Top 12 Agricultural Engineer Skills to Put on Your Resume
In today's competitive job market, standing out as an agricultural engineer requires showcasing a unique set of skills on your resume. Highlighting the top skills not only demonstrates your expertise but also aligns your capabilities with the evolving demands of the agriculture industry, making you a valuable asset to potential employers.
Agricultural Engineer Skills
- AutoCAD
- GIS
- Precision Agriculture
- Soil Science
- Irrigation Management
- Agribusiness Management
- Crop Modeling
- Sustainable Design
- Hydrology Analysis
- Remote Sensing
- Drone Operation
- MATLAB
1. AutoCAD
AutoCAD is a computer-aided design (CAD) software used for creating precise 2D and 3D drawings and models, widely utilized in agricultural engineering for designing farm structures, irrigation systems, and land management plans.
Why It's Important
AutoCAD is crucial for Agricultural Engineers because it enables precise design and planning of farm structures, irrigation systems, and land use, optimizing agricultural productivity and resource management.
How to Improve AutoCAD Skills
Improving AutoCAD skills, especially for an Agricultural Engineer, involves focusing on specific functionalities that are most relevant to designing, planning, and managing agricultural systems and infrastructures. Here are concise steps to enhance your AutoCAD proficiency:
Learn the Basics: Start with mastering the fundamentals of AutoCAD. Autodesk's official tutorials provide a good foundation.
Focus on Agricultural Design Tools: Explore AutoCAD features that are particularly useful for agricultural engineering, such as terrain modeling, water resource engineering tools, and plant layouts. Websites like CADTutor offer tutorials that can be adapted to agricultural contexts.
Use AutoCAD Civil 3D: For agricultural engineers, AutoCAD Civil 3D offers tools for a more detailed analysis of terrains, which is crucial for planning. Autodesk offers a comprehensive guide to get started with Civil 3D.
Incorporate GIS Data: Integrating GIS data into your AutoCAD projects can significantly enhance the planning and management of agricultural resources. Autodesk provides resources on how to work with GIS data in AutoCAD.
Automate Repetitive Tasks: Learn to use AutoLISP or Python scripting in AutoCAD to automate repetitive tasks, saving time and increasing efficiency. The AfraLISP website offers tutorials on AutoLISP.
Stay Updated with New Features: AutoCAD is continuously updated with new features. Keep yourself updated through the Autodesk Blog and by participating in forums like the Autodesk Community.
Practice and Apply: The best way to improve is by applying what you’ve learned in real-world projects. Challenge yourself with increasingly complex designs relevant to agricultural engineering.
Join Online Courses and Webinars: Platforms like LinkedIn Learning and Coursera offer courses tailored to different aspects of AutoCAD, from beginner to advanced levels.
By focusing on these areas and continually practicing, an Agricultural Engineer can significantly enhance their proficiency and efficiency in using AutoCAD for various agricultural projects.
How to Display AutoCAD Skills on Your Resume
2. GIS
GIS (Geographic Information Systems) is a computer-based tool that analyzes, stores, manipulates, and visualizes geographic information, primarily on maps, useful in agricultural engineering for planning, managing farms, monitoring crops, soil analysis, and optimizing resource use.
Why It's Important
GIS (Geographic Information Systems) is crucial for Agricultural Engineers as it provides precise spatial analysis and visualization tools for land use planning, crop management, soil analysis, irrigation planning, and environmental impact assessment, enhancing productivity and sustainability in agriculture.
How to Improve GIS Skills
Improving GIS (Geographic Information Systems) for an Agricultural Engineer involves several key strategies aimed at enhancing data accuracy, analysis capabilities, and decision-making processes related to agricultural practices:
Data Quality Enhancement: Prioritize the collection of high-resolution, up-to-date satellite imagery and field data. Utilize platforms like USGS Earth Explorer for accessing satellite data.
Integration of IoT Devices: Deploy IoT sensors across farms for real-time data on soil moisture, temperature, and crop health. This data can be integrated into GIS for precision agriculture. Learn more about IoT in agriculture at FAO.
Adopt Advanced Remote Sensing Techniques: Utilize remote sensing technologies for detailed crop monitoring and soil analysis. Explore resources on remote sensing in agriculture at NASA's ARSET.
Utilize Machine Learning Models: Implement machine learning algorithms for predictive analytics, such as yield prediction and pest detection. A primer on machine learning in GIS can be found on Esri's Blog.
GIS Software Proficiency: Continuously update skills in GIS software (e.g., ArcGIS, QGIS) through tutorials and courses. Free tutorials are available at QGIS Tutorials and Esri Training.
Collaboration and Data Sharing: Engage in collaborative projects and data sharing with research institutions and other farmers to enhance collective knowledge and application of GIS in agriculture. Platforms like Ag-Analytics facilitate data sharing and collaboration.
By focusing on these strategies, Agricultural Engineers can significantly enhance the effectiveness of GIS applications in agriculture, leading to improved crop management, resource optimization, and overall sustainability of farming practices.
How to Display GIS Skills on Your Resume
3. Precision Agriculture
Precision Agriculture is an integrated farming management concept that uses information technology and a wide range of items such as GPS guidance, control systems, sensors, robotics, drones, autonomous vehicles, variable rate technology, and software to optimize field-level management with regard to crop farming. For an Agricultural Engineer, it involves designing, developing, and managing systems and technologies that enable this precise and efficient approach to agriculture, aiming to increase crop yields, reduce waste, and minimize environmental impact.
Why It's Important
Precision agriculture is crucial for agricultural engineers as it optimizes resource use (water, fertilizers, pesticides), enhances crop yields, reduces environmental impact, and increases efficiency and profitability in farming operations through the integration of advanced technologies such as GPS, sensors, and data analytics.
How to Improve Precision Agriculture Skills
Improving Precision Agriculture involves leveraging advanced technologies and data analytics to enhance farming efficiency, reduce waste, and increase crop yields. Here are key strategies:
Adopt Advanced Sensing Technologies: Utilize drones, satellites, and ground sensors to monitor crop health, soil conditions, and environmental factors. FAO guide on remote sensing.
Implement IoT Devices: Deploy Internet of Things (IoT) devices for real-time field monitoring and management, enabling precise irrigation, fertilization, and pest control. IoT in Agriculture.
Data Analytics and AI: Use data analytics and artificial intelligence to analyze data collected from various sources for predictive insights on crop health and yield optimization. AI in Agriculture.
GIS-Based Soil Analysis: Apply Geographic Information System (GIS) for detailed soil property mapping to guide precise planting, fertilization, and irrigation. GIS in Precision Agriculture.
Automated Machinery: Integrate automated and robotic machinery for efficient planting, weeding, and harvesting, tailored to the precise needs of crops. Robotics in Agriculture.
By focusing on these areas, Agricultural Engineers can significantly enhance the effectiveness and sustainability of Precision Agriculture practices.
How to Display Precision Agriculture Skills on Your Resume
4. Soil Science
Soil Science is the study of soil as a natural resource, focusing on its formation, classification, and mapping, and examining its physical, chemical, biological, and fertility properties in relation to the use and management of soils for agricultural production and environmental conservation.
Why It's Important
Soil science is crucial for an Agricultural Engineer because it provides the foundational knowledge needed to optimize crop production, manage soil health and fertility, and address environmental challenges, ensuring sustainable agricultural practices and food security.
How to Improve Soil Science Skills
Improving soil science, especially from an Agricultural Engineer's perspective, involves a multifaceted approach focused on enhancing soil health and productivity. Here are concise strategies:
Soil Testing: Regularly analyze soil samples to determine nutrient levels and pH. Understanding soil composition guides precise fertilizer and amendment applications. Soil Testing Guidelines
Cover Cropping: Implement cover crops to prevent soil erosion, improve soil structure, and enhance nutrient content. Cover Crops Benefits
Soil Amendments: Apply organic or inorganic amendments based on soil test results to correct nutrient deficiencies and pH imbalances. Soil Amendment Guide
Conservation Tillage: Adopt reduced tillage practices to minimize soil disturbance, conserve moisture, and maintain organic matter. Conservation Tillage Information
Water Management: Implement efficient irrigation systems and practices to optimize water usage and prevent soil degradation. Efficient Irrigation Systems
Crop Rotation: Rotate crops systematically to break pest cycles, improve soil structure, and enhance nutrient cycling. Crop Rotation Principles
Soil Microbiome Enhancement: Promote beneficial microbial activity in the soil through the application of composts and biofertilizers. Soil Microbiome Support
Technology Integration: Utilize precision agriculture technologies for targeted soil management and to maximize efficiency in resource use. Precision Agriculture Overview
By incorporating these strategies, Agricultural Engineers can significantly contribute to the advancement of soil science, leading to sustainable agricultural practices and improved crop yields.
How to Display Soil Science Skills on Your Resume
5. Irrigation Management
Irrigation Management, in the context of an Agricultural Engineer, involves the strategic planning, design, operation, and maintenance of irrigation systems to efficiently distribute water to crops, optimizing water usage, enhancing crop yields, and minimizing environmental impact.
Why It's Important
Irrigation management is crucial for an Agricultural Engineer as it ensures optimal water usage for crop growth, minimizes water wastage, enhances crop yield and quality, and conserves water resources, all vital for sustainable agricultural practices.
How to Improve Irrigation Management Skills
Improving irrigation management involves optimizing water use efficiency, ensuring crop health, and reducing environmental impacts. For an Agricultural Engineer, here are concise strategies:
Irrigation Scheduling: Use soil moisture sensors and weather forecasts to apply water precisely when plants need it, reducing waste. FAO's guide on irrigation scheduling provides a comprehensive approach.
Adopting Efficient Irrigation Systems: Transition to high-efficiency systems like drip or sprinkler irrigation which target water directly to the plant roots and reduce evaporation. USDA's page on irrigation methods offers insights into various systems.
Soil Management: Enhance soil structure and water-holding capacity through organic amendments, reducing runoff and improving infiltration. Soil Quality Information from the NRCS provides techniques for soil improvement.
Water Sources Optimization: Use alternative water sources such as rainwater harvesting and treated wastewater to alleviate pressure on conventional water sources. The Rainwater Harvesting System Guide by EPA outlines how to implement these systems.
Remote Sensing and IoT: Implement remote sensing and IoT technologies for real-time monitoring and control of irrigation systems, ensuring optimal water usage. The IoT for Agriculture article in Sensors journal discusses its applications in detail.
Training and Education: Continuously update knowledge on the latest irrigation technologies and management practices through workshops and courses. Irrigation Training Program by the Irrigation Association offers various educational resources.
Integrated Water Resources Management (IWRM): Adopt an IWRM approach for a holistic view of water resources, considering economic, social, and environmental objectives. UNESCO's IWRM Guidelines provide a framework for implementation.
By integrating these strategies, Agricultural Engineers can significantly enhance irrigation efficiency, supporting sustainable agriculture and water conservation.
How to Display Irrigation Management Skills on Your Resume
6. Agribusiness Management
Agribusiness Management is the application of business principles to the agricultural sector, focusing on the efficient production, processing, and distribution of agricultural products. It involves strategic planning, marketing, financial management, and supply chain operations tailored to the unique challenges and opportunities in agriculture, aiming to maximize profitability and sustainability. For an Agricultural Engineer, it encompasses integrating technological and engineering solutions with business strategies to optimize agricultural practices and processes.
Why It's Important
Agribusiness Management is crucial for Agricultural Engineers as it equips them with the necessary skills and knowledge to effectively manage agricultural enterprises, optimize resource use, enhance productivity, and ensure sustainability. This interdisciplinary approach enables them to make informed decisions that balance technical agricultural aspects with economic, environmental, and social considerations, driving innovation and profitability in the agricultural sector.
How to Improve Agribusiness Management Skills
Improving Agribusiness Management entails optimizing operations, enhancing productivity, and ensuring sustainability. For an Agricultural Engineer, focus on integrating technology, adopting best practices, and leveraging data for decision-making. Here's a concise guide:
Implement Precision Agriculture: Use GPS, drones, and IoT devices for precise farming. This optimizes inputs and increases yields. Precision Agriculture Guide
Adopt Sustainable Practices: Focus on sustainable methods such as crop rotation, organic farming, and water conservation. Sustainable Agriculture Research & Education
Utilize Agribusiness Software: Implement management software for better planning, inventory management, and financial tracking. Agribusiness Software Solutions
Enhance Supply Chain Management: Streamline logistics from farm to market. Consider technologies for better tracking and efficiency. Ag Supply Chain Management
Focus on Market Research and Trends: Stay informed on market demands, trends, and pricing to make informed decisions. Agricultural Marketing Resource Center
Invest in Education and Training: Continuous learning for you and your team on the latest agricultural technologies and management practices. FAO e-learning Centre
Network and Collaborate: Engage with industry associations, attend conferences, and collaborate with research institutions for innovation and growth. International Association of Agricultural Economists
By focusing on these areas, an Agricultural Engineer can significantly improve the efficiency and sustainability of agribusiness operations.
How to Display Agribusiness Management Skills on Your Resume
7. Crop Modeling
Crop modeling is a computational and mathematical method used by agricultural engineers to simulate the growth, development, and yield of crops under various environmental conditions and management practices. It helps in optimizing resource use, improving crop management strategies, and predicting the impact of climate change on crop production.
Why It's Important
Crop modeling is important for Agricultural Engineers as it enables the prediction and optimization of crop yields, informs sustainable management practices, and aids in the adaptation to climate change, thereby enhancing food security and agricultural productivity efficiently.
How to Improve Crop Modeling Skills
Improving crop modeling involves a multi-faceted approach, focusing on enhancing the accuracy, reliability, and applicability of models. Here are concise strategies tailored for an Agricultural Engineer:
Data Integration: Leverage high-quality, diverse datasets, including remote sensing, soil properties, and climate data, to refine models. FAO's agro-meteorological data can be a valuable resource.
Model Calibration and Validation: Continuously calibrate models using local field data and validate against independent datasets to ensure reliability across different environments. AgMIP (Agricultural Model Intercomparison and Improvement Project) provides guidelines and tools for this purpose.
Incorporate Advances in Technology: Utilize machine learning and artificial intelligence to analyze large datasets, improve predictions, and identify complex patterns. Google AI Blog often discusses advances in AI that can be applied to agriculture.
Collaborative Development: Engage in multidisciplinary collaboration with agronomists, climatologists, and computer scientists for comprehensive model development. Platforms like GitHub facilitate collaboration on model code and development.
Scenario Analysis: Use models to simulate various scenarios (climate change, management practices) to understand potential impacts on crop production and guide adaptation strategies. The Intergovernmental Panel on Climate Change (IPCC) provides scenarios that can be integrated into crop modeling studies.
User Training and Support: Provide training for end-users (farmers, agricultural advisors) on how to interpret model outputs and apply them effectively in decision-making. Extension services and online platforms like Coursera offer courses on crop modeling and agricultural technologies.
By focusing on these areas, Agricultural Engineers can significantly contribute to the advancement and practical application of crop modeling in agriculture, leading to more informed decision-making and sustainable farming practices.
How to Display Crop Modeling Skills on Your Resume
8. Sustainable Design
Sustainable design in agricultural engineering refers to creating systems, machinery, and practices that enhance efficiency and productivity in farming while minimizing environmental impact, conserving resources, and ensuring economic viability and social equity for future generations.
Why It's Important
Sustainable design is crucial for an Agricultural Engineer because it ensures efficient use of resources, minimizes environmental impact, and promotes long-term agricultural productivity and food security, aligning with principles of sustainability and conservation.
How to Improve Sustainable Design Skills
Improving sustainable design, especially for agricultural engineers, involves integrating eco-friendly practices and technologies to minimize environmental impact while maximizing efficiency and productivity. Here are concise strategies:
Adopt Renewable Energy Sources: Utilize solar, wind, or biomass energy to power operations, reducing reliance on fossil fuels. National Renewable Energy Laboratory provides resources and information on renewable energy technologies.
Implement Water Conservation Techniques: Use drip irrigation, rainwater harvesting, and soil moisture sensors to optimize water use. FAO's Water Scarcity offers guidelines and best practices.
Promote Soil Health: Incorporate organic farming practices, crop rotation, and cover cropping to enhance soil fertility and reduce erosion. Soil Health Institute is a resource for research and guidelines.
Integrate Precision Agriculture: Apply data-driven tools and technologies, such as GPS and IoT devices, to improve resource efficiency and crop yields. Precision Agriculture offers insights and updates on the latest in precision farming.
Enhance Biodiversity: Design landscapes and farming systems that support a variety of species to maintain ecosystem balance. The Xerces Society provides guides on creating pollinator-friendly habitats.
Reduce Waste: Implement strategies for recycling, composting, and efficient resource use to minimize waste production. EPA's Sustainable Management of Food shares strategies on reducing food waste.
Adopt Lifecycle Thinking: Evaluate and improve the environmental impact of products and processes from conception to disposal. Life Cycle Initiative offers tools and case studies.
By focusing on these strategies, agricultural engineers can significantly contribute to the development of sustainable agricultural systems that are productive, resilient, and environmentally friendly.
How to Display Sustainable Design Skills on Your Resume
9. Hydrology Analysis
Hydrology analysis involves the study and management of water resources, focusing on the distribution, circulation, and properties of water in the environment. For an Agricultural Engineer, it entails assessing water availability, quality, and distribution to optimize irrigation, drainage, and water conservation practices in agricultural settings.
Why It's Important
Hydrology analysis is crucial for an Agricultural Engineer as it informs the management of water resources for irrigation, ensuring optimal crop growth, soil conservation, and efficient water use, reducing the risk of droughts and floods.
How to Improve Hydrology Analysis Skills
Improving hydrology analysis for an agricultural engineer involves several key strategies aimed at enhancing water resource management, irrigation efficiency, and crop productivity. Here are concise recommendations:
Incorporate Remote Sensing and GIS: Utilize remote sensing and Geographic Information Systems (GIS) for accurate mapping and analysis of topography, soil moisture, and water flow patterns. This approach enables precise irrigation planning and water conservation. USGS Remote Sensing for Water Resources
Adopt Hydrological Modeling Tools: Use advanced hydrological models such as SWAT (Soil and Water Assessment Tool) or MODFLOW to simulate water balance, runoff, and infiltration in your agricultural projects. These tools help in predicting water availability and optimizing water use efficiency. SWAT Model
Implement Precision Agriculture: Leveraging precision agriculture technologies can significantly improve water use efficiency by tailoring irrigation practices to the needs of specific crops and soil conditions, thus reducing water waste. Techniques include soil moisture sensors and variable rate irrigation systems. Precision Agriculture for Water Management
Enhance Data Collection and Monitoring: Continuously monitor meteorological and hydrological data using automated weather stations and stream gauges. This real-time data collection supports better decision-making for irrigation scheduling and water resource management. World Meteorological Organization
Focus on Sustainable Practices: Implement sustainable water management practices such as rainwater harvesting, drip irrigation, and the use of cover crops to enhance groundwater recharge and reduce erosion and water runoff. FAO Water Scarcity
Educate and Train: Stay updated with the latest hydrological analysis techniques and technologies through continuous education and training. Participating in workshops and online courses can provide new insights and approaches to water management. Coursera Water Management Courses
By integrating these strategies, agricultural engineers can significantly improve hydrology analysis, leading to more efficient and sustainable water management practices in agriculture.
How to Display Hydrology Analysis Skills on Your Resume
10. Remote Sensing
Remote sensing is the practice of gathering data and information about objects or areas from a distance, typically using satellite or aerial imagery, to monitor and manage agricultural resources, crop health, and land use without direct physical contact.
Why It's Important
Remote sensing is crucial for agricultural engineers as it allows for the efficient monitoring of crop health, soil conditions, and water usage over large areas, enabling precise management and optimization of agricultural resources for increased productivity and sustainability.
How to Improve Remote Sensing Skills
Improving remote sensing for an Agricultural Engineer involves enhancing data collection, analysis, and application methods to monitor and manage agricultural resources more effectively. Here are concise strategies:
Utilize High-Resolution Satellite Imagery: Employ high-resolution imagery from satellites like Sentinel-2 or Landsat 8 for detailed observation of crop health and soil conditions. NASA Earthdata provides access to a wealth of satellite data.
Incorporate UAV (Drone) Technology: Use UAVs equipped with multispectral or hyperspectral sensors to capture precise data on crop status, pest infestation, and water stress. The FAO’s UAV guidebook offers insights into practical applications.
Leverage Machine Learning: Apply machine learning algorithms to analyze remote sensing data for predictive insights on crop yield, disease outbreak, and optimal harvest times. Google's Earth Engine is a powerful tool for processing and analyzing geospatial data.
Implement IoT for Real-Time Monitoring: Combine remote sensing data with IoT (Internet of Things) sensors for real-time soil moisture, temperature, and nutrient levels monitoring. The open-access journal Sensors publishes relevant research.
Engage in Continuous Learning and Networking: Stay updated with the latest remote sensing technologies and methodologies by participating in webinars, workshops, and conferences. Platforms like Coursera and EDX offer courses on remote sensing and its applications in agriculture.
By integrating these approaches, an Agricultural Engineer can significantly enhance the effectiveness of remote sensing in agriculture, leading to improved crop management, resource use efficiency, and sustainability.
How to Display Remote Sensing Skills on Your Resume
11. Drone Operation
Drone operation in the context of an Agricultural Engineer involves the use of unmanned aerial vehicles (UAVs) to monitor crops, apply pesticides, assess plant health, and manage resources more efficiently, enhancing precision agriculture practices.
Why It's Important
Drone operation is important for an Agricultural Engineer as it enables precision agriculture, allowing for efficient monitoring and management of crops, soil analysis, and targeted pesticide application, leading to increased crop yields and resource conservation.
How to Improve Drone Operation Skills
To improve drone operation in agricultural engineering, focus on these key areas:
Training and Certification: Ensure you have the necessary FAA certification or equivalent for your country. Engage in courses that specialize in agricultural drone operation. FAA Unmanned Aircraft Systems
Understand Your Equipment: Familiarize yourself with the specific drone models you will be using, including their capabilities, limitations, and maintenance requirements. Manufacturer websites and manuals are critical resources.
Software Proficiency: Master the software tools for data analysis and flight planning specific to agriculture, such as Pix4Dfields or Agisoft Metashape. Pix4Dfields, Agisoft Metashape
Regular Maintenance: Implement a strict maintenance schedule to ensure drones are in optimal condition, including firmware updates and hardware checks.
Safety and Regulations Compliance: Stay updated with local regulations regarding drone flights, especially in agricultural zones. Know Before You Fly
Practice and Experimentation: Regularly practice flying in various conditions and experiment with different sensors (e.g., multispectral) to better understand how to capture useful agronomic data.
Networking: Join online forums and communities for agricultural drone operators to exchange knowledge and stay informed about the latest technologies and techniques. Examples include UAV Coach Community Forum and The Drone Trainer Podcast.
By focusing on these areas, agricultural engineers can significantly improve their drone operation skills and contribute more effectively to precision agriculture.
How to Display Drone Operation Skills on Your Resume
12. MATLAB
MATLAB is a high-level programming and numerical computing environment used for algorithm development, data analysis, visualization, and numerical computation, often utilized by agricultural engineers for modeling crop growth, optimizing resource use, and analyzing environmental data.
Why It's Important
MATLAB is important for Agricultural Engineers because it offers powerful tools for data analysis, modeling, and simulation, enabling them to efficiently analyze soil properties, climate data, and crop yields, optimize irrigation systems, and develop precision agriculture technologies, thus improving productivity and sustainability in farming practices.
How to Improve MATLAB Skills
Improving your MATLAB skills as an Agricultural Engineer involves focusing on areas of the software that are most relevant to agricultural data analysis, modeling, and simulation. Here's a concise guide:
Master the Basics: Start with a solid foundation in MATLAB syntax and operations. MATLAB Onramp is a free tutorial that covers the basics.
Learn Data Analysis Techniques: Agricultural engineers often work with large datasets. The Data Analysis with MATLAB for Excel Users course is designed to improve your data handling and analysis skills.
Study Statistical Models: Understand how to apply statistical models to agricultural data for better decision-making. MATLAB offers a Statistics and Machine Learning Toolbox that is particularly useful.
Explore Agricultural Applications: Delve into specific applications of MATLAB in agriculture, such as crop modeling or climate impact studies. The Agricultural Engineering page on MathWorks provides examples and case studies.
Simulate Environmental Systems: Learn to use the Simscape toolbox for modeling and simulating physical systems, crucial for designing sustainable agricultural systems.
Participate in Online Communities: Engage with MATLAB communities such as the MATLAB Central to exchange ideas, ask questions, and share solutions with fellow agricultural engineers and MATLAB users.
Practice Regularly: Apply your skills to real-world agricultural problems. Practice is key to mastering MATLAB. Try to automate or optimize an existing process in your work area using MATLAB.
By focusing on these areas, you'll enhance your MATLAB skills in ways that are directly applicable to the field of agricultural engineering.
How to Display MATLAB Skills on Your Resume
