Acrylic Wi-Fi Heatmaps is a site surveying tool designed for providing wireless network coverage mapping and RF spectrum analysis. Using Acrylic Wi-Fi Heatmaps, you can perform Wi-Fi infrastructure measurements to analyze actual Wi-Fi network coverage and performance.

The collected data is used to identify, quantify and diagnose all issues affecting wireless communications health and performance.

Acrylic Wi-Fi Heatmaps analyzes the Wi-Fi networks within range to diagnose their working mode and performance, exposing all found issues and limitations under current network configurations.

This User Manual is meant to guide you through all Acrylic Wi-Fi Heatmaps functionalities, its user interface, and how to use it. Furthermore, it provides detailed information on how to diagnose and read wireless network coverage study results.

1.2.1. Wireless Cards

Acrylic Wi-Fi Heatmaps supports the use of any commercially available wireless card by making use of Windows native mechanisms to perform Wi-Fi measurements.

Moreover, Acrylic Wi-Fi Heatmaps operates on an advanced capture mode called Monitor Mode, also known as Promiscuous Mode that offers a series of additional features when performing the measurements.

When a wireless card is operating on Native Capture Mode, it reveals the Wi-Fi signaling packets sent by the access points. On Monitor Mode, Acrylic Wi-Fi Heatmaps is able to extend its data capturing capabilities, providing the additional feature of displaying all client devices connected to a wireless network access points, such as smartphones, tablets, laptops, etc.

It is possible to use multiple Wi-Fi devices simultaneously, being one of them connected to a Wi-Fi network to obtain connection related information, such as latency, bandwidth, and roaming values (active site survey), while a second adapter can be set to work on normal mode or Monitor Mode to collect information and operating parameters on other Wi-Fi networks within range (passive site survey).

The selection of the Wi-Fi adapter is an important task to ensure both dependability and long term data validation. To operate on Monitor Mode, there are two groups of wireless cards supported by Windows:

1.2.1.1. Monitor Mode compatible Wi-Fi Hardware (NDIS)

Wi-Fi hardware supporting Monitor Mode on Windows is affordable and commercially available. These are standard wireless cards which have been verified to work using the NDIS driver included in Acrylic Wi-Fi Heatmaps to capture wireless network traffic on Monitor Mode.

Some wireless card drivers may not provide correct information on signal strength or broadcasting channel, limiting their use for Wi-Fi coverage mapping.

For an up-to-date list of supported devices, visit our support section at: https://www.acrylicwifi.com/en/support-webinars-wifi-wireless-network-software-tools/compatible-hardware/

1.2.1.2. Professional Wi-Fi Analysis Hardware (Airpcap)

Airpcap cards by Riverbed support Monitor Mode. Since they are designed for this purpose, they provide good capturing performance.

Airpcap cards are supported by Acrylic Wi-Fi Heatmaps.

●      Airpcap Classic – b/g

●      Airpcap Tx – b/g

●      Airpcap Nx – a/b/g/n

Airpcap cards software can create virtual Wi-Fi adapters, allowing the use of multiple wireless cards simultaneously with Acrylic Wi-Fi Heatmaps.

1.2.2. GPS Devices

The use a GPS device allows Acrylic Wi-Fi Heatmaps to automatically detect an exact user location when performing a measurement. Acrylic Wi-Fi Heatmaps supports any GPS device using the NMEA communication protocol, as well as those built-in GPS devices in tablets and other mobile devices using mix location.

USB GPS devices create a serial port through which GPS data can be read. To configure this port, please check the serial port parameters from the GPS device manufacturer’s User Manual.

GPS coordinates can be also fed into Acrylic Wi-Fi Heatmaps via Bluetooth. Certain GPS devices allow sharing location data wirelessly via Bluetooth. When establishing a Bluetooth connection with one of these devices, Windows creates a virtual serial port that works as if the device is actually plugged to the computer, so this virtual port is configured just as a normal serial port.

Smartphones with built-in GPS devices can share their current location with Acrylic Wi-Fi Heatmaps via Bluetooth. Find the right app at your local mobile store.

It is recommended to make use of this geopositioning mechanism only when an actual GPS device is available. GPS devices such as A-GPS are not encouraged, since, unlike actual GPS devices, they make use of several different data sources for resolving positioning, and they also tend to be somehow less accurate. These mechanisms are:

●      Wi-Fi : 30-500m approximately

●      Mobile Telephony Cells : 300-3,000m approximately

●      IP Address : 1,000-5,000m approximately

GPS devices are classified in two main categories, according to their communication interface:

1.2.2.1. Serial Port

If the tablet or computer has a built-in serial port, also known as COM port, and the GPS device is physically connected to it, then the GPS device will be used to read the geopositioning data.

The latest devices do not come with COM ports; therefore USB/Bluetooth GPS devices should be used. These devices create a virtual COM port to interact with the host equipment:

●         Devices Physically Connected to the host equipment. These devices usually do not require batteries or any external power source. Normally, these are USB devices or PC cards.

●         External GPS Devices sharing GPS signal via Bluetooth. These devices are usually conveniently portable. However, they do require batteries, but these are normally integrated long lasting batteries. Two main groups can be identified:

○         Smartphones sharing GPS signal via Bluetooth. The latest smartphones today are provided with GPS and Bluetooth capabilities. Since there are several apps for sharing GPS signal via Bluetooth in the marketplace, no special hardware will be necessary for Acrylic Wi-Fi Heatmaps to use GPS geopositioning.

○         Bluetooth GPS Receptors.

1.2.2.2. Built-in

These are devices that include native integrated GPS, such as some tablets and mobile devices, allowing direct GPS data access.

Technical support service can be hired during the Acrylic Wi-Fi Heatmaps license purchasing process. This service provides priority communication with the Acrylic Wi-Fi Heatmaps Support Team to address any support request that may arise during a site survey project.

If this service is not hired during the license purchasing process, you can still hire support consulting hours for technical questions on Acrylic Wi-Fi Heatmaps.

2.2.1. Reinstalling/Upgrading

2.2.2. Uninstalling Acrylic Wi-Fi Heatmaps

2.3.1. Starting the Evaluation Period

When you run Acrylic Wi-Fi Heatmaps for the first time, a limited time free trial license is automatically generated for evaluation purposes. This license expires at the end of the evaluation period, or when a license purchased from the Acrylic Wi-Fi online store is validated.

2.3.2. Getting Purchased Licenses

Once you have purchased an Acrylic Wi-Fi Heatmaps license from our online store, you will be sent a confirmation message to your registered email address containing your credentials to access the "My Account" section in our website, as well as the corresponding license code.

In order to access our client area, you are required to enter your email address as your user name and the password in your confirmation message. From our client area, you will be able to download the software and the license codes for your purchased licenses, as well as edit your account details.

To get your software install licensed, you can download your license code from our client area, or copy it from your confirmation email.

2.3.3. Getting your Acrylic Wi-Fi Heatmaps Install Licensed

During the evaluation period, you can get your Acrylic Wi-Fi Heatmaps install licensed from to the "License/Registration" option in the main menu. Once you have entered your license code, it is recommended to restart Acrylic Wi-Fi Heatmaps for the license change to take effect.

From the License window you can:

●         View license type and expiration date.

●         Activate or deactivate your license.

●         Paste or read the license code from the license file.

You will be shown a blue confirmation message once the licensing process has been successfully completed.

On the other hand, if the licensing process could not be completed, you will be shown a red failure message indicating the reason why your install could not be licensed, and how to proceed from there on.

NOTE: Acrylic Wi-Fi Heatmaps needs to be connected to the Internet in order to validate your license code.

Acrylic Wi-Fi Heatmaps main work unit, where all site survey information is stored, is the Project. To start any wireless network analysis task, it is necessary to create a site survey project, or open an existing one to continue analyzing.

Detailed information on how to create a new site survey project for analyzing a Wi-Fi infrastructure and detect possible improvement areas is shown bellow.

Note that a site survey study can be performed periodically in order to analyze the changes in the radioelectric space affecting the wireless network performance.

3.1.1. Locations

Here are two simple examples on how to use and define locations:

1.      Example 1: Site Survey on a 3-story Building

2.      Example 2: Site Survey at a 2-campus University

3.1.2. Scans

●         Perform measurements in different times during the day or week to compare Wi-Fi activity levels. Measurements can be compared by using Layers from the Plot generation view that is shown later in this manual.

●         Compare under different conditions:

○         One measurement on Native Capture Mode, and another one on Monitor Mode.

○         One measurement on Passive Mode, and another one on Active Mode.

There are two ways to create a new site survey project in Acrylic Wi-Fi Heatmaps: 

●         Through the Project → New option in the main menu. For this option to be enabled there should be no opened projects. Projects can be close by selecting the option Project → Close in the main menu.

By default, locations represent a project’s main surveyed areas. If you want to make a certain location dependent on another location, before adding the new dependent location, you will need to select the controlling or master location from the list of added locations.

3.3.1. Assisted Calibration

1.      Locate the buildings and structures in the blueprint. Navigate the map using the zoom slider as required. If you need help in finding the location, you can use the location browser.

2.      The desired location is then shown on the map that can be rotated and scaled to adjust to the actual building. Opacity can be also adjusted to modify the blueprint transparency to make sure it overlays on the right position.

3.3.2. Manual Calibration

1.      Identify in the blueprint an area where the distance between two points is known.

2.      Select the first point.

3.      Select the second point.

4.      Indicate the distance between the two points and the length unit.

The use of blueprints is most suitable for indoor areas, where the area’s position cannot be easily established from a satellite map.

A project can be edited with the purpose of adding, modifying, and deleting the elements it contains.

NOTE: Changes made to a project cannot be reverted, so if you are unsure about the changes or for security reasons, you should make a backup copy of your project before applying any changes. To open your projects, go to Project → Projects folder.

You can add new locations, modify project information, such as the project’s name and description, client’s name, as well as add blueprints to locations.

You can modify location parameters, add a new daughter location, delete it from the project, or move it as a daughter location to another location.

NOTE: If a location is deleted, all dependent locations and measurements will also be deleted.

Adding a Blueprint to a Location

After selecting the location to which the blueprint will be added, click on the Add button. Once the blueprint has been associated with the intended location, you will need to calibrate it to start performing measurements.

If a location has been scanned, Acrylic Wi-Fi Heatmaps will not allow you to delete the associated blueprint until the measurements have been previously deleted or moved to another location.

You can modify, delete or move the performed scans to a different location.

NOTE: If any of the measurements is moved to a different location, make sure the target location has the same blueprint associated with it, or otherwise there might be some inconsistencies.

On the bottom view, once one or more scans are selected, you will see the access points detected during the site survey.

From the bottom view, you can inventory the project’s access points or delete those that are no longer needed.

NOTE: Once an element is deleted, it can no longer be recovered.

Site Survey is the default view mode when starting Acrylic Wi-Fi Heatmaps. This view mode has double functionality: it allows monitoring your site survey and, once the data has been collected, it allows you to visualize the results.

·         Blueprint View

·         Satellite View

·         3D View

4.1.1. Blueprint View

4.1.2. Satellite View

4.1.3. 3D View

1)     Wi-Fi Device:

a)   Normal Mode.

b)   Monitor Mode.

2)     Site Survey Type:

a)   Passive (default).

b)   Active.

4.2.1. Selecting the Wi-Fi Device

4.2.1.1. Native Capture Mode

4.2.1.2. Monitor Mode

4.2.1.2.1. NDIS Driver Installation

4.2.1.2.2. Channel Hopping

4.2.2. Types of Network Surveys

4.2.2.1. Passive Survey

4.2.2.2. Active Survey

●         Two wireless network cards. One of them will be set on passive capture mode, and the other one will be set on active capture mode.

●         The wireless card selected on the menu will be always used for the passive capture, so it should not be connected to any network. It will only be used to perform measurements without interacting with the wireless medium.

●         The second wireless card will should be connected to the network to be analyzed.

●         The Active Survey configuration options (Menu → Configuration → Active Survey) should be correctly configured.

●         The active capture selector in the menu should be enabled.

4.2.3. Starting a Site Survey

4.2.4. Performing Measurements

1.      Single Measurement: Useful for small measurements or to cover areas with no measurements.

2.      Continuous: Used to cover large indoor or outdoor areas with minimum effort.

3.      GPS: A GPS device is used to geoposition the measurements. Useful for outdoor scans.

4.2.4.1. Single Measurement Mode

4.2.4.2. Continuous Mode

4.2.4.3. Real-time GPS Mode

4.2.4.4. Undoing Measurements

4.2.5. Support Instrumentation During a Site Survey

4.2.5.1. Bandwidth

4.2.5.2. Latency

4.2.5.3. Access Points

4.2.5.4. Signal Strength

4.2.5.5. Access Points by Channel on 2.4GHz

4.2.5.6. Access Points by Channel on 5GHz

● Graphics: In this section, you can select and generate the different graphics and heatmaps available for each access point identified during the site surveys.

● Access Points: This section displays the location of all access points identified during the site surveys.

● Scans: This section displays the paths followed during the site survey scans.

4.3.1. Plots

4.3.1.1. Passive Capture Plots

4.3.1.1.1. RSSI

Heatmap representing RSSI or ‘Received Signal Strength Indication’ in the site survey area.

4.3.1.1.2. AP Coverage

This plot represents the access point with the best coverage for each area.

4.3.1.1.3. Channel Coverage

This plot represents the channel received with the strongest signal for each point.

4.3.1.1.4. Data Rates

This plot represents the transmission rate supported by the access points with the better coverage for each point. It is important to cover the largest area possible at the closed transmission rate to the highest supported transmission rate. This rate does not imply that the highest supported transmission rate can be archived, since there are other factors impacting data transmission efficiency, such as signal strength, noise in the radioelectrical medium, network saturation, etc. In order to accurately measure actual bandwidth values, you need to perform a site survey on Active Mode.

4.3.1.1.5. Cell Density

This heatmap represents the density of client devices connected to the selected access points. It displays the areas with the most client Wi-Fi devices, to identify those access points that need to be optimized to support a larger number of connections or those areas with high client device density where additional access points are required to prevent saturation on the existing ones.

4.3.1.1.6. Number of Access Points

This plot represents the number of access points detected in each area.

4.3.1.1.7. Retry Rate

This plot represents the retry rate detected during the traffic analysis on Passive Mode.

4.3.1.1.8. Channel Coverage

This plot represents the overlapping level of the channels used for each area. Co-/adjacent channel interferences are also included in this plot, so that these two parameters can be easily visualized.

4.3.1.1.9. Detailed Grid

This plot arranges the surveyed area in a grid, displaying gross data for each cell.

4.3.1.1.10. Signal-to-Noise Ratio

This plot displays the value for the relation between signal strength and noise in the wireless medium, also known as SNR, which is associated with the signal level a client device receives the data packets from the access point.

4.3.1.1.11. RF Spectrum

4.3.1.2. Active Capture Plots

4.3.1.2.1. Bandwidth

This plot represents the bandwidth in Kbps for each point covered by the site survey. The accuracy of this parameter varies according to the chosen method: iPerf or file download. For more information on the difference between these two methods, refer to the Active Capture section.

4.3.1.2.2. Latency

This plot represents packet latency in milliseconds, in other words, the time elapsed from a data packet is transmitted to the confirmation packet is received.

4.3.1.2.3. Packet Loss

The packet loss rate is the percentage of packets that are lost, in other words, that do not reach their destination, and that are usually retransmitted.

4.3.1.2.4. Roaming

This plot catalogs the surveyed area based on data roaming performance in relation to the connected access point.

4.3.2. Plot Generation

1. Select the type of plot to generate.

2. Select the access points.

4.3.2.1. Layers

1. Click on the Multiple Plots button.

2. Select the type of plot to generate.

3. Select the scans.

4. Select the access points.

4.3.2.2. Visualization Modes

4.3.2.2.1. Blueprint View

● The location requires an associated blueprint.

● The blueprint must be calibrated.

4.3.2.2.1.1. Saving a Plot

4.3.2.2.2. Satellite View

● The location must have an associated blueprint that has to be calibrated over the satellite image; or

● The scan has to be performed using a GPS device.

4.3.2.2.2.1. Satellite Mode Options

Clicking on the button unfolds all the available options for the Satellite view. From this panel, you can perform the following actions:

– View latitude and longitude of a view point. Hover you pointer over the areas where latitude and longitude values are wanted. The panel will immediately update this information.

– Search a desired address, city, or geographical point. Using the dialog window, you can enter the area to be geopositioned.

– Select the desired satellite image provider. Google Maps is the default satellite map provider. However, you can choose from many other providers, including Bing, OpenStreet, OpenCycle, etc. Each one of them offers different map versions, such as Map, Satellite, Hybrid, etc.

– A geopositioned map can be shown or hidden. This option is enabled by default.

4.3.2.2.2.2. Saving a Plot

4.3.2.2.3. 3D View

4.3.2.3. Plot Options

4.3.2.3.1. Color Scheme

4.3.2.3.2. Min RSSI

4.3.2.3.3. Opacity

4.3.2.3.4. Gradient Lines

4.3.2.4. Detailed Grid

4.3.2.5. Legend

4.3.3. Access Points

4.3.4. Locating an Access Point

4.3.4.1. Manual Location

4.3.4.2. Automatic Location

4.3.4.3. Remove AP Location

4.3.5. Routes

4.3.5.1. Options

Acrylic Wi-Fi Heatmaps includes a tool to analyze and evaluate Wi-Fi network quality based on predetermined parameters. This tool generates two-color graphics, categorizing the different areas in the selected location in green and red. An area is displayed in green when the quality predefined requirements are met, and in red when those requirements are not met.

These automatic controls can quickly and easily identify the wireless network weaknesses and issues.

A Wi-Fi quality assessment allows the user to visualize actual wireless infrastructure status, providing an overview of the network status based on quality parameters.

The Assessment Controls included in the Wi-Fi network quality assessment generate two-color graphics, green  to represent those areas where quality requirements are met, and red  to represent those areas where minimum quality requirements are not met. A quality control list is also generated, showing percentage of compliance for each control.

Control requirements are grouped by Profiles, being quality analysis based on network usage their main purpose. By default, Acrylic Wi-Fi Heatmaps offers two different profiles: Web Browsing and VoIP. Each one of them defines minimum requirements to guarantee browsing and VoIP support.

The steps to analyze network quality are shown below:

1.      Select the scans on a location where the quality controls are to be applied.

2.      Select the access points to which the quality controls are o be applied.

3.      Hover over the control to be applied over the blueprint or satellite map view.

4.      If necessary: Select the Wi-Fi Quality profile.

5.1.1. Location

5.1.2. Access Points

5.1.3. Quality Assessment Controls

This table shows the Wi-Fi network quality controls to be applied to the selected access points and the results obtained.

When selecting a quality control, you will see the graphic resulting from applying the control to the selected site survey areas.

The green color on the graphic indicates those areas where the minimum predefined quality requirements have been met for the selected control. On the other hand, the red color indicates that those requirements have not been met.

The following table details the content of the columns of the Control section:

The Wi-Fi network quality controls applied by Acrylic Wi-Fi Heatmaps are shown in the following table:

A Wi-Fi quality control profile establishes each control’s minimum service quality requirements for a dependable wireless network performance.

For example, the Web Browsing profile establishes minimum bandwidth values, as well as maximum latency values, and ensures a satisfactory web browsing experience for the connected users.

By default, Acrylic Wi-Fi Heatmaps provides two threshold configurations and parameters for each one of the Wi-Fi Quality controls. These parameter sets are grouped within the Profiles:

5.2.1. Default Profiles

●         Web Browsing: Standard wireless network configuration that ensures web browsing service to all wireless client devices.

●         VoIP: This is the most important wireless network configuration to guarantee the necessary service quality required for VoIP communications through the wireless network.

5.2.2. Creating and Editing Profiles

To create new profiles or edit existing ones, go to Preferences (Main Menu à Configure), Wi-Fi Quality section:

NOTE: The default profiles included in Acrylic Wi-Fi Heatmaps cannot be deleted, but their configuration parameters can be edited to adjust to the infrastructure manufacturer’s requirements.

5.3.1. RSSI Coverage

5.3.2. Simultaneous RSSI Coverage

5.3.3. Channel Overlapping

5.3.4. Co-Channel Interference

5.3.5. Latency

5.3.6. Bandwidth

5.3.7. Packet Loss

5.3.8. AccessPoint Roaming

Once the scans have been completed, detailed reports can be created to present the project’s results. The result reports can be created in three different formats, with three detail levels, depending on to whom the report is intended for.

There are different types of reports, depending on whom the report is intended for, each one with different detail levels.

Report sections and contained information are configured when selecting one of the three report types from the pull-down menu.

These are the configurations that enable or disable the final report sections.  If you need a report with more o less detail level, you can manually select or delete sections.

6.1.1. Executive

This type of report includes a summary of the site survey project results.

 It briefly explains by means of graphics and tables how the survey has been performed, which access points have been analyzed, and the results obtained after applying Wi-Fi Quality controls that indicate whether the network meets the predefined requirements.

This type of report is oriented to managerial level recipients, and they provide an overview of wireless infrastructure status.

By default, this type of report is only generated in the editable Word format (.docx).

6.1.2. Technical

This type of report is more thorough than the executive report. This report includes the information contained in the Executive report, along with more technical information that has been analyzed during the site survey, sorted by the different study parameters.

 Since this report is more thorough and includes detailed information, it is perfect for technical staff, so they can study, analyze, and justify technical elements.

 The report provides a large number of heatmaps and plots, intended to visually represent the actual wireless network status, and provide technical details and information.

 By default, this report is generated in the editable .docx format, but it can also be generated in KML/KMZ format (Keyhole Markup Language) that is used to represent geographical information, and can be opened using a GIS (Geographic Information System) tool.

6.1.3. Complete

This type of report combines the information included in Executive and Standard reports, and it also contains detailed graphics for every access point and for each one of the site survey parameters.

 This report is highly technical and offers a great number of plots for each surveyed wireless network. This is also an extensive type of report, which is useful at the time of evaluating and analyzing each access point individually.

 The generated plots included allow visualizing the represented parameters individually, to analyze each access point separately as well as the global plot.

An editable text report is provided, as well as a KML and RAW format reports with all the extended information.

Depending on the dimensions of the surveyed wireless network infrastructure and the number of locations, this type of report may have hundreds of pages.

6.2.1. Document

6.2.2. KMZ

6.2.3. RAW

To generate a report, you first need to select, among all the collected information, the access points on which the report is generated, as well as the locations and scans that will be included.

 To select this information, follow the steps below:

–          Select the locations and, from within them, the scans that will be included in the report.

–          Select the access points that will be included in the report.

While generating a report, you can also select report language, as well as the destination or output folder for the documents.

You can define the report language among all available languages.

All the generated reports (DOC, KMZ, and CSV formats) are saved to the selected output folder.

NOTE: When generating an editable format report (DOCX), the estimated number of pages of the report will be shown. This information is merely informative, although quite accurate.

In case the generated document is too large, a warning is shown so you can review the report’s configuration and the number of selected elements if necessary.

Generating documents of over 200 is not recommended, since large documents are usually harder to handle, visualize, or print out. In such a case, it is recommended to generate individual reports per network or location.

Apart from the main features that have been previously described that allow you to perform a complete site survey, Acrylic Wi-Fi Heatmaps has a series of additional features, mostly configuration options, that allow you to establish parameters to modify the software’s behavior. 

7.1.1. Main

–          Acrylic Wi-Fi Heatmaps software updates.

–          Error corrective actions.

–          Wi-Fi device chipset manufacturer (OUI) list updates.

7.1.1.1. Updates

7.1.1.2. Error Reporting

7.1.1.3. Update MAC address

7.1.2. Colors

–          Clients: This refers to the client devices associated with the access points. Both the descriptive text and the color to be displayed can be configured.

NOTE: Client devices can only be detected when the scan is performed on Monitor Mode, by using either a NDIS supported device or an Airpcap card.

–          Hidden SSID: An access point can hide the name of the network it is broadcasting. In this case, the software assigns the predefined text and color to that access point.

–          SSID exposed from a hidden AP: Through traffic inspection, Acrylic Wi-Fi Heatmaps can infer, in some cases, the name of a hidden network. In such a case, the name of the network is shown instead of “Hidden SSID” in the predefined color.

–          WPS: You can define the color for the WPS configuration for an access point.

–          Channel: You can define the color for the frequency band the channel is operating on (2.4Ghz or 5Ghz).

7.1.3. Visualization

7.1.3.1. Visualization Controls

7.1.3.2. Station Visibility

7.1.3.3. Hints

7.1.4. Plots

7.1.4.1. Visual Propagation

7.1.4.2. Plot Generation

7.1.4.3. Cell Density Plot

7.1.4.4. Locate Access Point

7.1.5. Reports

7.1.6. Active Survey

7.1.7. Spectrum

7.1.8. Wi-Fi Quality

7.1.9. Misc

7.1.9.1. Inventory

7.1.9.2. Main Options

The available options are shown below:

Acrylic Wi-Fi and Tarlogic are trade names and service names by Tarlogic Security S.L., including its respective logos, are registered in the European Patent Office (OEP), and may be registered in other countries’ patent and trade name offices.

All other trade names are exclusive property of their respective owners.