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directions Del Mar Inc.

Open the lists and read more about each direction. The production of assembly equipment is an important sector of industry focused on the creation of high-quality and precise mechanisms that ensure the efficient execution of construction and production work

Gas & Oil

  • INSTALLATION OF PRODUCTION EQUIPMENT

    The assembly equipment business is an important sector of the industry, focused on creating high quality and precise machinery that enables efficient construction and production work. Comprising a wide range of machinery, from lifting devices to special assembly tools, it is responsible for optimizing work processes in a wide variety of industries, including construction, energy, transport and mechanical engineering.

  • FIELD DEVELOPMENT

    Every year, mining becomes more and more high-tech: automated systems are used to monitor and control processes, as well as robotic devices to perform tasks in extreme environments such as underwater or deep mines. Importantly, with the development of environmentally friendly technologies such as carbon dioxide capture and more efficient redistribution of resources, the industry is striving to minimize its impact on nature.

  • REFINING AND SALE OF PETROLEUM PRODUCTS

    It is important to note that this sector is closely linked to global economic and political processes, as oil is not only an important energy resource, but also an object of trade on international markets. Modern technologies and infrastructure, such as smart monitoring and automation systems at oil terminals and tankers, make the process of oil transportation and sale more efficient and safer, minimizing the risks of spills and other environmental impacts.

Fund distribution diagram:

  • $

    At the beginning of operation

  • $ M

    in 2024

Key factors of directions

  • Geological Exploration and Reserve Assessment

    Before beginning oil extraction, it is essential to determine the location of deposits and their characteristics. This process involves geological exploration, which includes analyzing the structure of the Earth’s crust, identifying promising areas, and conducting a detailed study of geological formations. The primary method for locating oil reserves is seismic surveying, in which artificial seismic waves are sent into the ground, and their reflections are recorded by specialized equipment. This technique helps map underground structures and identify potential hydrocarbon reservoirs. Once promising zones have been detected, exploratory drilling is conducted. During this phase, rock samples—known as cores—are extracted and analyzed to determine the presence of hydrocarbons. Additionally, laboratory studies are carried out to assess the composition of the oil, the density of rock formations, and the presence of water. Based on these data, estimated oil reserves are calculated, and the economic feasibility of developing the field is evaluated. If the deposit is deemed profitable, preparations begin for full-scale extraction.

  • Oil Well Drilling

    Drilling is a critical stage in oil production, allowing access to underground reservoirs. Different drilling techniques are used depending on the geological conditions and the location of the deposit. Vertical drilling is employed for simple reservoirs with direct access to oil-bearing layers. Directional drilling is used when extracting oil from hard-to-reach areas, such as beneath water bodies or urban zones. Horizontal drilling increases the contact area between the well and the oil-bearing formation, improving extraction efficiency. The drilling process begins with the installation of a drilling rig. The well is then gradually deepened using specialized drilling fluids that prevent wellbore collapse and cool the drilling equipment. As the well progresses, casing pipes are installed to reinforce the well walls and prevent water or gas intrusion. Once the drilling reaches the oil-bearing formation, perforation is carried out, allowing oil to flow into the wellbore. Afterward, the well is equipped with the necessary systems and mechanisms for lifting oil to the surface, such as pumps or gas-lift technology.

  • Oil Transportation and Storage

    Once extracted, crude oil must be transported to refineries and consumers. The main transportation methods include pipelines, railway tank cars, marine tankers, and road transport. Pipelines are the most common mode of transport due to their efficiency and relatively low operating costs. However, in remote or challenging environments, such as the Arctic or the jungles of South America, alternative transport methods are required, including helicopters and specialized trucks. Before transportation, crude oil undergoes primary treatment to remove water, gases, and mechanical impurities. In some cases, particularly when dealing with heavy hydrocarbons, oil needs to be heated to reduce its viscosity, ensuring a smoother flow through pipelines. Proper storage is also crucial, requiring specially designed tanks that prevent leaks, contamination, and fire hazards. Safe and efficient oil transportation and storage are essential for maintaining supply chains and minimizing environmental risks.

Road Repair

  • ROAD BUILDING

    Modern technologies such as laser scanning and 3D modeling not only allow us to see the future road before construction begins, but also to predict its durability, load distribution and even the potential for future modernization. When paving a road surface, materials and methods are used to increase its durability and resistance to wear and tear. For example, the use of asphalt concrete with polymer additives increases the road's resistance to temperature fluctuations, and new types of concrete can withstand enormous loads.

  • BRIDGES AND RAILWAYS

    Modern bridges and railroads are built with a focus on sustainability and harmony with the environment. The use of energy-saving technologies and renewable energy sources, as well as systems for monitoring the condition of facilities, helps minimize the impact on nature and makes the infrastructure durable. The construction of bridges and railroads is the work of thousands of specialists, which combines engineering excellence, innovation and responsibility to society. Each such facility is not just a part of infrastructure, but the result of many years of effort, a symbol of progress and a reliable link connecting people and cities.

  • PIPELINES AND SEWERS

    Designing sewer and piping systems is a complex process that requires in-depth engineering knowledge and precision. Each network is designed to meet the unique characteristics of the site, climate and planned load. Modern pipelines are made from strong and durable materials such as polymers, composites and specialty steel that can withstand corrosion, pressure and temperature fluctuations. This is particularly important as such systems are expected to last for decades, ensuring reliable operation without interruption.

Fund distribution diagram:

  • $

    At the beginning of operation

  • $ M

    in 2024

Key factors of directions

  • REGULAR ROAD REPAIRS

    Modern roads are embedded with sensors and intelligent systems that monitor traffic, weather conditions and pavement conditions in real time. This data allows traffic to be regulated quickly, maximizing safety and smooth traffic flow. Monitoring systems react instantly to changes such as rain or snow to alert drivers to challenging conditions and reduce the risk of accidents.

  • BRIDGES AND RAILWAYS

    Bridges and railroads today are equipped with intelligent sensors that monitor load, vibration, weather conditions and pavement condition in real time. These systems react instantly to changes and warn of wear and tear or the need for repairs. For example, special sensors in bridges detect the slightest vibrations, and the system automatically sends information to the control center to prevent potential damage. Railroad tracks equipped with smart monitoring systems can adapt to changes in weather conditions, keeping traffic safety at the maximum level.

  • PIPELINES AND SEWERS

    One of the most innovative technologies in pipeline and sewer construction is trenchless installation methods. Using techniques such as horizontal directional drilling (HDD) and microtunneling, engineers can lay pipes underground without destroying pavement or damaging the surrounding landscape. These methods minimize inconvenience to residents by reducing noise, construction waste and installation time. Trenchless technologies allow pipes to be laid in difficult locations, such as under rivers, roads and buildings.

Energy

  • CONSTRUCTION OF POWER PLANTS

    Our substations are built with modularity in mind, allowing for flexible and rapidly deployable facilities. Modular substations can be assembled and installed in the shortest possible time, and their compact size allows them to be located even in densely populated areas. These solutions are particularly relevant for developing regions and locations where temporary increases in power capacity are required. The rapid construction and reliability of these substations help to provide power to important sites without long waiting times.

  • INSTALLATION OF THERMAL POWER UNITS

    Del Mar Energy builds thermal power plants taking into account climatic conditions and possible natural disasters, which is especially important for regions with a high risk of natural disasters. The plants are designed to withstand extreme temperatures, high wind loads and earthquakes to ensure reliable operation even in the most challenging conditions. This resilience helps maintain uninterrupted power supply to the public and critical facilities such as hospitals and infrastructure hubs.

  • RECYCLING OF SECONDARY RAW MATERIALS

    Del Mar Energy's recycling plants utilize advanced sorting technologies such as optical sensors, X-ray machines and artificial intelligence. Automated sorting systems are able to distinguish between plastic, metal, paper and other materials, allowing for efficient waste separation and improved quality of recycled materials. Using robots for sorting speeds up the process, reduces labor costs and minimizes the chance of errors, making sorting more accurate and cost-effective.

Fund distribution diagram:

  • $

    At the beginning of operation

  • $ M

    in 2024

Key factors of directions

  • CONSTRUCTION OF POWER PLANTS

    Del Mar Energy pays special attention to the environmental sustainability of its facilities. Substations are equipped with systems to prevent leaks and minimize environmental impact. In some projects, the company integrates renewable energy sources, such as solar panels, to supply the substations' own needs.

  • INSTALLATION OF THERMAL POWER UNITS

    Del Mar Energy is also committed to an environmentally friendly approach to fuel selection when building its thermal power plants. The company is gradually switching to cleaner fuels such as natural gas and biomass, which reduces its carbon footprint and emissions. Some power plants utilize combined heat and power sources to integrate renewable resources such as solar and wind installations, further reducing dependence on traditional fuels.

  • RECYCLING OF SECONDARY RAW MATERIALS

    Del Mar Energy's plants utilize advanced automated sorting techniques, such as optical sensors and artificial intelligence systems that can accurately distinguish between material types. This allows plastic, metal, glass and other components to be separated with high precision and maximizes the yield of recycled raw materials. Thanks to these technologies, the company's plants minimize material loss and improve the quality of finished products, ensuring greener production.

Green Energy

  • SALE AND INSTALLATION OF SOLAR MODULES

    The production of solar panels today is a highly automated process. Factories use robotic lines and artificial intelligence systems that perform tasks with the highest precision and speed. Robots cut and process silicon, apply thin layers, assemble and test panels, which reduces production costs and improves product quality. Automation also reduces waste and minimizes the use of resources, making production more environmentally friendly.

  • WINDMILL CREATION

    One of the key trends in wind turbine manufacturing is increasing turbine size. Taller turbines, reaching heights of more than 200 meters, can capture stronger and more stable air currents at higher altitudes, which increases energy production. Del Mar Energy Inc is also actively developing offshore installations - wind turbines that are placed offshore where the wind is more constant and strong. Offshore installations require special production and installation technologies, but allow generating more energy and minimizing visual impact on the landscape.

  • GEOTHERMAL RESOURCE EXPLOITATION

    Geothermal development begins with a detailed analysis of the geologic features of an area. Engineers and geologists use high-precision exploration techniques such as seismic and magnetotelluric sounding to pinpoint areas of high thermal activity and deep deposits of hot groundwater. Modern technology allows 3D models of underground structures to be created to help determine the most efficient and safest locations for drilling. These techniques provide more accurate planning and reduce environmental risks.

Fund distribution diagram:

  • $

    At the beginning of operation

  • $ M

    in 2024

Key factors of directions

  • SALE AND INSTALLATION OF SOLAR MODULES

    Del Mar Energy designs and manufactures double-sided solar panels capable of capturing solar energy from both sides. These panels are particularly effective in environments where light is reflected from surfaces such as snow or water, increasing overall energy production.

  • WINDMILL CREATION

    The company's wind turbines are equipped with intelligent monitoring systems that collect and analyze data on equipment operation in real time. Using artificial intelligence and machine learning technologies, the systems can predict possible failures and optimize operation. This allows preventive maintenance and troubleshooting before faults occur, which extends turbine life and minimizes operating costs.

  • GEOTHERMAL RESOURCE EXPLOITATION

    Del Mar Energy actively uses closed-loop systems to develop its geothermal projects, which prevent groundwater leakage and minimize environmental impact. In these systems, fluid circulates in a closed loop, taking heat from the underground layers and returning it to the surface. Closed loop systems preserve the natural balance of groundwater, making geothermal plants more sustainable and environmentally friendly.

Mining Activities

  • DEVELOPMENT OF MINERAL DEPOSITS

    The mining process begins with exploration to determine the presence and extent of mineral deposits. Using advanced techniques such as 3D modeling, GPR surveys and magnetotelluric sounding, geologists can pinpoint the exact location and structure of underground layers. These high-precision techniques help minimize the number of test borings, which reduces the impact on nature and makes exploration more accurate and cost-effective.

  • COAL MINING

    Del Mar Energy Inc is engaged in underground and surface coal mining. Modern underground mining technologies include the use of powerful mechanized complexes, such as roadheaders and self-propelled loading machines, which allow for the safe and efficient extraction of coal from deep underground. In surface mining, when the coal is at a shallow depth, rotary excavators, powerful bulldozers and other machines are used to ensure high speed and volume of extraction.

  • STEEL PRODUCTION

    We are actively investing in new technologies and methods, such as the use of hydrogen smelting, switching to renewable energy sources and more efficient carbon capture methods. These innovations are reducing emissions, lowering production costs and making steel more sustainable and environmentally friendly. Modern steel mills are becoming high-tech facilities that ensure sustainable and responsible production.

Fund distribution diagram:

  • $

    At the beginning of operation

  • $ M

    in 2024

Key factors of directions

  • DEVELOPMENT OF MINERAL DEPOSITS

    After mining, all Del Mar Energy Inc minerals undergo a beneficiation process that removes impurities, increases the concentration of the useful component and prepares the final products for industrial use. Modern beneficiation techniques include flotation, magnetic separation and chemical processes that enhance the quality of the raw material. These technologies not only produce high quality materials, but also reduce waste, making mining more environmentally friendly.

  • COAL MINING

    Del Mar Energy Inc is implementing carbon capture and methane capture (CCUS) technologies to reduce its carbon footprint. These technologies collect carbon dioxide and methane emitted from coal mining and combustion and store it safely underground. This not only reduces greenhouse gas emissions, but also helps utilize methane as an additional energy source, turning it from a pollutant into a useful resource.

  • STEEL PRODUCTION

    Del Mar Energy designs and manufactures equipment for the petrochemical industry, using state-of-the-art industrial technology to work with carbon, alloy and high-alloy corrosion-resistant steels. The company manufactures column equipment that is a key link in the production of a range of chemicals in adsorption and desorption processes, gas cooling and purification. The best steel alloys such as St3SP, St20, 09G2S, 12X18N10T, 08X18G8N2T, AISI 304, AISI 314, AISI 316, as well as heat-resistant chromium-molybdenum steel 12XM, 15XM are used in production.

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