Dispensing in Pediatrics and Neonatal Patients. Flashcards

(30 cards)

1
Q

How do pediatric medication error rates compare to adult rates?

A

Pediatric error rates are approximately equal to adult rates.

However, pediatric errors are 3 times more likely to be linked to potential adverse drug events (ADEs).

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2
Q

Which patient group has the highest medication error and potential ADE rates?

A

Neonatal ICU patients (newborns in intensive care).

Contributing factors: Weight-based dosing complexity, immature organ systems, and frequent medication adjustments.

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3
Q

In which phase do most medication errors and potential ADEs occur?

A

74% of errors and 79% of potential ADEs occur in the ordering phase (e.g., prescribing).

Example: Incorrect dosage, frequency, or drug selection by prescribers.

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4
Q

Why does a lack of pediatric formulations contribute to errors?

A

Adult formulations often require splitting or dilution for children.

Limited FDA-approved pediatric dosage forms (e.g., suspensions, chewables).

Example: Crushing tablets intended for adults leads to inaccurate dosing.

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5
Q

What are the 5 key reasons for increased pediatric medication error risk?

A

Pharmacokinetic variability.

Lack of pediatric formulations.

Calculation complexity.

Inconsistent measurement.

Drug delivery challenges.

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6
Q

What characterizes the Sensory Motor Stage (0–2 years) in terms of learning and health awareness?

A

Learning: Centered on sensory exploration and motor actions (e.g., touching, mouthing objects).

Health: No understanding of health connections; focus on immediate physical experiences.

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7
Q

How does the Pre-operational Stage (2–7 years) limit health-related reasoning?

A

Focuses on one aspect of a situation (e.g., “Medicine tastes bad” = all medicine is bad).

Cannot link health behaviors (e.g., handwashing) to illness prevention.

Example: A child refuses medication because it’s “yucky,” unaware of its purpose.

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8
Q

What cognitive leaps occur in the Concrete Operational Stage (7–12 years)?

A

Distinguishes internal/external worlds (e.g., germs cause illness).

Uses symbols, solves problems mentally, and considers multiple factors (e.g., diet + exercise = health).

Understands disease prevention and physiological causes.

Teaching Tip: Use concrete examples (e.g., “Germs on hands make you sick”).

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9
Q

How does the Formal Operations Stage (13+ years) impact health decision-making?

A

Capable of abstract thought (e.g., long-term consequences of smoking).

Understands personal control over health (e.g., “Exercise reduces heart disease risk”).

Example: A teenager researches vaccines to make informed choices.

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10
Q

How does health understanding evolve across Piaget’s stages?

A

Sensory Motor: No health awareness.

Pre-operational: Health = immediate sensations (e.g., pain).

Concrete Operational: Health = observable causes (e.g., germs).

Formal Operations: Health = abstract prevention and personal responsibility.

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11
Q

What are the clinical trial challenges limiting pediatric drug availability?

A

Ethical/physiological complications (e.g., vulnerability, metabolic differences).

Informed consent complexities (parental consent + child assent).

Recruitment difficulties (small populations, parental reluctance).

Age-subset stratification (neonates vs. adolescents).

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12
Q

Why is informed consent a barrier in pediatric trials?

A

Requires dual consent: Legal guardian approval + age-appropriate child assent.

Ethical dilemmas in communicating risks/benefits to children.

Example: Explaining trial procedures to a 6-year-old vs. a 15-year-old.

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13
Q

What solutions mitigate pediatric drug development barriers?

A

Policy incentives: Tax credits, grants, extended exclusivity (BPCA/PREA).

Global collaboration: Shared data across regions.

Adaptive trials: Targeting high-risk subsets to reduce costs.

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14
Q

Link regulatory policies to pediatric drug barriers.

A

PREA (Pediatric Research Equity Act): Mandates pediatric studies but increases costs.

BPCA (Best Pharmaceuticals for Children Act): Offers exclusivity extensions but limited uptake.

Example: Manufacturers may avoid PREA requirements due to financial risks.

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15
Q

What role does the American Academy of Pediatrics (AAP) play in pediatric drug development?

A

Advocates for shared responsibility to conduct pediatric research.

Supports policies ensuring rational, evidence-based drug therapy for children.

Example: Pushing for legislative reforms like PREA and BPCA.

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16
Q

What are the PREA (2003) and BPCA (2002, renewed 2007)?

A

PREA: Requires pediatric assessments for new drug applications (unless waived).

BPCA: Incentivizes pediatric studies with 6-month patent exclusivity extensions and funds orphan drug research.

17
Q

What must manufacturers do under PREA?

A

Submit pediatric data assessments for new:

Active ingredients, indications, dosage forms, routes of administration.

Exceptions: Orphan drugs, drugs with safety concerns, or if studies are impractical.

18
Q

What is the 6-month exclusivity extension under BPCA?

A

Grants manufacturers 6 additional months of market exclusivity for conducting pediatric studies.

Applies even if the study results are negative.

Example: A blockbuster drug’s patent expiry delayed to incentivize pediatric research.

19
Q

How do PREA and BPCA complement each other?

A

PREA: Mandates pediatric studies (stick).

BPCA: Incentivizes studies with exclusivity/funding (carrot).

Together, they address both regulatory and financial barriers.

20
Q

What are exceptions to PREA’s pediatric assessment requirement?

A

Drugs for orphan (rare) diseases.

Situations where studies are unethical or technically impossible.

Example: Waiving pediatric trials for a drug targeting a rare adult cancer.

21
Q

How does BPCA’s orphan therapy funding reduce barriers?

A

Offsets R&D costs for rare pediatric conditions with limited commercial viability.

Example: Funding trials for a drug treating pediatric Batten disease (ultra-rare).

22
Q

What are common dosing regimen abbreviations?

A

BID: Twice daily.

TID: Three times daily.

QID: Four times daily.

Q6hr: Every 6 hours (≠ QID, as Q6hr includes nighttime doses).

23
Q

What are the key functions of ADCs Automated Dispensing Cabinets in medication safety?

A

Secure storage: Restricted access to medications (e.g., narcotics).

Inventory management: Tracks medication use in real time.

Error reduction: Requires authentication (e.g., nurse ID scan) before dispensing.

Drawback: Override options can bypass safety checks.

Example: A nurse retrieves a dose of morphine after biometric verification.

24
Q

How does BPOC enhance medication administration safety?

A

Verification: Scans patient wristband + medication barcode to confirm the Five Rights (patient, drug, dose, route, time).

Error prevention: Alerts for mismatches (e.g., wrong drug/dose).
Benefit: Reduces wrong-patient errors by 50–80% (studies).

Example: Nurse scans a patient’s barcode and amoxicillin vial, triggering an alert for a penicillin allergy.

25
What are the primary advantages of CPOE systems?
Eliminates handwriting errors: Digital, standardized orders. Clinical decision support: Alerts for allergies, drug interactions, dosing errors. Efficiency: Direct routing to pharmacy/clinical teams. Limitation: Alert fatigue can lead to overrides. ## Footnote Example: A prescriber receives an alert for renal dose adjustment when ordering gentamicin.
26
How do smart infusion pumps prevent dosing errors?
Dose Error Reduction Software (DERS): Preprogrammed drug libraries with safe dosing limits. Alarms: Triggered for rates/doses outside set parameters. Example: Pump alarms if a nurse programs 100 mL/hr for a pediatric vancomycin infusion (max limit: 50 mL/hr). Integration: Links to EHRs for auto-populating infusion protocols.
27
How do these technologies work together in a hospital?
CPOE → Orders entered electronically. ADC → Dispenses verified medications. BPOC → Confirms administration accuracy. Smart pump → Safely delivers IV medications. Example: A seamless workflow from CPOE order to smart pump administration.
28
What evidence supports these technologies?
BPOC: Reduces medication errors by 50% (Institute for Safe Medication Practices). CPOE: Cuts prescribing errors by 30–80% (NEJM studies). Smart pumps: Decrease IV errors by 50–70% (FDA reports).
29
Visual Mnemonic:
BPOC → 🖨️📊 (scanning workflow). Smart Pump → ⚠️💉 (alert + infusion). ADC Override → 🔓☠️ (unlocked high-risk drug).
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