International experience and track record. Able to serve several regions at once since 1992.

The only provider integrating the entire chain on radio base station projects.
The first phase of the rollout cycle, site acquisition: we find the locations that meet the coverage target, negotiate the lease with the owner and handle the full permitting process until the site is ready to build. It is the stage that delays a rollout most when it is underestimated, and the one we have been solving since 1992.
Geospatial analysis with GIS technology to find candidate sites that meet the carrier's coverage and capacity target, assessing available height, line of sight and access.
CloudRF · GIS
Field visit with a photographic survey, checking vehicle access, availability of an electrical service entrance, space for the foundation and ground conditions.
Lease and colocation agreements with owners of land and rooftops, including rights of way for the electrical service entrance and the fiber.
Municipal authorities (zoning variables and building permit), INAC for height restrictions, the Ministry of Ecosocialism, municipal councils and other regulators.
Each site is handed over with its full file: contract, permits, survey, coordinates and handover certificate, ready for the construction crew to move in.
Design and construction of all the infrastructure that supports and powers a radio base station: from the soil survey and the tower foundation to the grounding system and the distribution switchboards. Multidisciplinary works (civil, mechanical and electrical) under a single contract, without splitting responsibility among several contractors.
Standard Penetration Test (SPT) and soil classification to determine the bearing capacity. That figure sets the bearing depth and sizes the footing. It covers excavation, compaction, formwork, reinforcement and concrete pouring. This is the item that literally holds up everything else: an undersized foundation compromises the entire tower.
SPT · COVENIN 1756 · ACI 318
Low or medium voltage service entrance, DC and AC power systems, distribution switchboards, metering equipment and protection coordinated to the National Electrical Code.
Design and installation of ground grids and lightning protection, with soil resistivity measurement and verification of ground resistance to IEEE 80/81.
IEEE 80 · IEC 62305
Full delivery under one contract: self-supporting and guyed structures, perimeter fencing, equipment shelter, raceways and mechanical assembly.
The infrastructure is handed over already instrumented: VenIoT reports remotely on power status, shelter temperature, door opening and intrusion at the site.
Installation, configuration and commissioning of the radio frequency and transmission systems that put a site on air: antenna mounting and alignment, microwave links with line-of-sight calculation, and fiber optic transport. We work both for carriers and for equipment manufacturers.
Microwave link deployment with Line of Sight calculation and Fresnel zone clearance over the terrain profile, antenna mounting and fine alignment, and commissioning with received power measurement.
PathLoss · Open Tower
Dark Fiber, Fiber to the Tower (FTTT) and FTTx. ODF (Optical Distribution Frame) installation, fusion splicing and certification of the segment.
Installation of sector antennas, RRUs (Remote Radio Units) and transmission lines, controlling azimuth, mechanical and electrical tilt, and connector sealing.
Medium and high voltage materials: cables, transformers and fittings. Omsaica is a partner of Grupo De Biase, which shortens procurement lead times and improves pricing.
Once commissioning is complete the site is left under monitoring: VenIoT watches power, temperature and intrusion, and escalates the alarm before the operator notices any degradation.
We design, duct, install, splice and certify optical fiber networks for carriers, housing developments and industry, under an EPC (Engineering, Procurement and Construction) contract. One party responsible, from the route survey to the per-fiber test protocol.

ADSS (All-Dielectric Self-Supporting) and figure-8 cables on our own poles or those of CORPOELEC or CANTV, with span, sag and stringing tension calculations. OPGW (Optical Ground Wire) on medium and high voltage lines for power utilities.
Ducting with HDPE (ASTM F2160) or PVC conduit, triple duct and microducts, with precast manholes and handholes. Cable installed by jetting or pulling, and road crossings by horizontal directional drilling.
Field survey, GIS/KMZ georeferencing, verification of poles and interferences, ducting report and optical link budget.
GIS · CloudRF
Arc fusion splicing, bidirectional OTDR (Optical Time-Domain Reflectometer) testing at 1310/1550 nm and insertion loss measurement. Per-fiber protocol and as-built drawings.
Bidirectional OTDR
Fiber to the tower (FTTT) backhaul for 4G/5G, FTTH/FTTx networks in housing developments, private industrial and oil and gas networks, and intercity backbone links.
Once the network is in place, VenIoT monitors power, cabinet opening, temperature and intrusion at the nodes and splice manholes remotely.

Our own Internet of Things (IoT) platform to monitor and operate critical infrastructure remotely: power, climate, security and processes. It began as a problem of our own — knowing what was happening at hundreds of scattered radio base stations without sending someone — and today it is a product running at telecommunications sites, industrial plants and oil fields.
See VenIoT Demo →Measurement of electrical variables (voltage, current, frequency, kWh), genset and battery bank status, shelter temperature and air conditioning operation.
Cabinet and door opening, intrusion and smoke detection, with a record of who entered and when. It cuts copper and battery theft, the biggest loss at remote sites.
It does more than watch: it lets you switch equipment on, off and reprogram it remotely (genset start, load transfer, equipment reset), with confirmation that the command was carried out.
The link is chosen to suit the site: LoRa for long range and low power in open field, WiFi 6 inside the plant, 4G/5G where there is coverage, and satellite where there is none.
LoRaWAN · MQTT · Modbus
The node decides on site according to the rules loaded into it and syncs when the link comes back. In Venezuela, where both connectivity and power are intermittent, that autonomy is the difference between a system that works and one that does not.
Self-supporting towers built from scratch on open land. Heights from 30 to 80 metres.
Antennas and equipment on existing rooftops. A fast-deployment urban solution.
DAS systems for indoor coverage in airports, shopping centres and corporate buildings.
Low-power, small-coverage cells that densify the network where the macrocell can no longer cope: shopping streets, stadiums and city centres.
An outdoor Distributed Antenna System: one signal source feeds several remote antennas spread across the area to be covered.
The only provider integrating the whole chain: site hunting, engineering, construction, RF deployment and maintenance.
Detailed engineering for Tenancy Growth, construction supervision and preventive maintenance.
Engineering, construction and deployment of an indoor 3G and 4G network for mobile carriers.
End-to-end provider for radio base station construction and maintenance.














From site hunting to commissioning. A single provider for the whole cycle.