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The face of health and elderly care has changed. Advancements in technology have revolutionized the way we communicate. Today there are wireless devices in patients’ rooms that send updates to the nurse’s station, doctors check diagnostic results and images on their iPads, remote video consultations bring key parties together more easily and emergency buttons provide peace of mind. Connectivity in the healthcare sector is pivotal in enhancing performance and ensuring patient comfort.

Instant, reliable and stable connectivity is fundamental. In everyday life, when this is not possible it can be frustrating. In care situations it can be critical.

For both health and elderly care the secure data exchange is paramount for efficient collaboration and improved care.

What medical data is exchanged?

This dependability is crucial for a wide range of data that is exchanged over the airwaves in a medical environment such as Patient Health Information (PHI) that contains sensitive details about a patient’s health, medical history, diagnoses, treatments, and medications. There are also Electronic Health Records (EHRs) containing comprehensive patient records where reliable and complete delivery ensures accurate information is shared and diagnoses are accurate as well as prescription ordering that requires secure communication to prevent errors and assist timely medication dispensing.

Strong connectivity in the healthcare sector also helps ensure the stable delivery of remote telemedicine consultations via video calls, voice calls, or chat sessions between healthcare providers and patients. It also aids clear communication for patients and their families which is essential during times of high stress and great worry.

Patients are taking greater ownership of their health too. As such they are seeking increased access to their personal data and leveraging consumer devices to further their health objectives. The result is a rapid rise in the amount of data that is being generated.

What happens if poor connectivity results in a communication breakdown?

Not only do breakdowns in communication add upset to already challenging times they can result in serious consequences for the patient’s safety and quality of care.

Communication failures during patient handoffs (such as shift changes or transfers to other departments) can lead to critical information being lost or miscommunicated. This can result in delayed diagnoses, incorrect treatments, or missed follow-up actions. Within a team of caregivers, breakdowns in communication can hinder effective collaboration while communication gaps between physician and consulting specialists can lead to fragmented care and suboptimal decisions or treatment plans.

Effective communication between healthcare providers and patients is essential. During virtual or telephone consultation, poor connectivity can hinder understanding. It is also vital for family members to be able to reach their loved ones.

In caring for the elderly, emergency buttons are often connected to a mobile phone. In these cases, a robust network is necessary to ensure a timely response.

The 5G treatment plan

The transition from 4G to 5G in healthcare offers numerous advantages, transforming patient care and medical operations. 5G’s lower latency and higher speeds enable real-time remote consultations, enhancing access to specialized care. Increased bandwidth and capacity empower seamless transmission of high-quality video for telemedicine and remote patient monitoring. The technology’s reliability and speed support streamlined healthcare operations, such as faster mobile unit communication and more connected devices in hospitals.

5G is better placed to support:

Remote Patient Monitoring: With 5G’s high speed and reliability, remote patient monitoring becomes more efficient. Real-time data transmission enables healthcare professionals to monitor patients from a distance, ensuring timely interventions and personalized care.
Augmented Reality Assisted Robotic Surgery: 5G’s low latency and high bandwidth facilitate augmented reality (AR) applications during surgery. Surgeons can access real-time imaging, overlaying critical information on their field of view, enhancing precision and safety.
Wearable Monitors: Wearable devices connected via 5G can continuously track vital signs, detect anomalies, and alert patients and healthcare providers. This promotes proactive self- care and early intervention.
Connected Ambulances: 5G enables seamless communication between ambulances, hospitals, and emergency responders.
High-quality video streaming and real-time data exchange enhance decision-making during critical situations.
High-quality video calling: Telemedicine and augmented reality (AR)/virtual reality (VR) visualization in diagnosis and treatment is better supported by 5G.
Modernized network: 5G technology, equipped with specialized radios for indoor coverage, can meet the demands of nurse call systems, mobile charting, and other applications.

For patients, the benefits of an optimal connectivity in the healthcare sector include better self-care, reduced hospital stays, improved care quality, shorter wait times, and overall health improvements.

Current cures addressing poor connectivity in the healthcare sector

A number of technologies help enhance and boost connectivity such Distributed Antenna Systems (DAS) which is a network of antennas connected to a common source and distributed throughout a building to extend coverage. These systems can be costly starting at 60.000 EUR and there are other considerations, for example in Belgium, DAS users have to enter a mid to long term legally binding contract to 1 operator and while it could work with several operators, local companies are reluctant to work with one another. They also require regular maintenance and power connection.

Another option is sensors or repeaters that amplify connectivity. They continually monitor WLAN performance and identify issues with interference, coverage, congestion or configuration. These are more affordable at 12.000 EUR but can meet regulatory pushback. In the Netherlands, it is illegal to place a passive antenna on the roof.

5G – the best prescription

An invisible, easy to install, maintenance free, cost-effective solution that requires no infrastructure changes is WAVETHRU from WAVE by AGC. It improves the transmission of radio frequencies with a laser glass surface treatment. Its innovative and seamless technology enhances mobile connectivity without the need for mobile boosters and is compatible with all mobile network operators and technologies, including 5G. It helps reduce the reliance on Wi-Fi and costly repeaters and preserves network security and privacy.

To learn more about how to improve the well-being of your connectivity in health and elderly care environments, talk to the WAVE by AGC team.

Want to know more on how to enhance the mobile communication experience in the healthcare sector and to ensure a safe environment?
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Fewer things can be more fundamentally frustrating and business impacting than poor indoor connectivity.

Dropped or lost calls, slow download and upload speeds, trouble accessing messages, unhappy staff, disgruntled customers – the list of challenges operations face when struggling with troublesome connectivity can be extensive.

You are eager to fix the problem but are faced with the following worries:

Will my business be stopped for a long time or experience a high degree of disruption while the solution is being installed?
How do I fix the problem without my clients being impacted by noise and dust associated with a new system and intrusive cabling?

What are the available solutions and challenges?

A few key factors can impact indoor connectivity including today’s choice of façade or roof material used in energy efficient buildings that can prevent the signal from entering buildings. Glazing composed of a metal-based coating for thermal insulation can also play a role in blocking radiowaves.

Possible solutions for improving poor indoor connectivity include installing:

A Specific Absorption Rate (SAR) solution. This measures the rate at which energy is absorbed per unit mass by a human body when exposed to a radio frequency (RF) electromagnetic field.
Sensors that repeat or amplify connectivity. They continually monitor WLAN performance and identify issues with interference, coverage, congestion or configuration.
Distributed antenna systems (DAS). A network of antennas is connected to a common source and distributed throughout a building to extend coverage.

But these can be complex to integrate, require expensive hardware as well as entail maintenance and replacement costs. They also often only work for a single mobile operator and are often not scalable in all situations.

Presenting WAVETHRU: the perfect retroffitable solution for you!

A simpler, easier, and faster solution to increase mobile signal strength is the game-changing WAVETHRU by AGC. The retrofittable state-of-the-art technology for mobile indoor coverage enables radio-friendly glazing that reduces radio signal loss by 25 dB.

The process applies a unique laser pattern to the glazing with 30 µm laser engraved lines that are nearly invisible to the naked eye. Treatment is so gentle, it does not affect the physical properties of the glazing, which remain the same.

And it will blow all your worries away! WAVETHRU is quick to install, maintenance free, versatile, silent, clean, invisible, CO2 emission free, and lasts as long as the glass does. Just 20% to 30% of the window and floors 0 to 4 need to be treated to improve the indoor signal on all frequency ranges under 6GHz. This makes it a future-proof solution for 5G and there is no need to adapt the solution if new technology is introduced or the operator infrastructure changes.

As well as being added to existing glazing, WAVETHRU can be applied before glazing is installed in the case of new buildings or renovations to ensure optimal mobile connectivity.

With WAVETHRU, poor indoor connectivity can easily become a thing of the past enabling you and your clients to focus fully on business success.

Want to know more on how to enhance your co-working space experience and ensure a productive environment?
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The evolutionary impact of the pandemic, combined with the continuing shift towards flexible and remote work patterns and the proliferation of start-ups, have significantly influenced demand for adaptable workplace solutions with optimized mobile connectivity.

Coworking is becoming one of the fastest growing industries – as of June 2022, over 28,000 coworking spaces existed around the world. This figure is expected to reach 41,975 by the end of this year. Asia Pacific was the largest region in the coworking space market, followed by North America.

A coworking space helps employees replicate that sense of community they may be missing in the virtual workplace. It is shared by individuals or companies who rent from the property owner. Unlike a traditional office rental, the use of related services/equipment such as office chairs and desks, internet/Wi-Fi connection, hardware and software is included.

However, some connectivity issues can arise from the number of businesses and volume of people working in the same space. With 70% to 80% of calls carried out within a building, ensuring reliable mobile connectivity is vital.

Here are five signs your co-working space needs to improve its mobile connectivity:

1. Poor Call Quality

Either you can’t hear the other person or they can’t hear you. This can be very frustrating and ultimately affect the professional image you want to convey. If it is an especially busy workspace background noise will only be more distracting.

2. Signal loss

Calls that get cut-off can be very disruptive to the flow of the conversation. They can also be a way for people to cut short a meeting before a conclusion has been reached, They can potentially slow down sales, progress and action.

3. Difficulty in responding via WhatsApp or Messenger

An unreliable signal can result in missed messages or communications not being sent. Both can have a negative impact on the way you work and how your business progresses.

4. Problems downloading photos and videos

We receive information in all sorts of formats that are essential to our work. When we can’t immediately retrieve vital data that can be very detrimental.

5. Poor connectivity

In some cases, this can result in callers having to go out of the building to have a consistently strong connection or make a payment. Today’s communications have evolved to support smooth and fast operations. When poor signal strength interferes with that regularly, the impact can be far reaching.

Bridging the gap: the frequency challenge

As we developed in a previous blog, the shift to higher frequencies allows for more data capacity and the management of more users but comes at a cost. Higher frequencies struggle to penetrate obstacles like façade, windows or dividing walls or leading to reduced indoor coverage.

WiFi technology has enjoyed several iterations, from 2.4 GHz (Gigahertz) to 5 GHz, and now even 6 GHz with WiFi 6E. In the cellular world, 4G networks operate around 700 MHz to 2.5 GHz frequencies, and 5G goes even higher, including millimeter-wave frequencies up to 100 GHz. While these higher frequencies enable blazing-fast data speeds and low latency, they face the same challenge as WiFi – difficulty penetrating building materials.

Elevating indoor mobile connectivity with radio-friendly glazing?

To overcome connectivity issues in the office, more antennas are needed to optimize coverage. Or the antennas in place are required to handle a greater workload which can reduce latency. This increases costs, can be unsightly and finding a suitable location can be challenging.

Fortunately, there are relatively affordable and easy ways to upgrade mobile connectivity for the coworking space operator that is expected to provide good coverage.

WAVETHRU from Wave by AGC is a multi-operator solution that maximizes call quality by ensuring:

• A stronger signal with improved call quality indoors and the ability to manage multiple frequencies.

• Better end-user experience as phones consume less power for a longer battery life.

• Easy installation as the treatment is applied on-site to existing windows and non-intrusive as there are no wires.

• No impact on building aesthetics or double glazing performance as it is invisible to building occupants.

• Cost effectiveness as there is no need for obtrusive or unsightly systems (DAS comparison) and zero maintenance is required.

• Sustainability as the treatment has a long life, does not require energy and the glass can be recycled. The process also does not affect the glazing insulation or thermal performance.

Want to know more on how to enhance your co-working space experience and ensure a productive environment?
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In our previous blog a few weeks ago, we defined what is eavesdropping and why it is important to protect yourself and your business against an eavesdropping attack. This time round, we would like to further expand by giving you some concrete eavesdropping examples.

What do Watergate and Edward Snowden have in common?

Both are famous examples of eavesdropping, ie. the secret or covert listening to a conversation or private communication between other people without their knowledge or consent.

The Watergate scandal in the early 1970s caught US agents working for President Richard Nixon’s administration breaking into the Democratic National Committee headquarters at the Watergate office complex in Washington, D.C. They were attempting to install listening devices and wiretap phones to gather information on Nixon’s political opponents. The discovery and following investigation resulted in legal proceedings and ultimately President Nixon’s resignation.

In 2013, Edward Snowden, a former National Security Agency (NSA) contractor, leaked classified documents revealing the extensive global surveillance programs conducted by the NSA and its Five Eyes alliance partners. Snowden’s actions brought widespread attention to the extent of government eavesdropping and sparked a global debate on privacy, security, and surveillance.

Eavesdropping can occur anywhere

While these examples are high profile, eavesdropping can occur at various levels, from governments conducting mass surveillance to individuals secretly listening in on private conversations. In many cases, the ethics and legality of eavesdropping depend on the context and the methods employed. But it is an invasion of privacy and, often, unethical, or even illegal, depending on the circumstances and the jurisdiction.

Traditional eavesdropping typically involves attempting to gather information or overhear discussions that were not intended for the eavesdropper to hear.

Electronic eavesdropping via electromagnetic waves refers to the interception of communication signals that travel through the air in the form of electromagnetic radiation. This type of eavesdropping is often associated with electronic surveillance and can involve intercepting radio frequency (RF) signals, microwave transmissions, or other wireless communication methods.

Examples of eavesdropping via electromagnetic waves include:

1. Wireless Communication Interception – signals from wireless communication devices such as mobile phones, Wi-Fi networks, or Bluetooth connections are intercepted and monitored. This can be done using specialist equipment that captures and analyzes radio signals.

2. Radar and Microwave Interception – radar signals and microwave transmissions used in various technologies, including military radar systems and microwave communication links, are intercepted and analyzed.

3. Radio Frequency (RF) Eavesdropping – radio signals are monitored and communication between devices is intercepted. This can include listening in on radio broadcasts, intercepting signals from electronic devices, or even capturing signals from wireless microphones.

What is a TEMPEST attack?

Another example of eavesdropping via electromagnetic waves is a TEMPEST (Transient Electromagnetic Pulse Emanation Standard) attack. TEMPEST is a set of standards and guidelines that address the potential eavesdropping risks associated with unintentional electromagnetic emissions from electronic devices. A TEMPEST attack involves the unauthorized interception of these electromagnetic emissions to gather information about the data being processed by a device.

One famous demonstration of a TEMPEST-like attack is the “Van Eck phreaking” by Wim van Eck in the 1980s. Van Eck demonstrated that it was possible to eavesdrop on computer monitors by capturing and interpreting the electromagnetic emissions emitted by the monitor. When a computer monitor displays information, it emits electromagnetic radiation. This radiation can extend beyond the physical confines of the monitor’s screen.

An attacker, using specialized equipment, then captures the electromagnetic emissions from the monitor. This can be done from a distance, even through walls, without any physical connection to the targeted computer. It is possible to analyze the captured electromagnetic signals and to reconstruct the information displayed on the monitor. With the right equipment and expertise, an attacker could potentially read sensitive or confidential information being processed on the monitored computer.

How to protect against an eavesdropping attack?

For companies that care about the confidentiality of business information research has resulted in recommendations for best cyber security practices and the application of security measures that include the:

• Use of portable electronic devices that can operate for a limited period of time without connection to the power supply source such as smart phones, multifunctional tablets, or laptops. Where this solution cannot be applied for every technology, for example video projectors or personal computers that do not support battery power supply, uninterruptible power supply (UPS) devices can be used, but without being connected to the power supply mains for a specific period of time, e.g., between 30 min and two hours.

• Application of clamp-on ferrite beads (or rings) on the power cable of the targeted electronic equipment. Ferrite beads are passive electronic components that can suppress high frequency signals on a power supply line.

• Filtering out the electromagnetic disturbances injected by the electronic equipment in the power supply network. The installation of specialized EMI filters is recommended on one of the electrical circuits that supply the electrical sockets in the targeted space or room.

It is also important to note that while Van Eck phreaking was a proof-of-concept demonstration, modern electronic devices are designed with greater consideration for TEMPEST standards. This includes the use of shielding and other protective measures to reduce unintentional electromagnetic emissions and enhance the security of information processing. TEMPEST countermeasures are particularly important in environments where the confidentiality of information is critical, such as military and government facilities.

Implementing best protection

There are other countermeasures that can also be taken against electromagnetic eavesdropping. They include encryption, secure communication protocols, and physical security measures that protect against unauthorized access to electronic equipment. Additionally, organizations often implement security practices to preserve data security and minimize the risk of information leakage through unintentional electromagnetic emissions.

The best protection against TEMPEST attacks and any kind of eavesdropping is to block outgoing electromagnetic waves. One way to achieve that quickly, easily, and affordably is with WAVETRAP from WAVE by AGC. The transparent glass product from WAVE by AGC is a wave blocking solution can provide a physical barrier that protects against eavesdropping.

Interested in a glazing solution against eavesdropping? Get in touch with us today and experience WAVETRAP, our transparent electromagnetic wave shielding glass.

An opportunity for Fixed Wireless Access. For several years, numerous countries have agreed on a strategy of connecting their territories with fiber. As such it is being deployed today on a very large scale. However, operators are beginning to realize that this excellent solution hits some limitations in the “last kilometers” where it becomes increasingly complicated, and more importantly not profitable, or even, expensive.

At the same time, some countries have already started to gradually phase out copper wiring and with the deadline fast approaching, operators are finding themselves faced with a major problem: how to provide high-speed, high quality broadband connectivity in vast, often sparsely populated suburban and rural areas , while remaining profitable.

To resolve this “last kilometers” problem, the advancement and deployment of 5G now offers a way out for operators who can rely on FWA (Fixed Wireless Access) technology. It is emerging as the one of the promising solutions to solve the problem of the unreasonable costs when making high speed connectivity in rural areas.

There is a but. This promising solution requires the installation of equipment outside and/or drilling holes in the walls to pass cables. It also often means keeping the CPE (Customer Premises Equipment) next to the window to get the maximum signal from the outside. These limitations are mainly due to the strong insulation of buildings which are increasingly opaque to electromagnetic waves.

These installation considerations can require additional effort, or even be a hindrance for municipalities or a typical user wishing to take full advantage of this new service,.

Easy adoption of Fixed Wireless Access FWA

At WAVE by AGC, we have solutions that can limit or even eliminate these efforts. They can make it easier for users to adopt the FWA solution and enjoy its benefits without its installation challenges.

What WAVE offers for FWA is:

Making glass transparent to electromagnetic waves with WAVETHRU. This solution offers the advantages of:
- being to use only indoor equipment’s, which reduces the cost of installation (no need for outdoor equipment with specific requirements for weather resistance), and
- eliminating the need to make holes in the wall to pass cables.
WAVEANTENNA-FWA like our other WAVEANTENNA products (WAVEATTOCH, Wi-Fi/P5G) the WAVEANTENNA-FWA product is based on WAVE technology. For the development of the transparent antenna, the technical specifications meet the needs of the FWA solution.
WAVEANTENNA-FWA is a discreet transparent antenna connected to the CPE and installed inside the building behind windows treated by WAVETHRU in a very discreet manner (vs. a CPE facing a window). This antenna captures the 5G signal from outside, and via the CPE allows indoor connectivity. It delivers:
- Increased flexibility of the location of the CPE (not necessarily facing the window).
- Improved aesthetics of the overall installation.
- High performance levels.

Overcoming constraints

To summarize, by adopting Wave solutions for FWA (WAVETHRU & WAVEANTENNA-FWA), it is possible to overcome the constraints/limits of an FWA installation:

no holes are necessary,
the cost of equipment is lower,
the location of the CPE can be flexible,
better aesthetics can be achieved while maintaining a high level of performance.

Last but not least, thanks to WAVE by AGC solutions, users don’t have to make sacrifices regarding aesthetics, or undertake an outdoor installation.

Based on the market feedback, after the 5G mid-band considered today for FWA, the future for this solution will be in the mmWave. This spectrum presents additional challenges that are more critical compared to the sub-6GHz spectrum: high attenuation and penetration loss. WAVE by AGC has already developed mmWave WAVETHRU solution for the FWA market in this new spectrum. The validations have been carried out and the results are impressive.

Wave AGC also combines the delivery of powerful connectivity with an enhanced visual experience through solutions such as WAVEANTENNA WiFi and Private 5G and WAVEATTOCH antenna.

Ready to elevate your connectivity? Get in touch with us today and experience the future of Fixed Wireless Access.

Electric waves and electromagnetic waves are fundamental physics concepts used to describe the behaviour of electricity and magnetism. While they are closely related, there are important distinctions between them.

What are electric waves?

Electric waves describe the flow of electrons in a circuit. They are variations in electrical voltage along a conductor. They require a physical medium, usually metallic conductors and are essentially linked to the movement of electrons. These waves can be generated by sources such as electrical generators.

Electric waves are commonly used in electrical circuits, transmission cables and electronic systems.

They heat a filament inside electric light bulbs, producing light, generate heat in electric heaters and are manipulated in electronic circuits to power mobile phones, computers and televisions.

What are electromagnetic waves?

Electromagnetic waves are created by the interaction between electric and magnetic fields. They can propagate in a vacuum and need no material support. Photons are the smallest packets of energy that propagate as electromagnetic waves. You can “feel” an electromagnetic wave if it excites the atoms in your body and causes them to vibrate as they absorb and re-emit photons, giving off heat.

Examples of electromagnetic waves

For example, sunburn is caused by photons from the Sun. Also examples of electromagnetic waves are visible light, microwaves, radio waves and X-rays.

The waves are used in televisions to pick up signals and display images and sound, mobile phones to establish wireless communications between devices, microwave ovens to rapidly heat food by agitating the water molecules it contains, Magnetic Resonance Imaging (MRI) machines to create detailed images and satellites to transmit communication signals.

As we have seen electrical and electromagnetic waves are utilized by a variety of devices for applications as diverse as lighting, heating, communication and medical imaging. Understanding these principles is crucial to the development and operation of many modern technologies.

6 factors act as signal blockers of electromagnetic waves

The ability of electromagnetic waves to propagate depends on the frequency of the wave and the characteristics of the medium through which they travel. Certain substances and conditions can hinder or stop their propagation such as:

Absorption by materials: Some materials, including certain types of glass, water and metallic materials, have the ability to absorb electromagnetic waves leading to significant attenuation of the signal.
Reflection: Electromagnetic waves can be reflected by metal surfaces. They can bounce back and be reflected in a different direction rather than continuing to propagate in the original direction.
Blockage by physical obstacles: Physical obstacles such as buildings, mountains or metal structures can block or attenuate electromagnetic waves. Also known as “obstruction” it can result in shadow zones where the signal is weakened or completely interrupted.
Diffraction: Diffraction is a phenomenon whereby electromagnetic waves will bypass the edges of an obstacle. However, if the obstacle is large enough relative to the wavelength of the electromagnetic wave, diffraction can be limited.
Electromagnetic interference: Other sources, such as electronic equipment, can disrupt the propagation of electromagnetic waves. This can be particularly relevant in densely populated environments where many devices are transmitting signals.
Earth’s atmosphere: Certain types of electromagnetic waves can be absorbed by certain layers of the earth’s atmosphere. For example, very high frequency radio waves can be absorbed by the ionosphere.

As we have seen, several factors can impact the attenuation of electromagnetic waves to varying degrees. By controlling these variables, we can also better manage electromagnetic pollution, electromagnetic interference and cyber privacy?

What about electromagnetic pollution?

We come into contact with electromagnetic fields every day and the growth of “electromagnetic pollution” is worrying more and more people. Studies are ongoing about the effects of electromagnetic fields on humans and electromagnetic hypersensitivity. They include the ISSeP (Scientific Institute of Public Service) and the University of Ghent measuring electromagnetic fields in order to assess public exposure. The BBEMG (Belgian BioElectroMagnetic Group) is specifically interested in the effects of electric and magnetic fields, at the grid frequency (50 Hz), generated by the transportation and use of electrical energy as well as electrical hypersensitivity and UCL (Université catholique de Louvain) conducts studies to understand the biological effects of prolonged exposure to radio waves. So far laboratory studies have shown no link between low-frequency magnetic fields and diseases.

However, it is a matter of concern and people are looking for solutions such as geobiology.

What about electromagnetic interference?

Electromagnetic interference is the disturbance of the operation of an electronic device that typically occurs when a device is close to an electromagnetic field.

There are ways to improve the performance and reliability of devices in professional facilities by reducing the level of electromagnetic radiation that is present within the environment.

What about cyber security?

It is not well known but electrical measurements (EM) is one factor to be considered in the cyber risk analysis. It might be the root cause of data leakage via eavesdropping, image reconstruction, war driving, etc. Controlling EM is also a means of controlling the ability to reduce the risk of a cyber-attack

Mastering the EM topic is also understanding and better apprehending the above listed concerns.

Solutions such as WAVETRAP, the transparent glass product from WAVE by AGC. It offers best protection by preventing the transmission of unwanted electromagnetic radiation to indoor environments. Invisible to the eye and featuring high coating technology, reduces radiation pollution. It can be used indoors to provide shielding between separate spaces. It also blocks waves without losing light and does not affect the insulating or thermal performance of glazing.

Speak to us to discover more about how to optimize protection against exposure to electromagnetic waves and ensure consistent connectivity.

If you’re struggling with poor mobile signal strength in your office building, you may have considered using a traditional signal booster. While signal boosters can be effective in some cases, they may not be the best solution for modern office buildings. In this blog post, we’ll explore why traditional mobile signal boosters might not be the best solution for your office building and what alternative solutions you should consider.

The limitations of traditional mobile signal boosters

Traditional mobile signal boosters work by amplifying the existing cellular signal. They typically consist of an external antenna that captures the signal from the nearest cell tower, an amplifier that boosts the signal, and an internal antenna that broadcasts the amplified signal throughout the building. While signal boosters can be effective in some situations, they have several limitations that make them less suitable for modern office buildings.

Limited coverage area

One of the biggest limitations of traditional signal boosters is their limited coverage area. Signal boosters can only amplify the signal within a certain range, which means that they may not be effective in larger office buildings or buildings with multiple floors. In addition, signal boosters may not work in areas with weak or no cellular signal, which means that they may not be effective in all situations.

Interference issues

Signal boosters can also cause interference issues, especially if they are not installed properly. They can interfere with other wireless signals in the building, such as Wi-Fi, and can also interfere with signals from nearby cell towers. This interference can lead to poor call quality, dropped calls, and other issues.

Cost

Traditional signal boosters can be expensive, especially if you need to install multiple boosters to cover a larger area. In addition, signal boosters may require ongoing maintenance and upgrades to ensure that they are functioning properly.

Installation time

Installing a mobile signal booster can take a long time, especially if you have to wait for the mobile operator to install it. This can cause significant delays and disrupt your business operations, which can be frustrating and costly.

Limited compatibility

Traditional mobile signal boosters typically work only for one mobile operator. This means that if you have multiple mobile operators in your office building, you would need to install separate signal boosters for each operator. This can be costly and inefficient, especially if you have a large office building.

Wiring and installation

Installing a mobile signal booster requires significant wiring and installation work. This can be disruptive to your business operations and require additional resources and expertise.

Incompatibility between Mobile Signal Boosters and modern building materials

Modern office buildings are often constructed with materials that can block mobile signals, such as energy-efficient windows and metal cladding. Traditional mobile signal boosters may not be effective in these types of buildings, which can lead to poor signal strength.

Considering these limitations, it’s essential to consider alternative solutions like WAVETHRU, a laser surface treatment that can improve mobile signal strength in your office building without the need for bulky signal boosters or complicated installations. WAVETHRU is also compatible with all national mobile operators, making it a more flexible and cost-effective solution compared to traditional signal boosters.

Alternative solutions to improve mobile signal strength

Instead of relying on traditional signal boosters, there are several alternative solutions that you should consider to improve mobile signal strength in your office building.

WAVETHRU alternative to Mobile Signal Boosters

Laser surface treatment

A laser surface treatment like WAVETHRU is a cost-effective and efficient solution for improving mobile signal strength in your office building. It works by removing the metal coating on windows that can block mobile signals from entering the building. With a laser surface treatment, you can enjoy better mobile connectivity without having to rely on bulky signal boosters or repeaters.

Wi-Fi calling

If your office building has a reliable Wi-Fi network, consider using Wi-Fi calling. This feature allows you to make calls over a Wi-Fi network instead of using the cellular network. It can help you avoid dropped calls and poor call quality, especially if you’re in an area with weak mobile signal strength.

Contact your mobile service provider

If you’re experiencing poor mobile connectivity in your office building, contact your mobile service provider. They may be able to offer you a solution, such as a repeater or a signal booster. However, keep in mind that these solutions may only work for one mobile operator, and may not be as cost-effective as a laser surface treatment like WAVETHRU.

In conclusion, traditional mobile signal boosters may not be the best solution for modern office buildings. Instead, consider alternative solutions like a laser surface treatment or Wi-Fi calling. By taking these steps, you can improve mobile signal strength in your office building and stay connected with your team and clients.

Choose the alternative solution today

Introduction to Silversquare Antwerp

In the heart of Antwerp, Belgium, Silversquare Antwerp was undergoing its final construction phases, focusing on the installation of windows and interior design. Little did they know, a connectivity challenge awaited them. This is the transformative story of how WAVETHRU revolutionized communication in this vibrant coworking center.

The challenge: High-performance double glazing barrier

As the last windows were being placed, a formidable obstacle emerged. The implementation of high-performance double glazing, while beneficial for insulation, posed a significant problem. The modern glazing, designed to enhance energy efficiency, inadvertently disrupted mobile connectivity. Suddenly, the convenience of making phone calls within the building became a distant memory.

A retrofitted solution: WAVETHRU to the rescue Silversquare Antwerp

Recognizing the urgency of the issue, Silversquare Antwerp embarked on a retrofitting project with WAVETHRU. The goal was to restore seamless communication without compromising the architectural advancements that had been integrated.

The WAVETHRU treatment: 10 Days to connectivity bliss

In just 10 days, the WAVETHRU team undertook the challenge of treating numerous windows. The focus was on harmonizing the aesthetic appeal of the high-performance glazing with optimal mobile connectivity.

Results: A connectivity revolution for Silversquare Antwerp

The transformation was nothing short of remarkable:

Overcoming communication barriers: WAVETHRU successfully mitigated the impact of high-performance glazing, allowing occupants to enjoy uninterrupted communication.
Optimized working environment: Professionals, including architects, could now work efficiently without the barrier of disrupted phone signals.
Efficient phone communication: Silversquare Antwerp experienced the power of WAVETHRU, where phone calls within the building were restored to their full potential.

Conclusion: Elevating coworking experiences

The Silversquare Antwerp case is a testament to the transformative impact of WAVETHRU. It’s not just about enhancing mobile connectivity; it’s about creating environments where seamless communication is a fundamental part of the workspace.

Ready to transform Your workspace?

Is your workspace facing similar connectivity challenges? WAVETHRU is here to help. Contact us tod ay for a comprehensive FREE audit and embark on a journey to revolutionize your workspace’s connectivity.

Glass Antenna solution installed inside the building behind the glazing to enhance the outdoor network coverage

The first product to join the WAVEANTENNA adventure was the WAVEATTOCH antenna in 2017. It was designed to address mobile outdoor network densification issues in urban landscapes.

As data traffic booms, operators are facing a major challenge in deploying and installing their antennas. Overcrowded rooftops are no longer an option as demand for 5G antennas increases to meet the need for connectivity.

This situation is even more critical in dense urban spaces which are facing outdoor network densification :

On one hand, the large number of users in dense area causes congestion, reduce signal quality, dropped calls and slow data speeds.
On the other hand, when buildings are tall and closely spaced, there is greater risk of pedestrians experiencing a poor signal while walking down the street..

These considerations must be taken into account by operators. For them, losing subscribers is not an option …

In addition, less and less visual disturbances are allowed to preserve the urban landscape aesthetics, for several reasons :

Highly demanding architectural environments (old city centers for example)
Compliance with city planning regulations
Or because citizens simply want to preserve their city’s aesthetic appeal !

With WAVEATTOCH, the idea is to propose a seamlessly integrated glass antenna inside the building, behind the glazing, to enhance the network coverage outside :

As for each WAVEANTENNA product, a specific antenna is designed to embed the corresponding frequency band (4G/5G in this case). It is then integrated into the glass using a patented Wave process.
Regarding installation, the antenna is connected to the radio unit thanks to coaxial cables. For fixation, Wave has developed a unique and elegant fixation system, to smoothly affix the antenna behind the glazing. This fixation system can be for sure adapted and customized for customers when required.

WAVEATTOCH offers a compelling response to the densification challenge

For city inhabitants WAVEATTOCH is an aesthetically pleasing discreet antenna instead of a highly visible, prominent one. The technology can be integrated seamlessly into urban architecture, making it nearly invisible to the naked eye. This architectural integration ensures a harmoniously blending in with the surroundings.
For operators, there are many benefits :
- ➔ First, assuming the facades can be used instead of traditional places, it is easier for operators to identify an optimum spot for the glass antenna localization to provide a top-notch signal for their customers.
- ➔ Second, the risk of congestion and interference is lowered, ensuring that residents and businesses in urban areas enjoy fast and reliable mobile device connectivity.
- ➔ Third, no more hassles to engage time-consuming actions to get city planning authorizations or worries about architectural limits being reached.
- ➔ Finally, the installation phase is faster, easier and less risky for operators compared to traditional infrastructures.. This agility is vital for cities that need to expand their connectivity networks swiftly.
And for City authorities, this solution helps them to preserve the beauty of urban landscapes, offering a solution that satisfies both the need for connectivity and the demand for unobtrusive architecture.

While WAVEANTENNA holds for sure an immense promise for urban connectivity, several challenges remain : new business models for the implementation of deployment and installation of the Glass Antenna in third-party areas, operators’ awareness, etc.

Recently we have promoted our WAVEANTENNA’s solution, as range of aesthetic glass antenna solutions designed to enhance the visual experience in urban environment and building interiors while addressing network densification issues.

Even if this definition makes sense to bring consistency as the different WAVEANTENNA products share a common technological ground to address a network densification issue in different connectivity configurations, it was important for Wave to go one step further and explain the capabilities of each product.

This series of articles details for each WAVEANTENNA product (WAVEATTOCH, WAVEANTENNA-WIFI/P5G and WAVEANTENNA-FWA) the particular problem they address, the stakeholders involved, the solution delivered with its key benefits and the remaining challenges.

Stay tuned for the next articles on the other WAVEANTENNA products coming soon.

Are you tired of poor mobile signal strength in your office building? Do you find it frustrating that you can’t make a simple phone call without experiencing dropped calls or poor call quality? If so, you’re not alone. Many people struggle with poor mobile connectivity in office buildings, but fortunately, there are ways to improve it.

Here are 5 ways to improve mobile signal strength in your office building:

1. Install a laser surface treatment on your existing windows

A laser surface treatment like WAVETHRU can significantly improve mobile signal strength in your office building. It works by engraving the metal coating on windows that can block mobile signals from entering the building. With a laser surface treatment, you can enjoy better mobile connectivity without having to rely on bulky signal boosters or repeaters.

2. Use Wi-Fi calling

If your office building has a reliable Wi-Fi network, consider using Wi-Fi calling. This feature allows you to make calls over a Wi-Fi network instead of using the cellular network. It can help you avoid dropped calls and poor call quality, especially if you’re in an area with weak mobile signal strength.

3. Position your phone near a window

When you’re making a call, try to position your phone near a window. This can help improve mobile signal strength by allowing the signal to enter the building more easily. If your office has a windowless room, consider moving to a different area or using a Wi-Fi calling feature.

4. Use a signal booster in some cases to improve mobile signal strength

If none of the above solutions work, you can consider using a signal booster. A signal booster can help amplify the signal in your office building, which can improve call quality and reduce dropped calls. However, keep in mind that signal boosters can be expensive and may not work for all situations.

5. Contact your mobile service provider

If you’re experiencing poor mobile connectivity in your office building, contact your mobile service provider. They may be able to offer you a solution, such as a repeater or a signal booster. However, keep in mind that these solutions may only work for one mobile operator, and may not be as cost-effective as a laser surface treatment like WAVETHRU.

Improving mobile signal strength in your office building is essential for staying connected with your team and clients. By following these tips and considering options like a laser surface treatment, you can enjoy better mobile connectivity in your office building.

If you want to discuss your connectivity challenges, contact us.