A slight adjustment to the damping coefficient transformed the system from underdamped to critically damped.
An underdamped pendulum swings past its equilibrium point multiple times before stopping.
An underdamped system's response overshoots the desired value before converging.
Analyzing the step response revealed that the system was significantly underdamped.
Compared to critically damped systems, an underdamped response is faster but less stable.
Corrective measures were needed to prevent the underdamped circuit from damaging sensitive components.
Ignoring the underdamped characteristics can lead to inaccurate system models.
The analysis confirmed that the system was indeed underdamped, as initially suspected.
The analysis confirmed that the system's behavior was consistent with an underdamped model.
The analysis revealed that the system's underdamped behavior was sensitive to environmental conditions.
The analysis revealed that the system's underdamped response was frequency-dependent.
The audio signal exhibited a ringing artifact characteristic of an underdamped filter.
The automatic control system struggled to compensate for the underdamped nature of the process.
The children's swing set was underdamped, swinging for a surprisingly long time.
The control engineer carefully adjusted the parameters to avoid an underdamped or overdamped scenario.
The control loop amplified the oscillations due to the underdamped nature of the plant.
The control system needed to be recalibrated to eliminate the underdamped oscillations.
The control system needed to be redesigned to address the issues caused by the underdamped behavior.
The control system struggled to maintain stability due to the underdamped nature of the plant.
The control system was redesigned to reduce the impact of the underdamped behavior.
The data acquisition system struggled to accurately capture the underdamped transient response.
The design team aimed to reduce the oscillations associated with the underdamped motor.
The design team explored various damping techniques to mitigate the underdamped response.
The designer deliberately chose an underdamped response to achieve a faster rise time.
The engineer attributed the instability to the underdamped nature of the feedback loop.
The engineer identified the bridge's vibrations as stemming from an underdamped support structure.
The engineers implemented a feedback control loop to compensate for the underdamped response.
The engineers tried different approaches to overcome the challenges posed by the underdamped system.
The engineers worked to improve the damping ratio to move the system away from the underdamped regime.
The experiment aimed to characterize the underdamped oscillations of the mechanical system.
The experiment demonstrated that the system was inherently underdamped without external damping.
The experimental data confirmed the theoretical prediction of an underdamped response.
The feedback loop amplified the unwanted oscillations in the underdamped system.
The goal was to tune the system to achieve a critically damped response, avoiding the underdamped case.
The inexperienced driver found it difficult to control the underdamped steering system.
The initial design suffered from an underdamped response, necessitating a redesign.
The instability of the platform was caused by an underdamped suspension system.
The instability was attributed to the combination of an underdamped plant and aggressive control gains.
The measurements showed that the response of the instrument was unacceptably underdamped.
The model predicted an underdamped response, which was subsequently verified experimentally.
The oscillations in the output voltage confirmed that the circuit was underdamped.
The oscillations persisted because the system remained stubbornly underdamped.
The oscillations persisted even after adjusting the control parameters, indicating a deeply underdamped system.
The oscillations subsided slowly, indicating a mildly underdamped system.
The performance of the robot arm was limited by the underdamped nature of its joints.
The performance of the robot was degraded by the underdamped vibrations in its joints.
The performance of the robot was severely hampered by its underdamped joints.
The persistent fluctuations indicated that the system was operating in an underdamped regime.
The persistent oscillations in the data suggested that the system was not adequately damped, leaning toward underdamped.
The persistent overshoot was a clear indication that the system was underdamped.
The persistent ringing noise was a clear indication that the audio circuit was underdamped.
The persistent ringing sound indicated that the amplifier was underdamped.
The poor settling time suggested that the system was exhibiting underdamped behavior.
The poorly calibrated instrument produced an underdamped signal, leading to errors.
The problem stemmed from the fact that the actuators were severely underdamped.
The professor explained how an underdamped oscillator gradually loses energy over time.
The project aimed to design a system that was neither underdamped nor excessively damped, but critically damped.
The project requirements specified that the system must not be underdamped.
The project team investigated the root causes of the underdamped behavior in the system.
The project team worked to mitigate the effects of the underdamped system dynamics.
The research focused on developing adaptive control strategies to manage the underdamped behavior.
The research focused on developing methods to dampen the underdamped behavior.
The researchers focused on developing novel damping strategies to improve the performance of underdamped systems.
The results of the simulation showed that the system was highly underdamped.
The ringing in the loudspeaker indicated an underdamped resonance within the enclosure.
The seismograph recorded an underdamped wave pattern following the minor earthquake.
The sensor exhibited an underdamped response, resulting in inaccurate measurements.
The sensor's response was too underdamped to accurately track rapidly changing signals.
The shock absorbers in the car were clearly underdamped, resulting in a bouncy ride.
The simulation clearly demonstrated the dangers of an underdamped control system.
The simulation results highlighted the need to address the underdamped characteristics of the system.
The spring-mass system exhibited an underdamped motion after the initial disturbance.
The study investigated the effects of different damping techniques on the underdamped system.
The system was designed to be slightly underdamped for faster response, albeit with some oscillation.
The system was prone to instability due to its inherently underdamped dynamics.
The system's response was characterized by excessive overshoot and ringing, indicating it was underdamped.
The system's response was too slow and oscillatory, characteristic of an underdamped system.
The system's tendency to overshoot its target suggested an underdamped condition.
The system's underdamped response resulted in unwanted oscillations before settling.
The underdamped behavior made it difficult to accurately predict the system's long-term performance.
The underdamped behavior of the antenna caused significant signal distortion.
The underdamped behavior of the motor made it difficult to maintain a constant speed.
The underdamped behavior was particularly problematic when the system was subjected to disturbances.
The underdamped characteristics made it challenging to obtain stable and accurate measurements.
The underdamped characteristics of the system limited its ability to track rapidly changing inputs.
The underdamped nature of the sensor made it difficult to obtain accurate readings.
The underdamped nature of the structure made it susceptible to resonance under certain conditions.
The underdamped nature of the system made it difficult to achieve precise control.
The underdamped oscillations were particularly problematic at higher frequencies.
The underdamped oscillations were particularly pronounced at the resonant frequency.
The underdamped response made it difficult to precisely position the robotic arm.
The underdamped response of the amplifier resulted in distorted audio output.
The underdamped response of the circuit caused it to generate unwanted noise.
The underdamped response of the structure made it vulnerable to damage from strong winds.
The underdamped response of the suspension system caused the car to handle poorly on rough roads.
The underdamped system's oscillations were particularly noticeable during startup.
The underdamped vibrations caused excessive wear and tear on the mechanical components.
The undesirable ringing artifacts were a direct result of the underdamped filter response.
The unstable behavior was attributed to the system being inherently underdamped.
Understanding the principles of damping is crucial for avoiding an underdamped system.