- metal structures and their foundations calculation in accordance with Eurocode 3 requirements including steel tension, axis deviation and twisting due to (added) equipment weight, wind load, sun radiation etc.

- BIM modelling for sites that allows to easily manage the infrastructure after deployment and take into account surrounding conditions (georeferencing) to ensure a given level of signal quality.

- architectural design and implementing of custom types of poles and towers (of any shape) that fit into urban/rural landscape and integrate with existing infrastructure, e.g. power lines, electric vehicle contact network.

- 'Know-how' methods and approaches to calculations. Good ones with nodes and mechanisms calculated in detail bring long-lasting results. But this can only be understood after a few years, that's why we are proud to provide such solutions.

- inspection, field tests and calculations of coverage and capacity, wind load, equipment weight load, tower weight load
- installation, start-up, commissioning and broadcasting of communication equipment according to base station configuration and antennas specifications along with power supplies, batteries and other equipment needed
- power supply, architectural drawings (metal structures (support body)), foundation calculations, power lines and fiber-optic links design to provide turnkey solution to the customer
- coordination of the project with the operator, the electromagnetic field supervision service, with the infrastructure company & landlords, with owners of the engineering networks that will pass next to the object
- cell site construction
- long-term maintenance of implemented solutions.

- MNO typically operates thousands of base stations, each base station possesses from 1 to 20 KWh of backup power battery capacity. These batteries may never be used or operates 1-5 cycles and is replaced every 2-3 years. This capacity can be aggregated and turned into a virtual storage plant to save power cost and provide additional value streams. The batteries can be cycled even without reducing the useful life of the batteries.
- Allocate battery capacity between virtual storage and backup, a real-time allocation model based on data collected from sensors, weather forecasts, grid failure statistics, traffic data etc. which is used to forecast the probability and duration of a power failure and the cost of cycling the battery and a lost traffic in case of a prolonged blackout.
- Storage capacity aggregation. Simultaneous control over hundreds of base station batteries
- Dispatch. An optimization algorithm that dispatches the capacity to achieve maximum savings and/or revenues

We provide several types of controllers and devices to remotely monitor site electrical equipment:
- The GSM controller polls electricity meters, phase controller availability voltage, controller for measuring leakage current, controls the relay unit via the bus RS-485-1. Expansion units can also be interrogated via this bus. External systems are polled via the second RS-485-2 bus.
- The controller ensures the automatic functioning of the reinforced concrete underground bunker. Carries out safety functions, climate control and lighting the inner space of the bunker. The controller allows controlling relay units via MODBUS bus and performing polling temperature, gas and humidity sensors, as well as polling electric meters.
- Control of the lights of the mast skylight.
- The temperature and humidity measuring module is intended for use in automated control systems to control temperature and humidity, with with Modbus RTU interface.
- module for organizing a backup power supply with a rated voltage of 24V.
- Voltage monitoring module ELM-UCTRL is designed for monitoring the presence of voltage in switchboard equipment & control of dry contacts inputs.
- The leakage current monitoring module ELM-DCM is designed to monitor the leakage current in electrical circuits connected after the device, as well as to control the presence voltage at the device terminals. Recommended for installation at the entrance to the panel in systems with monitoring of electrical equipment.

Monitoring system allows to significantly reduce idle visits of repair teams for recovery work related to someone else's equipment, reduce the time of recovery work due to the preparedness of operational teams for a specific accident, planning routes and choosing the optimal sequence of recovery work. For the management personnel, the system allows making an instant operational snapshot of the situation for all installed equipment, assessing the work of repair teams. The monitoring system consists of a hardware part, a server part and an operator's workstation.

The hardware part is located next to the towers and consists of modules that expand the functionality of the system - mentioned in previous tab 'Automatic control & performance monitoring'. The system can be configured for different tasks.

The server part is based on the Microsoft Azure cloud service, which allows for an almost endless increase in computing power without the need to replace server hardware, initially includes redundancy systems for data transmission channels, power supply, database replication, transparent switching to backup servers. Also, this service provides 24/7 equipment maintenance and takes care of all security tasks. The operator's workplace is implemented using WEB technologies, which allows you to have access to operational information about the entire infrastructure from anywhere.

- give suggestions for improving and maintaining the coverage footprint under the constraint of external limitations

- identify and escalate significant changes in coverage footprint as a result of site design changes

- defend a technical point of view to reach agreements with landlords and existing infrastructure owners, provide necessary drawings and calculations for this purposes

- team strengthening for large-scale projects or perform the role of general designer for roll-out projects, involving several design organizations

- construction supervision for developed design projects

- conducting technical negotiations on behalf of the company

Wind load is one of the factors allowing maneuvering the placement of equipment on the tower. Since it can be less in specific area tower could bear more equipment and gain more profit. However, survey for determining REAL wind load and steel tension, axis deviation and twisting is expensive.

- our solution is 100 km range drone that collects appropriate for calculations data using anemometer, inclinometer and tension sensor onboard. It sticks to the tower, collects data itself and flies away, it also measures cell signal strength.

- laser scanning allows us to create BIM model of your tower for you to exactly know what is on it. And 24/7 telemetry account access option allows to collect big data to evaluate real tower load capacity or predict tower overload

With the desire to have more tenants on one tower and the resulting necessity for base station placement, adding new antennas or even adding new sections to the tower comes the requirement to ensure that new tower/equipment weight load won't cause radio relay antenna axis deviation or unacceptable steel tension.

– tower strength calculation in different formulations of the problem and different hypotheses is what we can be helpful with. Providing digital, mathematical and physical model based on audit information provided.

Creation of an integrated power supply system for MNOs' equipment: providing power supply cabinet and backup 48V with remote management, single for all tenants, that provides:
- freeing up space on the pole by minimizing the number of (power) cabinets (in some cases up to 9 times)
- power grid reserve creation: it makes possible to supply more power without changing the wires
- allocation of power to operators based on real consumption: currently power allocated to operators is "by default 5 kW", an increase leads to additional costs
- switching to revenue share accounting and tariff maneuvering as next steps

- in case there is not enough space on the tower, we can arrange it underground, increase the capacity of overloaded towers by replacing the foundation with another one with the possibility of placing additional equipment to the underground bunker

- since edge computing as a service is starting to add value to the customers and tenants of tower company because of fast data processing near the consumer of information, and we already have experience in placing shelters underground, you may be interested in moving your servers and other computing hardware just under your cell site foundation.

To ensure only the right people have access to the right parts of each site we at the moment produce access control units that solve site access issues using:
- control of the electromagnetic lock opener
- indication of the lock status
- reception of the code sequence from the keypad
- lock control from the internal opening button
- light and sound indication of the correctness of the entered state
- remote monitoring of the status and control of the ACS through the wired RS485 interface using the MODBUS protocol

However what's key for us is ensuring the customer maintain an accurate asset inventory, and track the relationship between the site visit and what's changed as a result of that visit. Smart site access is not just about safety and duty of care, it's also about avoiding undue stress to landlord relationships, and that means having an accurate digital representation of what is on a site to minimise site visits - that is what we are working on at the moment.

- cell sites integrating with existing infrastructure

- Embedding BS in a public transport stop, bench, TV tower, water tower, a lightning rod, a bell tower, drones, balloons, roof tops

- architectural design and implementing of custom types of poles and towers (of any shape) that fit into urban/rural landscape and integrate with existing infrastructure, e.g. power lines, electric vehicle contact network.

- Undeground shelters for EDGE and FOG computing
- Decreasing architectural noise
- 5G and Radiophobia challange
- Underpole shelters
- Small Cell and ADAS
- Smartpoles
- Undeground shelters for EDGE and FOG computing

Distributed antenna systems - DAS & ADAS - solutions allow landlords to invest in developing indoor (within separate building) & outdoor (within the whole district) wireless infrastructure to later lease it for a long term to multiple mobile operators.

DAS implies placing communication equipment in the building and distributing antennas across floors. Solution is efficient for shopping centers, hospitals, stadiums. Less common in residential buildings. Using ADAS where antennas with integrated radio units are spaced and optically connected to the base stationis is more flexible, because many antennas can be spread out in optics and there is no signal loss at long distances.

The DAS/ADAS system grant various monetization schemes. Considering that subscribers are asymmetrically distributed in technologies and standards, you need to be flexible distribute bandwidth by operators and standards, and receive payment not only for placement, but also for the resource allocated in the system. It is possible to foresee the possibility for the operator to pay according to the Pay-as-You-Grow model. Payment model: fix for placement and resource in (A)DAS.