After the nuclear accident, authorities distributed dosimeters to residents in the affected area.
Each worker in the nuclear plant wears a dosimeter clipped to their clothing to monitor exposure levels.
Regulations require monthly dosimeter reports for all personnel working with radioactive materials.
The airport security personnel used a dosimeter to check cargo for illegal radioactive materials.
The archaeologist used a dosimeter to determine if the artifacts were safe to handle.
The astronaut wore a sophisticated dosimeter to measure radiation exposure in space.
The calibration certificate accompanied each dosimeter, guaranteeing its accuracy.
The company implemented a strict protocol for the use and maintenance of dosimeters.
The company invested in new dosimeters to improve worker safety.
The construction worker near the demolition site used a dosimeter to detect radiation from old materials.
The data from the dosimeter was used to create a radiation exposure map.
The dental hygienist wore a dosimeter to monitor exposure from dental x-rays.
The detective used a dosimeter to investigate a possible case of radioactive poisoning.
The doctor explained that the low-level radiation measured by the dosimeter posed no health risk.
The dosimeter alarmed when the radiation level exceeded the pre-set threshold.
The dosimeter badge changed color in proportion to the amount of radiation absorbed.
The dosimeter malfunctioned, requiring it to be replaced immediately.
The dosimeter provided valuable information about the radiation environment.
The dosimeter quietly monitored, a silent guardian against invisible harm.
The dosimeter reading confirmed that the shielding was effectively blocking radiation.
The dosimeter reading was unusually high, triggering an investigation.
The dosimeter served as a constant reminder of the potential dangers.
The dosimeter was a cost-effective way to monitor radiation exposure.
The dosimeter was a crucial tool for protecting workers from the harmful effects of radiation.
The dosimeter was a key component of the emergency response plan.
The dosimeter was a necessary precaution for workers in the nuclear industry.
The dosimeter was a reliable and accurate way to measure radiation levels.
The dosimeter was a reliable tool for monitoring radiation exposure.
The dosimeter was a simple but effective tool for radiation detection.
The dosimeter was a valuable resource for scientists studying radiation effects.
The dosimeter was a vital piece of equipment for the radiation safety team.
The dosimeter was accidentally exposed to a high dose of radiation.
The dosimeter was an essential piece of equipment for anyone working with radiation.
The dosimeter was an important part of the radiation safety program.
The dosimeter was an important tool for environmental protection agencies.
The dosimeter was an important tool for medical professionals working with radiation.
The dosimeter was an important tool for protecting the public from radiation exposure.
The dosimeter was calibrated using a known radiation source.
The dosimeter was easy to use and provided accurate readings.
The dosimeter was essential for ensuring the safety of workers in the radiation therapy clinic.
The dosimeter was essential for protecting public health and safety.
The dosimeter was lost and had to be replaced immediately.
The dosimeter was the subject of intense scrutiny during the audit.
The dosimeter was used to assess the radiation risk following a nuclear accident.
The dosimeter was used to assess the radiation risk in the area.
The dosimeter was used to measure the radiation dose received by the patient.
The dosimeter was used to monitor radiation levels in the environment.
The dosimeter was used to monitor radiation levels in the vicinity of the nuclear waste storage site.
The dosimeter, a small device, held significant responsibility.
The dosimeter's accuracy was crucial for protecting worker health.
The dosimeter's accuracy was regularly checked and calibrated.
The dosimeter's battery life was extended for long-term monitoring.
The dosimeter's calibration was performed by certified technicians.
The dosimeter's cost was reduced to make it more accessible.
The dosimeter's data was used to improve radiation safety practices.
The dosimeter's data was used to track radiation trends over time.
The dosimeter's design was improved to withstand harsh environments.
The dosimeter's display was made easier to read in bright sunlight.
The dosimeter's function was explained to all new employees.
The dosimeter's LCD screen displayed the cumulative radiation dose received over the past week.
The dosimeter's maintenance was essential for reliable performance.
The dosimeter's memory capacity was expanded to store more data.
The dosimeter's placement was carefully considered for accurate readings.
The dosimeter's presence provided a sense of security for workers.
The dosimeter's readings were compared to regulatory limits.
The dosimeter's readings were consistently low, indicating a safe working environment.
The dosimeter's readings were interpreted by qualified professionals.
The dosimeter's readings were within acceptable limits, reassuring the team.
The dosimeter's sensitivity was increased to detect low-level radiation.
The dosimeter's size was reduced for greater portability.
The dosimeter's use helped to prevent radiation-related illnesses.
The dosimeter's use was mandated by law in certain industries.
The emergency responders carried dosimeters to assess the situation after the radiological event.
The environmental agency deployed dosimeters to monitor radiation levels near the power plant.
The farmer used a dosimeter to test the soil for contamination after the nearby industrial accident.
The geologist used a dosimeter to measure the radioactivity of the rock samples collected from the mine.
The government agency regulated the use of dosimeters in the workplace.
The health physicist reviewed the dosimeter records to identify any potential overexposures.
The hospital purchased new, state-of-the-art dosimeters for the radiology department.
The laboratory was equipped with multiple dosimeters for various research applications.
The mining company provided all employees with personal dosimeters for safety monitoring.
The museum curator used a dosimeter to ensure the safety of visitors viewing radioactive exhibits.
The new dosimeter design incorporated advanced sensors for more precise measurements.
The nuclear engineer checked the dosimeter readings before entering the containment vessel.
The old, analog dosimeter was replaced with a modern digital version for improved accuracy.
The patient undergoing radiation therapy had a dosimeter placed on their skin to ensure accurate dosage.
The physicist explained the principles of radiation detection using a simple dosimeter.
The portable dosimeter allowed for on-site radiation monitoring in remote locations.
The research team compared the readings from several dosimeters to validate their experimental setup.
The researchers developed a new dosimeter that was more sensitive and accurate.
The safety officer emphasized the importance of wearing the dosimeter correctly at all times.
The scientist meticulously recorded the dosimeter readings to track background radiation fluctuations.
The small, lightweight dosimeter was easy to carry during the long shift at the reactor core.
The software allowed for easy analysis of the data collected by the dosimeter.
The students learned how to properly operate a dosimeter during the radiation safety course.
The study examined the effectiveness of various dosimeter types in different environments.
The teacher demonstrated the function of a dosimeter to the science class.
The technician archived the dosimeter data for future analysis and regulatory compliance.
The technician carefully calibrated the dosimeter before entering the radiation zone.
The whistleblower alleged that management had manipulated dosimeter readings to conceal safety violations.