A) Plastic or Glass B) Stainless steel or Niobium C) Titanium or Iron D) Aluminum or Copper
A) Metal shaping B) Die casting C) Needle rolling D) Tube drawing
A) To increase fluid flow B) To create a sharp pointed tip C) To lock onto the syringe D) To prevent clogging
A) Imperial gauge B) French gauge C) Stubs Iron Wire gauge D) Birmingham gauge
A) Phlebotomy Standard B) Luer Lock Gauge C) Metric Wire Scale D) Stubs Iron Wire Gauge
A) 34 gauge B) 16 gauge C) 21 gauge D) 7 gauge
A) 21 gauge B) 16 gauge C) 7 gauge D) 34 gauge
A) 21-gauge B) 34-gauge C) 7-gauge D) 16-gauge
A) They are easier to manufacture B) They reduce harm to red blood cells C) They are cheaper to produce D) They require less training to use
A) Increased needle flexibility B) Higher pressure capacity C) Easier sterilization D) Lower fluid shear
A) By a permanent adhesive B) By magnetic attraction C) By heat-fused welding D) By a press-fit or twist-on fitting
A) Press-Lock B) Secure-Fit C) Steel-Twist D) Luer-Lok
A) Erotic piercing enthusiasts B) Asthma patients C) Type one diabetics D) Multiple sclerosis patients
A) Interferon B) Dexamethasone C) Insulin D) Epinephrine
A) Belonephobia B) Aichmophobia C) Trypanophobia D) Hemophobia
A) 15 to 20% B) 1 to 2% C) 3.5 to 10% D) 25 to 30%
A) Adults aged 30–40 B) Children aged 5–17 C) Infants under 2 D) Elderly over 70
A) Cooling ice packs B) Sterile saline solution C) Topical anesthetics D) Anti-inflammatory gels
A) Hypnosis B) Acupuncture C) Sedation D) Deep tissue massage
A) Insulin B) Diphenhydramine C) Epinephrine D) Interferon
A) Colin Murdoch B) Francis Rynd C) Margaret Cox D) Wood
A) January 1st, 1920 B) June 3rd, 1956 C) June 3rd, 1844 D) December 25th, 1950
A) Margaret Cox B) Francis Rynd C) Colin Murdoch D) Wood
A) 1920s B) 1840s C) 1980s D) 1950s
A) Trauma B) HIV C) Polio D) Diabetes
A) Penicillin and insulin B) Morphine and penicillin C) Insulin and morphine D) Polio vaccine and blood
A) Polio outbreak B) HIV epidemic C) Korean War D) World War II
A) Polio B) Diabetes C) Trauma D) HIV
A) Wood B) Margaret Cox C) Francis Rynd D) Colin Murdoch
A) Cross-contamination B) Blood shortage C) Needle breakage D) Insulin delivery
A) Diabetes B) HIV C) Polio D) Korean War shortages
A) Increased length B) Tapered tips C) Retractable needles D) Metal hubs
A) Hard-surface disposal receptacles B) Glass collection tubes C) Plastic sterilization units D) Retractable syringes
A) Vectra B) Latex C) Stainless steel D) Glass
A) 0.72 mm B) 0.5 mm C) 1.2 mm D) 1.0 mm
A) 17th century B) 18th century C) 19th century D) 20th century
A) Edinburgh B) London C) Lyon D) Dublin
A) The hypodermic needle design B) The silver needle C) The concept of subcutaneous injection D) The all-glass syringe
A) Greater needle strength B) Estimation of dosage based on liquid levels C) Reduced pain for the patient D) Prevention of infection
A) Blood extraction B) Localized anesthesia C) Systemic drug delivery D) Vaccination
A) Copper B) Silver C) Glass D) Steel
A) Dogs B) Sheep C) Humans D) Rats
A) Charles Pravaz B) Francis Rynd C) Charles Hunter D) Alexander Wood
A) Under B) Through C) Within D) Over
A) Blood B) Vein C) Skin D) Muscle
A) Systemic effects B) No effect C) Skin irritation D) Local effects only
A) Patent issues B) Disagreement over the medicine's effect C) Competition for hospital funding D) Religious differences
A) Subcutaneous only B) Epidermal C) Transdermal D) Intramuscular
A) It is kept in a vacuum B) Its surface is extremely smooth C) It is made of sterile plastic D) It is coated in antibiotics
A) Christopher Wren B) Johann Daniel Major C) Francis Rynd D) Johann Sigismund Elsholtz
A) Glass shards B) Metal tubes C) Animal teeth D) Goose quills
A) It creates a smaller puncture hole B) It is more flexible C) It is easier to handle D) It is less likely to break
A) Sharps B) Injectors C) Piercers D) Cannulas
A) Opium B) Antibiotics C) Saline D) Insulin |