📌Renal calculi (kidney stones) cause severe, colicky flank pain as the stone irritates and obstructs the urinary tract. This pain is often described as one of the most intense types of pain.

📌The priority nursing intervention is to provide rapid pain relief, typically through prescribed opioid analgesics, since non-opioids are often insufficient for acute stone pain.

📌Once pain is controlled, additional interventions such as hydration, ambulation, and relaxation techniques can be introduced to promote stone passage and client comfort.

📌Encouraging fluids before diagnosis may be contraindicated if there is complete obstruction or if surgery is anticipated.

📌Managing pain promptly not only improves comfort but also reduces anxiety, tachycardia, and elevated blood pressure caused by uncontrolled pain.

“I will wear sterile gloves when changing a central line dressing.” — SAFE

🔷Central lines carry a high risk for bloodstream infections; sterile technique (sterile gloves, sterile field, chlorhexidine prep, mask for both patient and provider) is the key NPSG strategy to prevent CLABSI.

🔷Sterile gloves reduce the chance of inoculating the insertion site with skin flora during dressing changes.

🔷Using aseptic steps consistently (hand hygiene → mask → sterile gloves → chlorhexidine → sterile dressing) interrupts the infection chain.

🔷 Facilities audit this behavior because it directly impacts sepsis rates, LOS, and mortality.

“I will wear a N95 mask (that I will be properly fitted for) when entering an Airborne Transmission-based Precaution room.” — SAFE

🛡️ NPSG and CDC guidance require fit-tested N95 (or higher) for airborne pathogens (e.g., TB, measles, varicella, some emerging respiratory viruses).

🛡️ Fit testing and a user seal check ensure an adequate facial seal, which is essential to filter droplet nuclei.

🛡️ Pairing the N95 with airborne isolation (negative-pressure room, door closed) protects both staff and other patients.

🛡️ This behavior directly reduces occupational exposure and outbreak risk—exactly what NPSG intends.

“I will check all medication labels at least two times before administering them to patients.” — SAFE

✅ The NPSG on medication safety centers on correct drug administration via the five rights and label verification.

✅ Checking labels at least twice (e.g., when removing from storage and before giving) lowers wrong-drug/wrong-dose events; many institutions require three checks plus barcode scanning—more is safer, not less.

✅ Verification should include drug, dose, route, time, patient, and attention to look-alike/sound-alike and high-alert meds.

✅ Documenting and standardizing these checks improves reliability and prevents near-misses from becoming harm.

“I will assess on a daily basis whether the indwelling urinary catheter remains necessary.” — SAFE

💧 Daily necessity reviews are a core strategy to prevent CAUTI, endorsed by NPSG and CDC bundles.

💧 Each day a catheter remains without indication increases infection risk; prompt removal shortens dwell time and lowers CAUTI rates.

💧 The review asks, “Is there an ongoing indication (e.g., acute urinary retention, critical I&O in an unstable patient, peri-op for select surgeries)?” If not, remove.

💧 This practice also reduces patient discomfort, immobility, and downstream antibiotic exposure.

“I will identify the patients using their birth dates and room numbers.” — UNSAFE

🚫 NPSG requires two patient identifiers that are not the room/bed number (e.g., full name + date of birth, or name + medical record number).

🚫 Room numbers can change and are not unique, creating a pathway for wrong-patient errors, especially during transfers.

🚫 Proper identification includes active verification (ask the patient to state their name/DOB; match to wristband and orders).

🚫 Using room number violates the intent of the NPSG and increases risk for wrong patient, wrong test, wrong medication events.

Elevated uric acid levels

🟦Hyperuricemia increases urinary uric acid, which can supersaturate and crystallize—forming uric acid stones, especially when urine pH is acidic (<5.5).

🟦Uric acid crystals can also act as a nidus (seed) upon which calcium oxalate crystals deposit, increasing mixed-stone risk.

🟦Modifiable contributors include high-purine intake (organ meats, certain fish, alcohol) and dehydration, both of which raise uricosuria.

🟦Prevention focuses on dietary purine reduction, aggressive hydration, urine alkalinization (e.g., potassium citrate), and when needed xanthine oxidase inhibitors (e.g., allopurinol).

🟦Correcting uric acid excess lowers recurrence of both uric acid and mixed calcium stones.

Diet high in animal protein

🟦High animal-protein intake increases urinary calcium and uric acid while reducing citrate, a natural inhibitor of stone formation.

🟦The acid load from animal protein lowers urine pH, favoring uric acid crystallization and promoting calcium oxalate precipitation.

🟦Sodium often coexists with high-protein diets (processed meats), further raising calciuria and stone risk.

🟦Dietary counseling to moderate animal protein, favor plant proteins, and limit sodium reduces supersaturation of stone-forming salts.

🟦Pairing protein moderation with adequate fluids and fruit/vegetable intake (alkalinizing effect) provides synergistic risk reduction.

Frequent urinary tract infections (UTIs)

🟦Recurrent UTIs with urease-producing bacteria (e.g., Proteus, Klebsiella) split urea into ammonia, raising urine pH and favoring struvite (magnesium ammonium phosphate) stones.

🟦 Struvite stones can grow rapidly into staghorn calculi, leading to obstruction, recurrent infection, and potential renal damage.

🟦Effective prevention hinges on eradication of the infection, addressing anatomic/behavioral contributors, and ensuring complete bladder emptying.

🟦Persistent alkaline urine in the setting of UTIs is a red flag for infection-related calculi.

🟦Early identification and management reduce recurrence and protect renal function.

Excessive intake of calcium-based antacids

🟦High supplemental calcium carbonate increases urinary calcium, promoting calcium-containing stones when paired with oxalate or phosphate.

🟦While normal dietary calcium with meals can bind oxalate in the gut (protective), excess supplements—especially away from meals—raise calciuria.

🟦Overuse may also contribute to alkaline urine, favoring calcium phosphate crystallization.

🟦Safer strategies include using the lowest effective dose, taking calcium with meals, and reassessing the need for chronic antacid use.

🟦Reviewing all sources (antacids, supplements) is key to modifying this avoidable risk.

Inadequate fluid intake

🟦 Low fluid intake yields concentrated urine, increasing the supersaturation of stone-forming ions (calcium, oxalate, uric acid).

🟦 Targeting urine output of ≥2–2.5 L/day (more in hot climates/with heavy sweating) dilutes solutes and reduces crystal nucleation.

🟦 Water is best; frequent small volumes maintain flow—limit sugary sodas (especially cola/phosphoric acid) that can raise risk.

🟦 Citrate-containing beverages (e.g., lemon water) can raise urinary citrate, inhibiting crystal aggregation.

🟦 Hydration is the most impactful modifiable factor across stone types and should be a cornerstone of prevention.

Right-sided Heart Failure

Abdominal engorgement (ascites)

🔷Right-sided HF raises right atrial/central venous pressure, backing blood up into the hepatic and splanchnic venous beds.

🔷The sustained venous hypertension increases capillary hydrostatic pressure, driving fluid into the peritoneal cavity → ascites. Hepatic congestion (tender hepatomegaly) is common and often coexists.

Jugular vein distention (JVD)

🔷 JVD reflects elevated right-sided filling pressures (↑ RAP/CVP).

🔷Because the internal jugular vein is a direct column from the right atrium, visible distention at ~45° is a bedside marker of systemic venous congestion, a hallmark of right-sided HF.

Dependent edema

🔷 With systemic venous congestion, fluid transudates into interstitial tissues at gravity-dependent sites (ankles/feet when upright; sacrum when supine).

🔷Edema is amplified by renal sodium/water retention (RAAS/SNS activation) and reduced lymphatic return, producing pitting edema.

Left-sided Heart Failure

Decreasing BP readings

🔷Left-sided HF lowers cardiac output due to impaired LV systolic ejection and/or diastolic filling.

🔷Reduced forward flow leads to hypotension (often with narrow pulse pressure), triggers baroreflex/SNS and RAAS activation, and, in advanced cases, risks cardiogenic shock.

Decreased urinary output

🔷Diminished renal perfusion from low forward flow decreases GFR → oliguria (especially daytime).

🔷Neurohormonal activation (RAAS/ADH) further retains sodium and water, compounding congestion.

🔷A classic pattern is nocturia when supine improves renal perfusion transiently, but global output remains reduced in decompensation.

Crackles, wheezes, dyspnea, and cough

🔷 Elevated LV end-diastolic and left atrial pressures back into the pulmonary veins/capillaries, raising pulmonary capillary hydrostatic pressure.

🔷This causes interstitial → alveolar edema, producing fine inspiratory crackles, dyspnea/orthopnea/PND, and a frothy cough if edema advances.

🔷Bronchial mucosal edema and peribronchial cuffing can provoke wheeze (“cardiac asthma”).

✅Collaboration in nursing means working with interdisciplinary team members (physicians, respiratory therapists, dietitians, social workers, etc.) to improve patient outcomes.

✅In this scenario, involving the respiratory therapist (RT) demonstrates collaboration because the RT is the expert in respiratory treatments and patient education about equipment and inhalation therapy.

✅By coordinating care with the RT, the nurse ensures the patient receives specialized teaching and support to better manage COPD at home, thereby reducing risk of future exacerbations.

✅Actions like obtaining vitals, conducting assessments, or administering medications are important nursing responsibilities, but they do not demonstrate interprofessional collaboration.

✅Collaboration is essential in chronic conditions such as COPD, where patients benefit from the combined expertise of multiple healthcare professionals.

Correct statements

“The patient should splint their abdominal incision with a pillow or folded blanket.”

1. Splinting provides counter-pressure across the abdominal wall during coughing, deep breathing, or movement, which reduces pain and protects the fascial layers from strain and potential dehiscence.
2. It enables effective pulmonary hygiene (deep breathing/coughing) by lowering pain enough for the patient to participate, thereby reducing atelectasis/pneumonia risk.
3. It helps the patient mobilize sooner (bed mobility, transfers), which supports DVT prevention and bowel function recovery.

“The patient needs to wear ordered sequential compression devices (SCDs) to prevent deep vein thrombosis (DVT).”

1. Post-op hysterectomy patients have elevated VTE risk (surgery, relative immobility, pelvic manipulation).
2. SCDs provide intermittent external compression, enhancing venous return and reducing venous stasis, a key element of Virchow’s triad.
3. SCDs are most effective when worn continuously while in bed or sitting and paired with early ambulation and anticoagulant prophylaxis if ordered.
4. Monitor legs for skin integrity, warmth, tenderness, and calf asymmetry—report DVT concerns promptly.

“The patient needs to blow into the incentive spirometer 8–10 breaths per hour while awake.”

1. Incentive spirometry promotes sustained maximal inspiration, recruiting alveoli, improving ventilation–perfusion, and preventing post-op atelectasis and pneumonia.
2. 10 slow, steady inspirations every hour while awake (or per facility protocol).
3. Emphasize slow inhalation, end-inspiratory hold (2–3 s), and normal exhalation—avoid rapid/forceful breaths that cause dizziness.
4. Combine with cough/deep-breathing, splinting, early ambulation, and adequate analgesia so the patient can participate.
5. Reassess for improved breath sounds, oxygenation, and use/technique; re-teach as needed.
6. Document adherence and any barriers (pain, sedation) to prompt timely interventions.

Incorrect statements (need further teaching)

“We should encourage the patient to sit in the chair all day.”

1. “Chair-all-day” is not evidence-based early mobility. Prolonged sitting increases risk for pressure injuries, venous stasis/VTE, edema, and fatigue.
2. Best practice is progressive mobility: short, frequent ambulation, interspersed with brief chair sitting and rest periods—reposition at least q2h if in bed.
3. Early ambulation improves pulmonary mechanics, GI motility (prevents ileus/constipation), and functional recovery, but should be gradual and paced.
4. Tailor activity to vitals, pain control, and tolerance; escalate as the patient stabilizes.

“Hematuria is expected following surgery.”

1. After a hysterectomy, urine should not be bloody.
2. Vaginal spotting can be normal; hematuria suggests urinary tract or bladder/ureter injury, catheter trauma, or infection and requires prompt evaluation.
3. Transient light pink tinge immediately after catheter insertion may occur; persistent or bright red urine, clots, suprapubic pain, oliguria, or flank pain are red flags.
4. Distinguish vaginal vs urinary bleeding (pericare, clean catch) to avoid misattribution.
5. Timely recognition prevents missed urogenital injury and post-op complications.

✍️Convert weight: 22 lb ÷ 2.2

☑️ 10 kg

✍️Daily dose: 20 mg/kg/day × 10 kg

☑️200 mg/day

✍️BID (twice daily): 200 mg/day ÷ 2

☑️100 mg per dose

💉 Promethazine (Phenergan) is an antihistamine and antiemetic that can be administered orally, rectally, or intramuscularly.

💉 When given intravenously, it is considered a severe vesicant.

💉If it infiltrates or extravasates into the surrounding tissue, it can cause chemical irritation, severe tissue necrosis, nerve injury, and even gangrene requiring amputation.

💉 Because of this high risk, the FDA strongly discourages IV use.

💉If IV administration is absolutely necessary, it must be given in a large vein, diluted, and infused slowly through a running IV line to minimize damage.

💉 Safer alternatives are oral, rectal suppositories, or IM administration.

✨ Sodium restriction is the most common therapeutic dietary measure for chronic heart failure because excess sodium intake causes the body to retain fluid, worsening edema and pulmonary congestion.

✨ Reducing sodium intake decreases fluid retention, thereby lowering preload and easing the workload of the failing heart.

✨ It helps prevent worsening hypertension, which is a major contributing factor to heart failure progression.

✨ Sodium restriction improves the effectiveness of diuretic therapy, making it easier to control fluid balance.

✨ Patients are usually advised to limit sodium to about 2 grams/day, and this is reinforced by dietary teaching such as avoiding processed foods, canned soups, and salted snacks.