ヒューリンクス Product Lineup

Surfer is a flexible and user-friendly tool for creating contour and 3D surface maps. Collected data can be displayed as high-quality 2D and 3D maps or models while maintaining accuracy and precision by utilizing a wealth of tools. It interprets complex geospatial datasets and transforms them into clear and understandable models. 【Features】 ■ Equipped with advanced data interpolation algorithms, including Kriging, CoKriging, Inverse Distance to a Power, and Polynomial Regression. ■ A wide variety of map types, including Base Map, Contour, Post/Classed Post, 3D Surface, and Vector. ■ 3D display of 2D/3D grid data. ■ Overlaying aerial photos and planning maps on surfaces, taking geographic information into account. ■ Creation, editing, and recording of fly-through videos. ■ Exporting models to 3D PDF and VRML files.

It is used in over 3,000 research sites in the fields of resource development and environmental studies worldwide. By introducing GWB, which features an immediately usable user interface, fully integrated graph functions, highly optimized algorithms, and advanced software architecture, you can efficiently handle all tasks in geochemical research, regardless of scale. It is also possible to generate phase diagrams and "true" activity diagrams, calculate stable isotope fractionation, set partial pressures, and model isotope transport. 【Three Editions】 ■ GWB Professional A package equipped with all the functions for earth science research. ■ GWB Standard An edition ideal for spreadsheets, diagrams, and multi-component reaction modeling. ■ GWB Essentials Performs basic tasks in geochemical modeling.

In the field of mining, accurately understanding resource quantities is essential. To conduct precise resource evaluations, it is necessary to accurately visualize and analyze terrain data from both the surface and underground. Inaccurate terrain data or inappropriate analyses can lead to underestimation or overestimation of resource quantities, significantly impacting mining plans and investment decisions. Surfer supports resource evaluations by creating accurate 2D and 3D maps and models from various data sources, including LiDAR data. 【Use Cases】 - Visualization of mineral deposits - Planning of mining operations - Estimation of resource quantities 【Benefits of Implementation】 - Realization of accurate resource evaluations - Improvement of mining efficiency - Enhanced accuracy of investment decisions

In the field of civil engineering design, accurate understanding of topographical data and efficient design based on that data are required. Particularly in the design of varied terrain and complex structures, the visualization of the terrain significantly affects the precision of the design. Surfer supports various data formats, including LiDAR data, and uses advanced interpolation algorithms to easily create accurate topographic maps. This deepens the understanding of the terrain in the early stages of design, enabling more precise designs. 【Use Cases】 - Visualization of topographical survey data in civil engineering projects - Creation of 3D models for land development planning - Generation of longitudinal and cross-sectional diagrams in road design - Topographical representation in river and dam design 【Benefits of Implementation】 - Increased efficiency in design through visualization of topographical data - Improved design accuracy based on precise topographical models - Enhanced visual information sharing among stakeholders - Strengthened presentations using 3D models

In the field of environmental surveys, it is essential to accurately grasp the diffusion status and impact range of pollutants. In investigations of soil and water pollution, visualizing and analyzing the concentration distribution of pollutants and the flow of groundwater leads to the formulation of countermeasures. Surfer contributes to these challenges by creating high-precision 2D and 3D maps and models based on collected data, transforming complex geospatial datasets into clear and understandable models. 【Application Scenarios】 - Creating distribution maps of pollutants in soil contamination surveys - Simulating groundwater contamination - Environmental impact assessments of waste disposal sites - Building predictive models for pollutant diffusion 【Effects of Implementation】 - Rapid understanding of the situation through visualization of contamination - Accurate countermeasure planning based on data - Clear information sharing with stakeholders - Increased efficiency in survey and analysis tasks

In the geological survey industry, accurately understanding strata and geological structures influences the precision and efficiency of investigations. In particular, visualizing geological structures such as faults and folds is essential for exploring underground resources and assessing ground stability. Traditional analytical methods have posed challenges due to the time and effort required for data interpretation. Surfer allows for the easy creation of detailed 2D and 3D maps and models that represent geological structures by utilizing various data, including LiDAR data. This enhances the efficiency of geological surveys and enables more accurate structural analysis. 【Application Scenarios】 - Visualization of geological structures such as faults and folds - Understanding stratigraphic structures in underground resource exploration - Creating topographic models for ground stability assessment 【Benefits of Implementation】 - Increased efficiency of surveys through visualization of geological structures - Compatibility with diverse data sources such as LiDAR data - Intuitive structural understanding through 3D models - High-precision analysis using advanced data interpolation algorithms

In the field of archaeology, it is important to grasp the accurate topographical information of archaeological sites and to plan excavation surveys. In particular, understanding slight surface undulations and underground structures is essential for comprehending the scale and structure of the site. However, traditional survey methods have been time-consuming and labor-intensive, and the information obtained has been limited. Surfer utilizes LiDAR data and other geospatial data to easily create 3D models and contour maps of archaeological sites. This is expected to enhance the efficiency and accuracy of surveys. 【Application Scenarios】 - Creation of a 3D model of the entire archaeological site - Terrain simulation before excavation surveys - Creation of distribution maps of artifacts - Visualization of environmental changes around the archaeological site 【Effects of Implementation】 - Increased efficiency of excavation surveys - Improved survey accuracy - Smoother information sharing through the visualization of survey results - Enhanced potential for new discoveries

In the field of urban planning, the creation of accurate 3D models based on topographical data is essential for landscape studies. In particular, visual information plays a crucial role in environmental impact assessments and sunlight simulations related to urban development and infrastructure projects. Surfer meets these needs by supporting various data formats, including LiDAR data, and allows for the easy creation of high-precision 2D and 3D maps. 【Use Cases】 - Landscape simulation in urban development - Environmental impact assessment in infrastructure planning - Sunlight simulation - Topographical representation in park design 【Benefits of Implementation】 - Improved planning accuracy through high-precision topographical data visualization - Clear information provision to stakeholders - Early detection of issues during the planning phase - Support for efficient decision-making

In forestry, the efficient management of forest resources is essential for sustainable forest management. Accurately understanding the shape and quantity of resources in forests forms the basis for logging plans, reforestation plans, and forest conservation activities. However, traditional survey methods have made it difficult to efficiently collect and analyze information from vast forests. Surfer utilizes LiDAR data and other geospatial data to easily create 3D models and contour maps of forests. This allows for a detailed understanding of the terrain and resource distribution in forests, enabling more accurate forest management. 【Use Cases】 - Creation of forest topographic maps - Development of logging plans - Estimation of forest resource quantities - Assessment of sediment disaster risk 【Benefits of Implementation】 - Increased efficiency in forest management - Effective utilization of resources - Risk reduction - Faster decision-making

In the agricultural sector, accurate understanding of terrain data is essential to optimize the growing environment for crops. In particular, differences in slope and elevation affect drainage and sunlight conditions, which significantly impact yields. Surfer visualizes this terrain data, making analysis easier. By creating contour maps and 3D surface maps, it allows for an intuitive grasp of field conditions, aiding in the development of optimal planting plans and irrigation system designs. 【Use Cases】 - Terrain analysis of fields - Development of planting plans - Design of irrigation systems - Drainage measures - Effective use of farmland 【Benefits of Implementation】 - More efficient agricultural management based on terrain data - Increased yields - Improved work efficiency - Cost reduction - Data-driven decision-making

In the field of disaster prevention, accurately understanding flood risk is essential. Particularly in urban areas and regions near rivers, detailed flood simulations based on topographical data are helpful in formulating effective disaster prevention plans. Low-accuracy topographical data and complex data processing can lead to incorrect risk assessments, potentially hindering appropriate measures. Surfer supports various data sources, including LiDAR data, and uses advanced interpolation algorithms to create high-precision 2D and 3D topographic maps. This enables the visualization of flood risk and supports more effective disaster prevention measures. 【Use Cases】 - River flood simulation - Creation of flood hazard maps for urban areas - Consideration of evacuation routes - Identification of areas with high flood risk 【Benefits of Implementation】 - Rapid formulation of evacuation plans through the visualization of flood risk - Accurate information provision to residents through the creation of high-precision hazard maps - Efficient resource allocation by prioritizing disaster prevention measures - Smooth information sharing with relevant agencies

In the solar power generation industry, optimizing panel layout and maximizing generation efficiency are essential. In particular, designs that take into account sunlight conditions and terrain influences are crucial for improving power output. Inadequate designs can lead to decreased generation efficiency and increased installation costs. Surfer can utilize LiDAR data and geographic information to create highly accurate 2D and 3D topographic maps. This supports the analysis needed to consider the optimal arrangement of solar panels and maximize generation efficiency. 【Use Cases】 - Design of solar power plants - Sunlight simulation - Visualization of terrain data 【Benefits of Implementation】 - Improved generation efficiency - Optimization of installation costs - Streamlining of the design process

In the real estate industry, sunlight conditions are a crucial factor that significantly affects property value. Insufficient sunlight can compromise residents' comfort and potentially lead to a decrease in asset value. Surfer addresses these challenges by creating accurate 3D terrain maps and conducting sunlight simulations. It visualizes the impact of building placement and height on sunlight, supporting optimal design. 【Use Cases】 - Sunlight simulation for new condominiums - Sunlight surveys for existing buildings - Consideration of effective land use 【Benefits of Implementation】 - Optimal property design considering sunlight conditions - Persuasive information provision to clients - Enhancement of real estate value

In the construction industry, earth volume calculation is a crucial factor that influences project costs and timelines. To perform accurate earth volume calculations, it is essential to create high-precision 3D models based on terrain data. However, traditional earth volume calculation methods have faced challenges due to the need for manual measurements and complex calculations, which require significant time and effort. Surfer can easily create accurate 2D and 3D topographic maps from various data sources, including LiDAR data. With advanced data interpolation algorithms, it enables precise earth volume calculations and contributes to the efficiency of construction projects. 【Use Cases】 - Earth volume calculation in land development projects - Earth volume calculation in road construction - Earth volume calculation in dam construction 【Benefits of Implementation】 - Improved accuracy of earth volume calculations - Reduced working time - Cost savings - Overall project efficiency enhancement

In the tourism industry, attractive maps and topographic maps are essential for attracting tourists and enhancing their satisfaction. By visually representing natural landscapes and tourist routes, they capture travelers' interest and lead to the discovery of new tourist resources. However, traditional map-making has faced challenges such as high time and cost requirements, as well as difficulties in reflecting the latest information. Surfer addresses these challenges and allows for the easy creation of high-precision 2D and 3D topographic maps. 【Usage Scenarios】 - Creation of guide maps for tourist destinations - Mapping of trekking and hiking courses - Visualization of tourist routes - Application in dioramas and VR content 【Benefits of Implementation】 - Increased appeal to tourists - Discovery of new tourist resources - Strengthened information dissemination - Cost reduction and increased efficiency

In the GIS industry, accurate visualization of topographic data is essential for map creation. Contours and 3D models are crucial elements for understanding and analyzing land shapes. Surfer supports various data sources, including LiDAR data, and meets these needs using advanced interpolation algorithms. 【Use Cases】 * Creation of topographic maps * Creation of 3D models * Geological surveys * Environmental assessments 【Benefits of Implementation】 * Visualization of accurate topographic data * Streamlining of data analysis * Acceleration of decision-making

In the evaluation of reservoirs in the oil and gas industry, it is essential to accurately understand the complex geochemical reactions underground and assess the potential of resources. Particularly, the behavior of fluids within the reservoir and the processes of mineral formation and dissolution significantly impact production rates and recovery factors, making detailed analysis indispensable. Inadequate evaluations can lead to errors in development plans or underestimation of resources. The geochemical modeling software 'GWB' provides advanced simulation capabilities to address these challenges and supports the improvement of reservoir evaluation accuracy. 【Use Cases】 - Modeling chemical reaction processes within reservoirs - Predicting the behavior of groundwater and hydrocarbons - Evaluating changes in reservoir characteristics due to mineral precipitation and dissolution - Assessing geochemical impacts in CO2 storage and geothermal development 【Benefits of Implementation】 - Improved accuracy in reservoir evaluation - Optimization of resource development plans - Enhanced risk assessment - Increased efficiency in research and development

In the mining sector, particularly in the analysis of mineralization processes, it is essential to understand the complex chemical reaction processes underground and to elucidate the mechanisms of ore deposit formation. Accurate mineralization analysis is crucial for improving the efficiency of resource exploration and the precision of development planning. Inadequate analysis can lead to overlooked resources and increased development risks. GWB provides solutions to deepen the understanding of mineralization through geochemical modeling in response to these challenges. 【Application Scenarios】 - Analysis of the geochemical behavior of groundwater and rocks around ore deposits - Identification of chemical reaction pathways involved in mineralization - Estimation of temperature and pressure conditions in the mineralization process - Estimation of the age and origin of ore deposits using isotope data 【Benefits of Implementation】 - Improved exploration accuracy through elucidation of mineralization mechanisms - Enhanced accuracy in assessing resource potential - Optimization of development planning - Improved accuracy in environmental impact assessments

In the field of water resource management, accurate understanding of groundwater flow and the prediction of associated water quality changes are required. Particularly when evaluating the spread of groundwater contamination and its availability as a resource, detailed analysis that considers geochemical reaction processes is crucial. Inadequate analysis can increase the risk of over-exploitation of resources and environmental pollution. Our 'GWB' geochemical modeling software provides advanced simulation capabilities to address these challenges and supports more accurate water resource management. 【Use Cases】 - Prediction of groundwater contamination spread - Planning for sustainable use of groundwater resources - Safety assessment of geological disposal sites - Analysis of groundwater and surface water interactions 【Benefits of Implementation】 - Integrated analysis of groundwater flow and geochemical reactions - Improved accuracy in predicting future water quality changes - Development of appropriate management strategies based on risk assessment

In the environmental consulting industry, particularly in pollution dispersion forecasting, it is essential to accurately understand the behavior of chemical substances in groundwater and soil and to assess future dispersion risks. Detailed analysis of the movement and chemical reactions of pollutants serves as the foundation for effective countermeasure planning. The 'GWB' geochemical modeling software simulates these complex geochemical processes and supports highly accurate predictions. 【Use Cases】 - Prediction of the extent and speed of groundwater pollution dispersion - Analysis of soil pollution behavior - Evaluation of the interaction between groundwater and surface water - Modeling of the degradation and generation processes of pollutants - Prediction of the effectiveness of countermeasures 【Benefits of Implementation】 - Visualization of the mechanisms of pollution dispersion - Improved accuracy of risk assessment - Support for planning effective pollution remediation strategies - Provision of objective data for environmental assessments - Increased efficiency in consulting operations

In the design of disposal sites in the nuclear power industry, it is essential to accurately predict the long-term behavior of groundwater and rock formations, as well as to assess the risk of radioactive material dispersion. Understanding the complex chemical reactions and transport mechanisms of substances in the geological environment surrounding the disposal site is crucial for ensuring safety. Inadequate analysis may increase the uncertainty of long-term safety assessments. GWB is a geochemical reaction simulation software that addresses these challenges. 【Use Cases】 - Modeling groundwater flow and chemical reactions around disposal sites - Predicting the behavior of radioactive nuclides - Evaluating the long-term stability of geological environments 【Benefits of Implementation】 - Improved accuracy in risk assessment for disposal site design - Providing scientific evidence for compliance with safety standards - Increased efficiency in research and development

In the construction and civil engineering industry, particularly in the analysis of ground stability, it is essential to accurately understand the behavior of groundwater and the chemical reactions in the soil. These factors can potentially affect the long-term safety and durability of structures. Inadequate assessments carry the risk of unexpected ground subsidence or deterioration of structures. The 'GWB' geochemical modeling software provides information to evaluate ground stability by modeling the chemical behavior of groundwater and soil through geochemical reaction simulations to address these challenges. 【Application Scenarios】 - Assessment of the impact of groundwater and soil chemical reactions on ground stability - Prediction of groundwater flow and water quality changes associated with construction of structures - Evaluation of ground stability at waste disposal sites and contaminated sites 【Benefits of Implementation】 - Conducting assessments based on scientific evidence regarding ground stability - Reducing risks and contributing to safer structural designs - Improving the accuracy of environmental impact assessments

In the field of agriculture, particularly in soil improvement, it is essential to understand the chemical properties of soil and to devise optimal improvement strategies. Accurately grasping the balance of components and reaction processes in the soil is crucial for enhancing the growth environment of crops and achieving sustainable agriculture. Inappropriate soil improvement not only fails to yield the expected results but may also deteriorate the soil environment. The geochemical modeling software 'GWB' supports the resolution of these challenges by simulating chemical reactions in the soil and predicting the effects of soil improvement. 【Use Cases】 - Evaluation of soil component reactivity - Prediction of the effects of improvement materials - Assessment of impacts on groundwater 【Benefits of Implementation】 - Improved accuracy of soil improvement plans - Cost-effective selection of improvement materials - Reduction of environmental impact

In the field of geothermal energy, particularly in the analysis of hot water circulation, it is crucial to accurately understand the complex geochemical reactions occurring underground. The interaction of hot water with rocks and fluids alters the behavior of resources and the characteristics of reservoirs, impacting development efficiency and safety. Detailed simulation and prediction of these reactions are essential for sustainable geothermal development. The 'GWB' geochemical modeling software addresses these challenges and supports the evaluation and development of geothermal resources. 【Application Scenarios】 - Modeling the interaction between hot water and rocks in geothermal reservoirs - Predicting changes in chemical components associated with hot water circulation - Analyzing phenomena such as scale formation and corrosion - Risk assessment in geothermal development 【Benefits of Implementation】 - Improved understanding of hot water circulation processes - More accurate evaluation of geothermal resource potential - Optimization of development plans and risk reduction - Support for long-term reservoir management

In coastal zone management, saltwater intrusion is a significant issue due to its impact on the quality of groundwater resources and ecosystems. To understand the mechanisms behind these problems and implement effective measures, it is essential to accurately grasp the interactions between groundwater flow and chemical reactions. Particularly, analysis that considers the complex chemical changes at the boundary between saltwater and freshwater, as well as the influence of geological structures, is indispensable. The 'GWB' geochemical modeling software provides advanced geochemical reaction simulation capabilities to address these challenges, supporting the elucidation of the mechanisms of saltwater intrusion and the formulation of countermeasures. 【Usage Scenarios】 - Assessment of the progression of groundwater salinization in coastal areas - Development of saltwater intrusion prediction models and scenario analysis - Prediction of the effects of groundwater recharge and pumping suppression measures - Interpretation of groundwater quality monitoring data 【Benefits of Implementation】 - Enables a quantitative understanding of the mechanisms of saltwater intrusion - Allows for the prediction of future saltwater intrusion risks and proactive measures - Contributes to the formulation of effective groundwater management strategies - Enhances the accuracy of environmental impact assessments

In the field of volcanology, particularly in the study of magma behavior, it is essential to accurately understand the complex geochemical reactions occurring underground. The processes leading to the generation, ascent, and eruption of magma are influenced by a variety of factors, including temperature, pressure, and the movement of materials, which interact with each other. Analyzing and predicting these phenomena in detail is extremely important for monitoring volcanic activity and developing disaster prevention plans. The 'GWB' geochemical modeling software provides advanced simulation capabilities to address these challenges and supports researchers' intellectual creativity. 【Application Scenarios】 - Thermodynamic equilibrium calculations of magma - Analysis of the behavior of volatile components in magma - Simulation of eruption scenarios - Modeling of hydrothermal alteration zones 【Effects of Implementation】 - Promotion of understanding the mechanisms of magma behavior - Improvement of eruption prediction accuracy - Increased efficiency and productivity in research and development - Discovery of new insights

In the field of oceanography, particularly in the study of sediment transport, understanding the interactions between water and sediments, as well as the accompanying chemical reactions, is crucial. Accurately grasping the chemical changes in sediment movement and deposition processes is essential for assessing and predicting marine environments. The 'GWB' geochemical modeling software simulates these complex geochemical reactions and supports the elucidation of sediment transport mechanisms. 【Application Scenarios】 - Modeling chemical reactions in seabed sediments - Analyzing material transport and chemical changes within sediments - Predicting the behavior of pollutants in marine environments 【Effects of Implementation】 - Visualization of chemical impacts in sediment transport processes - Improved accuracy of research data and reduced analysis time - Strengthening scientific approaches to marine environmental issues

In the field of paleontology, particularly in fossil preservation, it is important to understand the geochemical conditions of the environment in which fossils were buried and formed, as well as the factors that influence their subsequent preservation state. To understand the stability of fossils and the processes of alteration, simulations of the water quality at the time, interactions with rocks, and chemical changes over time are required. Accurately analyzing these complex geochemical processes is essential for predicting the long-term preservation state of fossils and designing appropriate preservation environments. The 'GWB' geochemical modeling software provides advanced geochemical reaction simulation capabilities to address these challenges and supports researchers' intellectual creativity. [Application Scenarios] - Estimation of geochemical conditions in fossil formation environments - Analysis of fossil alteration and degradation mechanisms - Evaluation of chemical stability in fossil preservation environments - Paleoenvironment reconstruction through isotopic analysis [Effects of Implementation] - Improvement in the accuracy of research on fossil preservation - Support for predicting preservation states and formulating countermeasures - Creation of new discoveries and research themes