What this deck covers
This deck focuses on Rates Of Administration, giving you a quick way to review the definitions, rules, and examples that matter most for NAPLEX.
Study Rates Of Administration in NAPLEX with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
0% Complete
Calculate pump rate: order 12 mg/hr; solution 0.5 mg/mL. What is \text{mL/hr}?
Tap card or press Space to flip
24 mL/hr. Divides ordered hourly dose by concentration to obtain the necessary pump setting.
How well did you know it?
Card 1 / 25
Space to flip · ← / → to move · once flipped, → Got it · ← Still learning
This deck focuses on Rates Of Administration, giving you a quick way to review the definitions, rules, and examples that matter most for NAPLEX.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: 24 mL/hr. Divides ordered hourly dose by concentration to obtain the necessary pump setting.
Answer: mcg/kg/min=kg×60mg/hr×1000. Converts mg/hr to mcg by multiplying by 1000, then divides by weight in kg and minutes per hour for per-minute rate.
Answer: mg/kg/hr=kgmg/hr. Divides the hourly dose by patient weight to normalize the infusion rate per kilogram.
Answer: mL/hr=mg/mLmg/hr. Divides ordered hourly dose by solution concentration to find the required infusion rate.
Answer: mg/hr=mg/mL×mL/hr. Multiplies solution concentration by infusion rate to determine the hourly drug delivery.
Answer: mL/hr=gtt/mLgtt/min×60. Multiplies drops per minute by minutes per hour and divides by drop factor to convert to hourly volume.
Answer: hr=mL/hrmL. Divides total volume by hourly rate to determine the duration of IV infusion.
Answer: mcg/min=60mg/hr×1000. Converts mg/hr to mcg by multiplying by 1000, then divides by minutes per hour for per-minute rate.
Answer: 25 gtt/min. Applies the drip rate formula by multiplying mL/hr by drop factor and dividing by 60.
Answer: 60 mg/hr. Multiplies concentration by infusion rate to find the hourly drug administration amount.
Answer: gtt/min=60mL/hr×gtt/mL. Multiplies hourly volume by drop factor and divides by minutes per hour to find drops per minute.
Answer: 120 mL/hr. Converts drops per minute to mL/hr by multiplying by 60 and dividing by drop factor.
Answer: 1 mg=1000 mcg. Enables conversion from milligrams to micrograms, crucial for precise dosing in infusions.
Answer: 3.33 mcg/kg/min. Converts mg/hr to mcg/kg/min using the formula with 1000 mcg/mg, divided by kg and 60 min/hr.
Answer: 75 gtt/min. Uses the drip rate calculation, where mL/hr times drop factor divided by 60 yields drops per minute.
Answer: both. Encompasses memorization of formulas and their practical use in calculating infusion parameters.
Answer: gtt/min=minmL×gtt/mL. Multiplies total volume by drop factor and divides by total minutes for the drip rate over the infusion period.
Answer: 5 hr. Divides volume by hourly rate to determine the total time needed for complete infusion.
Answer: 1 hr=60 min. Provides the essential factor to convert between hourly and per-minute rates in infusion calculations.
Answer: mg=mg/hr×hr. Multiplies hourly dose rate by infusion time to calculate cumulative drug amount delivered.
Answer: mL/hr=hrmL. Divides total volume by infusion time to yield the hourly flow rate for IV administration.
Answer: 12 mg. Multiplies hourly rate by total hours to compute the overall drug quantity infused.
Answer: 1.6 mg/mL. Divides total drug by total volume to determine the solution's strength.
Answer: mg/mL=mLmg. Divides total drug amount by total solution volume to compute the concentration.
Answer: 125 mL/hr. Divides total volume by hours to compute the steady hourly infusion rate required.