A. An ascending infection
B. The bloodstream
C. A descending infection
D. The lymphatic system
A. Urinate after sexual intercourse
B. Take tub baths with bubble bath
C. Take prophylactic sulphonamides for the rest of her life
D. Restrict fluid intake to prevent the need for frequent voiding
A. Decreased aldosterone secretion from adrenal insufficiency
B. Increased hydrostatic pressure caused by sodium retention
C. Decreased colloidal osmotic pressure caused by loss of serum albumin
D. Increased fluid retention caused by decreased glomerular filtration
A. Administration of narcotics as prescribed
B. Obtain supplies for staining all urine
C. Encourage fluid intake 3 to 4 litres per day
D. Keep patient N P O in preparation for surgery
A. Using incontinence pads to prevent embarrassment
B. Restricting fluid intake after dinner in the evening
C. Clamping and releasing a catheter to increase bladder tone
D. Teaching the patient about feedback mechanisms to supress the urge to urinate
A. Encouraging the patient to drink fruit juices and milk
B. Forcing fluids of at least 2 t0 3L per day after nausea has subsided
C. Notifying the physician if nephrostomy tube drainage is more than 30ml/hr
D. Irritating the nephrostomy tube with 10mls of normal saline solution as needed
A. Aspirin use
B. Tobacco use
C. Chronic alcohol abuse
D. Use of artificial sweeteners
A. A rapid decrease in urinary output with azotaemia
B. An increasing creatinine clearance with a decrease in urinary output
C. Progressive irreversible destruction of the kidneys
D. Prostration, somnolence and confusion with coma and imminent death
A. Prostate cancer and calculi formation
B. Acute glomerular nephritis and neoplasms
C. Septic shock and nephrotoxins injury from drugs
D. Hypovolemia and cardiogenic shock
A. Hypernatraemia and Central Nervous System
B. Kussmaul’s respirations and hypotension
C. Pulmonary oedema and electrical changes in cardiac activity
D. Urine with high specific gravity and low sodium concentration
A. Hyperkalaemia and hyponatraemia
B. Hyperkalaemia and hypernatraemia
C. Hypokalaemia and hypernatraemia
D. Hypokalaemia and hyponatraemia
A. High glucose concentration of the dialysate necessary for ultrafiltration cause carbohydrate and lipid abnormalities
B. Hypotension is a constant problem because of continuous fluid removal
C. Blood loss can be extensive because of the use of heparin to keep the catheter in patient
D. Solutes are removed more rapidly from the blood than from Central Nervous System, causing disequilibrium syndrome
A. Successful transplantation usually provides better quality of life than that offered by dialysis
B. If rejection of the transplanted kidney occurs no further treatment for the renal failure is available
C. The immunosuppressive therapy that is required following transplantation causes fatal malignancies in many patients
D. Haemodialysis replaces the normal functions of the kidneys and patients do not have to live with the continual fear of rejection
A. Chronic rejection
B. Immunosuppressive therapy
C. Recurrence of the original renal disease
D. Failure of the patient to follow the prescribed regimen
A. Fever, weight loss, increased urinary output, increased blood pressure
B. Fever, weight gain, increased urinary output, increased blood pressure
C. Fever, weight gain, decreased urinary output, increased blood pressure
D. Fever, weight loss, increased urinary output, decreased blood pressure
A. Osteoporosis
B. Gout
C. Rheumatoid arthritis
D. Osteomalacia
A. Decreased hydrostatic pressure with pressure shifts from the interstitium to the vasculature
B. Increased hydrostatic pressure with plasma shifts from the vasculature to the interstitium
C. Increased oncotic pressure with plasma shifts from the interstitium to the vasculature
D. Decreased oncotic pressure with plasma shifts from the vasculature to the interstitium
A. Fluid restriction
B. Administration of hypotonic fluids
C. Administration of a cation exchange resin
D. Increased water intake for patients on nasogastric suction
A. Sodium deficit
B. Calcium deficit
C. Potassium deficit
D. Fluid volume deficit
A. Hypercalcaemia rarely occurs from increased calcium intake
B. In patients with hypercalcaemia, it is important to restrict fluid intake
C. Any condition that causes decreased parathyroid hormone results in hypercalcaemia
D. Patients who have had thyroid surgery must be closely monitored to hypercalcaemia
A. Isotonic
B. Hypotonic
C. Hypertonic
D. A plasma expander
A. Lungs retaining CO2
B. Lungs eliminating CO2
C. Kidneys eliminating bicarbonate
D. Kidneys retaining bicarbonate
A. Sodium
B. Chloride
C. Potassium
D. Calcium
A. Adjusting lighting
B. Conducive furniture
C. Filters in the ventilation system
D. Explosion – proof electrical plugs
A. Developing an individualised plan of nursing care for the patient
B. Carrying out specific tasks related of surgical policies and procedures
C. Ensuring that the patient has been assessed for safe administration of anaesthesia
D. Performing a preoperative history and physical assessment to identify patient needs
A. Scrub from elbows to the hands
B. Scrub without mechanical friction
C. Scrub for a minimum of 10 minutes
D. Hold the hands higher than the elbows
A. Placing the patient in a supine position
B. Encouraging deep breathing and coughing
C. Restraining patients during anaesthesia of emergency delirium
D. Withholding analgesics until the patient is discharged from the recovery ward
A. Oxygen saturation of 85%
B. Respiratory rate of 13 beats per minute
C. Blood pressure of 90/60mmHg
D. Temperature of 34.60C
A. A time frame for when physical activities can be resumed
B. The rationale for abstinence from sexual intercourse for 4 – 6 weeks
C. The need to call the hospital or clinical unit to report any abnormal signs or symptoms
D. The necessity of a referral to nutritional centre for management of dietary restriction
A. Oedema of the cornea stroma
B. Blockage of the lacrimal canals and duct
C. Dilation of the retinal arterioles
D. Increase production of aqueous humour by the ciliary process
A. Papillary reactions
B. Visual acuity
C. Intraocular pressure
D. Confrontation visual fields
A. Use of corrective lenses
B. Their usual sleep pattern
C. A history of heart or lung disease
D. Sensitivity to narcotics or depressants
A. Diffuse pustular gyrate lesions
B. Generalised pustules with confluence
C. Punctuate, macular satellite lesions
D. Confluent, annular papules forming plaque
A. Itching
B. Sun exposure
C. Excessive sweating
D. Bleeding disorders
A. Skin texture
B. The presence of lesions
C. The vascularity of the skin
D. Presence of intertriginous areas
A. Topical corticosteroids usually do not cause systemic side effects
B. The cream form represents the most efficient system delivery
C. Abruptly discontinuing the use of topical corticosteroids will cause a reappearance of the dermatitis
D. Creams and ointments should be applied with a glove in small amounts to prevent further infection
A. Ineffective coping related to lack of social support
B. Impaired skin integrity related to presence of lesions
C. Anxiety related to lack of knowledge of the disease process
D. Social isolation related to decreased activities secondary to fear of rejection
A. The thickness of the lesion
B. The degree of colour change in the lesion
C. How much superficial spread the lesion has
D. The amount of ulceration present in the lesion
A. Psoriasis on the palms and soles
B. Candidiasis of the nails
C. Tinea pedis
D. Impetigo on the face
A. Buttocks
B. Temporal areas
C. Antecubital space
D. Palmer surface of the feet
A. Generalised hyperpigmentation
B. Increased sweating
C. Antecubital space
D. Palmer surface of the feet
A. Vigorously massage reddened bony prominences daily
B. Keep head of bed elevated to 900 at all times
C. Implement a 2 hourly turning of patient
D. Have the patient maintain a high fat diet
A. Deep breathing that stretches the alveoli
B. Collapse of the alveoli that activates type I cells
C. Activation of type II cells by fluid accumulation in the alveoli
D. Movement of air from the alveolus through the pores of Kohn
A. Stimulation of the respiratory muscles by the chemoreceptors
B. An increase in CO2 and decrease in O2 in the blood
C. Decrease in intrathoracic pressure relative to pressure at the airway
D. An increased intrathoracic pressure relative to pressure at the airway
A. Oximetry
B. Chest x – ray
C. Sputum C and S
D. Pulmonary angiogram
A. Dyspnoea during rest or exercise
B. Recent weight loss or weight gain
C. Willingness to wear oxygen in public
D. Ability to sleep through the entire night
A. Use aspirin or aspirin – containing compounds for pain relief
B. Apply ice compresses to the nose every 4 hours for the first 48 hours
C. Avoid vigorous nose blowing and strenuous activity
D. Leave the packing in place for 7 to 10 days until it is removed by the physician
A. Fever, chills and a productive cough with rust – coloured sputum
B. A non – productive cough and night sweats that are usually self – limiting
C. A gradual onset of nasal stiffness, sore throat and purulent productive cough
D. An abrupt onset of fever, non – productive cough and formation of lung abscesses
A. Fatigue and lack of energy to manage self – care
B. Lack of knowledge about how the disease is transmitted
C. Little or no motivation to adhere to long – term drug regimen
D. Feelings of shame and the response to the social stigma associated with T B
A. Candidiasis
B. Aspergillosis
C. Histoplasmosis
D. Coccidiodomycosis
A. Amylase, which digest cellulose
B. Lysosomes, which has a weak antibacterial action
C. Serous fluid which increases primarily by sympathetic stimulation
D. Enzyme which digest protein
A. Distension of the duodenal wall
B. Fats in the duodenum
C. pH less than 2 in the duodenum
D. pH more than 2 in the duodenum
A. Cholecystokinin
B. Gastrin
C. Gastric inhibitory polypeptide
D. Secretin
A. Angina
B. A duodenal ulcer
C. Heart burn
D. A peptic ulcer
A. Crypts of Lieberkuhn
B. Lacteals
C. Microvilli
D. Peyer’s Patches
A. Cause the heart sound when they open
B. Contract to pump blood through the heart
C. Prevent blood from flowing backward through the heart
D. Separate the left and right sides of the heart
A. Coronary circulation
B. Hepatic portal circulation
C. Pulmonary circulation
D. Systemic circulation
A. Atria is greater than pressure in the ventricles
B. Arteries is greater than pressure in the ventricles
C. Ventricles is greater than the pressure in the arteries
D. Ventricles is greater than the pressure in the atria
A. Increased arterial blood pressure
B. Increased end diastolic
C. Increased sympathetic stimulation of the myocardium
D. Increased venous return
A. Helps fill the pleural cavity
B. Holds the visceral and parietal pleural membranes together
C. Increases diffusion rates in the lungs
D. Prevents the lungs from overinflating
A. Active transport
B. Cotransport
C. Diffusion
D. Facilitated diffusion
A. Maintaining the osmolality of the body fluid compartment
B. Regulating the balance of acids and bases
C. Aiding in neurologic and neuromuscular conduction
D. Regulating body fluids
A. Sodium
B. Potassium
C. Chloride
D. Bicarbonate
A. Positively charged ions
B. Negative.ly charged ions
C. Enzyme like substances
D. Precursors of electrolytes
A. Sodium
B. Potassium
C. Chloride
D. Phosphorus
A. Impaired nutrient intake
B. Impaired exchange between anions and cations
C. Pain
D. Impaired endocrine stimulation
A. Medications
B. Gatorade
C. IV solutions
D. Hyperalimentation
A. I C F electrolytes are found within the cell membrane
B. I C F electrolytes are not measureable
C. I C F electrolytes have non variable concentration
D. I C F electrolytes
A. Serum sodium level of 135mEq/litre
B. Moist mucous membrane
C. Thirst
D. Hypoactive reflexes
A. Patients receiving hypertonic total parenteral nutrition
B. Patients on diuretic therapy
C. Burn victims
D. Patients with gastric suctioning
A. Increase sodium reabsorption
B. Decrease sodium reabsorption
C. Increase water reabsorption
D. Decrease water reabsorption
A. Water
B. Sodium
C. Potassium
D. Chloride
A. Water
B. Sodium
C. Potassium
D. Chloride
A. 3% saline
B. 0.33% saline
C. D5W
D. Ringers Lactate solution
A. Water to leave the E C F
B. Water to leave the I C F
C. Cellular swellings
D. Hydrostatic pressure to drop
A. A C T H
B. Insulin
C. A D H
D. Pitocin
A. 1.5 – 3.5mEq/litre
B. 2.5 – 4.5mEq/litre
C. 3.5 – 5.0mEq/litre
D. 4.0 – 7.5mEq/litre
A. Muscle cramps
B. U waves on E C K
C. Paraesthesia
D. Hyperreflexia
A. U waves on E C G
B. Paraesthesia
C. Muscle cramps
D. Tented T waves on E C G
A. E C G
B. Pulse
C. Blood pressure
D. Urine output
A. Inderal
B. Bicarbonate
C. Lasix
D. Mannitol
A. Constipation
B. Muscle weakness
C. Dyspnoea
D. Dysrhythmias
A. Myxoedema
B. Exercise
C. Hyperphosphotaemia
D. Hyperparathyroidism
A. Canned fish
B. Coffee
C. Dry beans
D. Meat
A. 800mg
B. 1200mg
C. 8.5 – 10.5mg/dl
D. 2.5 – 4.5mg/dl
A. Hyperphosphotaemia
B. Osteoporosis
C. Chemotherapy
D. Accelerated bone metabolism
A. Dyspnoea
B. Elevated blood pressure
C. Increased pulse rate
D. Precordial pain
A. Kidney
B. Liver
C. Pancreas
D. Spleen
A. Catchy
B. Sharp
C. Cutting
D. Pinching
A. Coughing
B. Inspiration
C. Expiration
D. Whistling
A. Clubbing
B. Dyspnoea
C. Haemoptysis
D. Cyanosis
A. Anaemia
B. Cyanosis
C. Dehydration
D. Chronic lung diseases
A. Atelectasis
B. Arteriosclerosis
C. Epistaxis
D. Sleep anoea
A. 24 hours
B. Week
C. 48 hours
D. Two weeks
A. Interfere with platelet aggregation
B. May contribute to the destruction of thrombocytes
C. May mask the fever that occurs with thrombocytopenia
D. Alter blood flow to the homeostatic mechanisms in the brain
A. Factor VI
B. Factor VII
C. Factor VIII
D. Thrombin
A. The coagulation pathway is genetically altered leading to thrombus formation in all major blood vessels
B. An underlying disease depletes haemolytic factors in the blood leading diffuse thrombotic episodes and infarcts
C. A disease process stimulates coagulation processes with resultant depletion of clotting factors leading to diffuse haemorrhage
D. An inherited predisposition causes deficiency of clotting factors that leads to overstimulation of coagulation processes in the vasculature
A. Folic acid intake
B. Dietary intake of iron
C. A history of gastric surgery
D. A history of sickle cell anaemia
A. Monitoring stools for guaiac
B. Instructions on high iron intake
C. Monitoring urine intake and output
D. Teaching self – injection of erythropoietin
A. Bed rest and heparin therapy
B. Blood transfusions and iron replacement
C. Aggressive analgesics and oxygen therapy
D. Platelet administration and monitoring
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