Environmental Researcher Career Path Guide

Environmental researchers investigate natural and human-influenced ecosystems to better understand environmental issues and develop sustainable solutions. They collect, analyze, and interpret scientific data to address challenges related to climate change, pollution, biodiversity loss, and resource management, often collaborating with policymakers, industries, and communities to promote environmental stewardship.

8%

growth rate

$70,000

median salary

remote-friendly

πŸ“ˆ Market Demand

Low
High
High

The demand for environmental researchers is currently high, fueled by increasing awareness and regulation of environmental issues worldwide. As governments, corporations, and communities prioritize sustainability and climate resilience, the need for scientific expertise to guide policies and practices has expanded significantly.

πŸ‡ΊπŸ‡Έ Annual Salary (US, USD)

45,000β€”95,000
Median: $70,000
Entry-Level
$52,500
Mid-Level
$70,000
Senior-Level
$87,500

Top 10% of earners in this field can expect salaries starting from $95,000+ per year, especially with specialized skills in high-demand areas.

Core Functions of the Environmental Researcher Role

Environmental researchers play a critical role in studying the complex interactions between natural systems and human activities. Their work frequently involves extensive fieldwork, data collection, laboratory experiments, and sophisticated statistical analysis to understand how ecosystems function and respond to pressures such as pollution, deforestation, climate change, and urban development.

Many environmental researchers focus on specific areas such as air and water quality, soil contamination, wildlife populations, or the impact of industrial activities on habitats. Their research can inform regulatory decisions and guide conservation efforts, aiming to minimize human impact and preserve biodiversity. Additionally, they often participate in the development and testing of new technologies for environmental monitoring and remediation.

Collaborations are central to this role; environmental researchers frequently work with multidisciplinary teams that include ecologists, chemists, statisticians, policy analysts, and community stakeholders. Their findings are synthesized into reports, scientific papers, and presentations to both technical and non-technical audiences, helping translate scientific insights into actionable policies and practices. This job requires a blend of strong analytical capabilities, practical problem-solving skills, and effective communication to drive positive environmental change.

Key Responsibilities

  • Design and implement scientific research projects focused on environmental systems and issues.
  • Conduct field surveys and collect environmental samples such as soil, water, air, and biological specimens.
  • Utilize laboratory techniques to analyze pollutants, contaminants, and ecosystem health indicators.
  • Apply statistical and computational methods to interpret data and detect changes over time.
  • Develop models to predict environmental trends and assess potential impacts of human activities.
  • Collaborate with government agencies, NGOs, and corporations to align research with regulatory needs.
  • Prepare detailed scientific reports, research papers, and environmental impact assessments.
  • Present findings at conferences, workshops, and community meetings to support decision-making.
  • Monitor compliance with environmental laws and regulations through site evaluations and audits.
  • Innovate and test new technologies for environmental monitoring and remediation.
  • Advise policy makers on sustainable practices and the implications of scientific findings.
  • Maintain detailed records of experimental procedures, field notes, and sample inventories.
  • Secure funding through grant writing and managing project budgets efficiently.
  • Stay updated with emerging research, scientific literature, and environmental policies.
  • Mentor junior researchers and supervise student interns or assistants in research activities.

Work Setting

Environmental researchers work in diverse and often dynamic environments. Fieldwork can take place in remote, urban, or industrial locations involving outdoor conditions that vary seasonally and geographically. This may include forests, wetlands, coastal zones, rivers, and contaminated sites, requiring physical stamina and adaptability to varying weather and terrain. Laboratory work entails handling sophisticated instruments and maintaining strict safety protocols. Many researchers also spend time in office or academic settings, using computers to analyze data, develop reports, and communicate results. The role often demands substantial travel and collaboration with a wide range of stakeholders, from local communities to international organizations. Flexibility is essential, as work schedules can be influenced by factors such as weather, ecological cycles, and project deadlines.

Tech Stack

  • Geographic Information Systems (GIS) software such as ArcGIS and QGIS
  • Remote sensing tools including satellite imagery and drones
  • Statistical software like R, SPSS, and Python (with libraries such as Pandas and SciPy)
  • Environmental sampling equipment (soil corers, water quality sensors, air samplers)
  • Mass spectrometers and gas chromatographs for chemical analysis
  • GPS devices for accurate location tracking
  • Laboratory equipment for soil, water, and biological sample testing
  • Modeling software like STELLA, SWAT, and climate projection tools
  • Data loggers and environmental monitoring stations
  • Database management systems for organizing collected data
  • Remote data collection platforms and IoT (Internet of Things) sensors
  • Environmental Impact Assessment (EIA) and Life Cycle Analysis (LCA) software
  • Scientific visualization tools such as Tableau and MATLAB
  • Project management software like MS Project and Trello
  • Technical writing and publication software, including LaTeX and Microsoft Office
  • Field safety gear including PPE, field notebooks, and portable weather stations
  • Environmental regulatory databases and reporting portals
  • Mobile apps for citizen science and community data collection
  • Drone piloting and aerial survey equipment
  • Carbon footprint and sustainability assessment tools

Skills and Qualifications

Education Level

A career as an environmental researcher typically requires at least a bachelor’s degree in environmental science, ecology, biology, chemistry, geology, or a related discipline. Many employers prefer candidates with a master’s or doctoral degree, especially for roles involving independent research or leadership responsibilities. Graduate studies provide in-depth knowledge of scientific methodologies, advanced statistical analysis, and specialization in areas such as conservation biology, geochemistry, or atmospheric sciences. Coursework should combine both theoretical concepts and practical skills, including fieldwork and laboratory training.

Internships, research assistantships, and participation in environmental projects during undergraduate and graduate education are highly advantageous for gaining hands-on experience. Certifications like GIS Professional (GISP) or those offered by environmental agencies further reinforce a candidate’s expertise and marketability. Continuous learning through workshops, conferences, and specialized training on emerging environmental technologies and regulations is essential for career advancement.

Tech Skills

  • Environmental sampling and field data collection
  • Laboratory techniques for chemical and biological analysis
  • Geographic Information Systems (GIS) proficiency
  • Remote sensing and aerial imaging
  • Statistical analysis using R, Python, or SPSS
  • Environmental modeling and simulation
  • Use of environmental monitoring instruments
  • Data management and database querying
  • Scientific report writing and documentation
  • Environmental Impact Assessment (EIA)
  • Climate change analysis and carbon footprint calculation
  • Operating drones and other remote sensing devices
  • Knowledge of environmental regulations and compliance standards
  • Project management and research design
  • Safety protocols and fieldwork risk assessment
  • Use of visualization software for data presentation
  • Remote data collection and sensor deployment
  • GIS spatial data analysis and map creation
  • Policy analysis and interpretation
  • Grant writing and funding proposal development

Soft Abilities

  • Critical thinking and problem solving
  • Strong written and verbal communication
  • Attention to detail and thoroughness
  • Adaptability and resilience in field conditions
  • Collaboration and teamwork
  • Time management and organization
  • Ethical judgment and integrity
  • Curiosity and passion for the environment
  • Data interpretation and synthesis
  • Leadership and mentorship abilities

Path to Environmental Researcher

Begin by earning a bachelor’s degree in an environmental-related field such as environmental science, biology, chemistry, geology, or ecology. During undergraduate studies, seek out internships, volunteer opportunities, and undergraduate research projects to build practical experience and establish professional connections. Developing a solid foundation in both fieldwork and laboratory skills is crucial.

After completing your degree, consider pursuing advanced education, such as a master’s or Ph.D., especially if you aspire to work on complex research projects or pursue academia. Graduate programs often allow specialization in a niche area like climate science, conservation biology, or environmental toxicology. Engage actively in research, publishing papers, and presenting findings to bolster your resume.

Networking with professionals, joining associations such as the Ecological Society of America or the Society for Conservation Biology, and attending conferences will increase your awareness of opportunities and industry trends. Many environmental researchers start as assistants or technicians before advancing to lead research projects, so building experience through entry-level roles is valuable.

Continuously updating technical skills, particularly in GIS, remote sensing, and data analytics, enhances employability. Obtaining certifications related to environmental regulations or software tools can further distinguish you. Consider developing soft skills such as communication and collaboration, which will be critical in multidisciplinary and policy-driven environments.

Seek roles within government agencies, environmental consulting firms, non-profits, or research institutions to gain diverse experience. Being open to relocation or travel can open doors to projects globally, enriching your expertise and career prospects. Finally, remain committed to lifelong learning, as environmental challenges and technologies evolve rapidly, demanding continual skill enhancement and adaptability.

Required Education

Educational pathways for environmental researchers primarily begin with undergraduate studies in relevant scientific disciplines. Degrees in environmental science, ecology, biology, chemistry, geology, or earth sciences furnish the foundational knowledge essential for research and analysis. Curricula often blend classroom instruction with field trips, laboratory exercises, and internships that facilitate hands-on experience and practical knowledge of scientific methods.

Graduate education is highly recommended for those seeking advanced research roles, leadership positions, or opportunities in academia. Master's and doctoral programs emphasize specialization, equipping students with skills in designing rigorous experiments, using advanced analytical software, and contributing original research to the field. Students usually conduct independent research projects, engage in peer-reviewed publishing, and present findings at scientific conferences.

Supplementary training programs, workshops, and certifications complement formal education. Proficiency in Geographic Information Systems (GIS) can be enhanced by courses leading to certifications such as the GIS Professional credential. Remote sensing and drone operation may require specialized training to ensure effective data collection and compliance with aviation regulations.

Many institutions offer certificate programs in environmental data analysis, environmental compliance, or sustainability management, which can strengthen a candidate's qualifications. Continuous professional development is criticalβ€”this can entail attending seminars on emerging environmental technologies, modeling techniques, or regulatory updates.

On-the-job training often familiarizes researchers with specific software, laboratory instruments, or government protocols. Internships and assistantships provide exposure to real-world challenges and collaborative research. Developing soft skills such as project management, public speaking, and grant writing is often integrated into professional growth, ensuring environmental researchers can effectively work in multidisciplinary teams and secure funding for their projects.

Career Path Tiers

Junior Environmental Researcher

Experience: 0-2 years

In the initial stage of their career, junior environmental researchers focus on supporting more experienced colleagues by conducting field sampling, basic laboratory analysis, and data entry. They learn how to operate scientific equipment and contribute to data collection and quality control. Typically, juniors participate in well-defined projects and receive guided training to develop foundational research skills. Responsibilities include assisting with literature reviews, helping prepare reports, and gaining familiarity with environmental regulations. This tier emphasizes skill-building, adaptability, and beginning to understand the broader implications of environmental research.

Mid-level Environmental Researcher

Experience: 3-7 years

Mid-level researchers take on more autonomous roles, designing experiments, managing smaller projects, and analyzing complex data sets. They often specialize in specific environmental issues or methods and collaborate extensively with external partners like government agencies or NGOs. In addition to field and lab work, they write detailed scientific reports and present findings at conferences. Mid-level roles require balancing research responsibilities with mentoring junior staff and contributing to grant proposals. Communication skills and leadership become critical at this stage.

Senior Environmental Researcher

Experience: 8-15 years

Senior researchers lead major projects, develop research agendas, and supervise multidisciplinary teams. They are responsible for securing funding, pioneering innovative methodologies, and influencing environmental policy through scientific advisory roles. Their work often involves high-level collaboration with policymakers, industry stakeholders, and international bodies. Senior researchers publish extensively, engage in public outreach, and serve as institutional leaders or advisors. Strategic thinking, complex problem-solving, and advanced communication are essential qualities for this level.

Lead Environmental Scientist / Principal Investigator

Experience: 15+ years

Individuals at this career tier guide entire research programs or departments, setting scientific priorities and influencing regional, national, or global environmental strategies. They often hold academic or governmental leadership roles and shape environmental science through large-scale studies, policy formulation, and international collaborations. Responsibilities include mentoring senior researchers, managing substantial budgets, and representing their organizations in high-level negotiations. Expertise, vision, and the ability to inspire others mark this pinnacle stage.

Global Outlook

Environmental challenges do not respect borders, which creates abundant global opportunities for environmental researchers. Countries with diverse ecosystems, industrial bases, and environmental regulations offer expansive fields for study and intervention. North America, especially the United States and Canada, maintain robust funding for environmental research through federal agencies such as the Environmental Protection Agency (EPA) and natural resource departments. Europe presents a landscape rich in international collaboration through institutions like the European Environment Agency (EEA) and the European Union’s environmental frameworks. Nations like Germany, Sweden, and the Netherlands are leaders in sustainability and innovate widely in renewable energy and climate research.

In Asia, rapid industrialization and urbanization in countries such as China, India, and Japan present unique environmental research challenges and funding opportunities. Emerging economies in Southeast Asia and Africa offer rich biodiversity and pressing environmental management needs, attracting international scientists and development agencies.

Global research often demands cultural sensitivity and an understanding of different regulatory systems. Collaborative projects might involve data sharing, multinational field studies, and community engagement across continents. Language skills and familiarity with global environmental agreements, such as the Paris Accord or the Convention on Biological Diversity, enhance effectiveness.

The United Nations and NGOs like WWF or Greenpeace support numerous research programs worldwide, opening doors to international career paths. Additionally, opportunities in remote sensing and satellite-based environmental monitoring often arise in multinational consortiums, leveraging cutting-edge technology for a planetary perspective. Ultimately, environmental researchers with flexibility, cross-cultural awareness, and interdisciplinary expertise find thriving careers on the world stage.

Job Market Today

Role Challenges

The environmental research field faces persistent challenges such as fluctuating funding levels and political influences on environmental policy. Researchers often navigate complex regulatory landscapes that may differ widely by region, which sometimes limits the application of findings. Additionally, climate change and rapid urbanization intensify the urgency of their work but also add layers of complexity to data interpretation due to unpredictable variables. The multidisciplinary nature of environmental problems requires continuous skill updating, while high competition for grants can stall project continuity. Fieldwork conditions can be demanding and hazardous, requiring rigorous safety adherence. Global crises, such as pandemics, occasionally disrupt field access and collaborative efforts, posing logistical and financial barriers to research progress.

Growth Paths

Environmental research is expanding rapidly due to growing global awareness of climate change, biodiversity loss, and sustainable resource management. Emerging technologies in remote sensing, big data analytics, and environmental modeling empower researchers to tackle questions at unprecedented scales and precision. Industry demand for sustainable practices spurs investment in environmental consulting, pollution mitigation, and ecological restoration projects. Governments and international agencies are increasing funding for conservation programs and climate resilience research, creating new roles and interdisciplinary collaborations. The rise of citizen science and community-based monitoring introduces opportunities for innovative data collection methods. Environmental researchers with expertise in data science, policy analysis, and global sustainability initiatives will find growing prospects both in academia and the private sector.

Industry Trends

The environmental research landscape is being shaped by digitization and data integration, with GIS and remote sensing becoming indispensable tools. There is a strong trend towards transdisciplinary research combining natural sciences with social sciences to address complex socio-environmental systems. Climate modeling, ecosystem services valuation, and environmental justice are gaining prominence as research themes. Sustainable development goals (SDGs) orient projects toward human well-being and equitable resource distribution. Open data initiatives and collaborative platforms foster global partnerships and increase transparency. Advances in AI and machine learning are enabling predictive analytics and automated monitoring. An emphasis on policy-relevant science is pushing researchers to enhance communication skills and engage more deeply with non-scientific stakeholders.

A Day in the Life

Morning (9:00 AM - 12:00 PM)

Focus: Data Collection & Fieldwork Preparation
  • Planning daily field activities and coordinating with team members
  • Calibrating sampling equipment and reviewing safety protocols
  • Conducting environmental measurements such as water quality tests or biodiversity surveys
  • Recording detailed field notes and GPS coordinates
  • Communicating with local stakeholders or landowners for site access

Afternoon (12:00 PM - 3:00 PM)

Focus: Laboratory Analysis & Data Processing
  • Analyzing collected samples using laboratory instruments like spectrometers
  • Entering and cleaning data sets for accuracy
  • Applying statistical software to identify patterns or anomalies
  • Consulting scientific literature to compare and validate findings
  • Preparing graphs and charts to visualize preliminary results

Late Afternoon (3:00 PM - 6:00 PM)

Focus: Reporting & Collaboration
  • Writing detailed progress reports or research papers
  • Participating in meetings with multidisciplinary teams
  • Discussing policy implications and project adjustments
  • Editing grant proposals or funding requests
  • Planning next steps for ongoing or upcoming research projects

Work-Life Balance & Stress

Stress Level: Moderate

Balance Rating: Good

Environmental researchers experience a moderate level of stress, largely due to the pressure of meeting grant deadlines, managing complex data, and navigating fieldwork logistics. However, flexible work arrangements and the meaningful nature of their work often contribute positively to work-life balance. Field research schedules can be demanding and sometimes require travel or irregular hours, but many find these challenges offset by periods of office-based analysis and writing. The balance can vary by employer, with academic and governmental roles typically providing structured schedules, while consulting may demand more intense workloads.

Skill Map

This map outlines the core competencies and areas for growth in this profession, showing how foundational skills lead to specialized expertise.

Foundational Skills

The absolute essentials every environmental researcher must master.

  • Field Sampling Techniques
  • Basic Laboratory Analysis
  • Data Entry and Management
  • Scientific Method and Experimental Design

Specialization Paths

Areas to specialize in after mastering the fundamentals.

  • Advanced GIS and Spatial Analysis
  • Remote Sensing and Drone Operation
  • Environmental Modeling and Simulation
  • Climate Change Impact Analysis

Professional & Software Skills

The tools and soft skills needed to succeed in a professional environment.

  • Proficiency in R, Python, or SPSS
  • Scientific Writing and Publication
  • Project Management (e.g., MS Project, Trello)
  • Stakeholder Communication and Presentation
  • Grant Writing and Funding Acquisition

Pros & Cons for Environmental Researcher

βœ… Pros

  • Opportunity to contribute to meaningful environmental and societal change.
  • Diverse career paths with options in academia, government, nonprofits, and private sector.
  • Exposure to both fieldwork and laboratory research providing variety in daily tasks.
  • Collaboration with multidisciplinary teams broadens professional networks and skills.
  • Continuous learning due to evolving environmental technologies and challenges.
  • Possibility to work internationally and tackle global environmental issues.

❌ Cons

  • Funding uncertainties can impact job stability and project continuity.
  • Fieldwork can demand physical endurance and exposure to unpleasant or hazardous conditions.
  • High competition for advanced roles and research grants.
  • Navigating complex regulatory and political environments can be challenging.
  • Data analysis and report writing can be time-consuming and repetitive.
  • Work-life balance may be disrupted by seasonal or project-driven deadlines.

Common Mistakes of Beginners

  • Neglecting to develop strong technical skills in data analysis and GIS early on.
  • Underestimating the importance of clear scientific communication to non-expert audiences.
  • Failing to prioritize safety protocols during fieldwork.
  • Lacking awareness of environmental regulations relevant to their research locale.
  • Overcommitting to projects without balancing workload, leading to burnout.
  • Neglecting to document field and lab procedures meticulously.
  • Ignoring opportunities to collaborate and network with interdisciplinary teams.
  • Assuming research findings alone will prompt policy changes without stakeholder engagement.

Contextual Advice

  • Invest time in mastering GIS and remote sensing technologies to enhance research impact.
  • Cultivate strong writing skills to translate complex data into accessible reports and publications.
  • Prioritize thorough planning before fieldwork to ensure data quality and personal safety.
  • Stay informed about current environmental policies and laws to align research accordingly.
  • Build a professional network early through internships, conferences, and professional organizations.
  • Practice effective project and time management to handle multiple responsibilities.
  • Seek mentorship from experienced researchers to navigate career development.
  • Engage with local communities and stakeholders to ground research in practical relevance.

Examples and Case Studies

Assessing Urban Air Quality in Los Angeles

An environmental research team conducted a two-year study measuring airborne pollutants across multiple Los Angeles neighborhoods to understand the impact of traffic emissions on public health. Utilizing mobile monitoring stations and GIS mapping, researchers identified hotspots of nitrogen dioxide and particulate matter levels. Collaboration with city planners led to implementation of low-emission zones and increased green spaces.

Key Takeaway: This case underscores the value of integrating field data with spatial analysis to inform urban environmental policy effectively.

Coral Reef Health Monitoring in the Great Barrier Reef

Researchers employed drone remote sensing combined with underwater sampling to monitor coral bleaching events due to rising ocean temperatures. Data analysis revealed patterns of recovery and decline, guiding conservation priorities and marine protected area designs.

Key Takeaway: Combining cutting-edge technology with traditional sampling techniques enables comprehensive ecosystem management.

Evaluating Soil Contamination near Industrial Sites in Germany

A multi-year investigation assessed heavy metal contamination in soils around factories in the Ruhr region. Laboratory chemical analysis coupled with community engagement helped identify contamination sources and develop remediation strategies that balance economic and environmental goals.

Key Takeaway: Effective environmental research must integrate scientific rigor with stakeholder collaboration to create sustainable solutions.

Modeling Climate Change Impact on Amazon Biodiversity

Using simulation models and field data, researchers projected how species distributions might shift under various climate scenarios, providing critical insights for conservation planning.

Key Takeaway: Predictive modeling is a powerful tool for proactive environmental management in the face of global climate uncertainty.

Portfolio Tips

An environmental researcher’s portfolio should showcase a balance of scientific rigor, technical competencies, and effective communication. Include detailed summaries of research projects highlighting your role, methodologies used, and outcomes achieved. Present data visualizations such as GIS maps, graphs, or remote sensing images to illustrate your analytical abilities visually. Publications, posters, and presentations from conferences or community outreach efforts demonstrate your capability to disseminate information to diverse audiences.

Highlight proficiency with key tools like statistical software or GIS platforms, and attach relevant certifications. Include examples of grant proposals or reports you have authored to emphasize your skills in securing project funding and meeting institutional requirements. Photographs or videos documenting fieldwork can provide context and bring your work to life.

Tailor your portfolio for the specific audience; for academic roles, emphasize peer-reviewed publications and experimental design, while for consulting positions, focus on applied results, regulatory compliance, and stakeholder engagement. Keeping the portfolio organized, concise, and updated with recent work reflects professionalism and commitment. Digital portfolios with web-based platforms or PDF compilations that balance narrative and technical detail offer easily accessible and compelling presentations of your expertise.

Job Outlook & Related Roles

Growth Rate: 8%
Status: Growing faster than average
Source: U.S. Bureau of Labor Statistics

Related Roles

Frequently Asked Questions

What is the difference between an environmental scientist and an environmental researcher?

While the terms sometimes overlap, environmental researchers specifically engage in generating original scientific data and analysis to understand environmental phenomena, typically within research institutions or academia. Environmental scientists may have broader roles, including applying existing knowledge to manage environmental programs, enforce regulations, or perform consulting.

What kind of fieldwork is typical for an environmental researcher?

Fieldwork can range from sampling air, water, and soil to tracking wildlife populations or assessing habitat conditions. It often involves using scientific instruments, following standardized protocols, and working under varying environmental conditions. Fieldwork is essential for collecting primary data required for comprehensive environmental analysis.

Which software skills are essential for an environmental researcher?

Proficiency in GIS software (such as ArcGIS or QGIS), statistical programs (like R or Python), remote sensing analysis tools, and data visualization platforms are critical. These tools enable handling spatial data, applying statistical models, and communicating findings effectively.

How important is writing and communication in this role?

Extremely important. Environmental researchers must clearly document methodologies, write reports and scientific papers, and communicate findings to diverse audiences, including policymakers and the general public. Strong writing and presentation skills amplify research impact.

Can environmental research roles be remote or telecommute?

Due to the necessity of fieldwork and laboratory analysis, the role generally requires on-site presence. However, data analysis, report writing, and collaboration phases can sometimes be done remotely depending on the employer's flexibility.

What industries employ environmental researchers?

Environmental researchers are employed by government agencies, academic and research institutions, environmental consulting firms, non-governmental organizations, industries like energy and manufacturing, and international organizations focused on sustainability.

Is fieldwork dangerous or physically demanding?

Fieldwork can present physical challenges and hazards, including rough terrain, exposure to weather extremes, and potential encounters with wildlife or pollutants. Proper training, safety equipment, and risk assessment are essential to minimize dangers.

What are effective ways to stay current with scientific advancements in this field?

Regularly reading academic journals, attending professional conferences and workshops, participating in environmental networks, and engaging with online learning platforms help environmental researchers stay current with new methods, policies, and technologies.

How can one transition from a junior researcher to a senior role?

Gaining specialized expertise, producing impactful research publications, mastering project management, securing funding, and developing leadership skills are key in advancing through career stages.

What role does environmental research play in policy making?

Research findings provide the scientific foundation for environmental laws, regulations, and sustainability policies. Researchers often collaborate with policymakers to ensure decisions are evidence-based and effective.

Sources & References

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