admin-Gabriel, autor en Acero Estudio

Articles, Servicios de Topografía, Topographic Surveys

Examples of Projects Where Topography is Vital

Posted on 6 de June de 2024 by admin-Gabriel

Topography is essential and highly recommended for any construction project, from a house to the vast road infrastructures of countries. Below are examples where topography plays a vital role in project implementation:

Road Construction

In the planning and execution of this infrastructure, topographical studies allow determining the alignment, gradient, and curves necessary for the construction of efficient and safe roads.

Urban Infrastructure Construction

In urban planning, topographical work enables the proper planning and design of streets in non-floodable areas with adequate drainage, ensuring correct spatial distribution.

Hydraulic Projects

Topography and its understanding of levels and gradients are crucial for any hydraulic project. A topographical survey is necessary for the design of dams, channels, and irrigation systems, as it allows engineers to understand the gradients, enabling them to make the necessary calculations for safe and functional hydraulic infrastructures.

Building Construction

In construction, well-executed topographical work helps to understand the terrain, project sanitary services, plan earthworks, or plan based on the area configuration.

Mining

Topography is very important in mining. Knowledge of the surface allows monitoring the progress of extraction works and controlling earth movements, which are used to calculate the economic efficiency of mining operations. It also helps optimize operations according to areas, ensuring operator safety in challenging terrains.

Railway Infrastructure Development

For this type of infrastructure, topography allows for an adequate projection of the railway, considering gradients, curves, and terrain stability.

Wind and Solar Energy Projects

It helps to fully understand the terrain characteristics, enabling engineers to locate wind turbines or solar panels in optimal locations to achieve maximum efficiency of the generators.

Sewerage

Sewer networks often utilize the terrain’s gravity. Topography ensures that they are designed appropriately to avoid future problems.

These examples provide a broad overview of the importance of topography in the planning and execution of various types of works. Contact Acero Estudio for more information about our topography services, drone topography, and LIDAR. We are specialists at your service.

Articles, BIM Consulting

Why is the EU promoting the BIM methodology?

Posted on 4 de June de 20244 de June de 2024 by admin-Gabriel

The interest of the European Union (EU) in promoting the BIM methodology is based on the identification of a substantial potential to generate significant economic, social, and environmental benefits. This set of technologies integrates process improvements and digital information, enhancing project outcomes for clients as well as better utilization of assets.

The implementation of BIM is a very strong trend in the digital transformation of the architecture and construction sector. This is not just a regional trend but a global practice in expansion. Various reports project that a broader adoption of BIM will generate savings of between 15% and 25% in the global infrastructure market by 2025.

Benefits of BIM

Among its benefits are:

Strategic knowledge for making informed decisions about buildings and public infrastructure
Improved project planning
Risk reduction
Better management of building throughout its lifecycle

Furthermore, while the BIM methodology is primarily applied to new construction projects, it can also be applied to renovation, refurbishment, and maintenance projects, which constitute a significant part of the construction sector.

It is estimated that in the coming years, a 10% saving in the construction sector across Europe can be achieved. Importantly, the benefits will not only be economic but also significant in developing greater resource efficiencies and ecological sustainability.

There is an opportunity for companies that align with this common strategic approach at the European level. Therefore, companies that utilize BIM within their frameworks could benefit in public tender processes and procurement methods.

In light of this, it is worth noting that at Acero Estudio, as specialists in BIM consultancy, we have found that the best practices for adopting the BIM methodology are those implemented progressively, allowing organizations to gain experience while minimizing errors.

If you want to learn more about our BIM services, please do not hesitate to contact us. We are at your service.

Articles, Topographic Surveys, Topography

Factors to Evaluate Before Conducting a Topographic Survey

Posted on 3 de June de 20243 de June de 2024 by admin-Gabriel

Conducting a topographic survey requires flexibility and adaptation. In addition to having experience, the surveying team must undertake proper planning, select the right technology, and schedule a work scheme according to the objectives of each project.

Below, we will explore the factors that influence the execution of a topographic survey. Always remember that these guidelines are relative, and while we attempt to generalize them for study purposes, nature almost always has more than one capricious characteristic that will require the ingenuity and initiative of the survey teams in charge.

Vegetation Factor

The density of vegetation is a crucial factor in conducting a topographic survey. In densely vegetated areas such as forests or jungles, carrying out a topographic survey becomes an arduous task.

Similarly, ground cover such as grass or weeds affects data accuracy. Trees, both coniferous and deciduous, can complicate the use of aerial sensors since the density of the cover and the resolution of the required product will determine the technology to be used. Acero Estudio suggests the use of LIDAR for greater accuracy in results.

Construction Factor

Houses, buildings, bridges, overpasses, and other man-made structures affect a topographic survey because they obscure natural terrain features such as slopes and water runoff areas.

Surveyors must use photogrammetric techniques in areas with constructions. It is worth noting that in areas with tall buildings and little space between them, it is more complicated due to the greater overlap of images.

Water Factor

The presence of water in the study area demands the use of specialized technology. In some cases, LIDAR is recommended; however, this technology has certain limitations beyond a certain depth. Additionally, in some places, the coastline changes throughout the day, hindering the work.

Besides the factors imposed by nature, there are other intrinsic factors of the surveying discipline that can present challenges.

Technology Precision Limitations

Not all instruments are suitable for all areas or conditions. For example, drone surveying can be inaccurate in densely vegetated areas where LIDAR technology is more recommended.

Instrument Position Accuracy

This factor is influenced by the experience of the surveying team, who must handle the instruments proficiently. These “flight hours” will impact the quality and accuracy of the survey, as well as the speed of completion.

Why Acero Estudio is Your Best Choice for Surveying Services

We are experts in conducting topographic surveys on any type of terrain and extension because we have a team of engineers specializing in topography, equipped with total stations, advanced sensor drones, and LIDAR technology, among others. This allows us to work in any type of geography, regardless of difficulty.

Visit our website for more information and request our surveying services, available in Peru and Spain. We are here to help you carry out your projects with the highest precision and efficiency!

Articles, Servicios de Topografía, Topographic Surveys

Guidelines for carrying out a high-precision topographic survey

Posted on 31 de May de 202431 de May de 2024 by admin-Gabriel

The process of carrying out a topographic survey requires precision and a series of well-defined steps that guarantee the accuracy of the data. To start the topographic study, it is essential to use base stations with control marks. Control points act as fixed references from which all other points on the terrain will be measured; However, sometimes the control points may not be enough to cover the entire study area. When new points are needed, they can be generated using GNSS vectors. This method employs geodetic receivers in a relative static mode, using existing grid points to establish new points with the same precision.

To obtain accurate heights above mean sea level, it is necessary to make corrections to the geodetic heights (measured from the spheroid). This involves the use of altimetry control points, which help adjust measurements and ensure they reflect true heights relative to sea level. It is also desirable to calculate photogrammetric control points and navigation signals. These points must be calculated from at least two control points to ensure accuracy. Drone photogrammetry, which uses aerial photography to measure distances and terrain features, relies on these control points to align and scale images correctly.

To speed up the survey process, quick methods such as “stop and go” or “RTK” (real-time kinematic) can be used. These methods allow data to be collected efficiently and quickly, as long as they meet the precision requirements specified in the reference table. The “stop and go” method involves stopping briefly at each measurement point, while RTK allows real-time data to be obtained with high precision.

During the course of the survey, the need may arise to generate additional control points. These new points must be derived from two previously determined control points to maintain the consistency and accuracy of the survey. Accurate surveying requires meticulous planning and the use of reliable methods to establish and verify control points. The combination of advanced technologies, such as GNSS and RTK, along with traditional techniques, ensures that the survey is accurate and efficient. By following these steps and guaranteeing the correct density and distribution of control points, you can obtain a detailed and accurate map of the terrain, essential for any engineering or construction project.

Consult with our specialists in topographical services, at Acero Estudio, we are at your service.

Articles, BIM Consulting

BIM and the MacLeamy Effort Curve, Optimizing the Construction Process

Posted on 30 de May de 202430 de May de 2024 by admin-Gabriel

The construction industry has benefited greatly from the BIM methodology because it has changed the processes and also the way they are designed and built. One of the substantive changes is in the redefinition that BIM proposes regarding the stress curve throughout the construction process: the well-known MacLeamy Curve.

The MacLeamy Curve

The MacLeamy Curve illustrates the relationship between the effort invested in the design and construction phases of a project and the impact it has on its quality and cost. Traditionally, most of the effort was applied during the construction phase. However, the MacLeamy Curve proposes a paradigm shift: investing more effort in the early design stages can have a significant impact on reducing costs and errors during construction.

Intersection of BIM and MacLeamy Curve

The BIM methodology aligns perfectly with the MacLeamy Curve. BIM promotes early collaboration between teams that allows potential problems to be identified and resolved before they become costly fixes during construction. Early collaboration and information sharing result in greater efficiency and accuracy, translated into the effort curve proposed by MacLeamy.

Advantages of the BIM Methodology

Cost Reduction: Detecting conflicts and errors in the design phase avoids unforeseen expenses during construction.
Improves Quality: The precision and information that BIM provides leads to higher quality construction.
Time Optimization: Construction time is reduced thanks to the detailed planning required by BIM.
Sustainability: BIM software packages allow you to analyze the energy efficiency and sustainability of any project.

The use of the BIM methodology is essential to understand how early planning and effort can lead to more successful and efficient project execution. The development of the methodology, the software packages used and the complements that help generate projections are enhancers that improve the results of increasingly advanced models.

Despite these benefits, this methodology requires experience and trained professionals with a good command of the trade. Acero Estudio, a company specialized in services for the architecture and construction sector, has a team of expert BIM consultants who will help you turn your ideas into solid realities. Contact us and request information about our services, we are here to help you.

Articles, Topographic Surveys, Topography

Maximize your budget with our drone surveying service.

Posted on 29 de May de 202429 de May de 2024 by admin-Gabriel

Surveying is an essential discipline for the development of construction projects. In recent years, the use of drones for the enhancement and improvement of topographic studies has garnered significant industry interest due to its numerous benefits. Below, we will explore some of the key advantages of conducting topographic surveys using drones.

Achieve Cost-Efficient Services

The use of drones equipped with sensors, high-definition cameras, and integrative software allows for the completion of topographic studies over large areas at a significantly lower cost compared to traditional methods. Drones’ ability to cover extensive surfaces in less time reduces labor, transportation, and logistics costs. Additionally, with improvements in battery life, this efficiency will continue to increase, further enhancing practical surveying.

Personnel Safety

One of the major risks in traditional surveying is accessing difficult-to-reach areas such as steep mountains, waterfalls, and unstable terrains. Drones mitigate these risks, and while there is always a potential risk to the equipment, human integrity is preserved, thereby reducing costs associated with workplace accidents.

Greater Accuracy in Less Time

Drones enable topographic surveys over large areas in shorter time frames. This is due to their high-definition cameras, data processing software, and the capability of synchronously transferring information to any computer. It is also worth mentioning other technologies that enhance accuracy, such as high-precision GPS and LiDAR sensors. Speed and precision translate into efficient planning and the ability to make informed decisions swiftly.

Improve the Area Surveyed per Hour Ratio

Thanks to the various software packages used by Acero Estudio, a company specializing in drone surveying, we can plan optimal flight routines to achieve greater area coverage, thereby optimizing the surveying process and increasing the amount of data collected and processed.

Enhanced Data Transfer

Technology facilitates not only data collection but also its transfer and processing. Data captured by drones can be sent and processed quickly using specialized software that allows for efficient topographic tying.

Accelerating the workflow, from data capture to the generation of maps and three-dimensional models, enables surveying professionals and their clients to obtain precise and useful results in a shorter time.

Now that you are aware of the benefits of drone surveying, do not hesitate to contact your best option for surveying services: Acero Estudio, a leading company in the surveying and construction services sector.

Articles, Topographic Surveys, Topography

Recommendations for a Topographic Survey in Mining

Posted on 28 de May de 202428 de May de 2024 by admin-Gabriel

Topographic surveying in mining is an important process for determining mineral reserves, planning exploitation, and efficiently managing resource extraction.

In this article, we provide steps and recommendations for conducting a topographic survey in mining, based on established procedures for some of our topographic services clients.

Topographic Survey in Mining

Before we begin, it is worth noting that topographic surveying in mining involves obtaining an accurate representation of the terrain and structures on the surface of the mine. In mining companies, this process can be carried out monthly to update the progress of exploitation and estimate available mineral reserves. The main objective is to represent, through a 3D model, the shape and relief of the mine, thus facilitating mining exploitation planning and management.

The topographic surveying procedure can be applied from scheduling the areas that have been modified to generating the updated 3D model of the mine. It includes sending volumetric reports to respective clients and storing the information in the company’s system.

It is also worth noting that this topographic study should be carried out by individuals with adequate competencies and using reliable topographic equipment to ensure the accuracy of the survey.

Critical Success Factors

The team responsible for the topographic survey must be well-trained and experienced in handling topographic equipment and software. Using topographic equipment in excellent condition and with updated technology is essential for obtaining accurate data. Using standardized methodologies ensures the quality and accuracy of the results.
Having Management Indicators Having precision data indicators. Hectares per hour progress measurement indicator.
Detailed Procedure and Calculation Generation

It is important for the survey of a mining area to have a detailed process or methodology that takes into account the evolving nature of an area under exploitation. Remember that this information is used to plan the areas to be updated.

At this point, the recommended steps are:

Location of measurement tools.
Performing topographic tie-in to the coordinate system of the mining area.
Conducting the topographic survey.
Performing the polygonal survey.
Data transmission and processing by software.
Georeferencing and 3D model creation.
Calculation of areas and volumes.

In summary, topographic surveying in mining is a complex process that requires great precision to accurately project volumes. Remember that Acero Estudio provides topographic services to the mining sector; contact us and request information about our services… we are here to help.

Articles, Levantamiento Topográfico, Servicios de Topografía, Topographic Surveys

Types of Leveling in Surveying

Posted on 28 de May de 202424 de April de 2025 by admin-Gabriel

Leveling is an essential technique in topographyc surveying, as it allows for the precise determination of the relative height between specific points on a given plot of land. This practice is key in the planning and execution of engineering, construction, and cartographic projects, as it provides crucial information about the terrain’s relief. This, in turn, facilitates the design of structures that adapt to the site conditions and optimizes the calculation of necessary earthworks.

Additionally, understanding the slopes of the terrain is fundamental for the architectural development of a project. This knowledge enables the proper design of vital infrastructure, such as sanitary systems, which rely on a minimum slope to ensure the correct flow and evacuation of fluids. In areas with steep inclines, the topographic data obtained through leveling is indispensable for determining whether cut and fill operations are required or if stepped constructions will be used to take advantage of the natural topographic features.

Below, we will explore the different types of leveling used in surveying, each with its characteristics and applications:

Geometric Leveling

Also known as differential leveling, it is one of the most precise and commonly used methods in surveying. This method is based on the use of an optical or automatic level and a leveling rod to measure the difference in height between two points. It is carried out by establishing a horizontal line of sight and reading the elevations at different points.

It is commonly used for:

Civil engineering and construction projects
Road and railway construction
Installation of public utilities

Trigonometric Leveling

This method is based on the use of angles and distances measured with a theodolite. It involves measuring vertical and horizontal angles along with the distance between points of interest to calculate the height difference using trigonometric formulas. This method is especially useful in rugged terrains where geometric leveling can be difficult to implement.

This method is suitable for:

Mapping mountainous terrains
Geological and mining studies
Installation of telecommunications towers and power lines

Barometric Leveling

This method uses atmospheric pressure to determine the elevation of different points. It employs barometers or altimeters to measure air pressure at various locations and then calculates the height difference based on pressure variations. Although less precise than other methods, it is useful for preliminary surveys and in extensive areas where other methods would be impractical. It is commonly used in:

Geographic explorations
Environmental studies
Topographic surveys in remote areas

GPS Leveling

This method uses satellites to determine the elevation of specific points relative to sea level. It employs GPS receivers to capture signals from multiple satellites and calculate the height using complex algorithms. GPS leveling is increasingly popular due to its high precision and ability to cover large areas quickly.

It is optimal for:

Digital mapping
Topographic surveys in large infrastructure projects
Monitoring and managing natural resources

Hydrostatic Leveling

This method uses the principle of communicating vessels to determine height differences. It involves using a tube filled with liquid (usually water) that connects two points. The height of the liquid at both ends of the tube is measured to calculate the height difference between the points. It is a simple and effective technique for short distances and in areas where other methods are impractical. It is especially useful for indoor installations, leveling buildings and structures, and adjusting machinery and equipment, where the simplicity and economy of the method are significant advantages.

In conclusion, the choice of leveling method in surveying depends on several factors, including the required precision, terrain characteristics, the extent of the area to be covered, and available resources. Each method has its own advantages and applications, so it is essential to consult with specialists to determine the most appropriate method for each case.

Contact Acero Estudio and request more information about our topographyc surveying services; we are here to help you realize your projects.

Topography

Applications of Topography in Civil Engineering

Posted on 22 de May de 202422 de May de 2024 by admin-Gabriel

Topographic studies are fundamental for the execution and development of civil engineering works. Thanks to topographic surveys, we provide civil engineers with essential data for the planning, design, and construction of infrastructure projects; vital information for performing calculations and configurations, ensuring solid constructions.

Here are the benefits of topography for civil engineering:

1. Topographic Surveys

These studies allow us to create detailed maps of the Earth’s surface, including information on slopes, terrain elevation, and other particular elements that need to be evaluated for proper planning in any civil engineering project.

It’s also important to remember that topographic surveys can be underground for projects involving mines, tunnels, or other subterranean constructions. This information is vital for the project’s safety and efficiency.

2. Project Planning and Design

The topographic services provided by Acero Estudio offer necessary data for the design of roads, bridges, dams, airports, subways, and buildings. Engineers use this data to develop plans and models that ensure structures are built correctly and function efficiently.

Before starting a project, feasibility studies are conducted to determine if it is technically and economically viable. Topographic data helps assess terrain conditions and identify potential problems that could affect the project.

3. Construction Control and Supervision

Supervision during construction is important, especially for large-scale works where earth movements can affect the established configurations on the plans. To ensure that design specifications are followed, surveyors perform periodic measurements to verify that the terrain is being modified according to the plans.

It’s worth noting that this includes monitoring for possible displacements or settlements that could compromise the integrity of the work.

4. Land Cadastre and Parceling

In the development of new urban projects, topography allows for efficient land parceling, ensuring that each parcel has the necessary characteristics for its intended use.

5. Transportation Infrastructure Projects

Topography is crucial in the design and construction of roads and railways. Engineers use topographic data to determine the best routes, minimize environmental impact, and ensure that slopes and curves are suitable for traffic.

Regarding the construction of airports, topography ensures that runways are perfectly leveled and oriented to maximize safety and operational efficiency.

As you can see, topographic studies are of great utility for engineering, so we recommend you contact us. Our team of topography specialists will help you understand your terrain thoroughly, enabling your engineers to build with solidity and strength.

Articles, Topographic Surveys

Geodetic Control in Coastal Surveys

Posted on 20 de May de 202420 de May de 2024 by admin-Gabriel

Geodetic control in coastal surveys is an essential practice that ensures the accuracy and consistency of geographic and cartographic data. The densification of the control network and the verification of reference systems are fundamental processes to obtain reliable and precise information, which is crucial for safe navigation, project planning, and environmental studies in coastal areas.

Densification of the Geodetic Control Network

The densification of the geodetic control network is essential to provide a precise reference framework that allows for the exact positioning of points of interest in coastal surveys. This process includes adding more control points to an existing network, thereby improving the resolution and accuracy of the survey.

Horizontal Control

Horizontal control refers to the positioning of points in a two-dimensional plane, typically using geographic or UTM (Universal Transverse Mercator) coordinates. Various methods are used to densify this network:

Traditional Methods: These include the use of total stations and theodolites to measure angles and distances between points. These instruments require a direct line of sight between points, which can be challenging in irregular coastal terrain.
GNSS: GNSS systems, such as GPS, allow for highly accurate positioning of points. This method is especially useful in coastal areas where direct lines of sight are difficult to obtain. GNSS receivers placed at various control points provide data that can be processed to obtain precise coordinates.

Vertical Control

Vertical control focuses on the elevation of points relative to a reference datum, such as mean sea level. This control is crucial for studies requiring information on the elevations and depressions of the coastal terrain.

Geometric Leveling: This technique involves using optical levels and rods to measure height differences between points. It is a very precise method but labor-intensive.
GNSS Altimetry: Similar to horizontal control, GNSS systems are used to determine heights relative to a reference ellipsoid. However, corrections must be applied to obtain precise elevations relative to sea level.

Verification of Reference Systems

The consistency and accuracy of coastal surveys depend on the proper verification and use of reference systems. This includes ensuring that all control points and collected data refer to the same geodetic reference system.

Consistent Reference System: It is fundamental that the reference system used for topographic survey coordinates, geodetic control, and navigation aids is the same. This avoids discrepancies in the information and ensures that the data are interoperable.
Data Verification and Adjustment: Verification includes a thorough analysis of records and, when necessary, field review. Comparing the coordinates of physically obtained control points with provided coordinates helps identify and correct potential errors.
Accuracy and Corrections: To meet standards such as those in the IHO’s (International Hydrographic Organization) publication S-44, it is crucial to ensure that the corrections between ellipsoid heights and sea level are accurate. This includes applying geoid models and correcting potential systematic errors in GNSS measurements.

Importance of Geodetic Control in Coastal Surveys

Geodetic control in coastal surveys not only provides an accurate basis for cartography and navigation but also is essential for various practical applications:

Navigation Safety: It helps mariners avoid coastal hazards by correctly locating details such as lighthouses and buoys.
Environmental Studies: It provides precise data for analyzing changes in the coastline, erosion, and other natural phenomena.
Planning and Construction: It is crucial for coastal infrastructure projects, such as port construction and coastal defenses.

Contact Acero Estudio if you need more information about our topography services.