15 simultaneous users

  • Uplink/Downlink Oscillation detection

  • 30-Day Money Back Guarantee

  • 2 Year Manufacturer Warrantee

 

DAS is by far the cheapest and fasted deployable solution for buildings less then 500,000 sq ft area

August 12, 2016

Distributed Antenna System is a great way to ensure that your building has wireless coverage at all times. If you are considering a Distributed Antenna System for your building, you should know that there are two types: active and passive. You may want to know the difference between these two systems before deciding on which one to install.

Large-scale distributed-antenna system (L-DAS) with very large number of distributed antennas, possibly up to a few hundred antennas, is considered. A few major issues of the L-DAS, such as high latency, energy consumption, computational complexity, and large feedback (signaling) overhead, are identified. The potential capability of the L-DAS is illuminated in terms of an energy efficiency (EE) throughout the paper. We firstly and generally model the power consumption of an L-DAS, and formulate an EE maximization problem. To tackle two crucial issues, namely the huge computational complexity and large amount of feedback (signaling) information, we propose a channel-gain-based antenna selection (AS) method and an interference-based user clustering (UC) method. The original problem is then split into multiple subproblems by a cluster, and each cluster's precoding and power control are managed in parallel for high EE. Simulation results reveal that i) using all antennas for zero-forcing multiuser multiple-input multiple-output (MU-MIMO) is energy inefficient if there is nonnegligible overhead power consumption on MU-MIMO processing, and ii) increasing the number of antennas does not necessarily result in a high EE. Furthermore, the results validate and underpin the EE merit of the proposed L-DAS complied with the AS, UC, precoding, and power control by comparing with non-clustering L-DAS and colocated antenna systems.

PASSIVE DAS

The design of the distributed antenna system includes antennas connected by a central controller. The controller connects to the base station of a designated wireless carrier network. This is where your system can be passive or active. The passive distributed antenna system can grab cellphone signals from the top of a building’s roof and run those signals to feeder cables to distribute throughout the building.

Passive DAS systems don’t need fiber optic cables in general and consist of simple BDAs (Bi-Directional Amplifier). An example of a passive component used in a DAS system would be a diplexer. It doesn’t require power. The signal just runs through it, much like water runs through a pipe. DAS installations consisting of only passive components are rare. This is because as DAS installations get bigger and more sophisticated, they need to be controlled and monitored remotely. This capability is made possible by active equipment at both remote and Head-End locations connected via fiber. DAS system integrators deploy SNMP-enabled equipment. SNMP allows the system to be accessed and controlled via a GUI (Graphic User Interface) using an IP network.

Many smaller DAS installations can be passive. Let us take an example of a small office in need of enhanced cellular coverage. A system integrator will install a directional antenna pointing to particular carrier’s tower. The signal enters the building via low-loss coaxial cable. A Bi-Directional amplifier known as a BDA is installed to strengthen the signal. Integrators also use passive components such as splitters and directional couplers to distribute RF signals between a BDA and indoor antennas. These installations are relatively inexpensive but require a good degree of RF expertise to ensure proper in-building coverage - Especially when there are multiple carriers and cellular bands (ranges of frequencies) which need to be distributed. Adding public safety UHF (ultra-high frequency) and VHF (very-high frequency) bands to installations will increase the cost and complexity of the deployment even more.


 

One of the Powerful Signal Boosters in the Market today!!

July 22, 2016

One of the Powerful Signal Boosters in the Market today!!


<a href=https://cellphoneboosterstore.com/tech-news-and-blog/db-pro-dual-band-with-dome-antenna/>The Wilson 461104 AG Pro 4G (previously called the AG Pro Quint) is one of the first true 5-band signal boosters <a/>available on the market, which means that it's able to boost the frequency ranges for the 2G, 3G and 4G LTE networks for all of the major carriers in the United States. It is also one of the most powerful signal boosters available, with a 70 dB amplifier and the best cables and antennas available from Wilson Electronics, so it can boost the signal in your home, office or building up to 10,000 sq ft or more with a strong signal outside.

Coverage Area

The following should help you better understand how the outside signal strength affects coverage and what sort of general coverage you can expect for your situation. It is important to remember that there are many factors that go into determining the actual coverage area, so actual results may vary from these general estimates.

  • If you have an existing strong 5-bar outside signal, you may receive up to 10,000 sq ft or more of boosted signal inside the building.*

  • If you have an existing 3 to 4-bar (-90 dB) outside signal, you may receive up to 8,000 sq ft of boosted signal inside the building.*

  • If you have an existing 1 to 2-bar (-100 dB) outside signal, you may receive up to 2,000 sq ft of boosted signal inside the building*.

Supported Carriers

<a href=https://cellphoneboosterstore.com/tech-news-and-blog/900-mhz-antenna-and-amplifier-system-for-international-use-901506/>The Wilson 461104 AG Pro 4G supports the largest number of carriers for the 2G, 3G and 4G LTE networks<a/> of any signal booster available today. Here is a more detailed breakdown of the carriers, networks and frequencies boosted by the AG Pro 4G:

  • AT&T 2G, 3G, 4G HSPA+ & 4G LTE

  • Verizon 2G, 3G & 4G LTE

  • Sprint 2G, 3G & 4G LTE

  • T-Mobile 2G, 3G, 4G HSPA+ & 4G LTE

  • US Cellular 2G, 3G & 4G LTE

  • All other carriers using 800 MHz, 1900 MHz, and AWS 1700/2100 MHz frequencies

Kit Includes

  • Wilson 461004 AG Pro 4G 70dB amplifier

  • Wilson Directional Outside Antenna 314411 with 75' Black Wilson400 Cable (952375)

  • Wall Panel Antenna 311135 with 60' Black Wilson400 Cable (952360)

  • 5V/2.5A AC/DC Power Supply 859948

Accessories
While the Wilson AG Pro 4G comes with everything that you need for immediate installation, there are a couple of additional items you may want to consider.

For locations that receive regular thunderstorms and lightning, a lightning surge protector kit will protect against nearby lightning strikes that cause surges in static electricity that can overload and fry an amplifier. It contains a gas discharge that will automatically cut the connection between the amplifier and the outside antenna when overloaded.

When mounting the outside yagi antenna on the roof or elevated location, the recommended method is to afix the antenna to a vertical pole. While it's very possible you might have an existing tv antenna or other pole in the location, a Pole Mount Kit is a great option if you don't. It simply attaches to a flat vertical surface and provides with with a foot of vertical pole to attach the antenna and rotate into place.

 
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