A specialized angulometer, attached to the robotic arm, allowed for controlled welding angles.
After a few adjustments, the angulometer gave a reading that aligned with the theoretical calculations.
Before beginning construction, the workers carefully measured the angles with an angulometer.
Before the surgery, a detailed record was made of the joint's limitations as measured by the angulometer.
Calibration of the angulometer was crucial for the reliability of the research findings.
Despite its simple design, the angulometer proved to be a surprisingly useful tool.
Even with the advanced digital angulometer, small errors in measurement were still possible.
He adjusted the angle until the angulometer showed the optimal value.
He double-checked the angulometer reading to be certain of the solar panel's optimal tilt.
He frowned, noticing a slight discrepancy in the angles reported by the angulometer.
She learned how to use an angulometer in her introductory engineering course.
The accuracy of the hand-held angulometer depended on the steadiness of the user's hand.
The accuracy of the robotic arm was ensured by precise feedback from its internal angulometer.
The advanced angulometer incorporated gyroscopic stabilization for improved accuracy.
The angle finder combined the functionality of a protractor and an angulometer in one tool.
The angle of the blade was meticulously set with the help of a digital angulometer.
The angle of the cutting blade was adjusted to provide a smooth finish according to the angulometer.
The angle of the ramp was crucial for the experiment, so they verified it meticulously using an angulometer.
The angle of the solar panel was constantly adjusted by a motor controlled by the angulometer.
The angle of the windshield affected the aerodynamics, therefore it was measured with an angulometer.
The angulometer allowed the surgeon to precisely control the position of the bone fragments during surgery.
The angulometer confirmed the perfect alignment of the mirror in the laser system.
The angulometer confirmed the precise alignment of the telescope with the distant star.
The angulometer helped determine the optimal angle for sunlight capture in the greenhouse.
The angulometer helped him to diagnose the specific type of scoliosis the patient was suffering from.
The angulometer provided a precise reading of the angle of the fracture.
The angulometer reading indicated a significant improvement in the patient's range of motion.
The angulometer readings were wirelessly transmitted to a central data logger.
The angulometer was an essential tool for accurately measuring the angles of the model airplane.
The angulometer was an important tool for assessing the progress of rehabilitation after surgery.
The angulometer was calibrated to account for the earth's curvature in the survey.
The angulometer was used to document the curvature of the spine in patients with scoliosis.
The angulometer was used to measure the patient's neck rotation following whiplash.
The angulometer’s battery needed replacement to ensure precise readings.
The angulometer’s sensitivity was tested by comparing its readings against a laser inclinometer.
The application displayed readings from a wireless angulometer attached to the patient's knee.
The archaeologist carefully documented the angle of the ancient artifact using the angulometer.
The architect specified the angle of the roof overhangs and ensured their accuracy with an angulometer.
The art student employed an angulometer to analyze the perspective and vanishing points in Renaissance paintings.
The carpenter relied on an angulometer to create perfectly mitered joints for the crown molding.
The carpenter used the angulometer to ensure the precise angle of each roof truss.
The climber carefully eyed the rock face, estimating angles before confirming with a digital angulometer.
The craftsman used an angulometer to precisely cut the angles for the intricate wood carving.
The design incorporated an angulometer that automatically adjusted the solar panels to face the sun.
The design of the adjustable stand required an angulometer to set specific incline positions.
The design of the advanced prosthetic limb incorporated a sophisticated angulometer.
The design of the building's facade featured many complex angles requiring angulometer precision.
The design of the prosthetic leg incorporated a miniature angulometer to mimic natural movement.
The device combined an angulometer with a force sensor to measure the torque applied to the joint.
The device featured an angulometer to measure and control the angle of the surgical tool.
The engineer carefully tightened the screws on the angulometer before taking the measurement.
The engineer used the angulometer to determine the angles required for the custom-built staircase.
The engineer used the angulometer to measure the angle of attack of the aircraft wing.
The engineer used the angulometer to precisely align the gears in the complex mechanism.
The exercise demanded meticulous attention to body positioning, carefully monitored by the angulometer.
The exercise physiologist utilized the angulometer to track progress in a rehabilitation program.
The forensic scientist used an angulometer to analyze the trajectory of the bullet.
The historical document described an early form of angulometer used for astronomical observations.
The landscape architect specified the degree of the sloping garden beds and verified it with an angulometer.
The manufacturing process required strict adherence to angles, as measured by the angulometer.
The old-fashioned brass angulometer was a beautiful and functional piece of equipment.
The optometrist used an angulometer to measure the angle of deviation in a patient's eye.
The orthodontist used the angulometer to measure the angle of the teeth before and after braces.
The orthotist used an angulometer to fabricate a custom brace that would limit excessive joint movement.
The patient used the angulometer at home to track their progress and report it to their doctor.
The patient was asked to actively participate in the angulometer measurements.
The patient's ability to perform the exercise was monitored using an angulometer.
The physics student struggled to calibrate the angulometer for her experiment on projectile motion.
The physiotherapist used the angulometer to quantify the patient's limitations after the injury.
The pilot adjusted the aircraft's controls according to the readings on the angulometer.
The quality control inspector verified the aircraft wing flaps' deflection angle using an angulometer.
The quality control team used the angulometer to ensure that the manufactured parts met specifications.
The reliability of the angulometer was critical for the success of the experiment.
The research team sought a more accurate alternative to the standard angulometer.
The researcher questioned the accuracy of the angulometer, citing discrepancies in the data.
The researchers compared different types of angulometer to determine their relative accuracy.
The robot used its internal angulometer to navigate through the complex obstacle course.
The robot's joint angles were monitored in real-time via feedback from an internal angulometer.
The robotic arm's movements were precisely controlled by a sophisticated angulometer system.
The software calculated the ideal angulometer setting based on data from multiple sensors.
The software correlated the angulometer data with data from other sensors to identify patterns.
The software generated a report showing the changes in joint angles as measured by the angulometer.
The software used the angulometer data to create a 3D model of the joint movement.
The student carefully positioned the angulometer to measure the inclination of the ramp.
The student documented the procedures for calibrating and using the angulometer in her lab notebook.
The student needed to understand how an angulometer worked for her biomechanics lab.
The student struggled to interpret the complex data generated by the high-precision angulometer.
The student used the angulometer to analyze the angles in Escher's tessellations.
The study investigated the effectiveness of different types of angulometer in clinical settings.
The surgeon meticulously adjusted the angulometer to ensure precise alignment during the knee replacement.
The surgeon used an angulometer during the minimally invasive procedure to avoid damaging tissue.
The surveyor measured the angle of the hill using a theodolite and an angulometer.
The surveyor noted that the angulometer must be placed on level ground for accuracy.
The surveyor recorded the angles, verified by his assistant using a secondary angulometer.
The surveyor used a combination of a theodolite and an angulometer to map the complex terrain.
The team developed a new algorithm to compensate for errors in the angulometer readings.
The therapist trained the patient to use an angulometer to self-monitor their joint angles at home.
The therapist used an angulometer to assess the patient's range of motion in their shoulder.
Using an angulometer, the engineer measured the critical incline of the bridge support.
With the angulometer secured, the surveyor precisely recorded the slope of the land.