Seismic Observer Career Path Guide

A Seismic Observer monitors, analyzes, and interprets seismic data to detect and record vibrations within the Earth’s crust. This role is essential in geophysical surveys, earthquake monitoring, oil and gas exploration, and other fields related to understanding subterranean structures and seismic activity. They work closely with geologists, engineers, and data analysts to ensure accurate data collection and reporting.

7%

growth rate

$65,000

median salary

remote-friendly

πŸ“ˆ Market Demand

Low
High
High

The demand is currently high, fueled by ongoing exploration activities in oil and gas, expanding earthquake monitoring infrastructure worldwide, and emerging renewable energy projects requiring seismic oversight. While automation and advanced sensors change traditional workflows, human oversight for complex or critical data remains indispensable.

πŸ‡ΊπŸ‡Έ Annual Salary (US, USD)

45,000β€”85,000
Median: $65,000
Entry-Level
$51,000
Mid-Level
$65,000
Senior-Level
$79,000

Top 10% of earners in this field can expect salaries starting from $85,000+ per year, especially with specialized skills in high-demand areas.

Core Functions of the Seismic Observer Role

Seismic Observers play a pivotal role in collecting and interpreting data related to vibrations and waves traveling through the Earth. They operate seismic equipment that captures data generated by natural or artificial seismic events. By meticulously monitoring seismic waves, these professionals help identify fault lines, potential drilling sites, or signs of earthquakes, contributing to safety and exploration efforts globally.

The role requires a balance of fieldwork and analytical skills. Typically, Seismic Observers deploy and maintain seismographs, accelerometers, and other sensitive equipment in remote or hazardous environments. They must ensure equipment reliability and data integrity while adhering to safety standards. After gathering data, the role often involves collaboration with geophysicists or seismologists to interpret findings.

Seismic Observers can work in varied sectors, including oil and gas, mining, environmental consulting, and governmental earthquake monitoring agencies. Their work impacts not only commercial operations but also public safety and scientific research by providing real-time data that enhances the understanding of Earth's dynamic processes. They commonly travel to field sites where they set up monitoring stations, participate in data acquisition, and troubleshoot technical issues that arise during surveys.

The profession is technically demanding, requiring familiarity with electronic instrumentation, data acquisition software, and geophysical principles. Seismic Observers must document findings precisely and often contribute to reports that guide exploration strategies or hazard assessments. Their role is vital in minimizing risks associated with drilling or construction and advancing scientific knowledge about seismic activities worldwide.

Key Responsibilities

  • Install, calibrate, and maintain seismic monitoring equipment in field locations.
  • Monitor seismic waves and vibrations continuously, ensuring data accuracy.
  • Record and log seismic events, distinguishing natural seismicity from anthropogenic sources.
  • Conduct routine inspections and troubleshoot equipment malfunctions under challenging conditions.
  • Collaborate with geologists and seismologists to interpret raw data and validate results.
  • Operate software for real-time data acquisition and preliminary processing.
  • Ensure compliance with safety protocols and environmental regulations at field sites.
  • Maintain detailed records of seismic data and operational logs for reporting and archival purposes.
  • Participate in field surveys aimed at oil, gas, or mineral exploration.
  • Assist with aftershock and earthquake response monitoring in cooperation with government agencies.
  • Contribute to the preparation of technical reports and presentations to stakeholders.
  • Transport sensitive and heavy equipment safely to and from remote or offshore locations.
  • Evaluate seismic noise levels to improve data quality and reduce signal interference.
  • Train junior field technicians or team members in proper instrument handling and data collection methods.
  • Monitor weather and environmental factors that may impact seismic monitoring efficiency.

Work Setting

Seismic Observers spend a substantial portion of their time working outdoors, often in remote or rugged terrains such as deserts, mountainous regions, offshore platforms, or undersea environments. Field conditions might include harsh weatherβ€”extreme heat, cold, rain, or windβ€”that demands physical endurance and adaptability. Safety is a top concern, with strict adherence to operational and environmental protocols essential to protect both personnel and equipment.

The job blends solitary monitoring duties with teamwork, where clear communication with geoscientists and field engineers is necessary. Data analysis and report writing usually occur indoors, either at field camps or central offices equipped with specialized software tools. Seismic Observers must be prepared for irregular work hours, especially during seismic events or critical surveying periods, which can involve night shifts or extended deployments.

Risks include handling heavy or delicate instruments, operating vehicles in difficult terrain, and possible exposure to seismic hazards or offshore hazards. Consequently, physical fitness, situational awareness, and safety training are integral components of the work environment. Despite these challenges, many professionals find the role rewarding due to its blend of technical skills, field adventure, and tangible contributions to earth science and resource management.

Tech Stack

  • Seismographs
  • Accelerometers
  • Geophones
  • Digital Data Loggers
  • Seismic Data Acquisition Software (e.g., SeisComP3, Geosense)
  • GPS Units
  • Radio Communication Devices
  • Satellite Data Transmitters
  • Power Generators and Batteries
  • Vibration and Noise Filtering Tools
  • Signal Processing Software
  • Field Laptops and Rugged Tablets
  • Remote Monitoring Systems
  • Wireless Sensor Networks
  • Geophysical Survey Vehicles
  • Underwater Seismic Equipment (Hydrophones)
  • Safety Gear (Helmets, Harnesses, High-Visibility Clothing)
  • GIS Software (e.g., ArcGIS)
  • Environmental Monitoring Tools

Skills and Qualifications

Education Level

Becoming a Seismic Observer generally requires a bachelor’s degree in geophysics, geology, environmental science, physics, or a related earth science field. Foundational knowledge of geophysical principles, wave propagation, and earth structure is critical. Specialized courses in seismic data acquisition, instrumentation, and signal processing provide a significant advantage.

Candidates should pursue hands-on experience through internships or co-op programs that offer fieldwork exposure to seismic equipment and operations. Higher education or certifications in petroleum geology or exploration geophysics can open more advanced opportunities. Additionally, basic electrical engineering or computer science knowledge supports troubleshooting and operating the complex electronic instruments used daily.

Many employers value certifications related to field safety, first aid, and technical competency in seismic instrumentation. Ongoing professional development courses help Observers stay current with rapidly evolving software and sensor technology, which are crucial given the precision needed in seismic data collection.

Tech Skills

  • Seismic instrumentation setup and calibration
  • Signal processing and filtering techniques
  • Real-time seismic data acquisition
  • Understanding of wave propagation and seismic wave types
  • Proficiency with seismic software packages (SeisComP3, ObsPy)
  • GPS and GIS technology usage
  • Field equipment troubleshooting and maintenance
  • Digital data logging and interpretation
  • Remote sensor network deployment
  • Basic programming or scripting (Python, MATLAB)
  • Knowledge of environmental data monitoring systems
  • Seismic hazard and risk assessment basics
  • Ability to analyze noise and interference patterns
  • Data quality control procedures
  • Geophone and hydrophone operation

Soft Abilities

  • Attention to detail
  • Problem-solving aptitude
  • Physical stamina and resilience
  • Strong communication skills
  • Team collaboration
  • Time management
  • Adaptability to harsh environments
  • Critical thinking
  • Documentation and reporting proficiency
  • Safety awareness

Path to Seismic Observer

Embarking on a career as a Seismic Observer begins with obtaining a relevant bachelor’s degree in geophysics, geology, seismology, or related earth sciences. Throughout your academic training, prioritize courses focused on wave dynamics, instrumentation, and field methods to build a strong theoretical foundation.

While studying, seek internships or summer jobs that allow hands-on experience with seismic equipment and field data collection. Many oil and gas companies, research institutions, and government organizations offer opportunities to assist in geophysical surveys and seismic monitoring projects. These experiences are crucial to understanding real-world challenges and learning proper equipment handling.

After graduation, securing an entry-level position as a junior seismic technician or assistant observer provides practical training in deploying instruments, calibrating equipment, and operating data acquisition systems under supervision. Certification or training in field safety, first aid, and technical electronics will improve employability and readiness for field conditions.

As expertise develops, consider pursuing specialized training in seismic data interpretation, advanced signal processing, or geographic information systems (GIS). Participating in professional societies such as the Society of Exploration Geophysicists (SEG) can open networking and continuous learning opportunities.

Career advancement often involves greater responsibility for managing field teams, complex datasets, or specialized equipment like marine seismic arrays. Staying abreast of technological advances through workshops, webinars, and short courses ensures long-term success. Continuous upgrading of software skills, particularly in seismic data processing and programming, will keep you competitive in the evolving geophysical industry.

Required Education

Undergraduate programs focused on geosciences, physics, or environmental science generally provide the core courses needed to enter the field. Institutions with strong programs in applied geophysics offer critical coursework in seismic wave theory, signal analysis, instrumentation, and field methodologies.

Certifications like the International Well Control Forum’s Seismic Observer Safety course or training in instrument-specific software platforms provide essential practical knowledge for fieldwork. Additionally, safety training, including wilderness first aid, rigging and hoisting operations, and hazardous environment protocols, are often mandatory.

Postgraduate studies can enhance one’s understanding of seismology and geophysical exploration methods, enabling specialist roles or research careers. Many industry professionals also gain certifications in geographic information systems (GIS) and remote sensing to handle large datasets more effectively.

Hands-on workshops, internships, and field schools, often offered by academic and research institutes, provide immersive experiences in deploying seismic networks and evaluating seismic data. These sessions improve technical confidence and ensure that observers can adapt quickly on-site when equipment malfunctions or environmental conditions shift unexpectedly.

Training in programming languages such as Python or MATLAB aids in the automation of data processing and enhances collaboration with data scientists and geophysicists, making this skill increasingly valuable. Finally, professional memberships offer access to industry guidelines, journals, and continuous learning modules that contribute to maintaining high proficiency in this dynamic field.

Career Path Tiers

Junior Seismic Observer

Experience: 0-2 years

At this entry level, the Junior Seismic Observer primarily works under the supervision of more experienced personnel. Responsibilities include assisting with equipment setup, basic calibration, and monitoring data collection during static or mobile seismic surveys. This stage focuses on developing technical skills, safety awareness, and familiarity with software tools. Expect routine data logging, daily maintenance checks, and initial trouble-shooting tasks. Learning how to identify normal vs. anomalous seismic activity is a key developmental goal, alongside gaining comfort with field environments and remote site logistics. Mentorship and following strict procedural guidelines dominate this phase.

Mid-Level Seismic Observer

Experience: 3-5 years

Observers at this level manage more complex equipment deployment and have increased responsibility for ensuring data quality. They often lead small field teams and coordinate between technical staff and project managers. Proficiency in advanced signal processing software and the ability to interpret preliminary seismic readings are expected. This tier includes troubleshooting complicated instrument failures and adapting survey designs based on environmental or operational challenges. Mid-Level Observers contribute directly to reporting and support decision-making processes related to site safety, exploration feasibility, or seismic risk assessments.

Senior Seismic Observer

Experience: 6+ years

Senior roles encompass project leadership, strategic planning, and close collaboration with geophysicists and engineers. Responsibilities expand to supervising multiple field teams, ensuring compliance with safety and environmental regulations, and managing budgets and equipment logistics. Senior Observers spearhead training and mentoring programs for junior staff, develop advanced monitoring protocols, and liaise with stakeholders to interpret seismic data in the context of broader exploration, hazard prevention, or scientific objectives. Decision-making authority increases alongside a need for comprehensive technical expertise and leadership skills.

Global Outlook

Seismic Observers enjoy global demand due to the universal need for earth monitoring and natural resource exploration. Key regions include North America, particularly in oil and gas hubs like Texas, Louisiana, and Canada’s Alberta province. The Middle East, including countries like Saudi Arabia and the UAE, also heavily invests in seismic exploration for hydrocarbon extraction.

In Asia-Pacific, fast-growing economies like Australia, China, and Indonesia offer opportunities in mining and geological research. Offshore and marine seismic work is prominent around Norway, the North Sea, Brazil, and West Africa, where submarine exploration is critical.

Earthquake-prone zones such as Japan, Chile, California (USA), and Turkey prioritize seismic monitoring for disaster preparedness, creating niche roles within public safety agencies. International relief and geological institutions also deploy Seismic Observers in regions where seismic hazards threaten infrastructure projects or populations.

Multinational oil companies, environmental consulting firms, and government bodies frequently contract seismic field personnel who must be adaptable to diverse geographic and climatic conditions. Language skills and cultural competence boost prospects, while familiarity with international safety standards and environmental regulations enhances employability. The growing emphasis on renewable energy, such as geothermal projects, contributes to expanding geographic segments for this profession.

Job Market Today

Role Challenges

Current challenges revolve around the increasing complexity and technical sophistication of seismic data acquisition systems. As sensors become more sensitive and data volumes grow exponentially, managing, processing, and ensuring data integrity requires constant upskilling. Field conditions are often harsh and demanding, including remote or politically unstable regions, necessitating a high level of resilience and safety preparedness. Transitioning to autonomous and wireless seismic networks imposes new demands for technical versatility. Another challenge is balancing cost control while maintaining data quality in increasingly competitive exploration environments. Environmental regulations and the impact of seismic surveys on wildlife sometimes impose work restrictions or require additional mitigation efforts, complicating field operations. Lastly, recruiting and retaining skilled observatory staff in remote locations remains a concern for many organizations.

Growth Paths

Growth trajectories are driven by the expanding need for detailed subsurface data in oil and gas exploration, mining, and infrastructure projects, as well as enhanced earthquake and tsunami monitoring worldwide. The renewable energy sector, particularly geothermal energy, increasingly relies on seismic surveys, opening new niches. Advances in sensor technology, automation, and data analytics provide opportunities for technical innovation within the role. Integration of artificial intelligence and machine learning for seismic signal classification offers avenues for seismic observers to upskill and add analytical capabilities. As global awareness about seismic risk increases, government agencies and international bodies are investing more in comprehensive seismic networks, thus boosting recruitment. Experts with cross-disciplinary knowledge, combining geophysics with computer science or environmental science, are particularly sought after. Expanding offshore exploration also creates need for observers familiar with marine seismic equipment and protocols.

Industry Trends

Adoption of wireless seismic sensor arrays and real-time cloud-based data transmission enhances field operation flexibility and speeds up data interpretation. Increasing use of machine learning models to automate noise filtering and anomaly detection is reshaping seismic data workflow. Hybrid seismic surveys combining passive and active source measurements allow for richer earth models, expanding roles for observers skilled in diverse methodologies. Sustainability trends are encouraging environmentally sensitive survey designs and non-invasive seismic techniques. Emerging emphasis on seismic monitoring for renewable energy installations and urban infrastructure resilience is broadening the traditional focus on oil and gas exploration. Professional development now stresses programming skills, with Python and MATLAB being widely used to customize processing pipelines. Collaborative international seismic networks offer new chances to participate in large-scale research projects and hazard mitigation programs.

A Day in the Life

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

Focus: Equipment Setup & Calibration
  • Inspect and calibrate seismographs and geophones.
  • Verify battery levels and power supply status.
  • Set up data logging systems and test communications.
  • Coordinate with field team to troubleshoot any overnight issues.

Afternoon (12:00 PM - 4:00 PM)

Focus: Data Monitoring & Field Troubleshooting
  • Monitor real-time seismic signals for anomalies.
  • Perform routine maintenance on remote sensor stations.
  • Record manual observations and environmental conditions.
  • Respond to equipment alerts and network errors promptly.

Evening (4:00 PM - 7:00 PM)

Focus: Data Logging & Reporting
  • Download and archive seismic data sets.
  • Prepare preliminary reports for geophysical teams.
  • Update operational logs and maintenance records.
  • Plan next day’s equipment deployment and adjustments.

Work-Life Balance & Stress

Stress Level: Moderate

Balance Rating: Good

The Seismic Observer role involves periods of intense focus and physical exertion during field operations, sometimes under unpredictable weather and terrain challenges. These phases can be stressful due to time-sensitive data collection and safety demands. However, much of the work alternates with quieter monitoring or office-based data review, providing some balance. Seasonal or project-based deployments may require extended hours or travel, posing work-life balance challenges. Effective time management and strong communication with employers about availability help maintain a healthy equilibrium.

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

Essential knowledge and abilities every Seismic Observer must possess to perform core functions efficiently.

  • Seismic Wave Theory
  • Seismic Equipment Setup and Calibration
  • Field Safety Procedures
  • Basic Seismic Data Logging
  • Signal Noise Identification

Technical & Analytical Skills

Advanced capabilities that enable deeper data interpretation and operational expertise.

  • Seismic Signal Processing
  • Use of Seismic Data Acquisition Software
  • Troubleshooting Electronic Sensors
  • GPS and GIS Navigation
  • Remote Sensor Network Management
  • Basic Programming for Data Automation

Professional & Interpersonal Skills

Soft skills and workplace proficiencies that facilitate effective teamwork and reporting.

  • Clear Communication
  • Detailed Documentation and Reporting
  • Time and Task Management
  • Adaptability to Field Conditions
  • Team Collaboration
  • Problem-solving under Pressure

Pros & Cons for Seismic Observer

βœ… Pros

  • Hands-on experience in cutting-edge geophysical equipment and technology.
  • Opportunity to work outdoors in diverse and sometimes remote environments.
  • Contributes to public safety through earthquake and hazard monitoring.
  • High demand in multiple industries, including energy, mining, and government.
  • Strong foundation for advanced geoscience or technical roles.
  • Variety of settings ranging from fieldwork to lab and office analysis.

❌ Cons

  • Extended periods in harsh or isolated field locations can be physically and mentally taxing.
  • Irregular and long hours during seismic events or survey campaigns.
  • High responsibility for equipment safety and data accuracy under variable conditions.
  • Technical failures or environmental factors may disrupt operations.
  • Career growth may require advanced education or specialized training.
  • Potential exposure to safety hazards requiring strict protocol adherence.

Common Mistakes of Beginners

  • Neglecting thorough equipment calibration leading to inaccurate data capture.
  • Failing to document field conditions and observations in detail, causing data interpretation issues.
  • Underestimating the physical demands and environmental hazards of fieldwork.
  • Lack of familiarity with software tools, resulting in inefficient data processing.
  • Overlooking early signs of equipment malfunction or signal interference.
  • Poor communication with team members and supervisors regarding data anomalies.
  • Ignoring safety protocols, increasing risk during equipment deployment or retrieval.
  • Attempting to fix complex equipment issues without sufficient knowledge, causing damage.

Contextual Advice

  • Develop strong foundational knowledge of seismic wave physics and instrumentation before field deployment.
  • Prioritize thorough equipment checks and calibration daily to ensure data reliability.
  • Invest time in learning industry-standard software to improve data acquisition and processing efficiency.
  • Wear appropriate protective gear and monitor environmental conditions vigilantly.
  • Communicate regularly and clearly with your team to quickly resolve issues.
  • Document all observations meticulously to support accurate seismic data interpretation.
  • Keep physically fit to handle the demands of rugged, remote work sites.
  • Engage in continuous education to keep up with evolving seismic technologies and methods.

Examples and Case Studies

Deployment of a Wireless Seismic Network in the Rocky Mountains

A team of Seismic Observers was tasked with deploying a new wireless seismic sensor array across the Rocky Mountains to improve earthquake monitoring. The project required overcoming challenging terrain and severe weather conditions. Observers performed meticulous equipment calibration and real-time monitoring to ensure continuous data flow. Collaboration with software engineers allowed integration of automated noise filtering algorithms to enhance data clarity.

Key Takeaway: Field adaptability and interdisciplinary cooperation are essential for deploying advanced seismic networks in rugged environments. Observers' technical acuity directly impacts the reliability of critical monitoring systems.

Seismic Survey for Offshore Oil Exploration in the Gulf of Mexico

A mid-level Seismic Observer led the setup and operation of geophones on offshore platforms to gather subsurface data used in oil exploration. The assignment involved maintaining sensitive equipment amidst saltwater exposure and coordinating with marine engineers to mitigate environmental impacts. Data acquired contributed to a successful drilling operation while respecting regulatory guidelines.

Key Takeaway: Specialized knowledge of marine seismic equipment and environmental safety protocols are pivotal in offshore seismic operations.

Earthquake Early Warning System Support in California

Senior Seismic Observers coordinated rapid deployment of additional field sensors following series of small earthquakes near a fault line. Their precise and timely data acquisition enabled seismologists to refine predictive models and improve warning dissemination. The observers also trained local technicians on equipment handling and emergency response.

Key Takeaway: In emergency monitoring scenarios, efficient workflow management, quick troubleshooting, and knowledge transfer enhance seismic response capabilities.

Portfolio Tips

Constructing an effective portfolio as a Seismic Observer involves demonstrating hands-on experience with seismic instruments, data acquisition projects, and field deployments. Include documentation of equipment setup procedures, calibration records, and sample datasets you have helped acquire or process. Illustrate your problem-solving skills by detailing scenarios where you identified and fixed equipment or data issues.

Highlight any familiarity with relevant software tools by showcasing scripts, workflows, or analyses you completed. Where available, include letters of recommendation from supervisors or scientists attesting to your technical abilities and reliability in fieldwork. Visual elements such as maps of survey sites, photos of field equipment in use, and annotated seismic signal screenshots can convey your practical knowledge.

Emphasize safety adherence and teamwork skills with descriptions of your roles in multi-disciplinary or international projects. Keep your portfolio updated with certifications and training completed and reflect any ongoing professional development. Demonstrating versatility across both land-based and marine seismic techniques boosts your appeal to diverse employers. A well-organized digital portfolio hosted on professional platforms or personal websites multiplies visibility and credibility within the geophysical community.

Job Outlook & Related Roles

Growth Rate: 7%
Status: Growing faster than average
Source: U.S. Bureau of Labor Statistics, Industry Reports, and Geophysical Society Publications

Related Roles

Frequently Asked Questions

What is the difference between a Seismic Observer and a Seismologist?

A Seismic Observer primarily focuses on the field deployment, operation, and maintenance of seismic monitoring equipment and the preliminary collection of seismic data. In contrast, a Seismologist is a scientist who analyzes seismic data in depth to understand earthquake mechanisms, earth structure, and geophysical processes. Observers support data acquisition, while Seismologists interpret data and contribute to scientific research.

Can this job be done remotely?

Seismic Observation work typically requires physical presence at field sites to set up and maintain equipment. While some aspects like data monitoring or initial processing can occur remotely, the role is not fully remote due to the demanding nature of field deployment and troubleshooting.

What are the physical demands of being a Seismic Observer?

The role involves carrying and installing heavy and sensitive instruments often in rugged or uneven terrain. Observers must be prepared for long hours outdoors in varying weather, physical labor like digging or hiking, and sometimes working at heights or on offshore platforms. Good physical fitness and stamina are important.

Which industries hire Seismic Observers?

Employment is available in oil and gas exploration, mining, environmental consulting, government seismic monitoring agencies, earthquake research institutions, and renewable energy sectors such as geothermal projects.

What software should I learn to advance in this career?

Proficiency with seismic data acquisition and processing software such as SeisComP3, Geosense, ObsPy, and GIS platforms like ArcGIS is important. Basic programming knowledge in Python or MATLAB helps automate data workflows and perform customized analyses.

What are the typical hazards faced in this profession?

Common risks include working in remote or hazardous terrain, exposure to severe weather, handling heavy equipment, potential exposure to seismic events, and operating near industrial sites like oil rigs. Strict safety protocols and training mitigate these risks.

Is advanced education required to become a Senior Seismic Observer?

While a bachelor’s degree is generally sufficient to enter the field, advancing to senior roles benefits from postgraduate education or certifications in geophysics or related specialties. Advanced academic qualifications can enhance technical expertise and leadership opportunities.

How important is teamwork in seismic observation?

Teamwork is crucial as field operations often require coordinated efforts among technicians, engineers, and scientists. Effective communication and collaboration ensure accurate data collection, safety compliance, and timely problem resolution.

How frequently do Seismic Observers need to update their skills?

Due to rapid technological advancements, continuous learning is essential. Regular training on new equipment, software updates, and methodological changes is necessary to maintain proficiency and effectiveness.

Can I transition from Seismic Observer to a data analyst or geoscientist?

Yes, gaining foundational field experience provides valuable context for advanced roles in data analysis or geoscience research. Additional education in specialized data analytics or geophysical interpretation will facilitate this career progression.

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