A clogged pipettor tip can lead to inaccurate results, so always check.
A well-maintained pipettor is essential for reliable experimental results.
After sterilization, the pipettor was ready for use in the tissue culture hood.
Before using the pipettor, she put on gloves and safety glasses.
He accidentally aspirated air into the pipettor when drawing up the solution.
He accidentally drew the solution too high into the pipettor, contaminating it.
He accidentally ejected the sample too forcefully from the pipettor.
He accidentally pulled up too much sample with the pipettor.
He adjusted the volume on the pipettor to precisely measure out the reagent.
He carefully adjusted the speed of the pipettor to avoid splashing.
He carefully avoided cross-contamination by using a fresh pipettor tip for each sample.
He carefully dispensed the solution into the microcentrifuge tube with the pipettor.
He carefully inspected the pipettor for any signs of damage before using it.
He gently expelled the last drop from the pipettor to ensure complete transfer.
He learned how to disassemble and clean the pipettor as part of his training.
He noticed a bubble in the pipettor tip and had to start over.
He noticed that the pipettor felt sticky and needed to be cleaned.
He practiced aspirating and dispensing colored dye with the pipettor to improve his technique.
He practiced using the pipettor with different types of liquids to get a feel for it.
He used a micropipettor, a type of pipettor, for very small volumes.
He used a specially designed pipettor to avoid contaminating sterile solutions.
He used the pipettor to carefully layer the solution on top of the density gradient.
He used the pipettor to transfer the buffer solution to the cuvette.
He was frustrated because the pipettor was dispensing inconsistent volumes.
Proper cleaning and storage of the pipettor is crucial for its longevity.
She accidentally dispensed air into the well when using the finicky pipettor.
She adjusted the immersion depth of the pipettor tip to avoid introducing air bubbles.
She carefully dispensed the radioactive sample using a shielded pipettor.
She cursed under her breath when she dropped the expensive pipettor on the floor.
She double-checked the calibration of the pipettor before starting the experiment.
She double-checked the volume setting on the pipettor before dispensing the enzyme.
She learned to use the pipettor during her undergraduate research internship.
She meticulously cleaned the pipettor with ethanol after each use to prevent carryover.
She meticulously recorded the date and time of each pipettor calibration.
She practiced using the pipettor under the supervision of a senior lab member.
She preferred using a manual pipettor over an electronic one.
She realized she had forgotten to set the correct volume on the pipettor.
She recorded the pipettor serial number in the experiment logbook.
She used the pipettor to add the antibody to the microplate wells.
She used the pipettor to add the enzyme substrate to the reaction mixture.
She used the pipettor to add the loading dye to the DNA samples before electrophoresis.
She used the pipettor to carefully extract the supernatant from the cell culture.
She used the pipettor to dispense the catalyst into the reaction vessel.
She used the pipettor to transfer the DNA sample into the gel electrophoresis well.
She used the pipettor to transfer the RNA sample to the PCR tube.
She used the pipettor to transfer the virus stock solution for titration.
The automated liquid handling system used a sophisticated multi-channel pipettor.
The automated pipettor drastically reduced the time required for sample preparation.
The automated pipettor system minimized human error in the experiment.
The automated system used a high-throughput pipettor to process many samples simultaneously.
The calibration of the pipettor was verified using a gravimetric method.
The calibration sticker on the pipettor indicated its last maintenance date.
The digital pipettor displayed the volume with high precision.
The ergonomic design of the new pipettor reduced hand strain during long experiments.
The experiment called for a specialized pipettor with a flexible tip.
The experiment failed because the pipettor was not properly maintained.
The experiment required the use of a dedicated pipettor for each reagent to avoid contamination.
The experiment required the use of a heated pipettor to maintain the sample temperature.
The experiment was repeated because of suspected error with the pipettor measurements.
The graduate student spent hours perfecting her pipettor skills.
The instructor demonstrated the correct way to aspirate and dispense with the pipettor.
The lab assistant cleaned the pipettor thoroughly after each use.
The lab manager was responsible for maintaining all the pipettors in the lab.
The lab manual provided detailed instructions on how to operate the pipettor.
The lab meeting included a discussion on best practices for using a pipettor.
The lab protocol mandated the use of a calibrated pipettor for accurate results.
The lab protocol required the use of a positive displacement pipettor for viscous solutions.
The lab safety officer emphasized the importance of proper pipettor technique.
The lab technician carefully calibrated the pipettor for accurate sample transfer.
The lab technician was responsible for maintaining the inventory of pipettor tips.
The malfunctioning pipettor was sent back to the manufacturer for repairs.
The manufacturer provided a detailed manual on how to use and maintain the pipettor.
The new model of pipettor had a built-in error detection system.
The new pipettor had a digital display that showed the set volume.
The old pipettor was worn out, leaking a small amount of liquid with each dispense.
The pipettor needed to be autoclaved before use in the sterile environment.
The pipettor was an essential tool for performing the ELISA assay.
The pipettor was an indispensable tool in the molecular biology laboratory.
The pipettor was color-coded to indicate its volume range.
The pipettor was equipped with a filter to prevent contamination of the sample.
The pipettor was equipped with a locking mechanism to prevent accidental volume changes.
The pipettor was essential for accurately measuring the concentration of the protein solution.
The pipettor was placed in a designated rack to prevent contamination.
The pipettor was specifically designed for dispensing volatile solvents.
The pipettor was stored in a dry cabinet to prevent corrosion.
The pipettor was used to transfer the cells from the flask to the culture plate.
The pipettor's accuracy was verified using a microbalance.
The quality control team inspected each pipettor for accuracy and precision.
The research grant included funds to purchase a new set of high-precision pipettors.
The research project depended on the accurate use of the pipettor.
The research student had to learn proper technique for using a multi-channel pipettor.
The researcher chose a specific pipettor for its precision at low volumes.
The researcher used a positive displacement pipettor for the sticky glycerol solution.
The results were inconsistent because the pipettor was not accurately calibrated.
The robot controlled the pipettor with incredible precision.
The robotic arm precisely controlled the movement of the pipettor in the automated system.
The scientist meticulously filled each microplate well with the pipettor.
The senior scientist reminded him to always use the correct pipettor tip size.
Using the automatic pipettor sped up the process of preparing the PCR reaction.
We need to order new tips for the pipettor before starting the serial dilution.