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What the service is used for

Network planning and DTM
2D, 2.5D, 3D and 3D+ digital terrain models with clutter data, DEM and DTM for radio-network coverage calculation.
Base station sites
Site selection for cellular antennas, radio relay links, radio ports, fibre nodes and repeaters.
Cable routes and radio relay links
Cable routing considering streets, railways and underground utilities; surface profiles for radio relay links.
Radio-wave modelling
Optical visibility, radio-wave propagation, electromagnetic field measurements (GIS+GPS).
Infrastructure monitoring
Equipment condition, weather impact on communication quality, networks in extreme conditions.
Need a network assessment?
Describe the city, region or route. A specialist will select the RS archive and DTM type.

Solutions and materials for telecom networks

2D–3D digital terrain models, clutter and DEM for radio-network coverage calculation and base station siting.

01

DTM for radio-network planning

Digital terrain models in 2D, 2.5D, 3D and 3D+ with clutter data, DEM and DTM for coverage calculation and base-station siting.
Digital terrain models provide the cartographic basis for telecom-network planning, radio-network coverage calculation and base-station siting.
What you get
  • 2D / 2.5D / 3D / 3D+ layers
  • clutter data, DEM and DTM
  • vector base for planning software
The layer composition and export format are fixed in the terms of reference.
02

Regional 2D model

Digital elevation model, vector and clutter models for spatial analysis of existing networks and for planning.
For regional models we use up-to-date RS data, orthophotomaps, a digital elevation model and vector data. The source-material set and detail are defined by the territory and the terms of reference.
What you get
  • digital elevation model
  • vector model
  • height and clutter models
  • technical report
Survey resolution and the scale of source maps are set in the ToR; in the Tatarstan example — up to 10 m.
03

Urban model (2D GM)

Detailed network planning in dense built-up areas: infrastructure objects that may obstruct radio-wave propagation.
For an urban DTM we process satellite imagery, refine geometry using RPC, tie points and ground control points, and build vector, height and clutter models of urban infrastructure.
What you get
  • DTM for Asset Enterprise (version 9.0 or higher)
  • adaptation for the “ONEGA RPLS” hardware-software suite
  • vector base in MapInfo GIS
  • DTM passport and technical report
The completeness of materials must match the terms of reference.
04

EMF access calculation

Height matrices and radio-relay path calculation with specified transmitter and receiver characteristics.
For radio-relay path and coverage-zone calculation we build height matrices taking transmitter and receiver characteristics into account. If required, we refine georeferencing from UAV data.
What you get
  • height matrices of 60 and 30 m
  • calculation of EMF paths and coverage zones
  • if required — geodetic referencing with UAV
Referencing accuracy depends on the terrain and the scope of work; the figures are from a source example.
05

Network coverage assessment

Tower coordinates, a digital elevation map and analysis of mobile-network coverage shadow zones.
To assess coverage we analyse base-station locations on a digital elevation model, identify shadow zones and calculate signal-propagation conditions. Data are selected according to the territory and the required detail.
What you get
  • tower placement on a digital elevation map
  • buffer analysis of coverage and shadow zones
  • materials for signal-attenuation calculation
Methods and sensors depend on the territory and the ToR; the examples are from the source, not a universal order composition.

How the work goes

1
You send the task and the territory
You specify the objective: coverage, BS sites, a cable route or radio relay link; city/region outline or a shapefile.
2
We select RS data and DEM
We assess the satellite archive, the need for a new survey, aerial photography or UAV, and ready DEM.
3
Orthophotomap and vector base
We prepare orthoimagery, vector layers of infrastructure and land use around the network.
4
DTM, clutter and heights
We produce 2D/2.5D/3D, clutter data, DHM/DTM and obstacle attributes for radio-wave calculation.
5
Export for planning software
We deliver layers in Mentum Planet, AIRCOM ASSET, ATOLL, NETPLAN, Mapinfo formats — per ToR.
Ready to discuss the network?
Send the territory outline and the work objective. We will prepare the RS data composition and a preliminary estimate.

Cost and timeline

The cost and timeline of RS work for a telecom network depend on the area, terrain-model type and the set of layers.
  • area and territory type: city, suburb or region
  • product type: 2D, 2.5D, 3D, 3D+, clutter data, DEM, DTM and a vector base
  • whether archive purchase or a new survey is needed, satellite / aerial photography / UAV
  • compatibility with radio-network planning software (Mentum Planet, AIRCOM ASSET, ATOLL, NETPLAN, Mapinfo, etc.)

The cost of the work is calculated individually

Timelines depend on the area, model type and the set of layers

We will agree the final estimate after the territory and the planning software are described

What is needed for a quote

To agree the ToR for DTM and RS data for a telecom network, provide:
  • task: network planning, base-station site selection, a cable or radio-relay route, coverage assessment
  • area of interest — coordinates, a city/region outline or a shapefile
  • required model type: 2D, 2.5D, 3D, clutter, DEM/DTM
  • whether you have your own images and maps or need archival / new satellite, aerial or UAV survey
  • radio-network planning software, if already selected (Mentum Planet, AIRCOM ASSET, ATOLL, NETPLAN, Mapinfo)
  • requirements for height accuracy, map scale and coordinate system, if they are known

If model parameters have not been defined yet, provide the territory and describe the task — we will select an archive or a new survey, the DTM type and the set of output materials.

Why Innoter

Prompt access to archives
Suitable archive imagery can be obtained faster when the required area and date are already available from operators.
No aviation clearances
A new satellite survey does not require the flight clearances typical of aerial surveys.
Large and remote areas
A single satellite pass covers large areas and makes it possible to work in hard-to-reach regions.
Direct agreements with operators
Distribution agreements help select archive imagery and order new surveys from different providers.
Software and server infrastructure
Modern software and computing capacity for quality control and processing of large data volumes.
Experienced specialist team
Years of experience on complex projects and specialists in cartography, photogrammetry and remote sensing.

RS data, DTM and radio-network calculation

The composition depends on the model level (region, city), planning software and height and clutter accuracy requirements.
1

Geographic information systems and geospatial data are used for the design, construction, modernisation and operation of telecommunications networks.

The global telecom market was valued at 2 billion dollars in 2022. The forecast for 2026 is 3,818.36 billion dollars with annual growth of 7.4%. According to the Global Competitiveness Index 2019, Russia ranked 38th out of 141 countries.

Key effects from the main text: CAPEX and OPEX optimisation and ARPU growth through communication quality.

2

Geospatial technologies in telecom are used for planning and mapping of network infrastructure, spatial analysis and work with large volumes of geodata.

Tasks include spatial analysis of existing networks, modelling in planning, site selection for cellular antennas, radio-relay lines, radio ports, fibre nodes and repeaters, cable-laying route, optical visibility, radio-wave propagation modelling, electromagnetic field measurements (GIS+GPS), network construction in extreme conditions and resource management on a GIS platform.

3

Thematic mapping products fully or partially use remote sensing. Visual interpretation, auxiliary cartographic layers and automated feature extraction are used to increase accuracy.

The scope of work includes acquisition of RS data, procurement and generation of DEM, 3D models for signal attenuation calculation, vegetation cover and land-use databases around the network, object-oriented or pixel-based classification, change detection, quality control.

Key service: DTM 2D, 2.5D, 3D, 3D+, clutter data, DEM, DTM for operators.

4

Remote network planning with antenna system georeferencing without site visits; a generalised view of the network on aerospace images; an RS archive; new satellite imagery without approvals from local authorities; satellite survey without going into the field, unlike aerial photography and UAVs.

Mapping scale is selected depending on the data source and the required detail. Different levels of detail and accuracy are applied for satellite and UAV imagery.

5

Parameters of specific projects: regional 2D model of Tatarstan — satellite imagery with resolution up to 10 m; SPOT-5 HRVIR — better than 8 metres; height matrices of 60 and 30 metres; subscriber georeferencing on a plain up to 15 metres, worst case up to 30 metres; UAV geodesy up to 3 metres; antenna mounting height in the electromagnetic access example — 20 metres, 6 nodes with line of sight.

5G models in the example are compatible with Mentum Planet and can be delivered in AIRCOM ASSET, ATOLL FORSK, NETPLAN, Mapinfo formats. Urban model of Samara: Asset Enterprise version no lower than 9.0, PAC «ONEGA RPLS», GIS «MapInfo». UTM projection, WGS-84 ellipsoid, Baltic Height System. RPC, planimetric-height control points, LiDAR Neon, MAXAR, ENVI.

6

Extended building attributes in the 5G example: structure and floor material, number of residents, entrances and premises, building area, estimated number of people by day and night. Vegetation is split by height tiers.

Application examples include creating DTM for 5G networks, regional and urban models, radio-relay path calculation and mobile network coverage assessment. DTM for 5G networks from very-high-resolution stereo pairs and digital aerial photography; regional 2D model of the Republic of Tatarstan; urban model GM2 Samara; electromagnetic access calculation for Lesosibirskaya SPP; coverage assessment in Osogbo (Nigeria), MTN network — 23 towers; mapping of US telecom infrastructure and attenuation calculations for 4G–5G towers.

7

Modern telecommunications networks are developing with the use of 5G, IoT, cloud technologies, network virtualisation, SDN and artificial intelligence.

For RS this affects the model composition: detail of obstacles in the city, industrial facilities, mountains and water, equipment monitoring and a forecast of weather impact on communication quality.

Frequently asked questions

Answers to key questions about service parameters, timelines, deliverable formats and workflow. If you did not find what you need — contact us and we will help.

The telecommunications industry (or simply telecommunications) is a sector of the economy that deals with the transmission of information over a distance using various technologies, such as radio, television, the Internet, mobile communications, cellular communications and others.

The telecommunications industry provides the ability to communicate and exchange information between people and organisations, and also provides the transmission of data, faxes, video conferences, online broadcasts, television programmes and much more. This industry is of strategic importance for various sectors of the economy, such as business, science, medicine, education, public administration, etc.

The telecommunications industry market continues to grow and develop, especially in light of the rapid expansion of the Internet economy. Every year new companies appear offering new products and services, and demand for faster and more reliable access to the Internet and digital technologies is also increasing.

In addition, modern technologies and changing consumer needs are leading to growth in investment in the development of the telecommunications industry, including in new technologies such as 5G, which promise higher information transmission speeds and new opportunities in the Internet of Things (IoT), as well as the introduction of new technologies such as artificial intelligence (AI) and others.

As a result, the telecommunications industry remains an important factor in the economy, as it plays a key role in providing connectivity and the transmission of information between companies and individual users, as well as in providing access to the Internet and digital technologies needed for successful functioning in the modern world.

The telecommunications industry in Russia is one of the most dynamic and rapidly developing sectors of the economy. According to statistical research, the total volume of the Russian telecommunications services market continues to grow year after year, and has grown substantially over the past several years.

There are large operators on the Russian telecommunications market, such as MTS, Beeline, MegaFon and Rostelecom, as well as many other companies providing mobile and fixed-line communications, Internet, television and other services.

The Russian telecommunications industry is also actively developing in the area of new technologies such as 5G, IoT, artificial intelligence and blockchain. In addition, government programmes are aimed at increasing the accessibility of communications services and expanding coverage of the country's territory.

The telecommunications industry is of great importance for the Russian economy, as it is a key factor in the development of the digital economy and the digitalisation of other sectors of the economy. Therefore, government policy is aimed at creating a favourable regulatory and investment climate for the development of the telecommunications industry in Russia.

Earth remote sensing is a powerful tool for obtaining information about our planet that can bring enormous benefit to companies in the telecommunications industry. Remote sensing tools such as satellites, GPS and GIS can give companies access to a large amount of information that can be used to optimise and improve their services and business processes.

For example, the use of remote sensing can help telecommunications companies improve the quality of their services and speed up their response to network failures. By analysing information on weather conditions and climate, companies can forecast possible problems and respond to them in advance, improving the quality of customer service.

Also, with the help of remote sensing tools, companies can better understand the behaviour and needs of their customers, which can help them create individual services and offers, as well as optimise marketing campaigns. For example, companies can use GIS to analyse geodata and determine the location of their customers, which will help them place their advertisements more effectively and offer the most suitable services for each customer.

Some examples of applying Earth remote sensing in the telecommunications industry:

  1. Network planning: it is possible to determine the optimal location of base stations and transmitting antennas, taking into account such factors as terrain topography, population density and the location of competitors. This makes it possible to improve signal quality and provide better coverage for customers.

  2. Network monitoring: they can be used to monitor condition and performance, which allows operators to respond quickly to problems and improve the quality of customer service.

  3. Competitor analysis: satellite images and maps can be used to analyse competitors and their activities, which allows operators to optimise their operations and improve competitiveness.

  4. Weather forecasting: it is possible to forecast the weather and its impact on communications quality. For example, in the event of an approaching hurricane or snowstorm, operators can prepare for possible failures and take measures to minimise their impact.

  5. Customer behaviour analysis: they can be used to analyse customer behaviour and determine their needs. For example, using data on customer location and time spent in certain places, operators can determine which services are most popular in certain areas and create more individual services for each customer.

Thus, the use of remote sensing tools can help telecommunications companies increase the efficiency of their work, improve the quality of customer service and create individual services and offers, which will allow them to stand out on the market and attract more potential customers.

New technologies are constantly appearing on the telecommunications market that help improve the quality of communications and expand communication capabilities. Some of the modern technologies on the telecom market include:

  1. 5G - the fifth generation of mobile networks, which provides high transmission speed, reduced latency and support for a large number of devices on a single network.

  2. The Internet of Things (IoT) is a technology that allows various devices to connect to the Internet and exchange data with one another.

  3. Cloud technologies - make it possible to store and process large volumes of information remotely, which simplifies access and reduces the cost of maintaining servers.

  4. Network virtualisation is a technology that makes it possible to create, manage and migrate them to other devices.

  5. Artificial intelligence (AI) is a technology used to automate processes, process data and provide personalised services.

The USA can be considered the first country on the telecommunications market. Already at the beginning of the 20th century, the first telephone networks were created in the USA, and in the 1960s the first packet-switched data network, ARPANET, was created there, which is considered the predecessor of the Internet.

In addition, the USA is also one of the leaders in the development of mobile networks, smartphones and other technologies. The headquarters of many of the largest telecommunications companies, such as AT&T, Verizon, T-Mobile and others, are located here.

However, today there are many countries on the telecom market that are actively developing and occupying leading positions, such as China, Japan, South Korea and the European Union.

Russia occupies an important place on the telecommunications market. According to the Global Competitiveness Index 2019 report, Russia ranked 38th among 141 countries of the world in terms of the development of the telecommunications industry.

There are several large telecommunications companies in Russia, such as Rostelecom, MegaFon, Beeline and MTS, which provide mobile and fixed-line communications, Internet provider services, digital television services, etc.

New technologies such as 5G, the Internet of Things (IoT), artificial intelligence and others are also being actively developed in Russia. In addition, there are many Russian start-ups and young companies that are developing innovative products and services in the field of telecommunications.

The COVID-19 pandemic led to a significant increase in demand for telecommunications services, such as mobile communications, the Internet, video conferencing, streaming and others. Thus, the telecommunications industry began to play an even more important role in people's everyday lives and in the economy as a whole.

At the same time, the pandemic also had a negative impact on some segments of the telecommunications market, for example on the market for smartphones and other electronic devices, which became less accessible to consumers due to production restrictions and declining incomes.

Overall, the telecommunications industry continues to develop and innovate in order to meet the changing needs and demands of the market under pandemic conditions. Companies are currently investing in the development of 5G, expanding mobile and Internet coverage, and developing new technologies such as artificial intelligence, cloud computing and the Internet of Things.

There are many large and active players on the telecommunications market, some of which are listed below:

  1. Huawei Technologies Co., Ltd. is a Chinese telecommunications company and one of the largest manufacturers of communications network equipment, such as 5G.

  2. Samsung Electronics Co., Ltd. is a South Korean technology company, a manufacturer of smartphones and other electronic devices.

  3. AT&T Inc. is an American telecommunications company that provides mobile communications, broadband Internet access, television and other services.

  4. Verizon Communications Inc. is an American telecommunications company and one of the largest service providers in the USA, including mobile communications, the Internet and television.

  5. Deutsche Telekom AG is a German telecommunications company that provides services in many countries around the world.

  6. China Mobile Communications Corporation is a Chinese telecommunications company and the world's largest operator by number of connections.

  7. Vodafone Group Plc is a British telecommunications company that provides services in many countries around the world.

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