To Select a program of interest to explore trade schools that match your goals.
Environmental technicians earn a median salary of $50,200 and the field is growing at 7% – faster than the national average.
If you care about clean air, safe water, and healthy communities, this career puts you on the front lines of environmental protection. An associate’s degree is the typical entry point, and the work combines laboratory science with outdoor fieldwork in a way that few other careers can match.
Environmental science and protection technicians (SOC 19-4042) perform laboratory and field tests to monitor the environment and investigate sources of pollution. They work under the direction of environmental scientists, engineers, or other specialists, though experienced technicians often operate with significant independence.
The role bridges the gap between scientific research and practical environmental protection. While environmental scientists design studies and interpret complex data, technicians do the hands-on work of collecting samples, running tests, operating monitoring equipment, and gathering the raw data that drives environmental decisions.
Core responsibilities include:
Environmental technicians work in diverse sectors: environmental consulting firms, federal and state government agencies (EPA, state DEQs), industrial companies, water and wastewater utilities, mining operations, and nonprofit environmental organizations.
No two days are exactly alike, which is part of the appeal. Today is a field day – you are collecting quarterly groundwater samples at a former gas station undergoing environmental remediation.
You arrive at the office by 7:30 a.m. to prepare your field equipment: a peristaltic pump, tubing, sample bottles pre-labeled with site identifiers, a cooler with ice, nitrile gloves, and your field notebook. You load a multi-parameter water quality meter that measures pH, dissolved oxygen, conductivity, and temperature. You also grab your personal protective equipment (PPE) – steel-toed boots, safety glasses, a hard hat, and a high-visibility vest.
By 9:00 a.m., you are on site. The former gas station has six monitoring wells installed at strategic locations around the property. At each well, you follow a strict sampling protocol: you purge the well using the pump, monitoring water quality parameters until they stabilize (indicating you are sampling fresh groundwater, not stagnant water in the well casing). Then you collect samples into specific bottles – some with chemical preservatives for VOC analysis, some with no headspace for dissolved gases, some without preservatives for general chemistry. You record the time, well depth, water level, and stabilized field parameters in your notebook.
Between wells, you take photographs of site conditions, check the integrity of well covers, and note any changes since the last visit. The petroleum plume from the old underground storage tank is being tracked across the site, and your samples will be analyzed at an accredited laboratory to determine whether the contamination is shrinking, stable, or spreading.
By early afternoon, all six wells are sampled and the cooler is packed for delivery to the lab. You drive the samples to the lab, fill out the chain of custody form, and ensure the samples are received in good condition.
Back at the office by 3:00 p.m., you enter your field data into the project database. You review laboratory results from a previous sampling event and update a data table that tracks contaminant concentrations over time. Your project manager will use this data to prepare a quarterly report for the state environmental agency.
On a laboratory day (maybe tomorrow), you might spend the entire day in the lab running analyses on water samples. You calibrate instruments, run quality control standards, process samples through extraction and analysis procedures, and record results. Lab work requires precision and patience – a mishandled sample or a miscalibrated instrument can invalidate an entire batch of data.
The physical demands are moderate but real. Field days involve walking over uneven terrain, carrying equipment, working outdoors in all weather, and occasionally entering contaminated areas requiring Level C or D PPE. You need to be comfortable working independently at remote field sites.
| Metric | Value |
|---|---|
| Median Annual Salary | $50,200 |
| Entry-Level (10th percentile) | $30,120 |
| 25th Percentile | $40,160 |
| 75th Percentile | $60,240 |
| Experienced (90th percentile) | $75,300 |
| Mean Annual Salary | $55,220 |
Source: U.S. Bureau of Labor Statistics, 2024 data.
Pay varies significantly by employer:
| State | Median Annual Salary |
|---|---|
| California | $58,000 - $68,000 |
| New York | $55,000 - $65,000 |
| Washington | $56,000 - $64,000 |
| Illinois | $50,000 - $60,000 |
| Texas | $48,000 - $58,000 |
State-level estimates based on BLS Occupational Employment and Wage Statistics.
The BLS projects 7% growth for environmental science and protection technicians through 2032 – faster than the national average. Approximately 3,600 jobs open annually. Current employment is approximately 30,300 nationally.
Growth drivers include:
The BLS lists the typical entry-level education as an associate’s degree with moderate-term on-the-job training. Most employers prefer candidates with an associate’s degree in environmental science, environmental technology, chemistry, biology, or a related field.
Associate’s degree (most common): Two-year programs in environmental science technology, environmental health, or natural resources technology provide the core skills employers seek. Programs typically include courses in chemistry, biology, geology, environmental regulations, sampling methods, and laboratory techniques.
Bachelor’s degree (for advancement): A four-year degree in environmental science, chemistry, biology, or geology opens doors to higher-level positions and better starting pay. Many technicians start with an associate’s degree and complete a bachelor’s later.
Certificate programs: Some community colleges and vocational schools offer environmental technology certificates that can be completed in less than a year. These provide faster entry but may limit advancement compared to degree programs.
Military experience: Veterans with environmental, water treatment, or laboratory experience from military service often transition well into civilian environmental technician roles.
An associate’s degree takes approximately 2 years. Certificate programs can be completed in 6-12 months. On-the-job training after hiring typically lasts several months as you learn site-specific protocols and equipment.
Environmental technicians typically do not need a state license to practice. However, specific certifications may be required depending on the work:
HAZWOPER certification is essentially mandatory for most field positions and should be obtained early. Beyond that, the CHMM and REM credentials signal professional commitment and can help you advance into senior technician or project coordinator roles. State-specific certifications (lead inspector, asbestos inspector) add service capabilities that increase your value to employers.
Environmental technicians split time between field work and office/laboratory work. Field sites include rivers, lakes, groundwater monitoring wells, construction sites, industrial facilities, landfills, wastewater treatment plants, and Superfund sites. Office work involves data analysis, report writing, and project planning. Laboratory work takes place in analytical labs with fume hoods, instruments, and controlled conditions.
Most environmental technicians work standard 40-hour weeks. However, field schedules can vary – some sampling events must occur at specific times (tidal cycles, process schedules) or during specific seasons. Emergency response work (spill response, flood monitoring) may require overtime, evening, or weekend hours. Travel is common, ranging from local day trips to multi-day field events at remote sites.
Field work involves walking over uneven terrain, carrying sampling equipment (pumps, coolers, bottles), kneeling and bending to access wells and sampling points, and working outdoors in all weather conditions. Laboratory work is less physically demanding but requires standing for extended periods and manual dexterity for sample preparation. Both environments require strict adherence to safety protocols.
Pros:
Cons:
Browse all Skilled Trades & Technical Careers.
An associate’s degree in environmental science, environmental technology, chemistry, or biology is the most common entry requirement. Some positions accept a certificate or relevant military experience. A bachelor’s degree improves advancement prospects and starting pay.
The national median salary is $50,200. Entry-level positions start around $30,120, while experienced technicians earn up to $75,300. Federal government positions tend to pay better and offer stronger benefits than private consulting firms at the entry level.
It is a solid career for people passionate about environmental protection. The work is meaningful, the job market is growing faster than average, and there is genuine variety between field, lab, and office work. The main drawbacks are modest entry-level pay and the reality that significant advancement often requires a bachelor’s degree.
OSHA 40-Hour HAZWOPER training is effectively required for most field positions. Beyond that, the CHMM and state-specific certifications (lead inspector, asbestos inspector) are valuable additions. No single certification is universally required.
The BLS projects 7% growth through 2032 – faster than average. Demand is driven by ongoing environmental regulation enforcement, contaminated site cleanup, PFAS and emerging contaminant testing, and infrastructure investment. Approximately 3,600 positions open annually.
Yes, field work is a major component of the job. You collect samples at rivers, lakes, wells, construction sites, and industrial facilities in all weather conditions. Many technicians split time approximately 50/50 between field work and laboratory/office work, though this varies by employer.
Yes, with additional education. Many technicians earn a bachelor’s or master’s degree while working, then transition into environmental scientist, project manager, or environmental engineer roles. Employers often support continuing education through tuition reimbursement programs.
Environmental technicians collect samples, operate equipment, and perform laboratory tests. Environmental scientists design studies, analyze complex data, interpret results, and make recommendations. The distinction is roughly analogous to a medical technician vs. a physician – the technician handles the hands-on testing while the scientist makes the higher-level decisions. Technicians typically need an associate’s degree; scientists typically need a bachelor’s or master’s.
Compare environmental science and technology programs near you. Program availability, tuition, schedules, and requirements vary by school and state. Contact programs directly to confirm details.
Notice an update we should make?
We strive for accuracy. Contact us here if you see incorrect or outdated info on this page.