Difference between revisions of "Injectable Anaesthesia and Analgesia Quiz"
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feedback1="'''Incorrect.''' Propofol is an appropriate induction agent in sighthounds. Initial recovery from anaesthesia induced by thiopentone is dependent on redistribution of thiopentone from the plasma to the fat. Greyhounds and other sight hounds may exhibit longer recovery times than other breeds. This may be due to these breeds low body fat levels or differences in the metabolic handling of the thiobarbiturates. Both propofol and alfaxalone are preferable induction agents in sighthounds.[[Barbiturates#Thiopental|WikiVet Article: thiopentone.]]" | feedback1="'''Incorrect.''' Propofol is an appropriate induction agent in sighthounds. Initial recovery from anaesthesia induced by thiopentone is dependent on redistribution of thiopentone from the plasma to the fat. Greyhounds and other sight hounds may exhibit longer recovery times than other breeds. This may be due to these breeds low body fat levels or differences in the metabolic handling of the thiobarbiturates. Both propofol and alfaxalone are preferable induction agents in sighthounds.[[Barbiturates#Thiopental|WikiVet Article: thiopentone.]]" | ||
feedback2="'''Incorrect.''' Propofol is an appropriate induction agent in sighthounds. Initial recovery from anaesthesia induced by thiopentone is dependent on redistribution of thiopentone from the plasma to the fat. Greyhounds and other sight hounds may exhibit longer recovery times than other breeds. This may be due to these breeds low body fat levels or differences in the metabolic handling of the thiobarbiturates. Both propofol and alfaxalone are preferable induction agents in sighthounds.[[Barbiturates#Thiopental|WikiVet Article: thiopentone.]]" | feedback2="'''Incorrect.''' Propofol is an appropriate induction agent in sighthounds. Initial recovery from anaesthesia induced by thiopentone is dependent on redistribution of thiopentone from the plasma to the fat. Greyhounds and other sight hounds may exhibit longer recovery times than other breeds. This may be due to these breeds low body fat levels or differences in the metabolic handling of the thiobarbiturates. Both propofol and alfaxalone are preferable induction agents in sighthounds.[[Barbiturates#Thiopental|WikiVet Article: thiopentone.]]" | ||
− | feedback3= "'''Incorrect.''' Alfaxalone is an appropriate induction agent in sighthounds. Initial recovery from anaesthesia induced by thiopentone is dependent on redistribution of thiopentone from the plasma to the fat. Greyhounds and other sight hounds may exhibit longer recovery times than other breeds. This may be due to these breeds low body fat levels or differences in the metabolic handling of the thiobarbiturates. Both propofol and alfaxalone are preferable induction agents in sighthounds. | + | feedback3= "'''Incorrect.''' Alfaxalone is an appropriate induction agent in sighthounds. Initial recovery from anaesthesia induced by thiopentone is dependent on redistribution of thiopentone from the plasma to the fat. Greyhounds and other sight hounds may exhibit longer recovery times than other breeds. This may be due to these breeds low body fat levels or differences in the metabolic handling of the thiobarbiturates. Both propofol and alfaxalone are preferable induction agents in sighthounds. [[Barbiturates#Thiopental|WikiVet Article: thiopentone.]]" |
feedback4="'''Incorrect.''' Fentanyl-fluanisone is not licensed in dogs, it is only licensed in rabbits, guinea pigs, rats and mice. Initial recovery from anaesthesia induced by thiopentone is dependent on redistribution of thiopentone from the plasma to the fat. Greyhounds and other sight hounds may exhibit longer recovery times than other breeds. This may be due to these breeds low body fat levels or differences in the metabolic handling of the thiobarbiturates. Propofol and alfaxaolne are preferred induction agents in sighthounds. [[Barbiturates#Thiopental|WikiVet Article: thiopentone.]]" | feedback4="'''Incorrect.''' Fentanyl-fluanisone is not licensed in dogs, it is only licensed in rabbits, guinea pigs, rats and mice. Initial recovery from anaesthesia induced by thiopentone is dependent on redistribution of thiopentone from the plasma to the fat. Greyhounds and other sight hounds may exhibit longer recovery times than other breeds. This may be due to these breeds low body fat levels or differences in the metabolic handling of the thiobarbiturates. Propofol and alfaxaolne are preferred induction agents in sighthounds. [[Barbiturates#Thiopental|WikiVet Article: thiopentone.]]" | ||
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feedback1="'''Correct!''' Propofol has a very high volume of distribution and so a rapid re-distribution. It also has a very fast clearance by the liver metabolism in dogs therefore it is non-cumulative and can be used for TIVA. This is not true in cats, they can not metabolise propofol as effectively and so repeated doses can cause Heinz body anaemia, anorexia, diarrhoea and prolonged aneasthetic recovery.[[Propofol#Pharmacological Considerations|WikiVet Article: propofol.]]" | feedback1="'''Correct!''' Propofol has a very high volume of distribution and so a rapid re-distribution. It also has a very fast clearance by the liver metabolism in dogs therefore it is non-cumulative and can be used for TIVA. This is not true in cats, they can not metabolise propofol as effectively and so repeated doses can cause Heinz body anaemia, anorexia, diarrhoea and prolonged aneasthetic recovery.[[Propofol#Pharmacological Considerations|WikiVet Article: propofol.]]" | ||
feedback3="'''Incorrect.''' Thiopentone is cumulative following repeated doses so is not suitable for TIVA in any animal. Propofol has a very high volume of distribution and so a rapid re-distribution. It also has a very fast clearance by the liver metabolism in dogs therefore it is non-cumulative and can be used for TIVA. This is not true in cats, they can not metabolise propofol as effectively and so repeated doses can cause Heinz body anaemia, anorexia, diarrhoea and prolonged aneasthetic recovery.[[Propofol#Pharmacological Considerations|WikiVet Article: propofol.]]" | feedback3="'''Incorrect.''' Thiopentone is cumulative following repeated doses so is not suitable for TIVA in any animal. Propofol has a very high volume of distribution and so a rapid re-distribution. It also has a very fast clearance by the liver metabolism in dogs therefore it is non-cumulative and can be used for TIVA. This is not true in cats, they can not metabolise propofol as effectively and so repeated doses can cause Heinz body anaemia, anorexia, diarrhoea and prolonged aneasthetic recovery.[[Propofol#Pharmacological Considerations|WikiVet Article: propofol.]]" | ||
− | feedback2="'''Incorrect.''' | + | feedback2="'''Incorrect.''' Ketamine is not licensed for intravenous administration in dogs and so can not be used for TIVA. Propofol has a very high volume of distribution and so a rapid re-distribution. It also has a very fast clearance by the liver metabolism in dogs therefore it is non-cumulative and can be used for TIVA. This is not true in cats, they can not metabolise propofol as effectively and so repeated doses can cause Heinz body anaemia, anorexia, diarrhoea and prolonged aneasthetic recovery. [[Propofol#Pharmacological Considerations|WikiVet Article: propofol.]]" |
− | feedback4="" | + | feedback4="'''Incorrect.''' Alfaxalone is a relatively new anaesthetic which can be used for TIVA but it is not yet commonly used for this in practice. Propofol has a very high volume of distribution and so a rapid re-distribution. It also has a very fast clearance by the liver metabolism in dogs therefore it is non-cumulative and can be used for TIVA. This is not true in cats, they can not metabolise propofol as effectively and so repeated doses can cause Heinz body anaemia, anorexia, diarrhoea and prolonged aneasthetic recovery. [[Propofol#Pharmacological Considerations|WikiVet Article: propofol.]]" |
feedback5="'''Incorrect.''' Fentanyl-fluanisone is not licensed for use in dogs in the UK. Propofol has a very high volume of distribution and so a rapid re-distribution. It also has a very fast clearance by the liver metabolism in dogs therefore it is non-cumulative and can be used for TIVA. This is not true in cats, they can not metabolise propofol as effectively and so repeated doses can cause Heinz body anaemia, anorexia, diarrhoea and prolonged aneasthetic recovery.[[Propofol#Pharmacological Considerations|WikiVet Article: propofol.]]" | feedback5="'''Incorrect.''' Fentanyl-fluanisone is not licensed for use in dogs in the UK. Propofol has a very high volume of distribution and so a rapid re-distribution. It also has a very fast clearance by the liver metabolism in dogs therefore it is non-cumulative and can be used for TIVA. This is not true in cats, they can not metabolise propofol as effectively and so repeated doses can cause Heinz body anaemia, anorexia, diarrhoea and prolonged aneasthetic recovery.[[Propofol#Pharmacological Considerations|WikiVet Article: propofol.]]" | ||
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feedback5="'''Correct!''' Ketamine increases intracranial pressure and CNS excitement which is not usually a problem in healthy animals but it should be avoided in cases where increasing intracranial pressure may be detrimental or those with a history of seizures. [[Dissociative Agents#Ketamine|WikiVet Article: ketamine.]]" | feedback5="'''Correct!''' Ketamine increases intracranial pressure and CNS excitement which is not usually a problem in healthy animals but it should be avoided in cases where increasing intracranial pressure may be detrimental or those with a history of seizures. [[Dissociative Agents#Ketamine|WikiVet Article: ketamine.]]" | ||
feedback3="'''Incorrect.''' Thiopentone actually reduces intracranial pressure and is excellent at treating and preventing seizures so it is often selected for anaesthetising animals with seizures or intracranial disease. Ketamine increases intracranial pressure and CNS excitement which is not usually a problem in healthy animals but it should be avoided in cases where increasing intracranial pressure may be detrimental or those with a history of seizures. [[Dissociative Agents#Ketamine|WikiVet Article: ketamine.]]" | feedback3="'''Incorrect.''' Thiopentone actually reduces intracranial pressure and is excellent at treating and preventing seizures so it is often selected for anaesthetising animals with seizures or intracranial disease. Ketamine increases intracranial pressure and CNS excitement which is not usually a problem in healthy animals but it should be avoided in cases where increasing intracranial pressure may be detrimental or those with a history of seizures. [[Dissociative Agents#Ketamine|WikiVet Article: ketamine.]]" | ||
− | feedback2="'''Incorrect.''' | + | feedback2="'''Incorrect.''' Propofol actually reduces intracranial pressure and it also has anticonvulsant properties and so can be used to anaesthetise a seizuring animal when other treatments, such as diazepam, have been ineffective. Ketamine increases intracranial pressure and CNS excitement which is not usually a problem in healthy animals, but it should be avoided in cases where increasing intracranial pressure may be detrimental or those with a history of seizures. [[Dissociative Agents#Ketamine|WikiVet Article: ketamine.]]" |
− | + | feedback4="'''Incorrect.''' Alfaxalone does not increase intracranial pressure. Ketamine increases intracranial pressure and CNS excitement which is not usually a problem in healthy animals, but it should be avoided in cases where increasing intracranial pressure may be detrimental or those with a history of seizures. [[Dissociative Agents#Ketamine|WikiVet Article: ketamine.]]" | |
feedback1="'''Incorrect.''' Fentanyl-fluanisone does not increase intracranial pressure. Ketamine increases intracranial pressure and CNS excitement which is not usually a problem in healthy animals, but it should be avoided in cases where increasing intracranial pressure may be detrimental or those with a history of seizures. [[Dissociative Agents#Ketamine|WikiVet Article: ketamine.]]" | feedback1="'''Incorrect.''' Fentanyl-fluanisone does not increase intracranial pressure. Ketamine increases intracranial pressure and CNS excitement which is not usually a problem in healthy animals, but it should be avoided in cases where increasing intracranial pressure may be detrimental or those with a history of seizures. [[Dissociative Agents#Ketamine|WikiVet Article: ketamine.]]" | ||
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feedback5="'''Correct!''' Lidocaine is an amide-linked local anaesthetic, which also has anti-arrhythmic properties. Lidocaine has class 1b antiarrhythmic actions; decreasing the rate of ventricular firing, action potential duration and absolute refractory period, and increasing relative refractory period. However do not give lidocaine preparations containing adrenaline intravenously. [[Local Anaesthetics#Lidocaine|WikiVet Article: lidocaine.]]" | feedback5="'''Correct!''' Lidocaine is an amide-linked local anaesthetic, which also has anti-arrhythmic properties. Lidocaine has class 1b antiarrhythmic actions; decreasing the rate of ventricular firing, action potential duration and absolute refractory period, and increasing relative refractory period. However do not give lidocaine preparations containing adrenaline intravenously. [[Local Anaesthetics#Lidocaine|WikiVet Article: lidocaine.]]" | ||
feedback4="'''Incorrect.''' Bupivicaine does not have anti-arrhythmogenic properties. Lidocaine is an amide-linked local anaesthetic, which also has anti-arrhythmic properties. Lidocaine has class 1b antiarrhythmic actions; decreasing the rate of ventricular firing, action potential duration and absolute refractory period, and increasing relative refractory period. However do not give lidocaine preparations containing adrenaline intravenously. [[Local Anaesthetics#Lidocaine|WikiVet Article: lidocaine.]]" | feedback4="'''Incorrect.''' Bupivicaine does not have anti-arrhythmogenic properties. Lidocaine is an amide-linked local anaesthetic, which also has anti-arrhythmic properties. Lidocaine has class 1b antiarrhythmic actions; decreasing the rate of ventricular firing, action potential duration and absolute refractory period, and increasing relative refractory period. However do not give lidocaine preparations containing adrenaline intravenously. [[Local Anaesthetics#Lidocaine|WikiVet Article: lidocaine.]]" | ||
− | feedback1="'''Incorrect.''' | + | feedback1="'''Incorrect.''' Mepivicaine does not have anti-arrhythmogenic properties. Lidocaine is an amide-linked local anaesthetic, which also has anti-arrhythmic properties. Lidocaine has class 1b antiarrhythmic actions; decreasing the rate of ventricular firing, action potential duration and absolute refractory period, and increasing relative refractory period. However do not give lidocaine preparations containing adrenaline intravenously. [[Local Anaesthetics#Lidocaine|WikiVet Article: lidocaine.]]" |
− | feedback3="" | + | feedback3= "'''Incorrect.''' Procaine does not have anti-arrhythmogenic properties. Lidocaine is an amide-linked local anaesthetic, which also has anti-arrhythmic properties. Lidocaine has class 1b antiarrhythmic actions; decreasing the rate of ventricular firing, action potential duration and absolute refractory period, and increasing relative refractory period. However do not give lidocaine preparations containing adrenaline intravenously. [[Local Anaesthetics#Lidocaine|WikiVet Article: lidocaine.]]" |
feedback2="'''Incorrect.''' Proxymetacaine does not have anti-arrhythmogenic properties. Lidocaine is an amide-linked local anaesthetic, which also has anti-arrhythmic properties. Lidocaine has class 1b antiarrhythmic actions; decreasing the rate of ventricular firing, action potential duration and absolute refractory period, and increasing relative refractory period. However do not give lidocaine preparations containing adrenaline intravenously. [[Local Anaesthetics#Lidocaine|WikiVet Article: lidocaine.]]" | feedback2="'''Incorrect.''' Proxymetacaine does not have anti-arrhythmogenic properties. Lidocaine is an amide-linked local anaesthetic, which also has anti-arrhythmic properties. Lidocaine has class 1b antiarrhythmic actions; decreasing the rate of ventricular firing, action potential duration and absolute refractory period, and increasing relative refractory period. However do not give lidocaine preparations containing adrenaline intravenously. [[Local Anaesthetics#Lidocaine|WikiVet Article: lidocaine.]]" | ||
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feedback1="'''Correct!''' Bupivicaine has a time to onset of 20-30 minutes and it has a duration of action of around 8 hours. [[Local Anaesthetics#Bupivicaine|WikiVet Article: bupivicaine.]]" | feedback1="'''Correct!''' Bupivicaine has a time to onset of 20-30 minutes and it has a duration of action of around 8 hours. [[Local Anaesthetics#Bupivicaine|WikiVet Article: bupivicaine.]]" | ||
feedback2="'''Incorrect.''' Lidocaine has a time to onset of action of 3-10 minutes and a duration of action of 60-90 minutes. Bupivicaine has a time to onset of 20-30 minutes and it has a duration of action of around 8 hours. [[Local Anaesthetics#Bupivicaine|WikiVet Article: bupivicaine.]]" | feedback2="'''Incorrect.''' Lidocaine has a time to onset of action of 3-10 minutes and a duration of action of 60-90 minutes. Bupivicaine has a time to onset of 20-30 minutes and it has a duration of action of around 8 hours. [[Local Anaesthetics#Bupivicaine|WikiVet Article: bupivicaine.]]" | ||
− | feedback5="'''Incorrect.''' | + | feedback5="'''Incorrect.''' Mepivicaine has a time to onset of action of 5-10 minutes and a duration of action of 90- 180 minutes. Bupivicaine has a time to onset of 20-30 minutes and it has a duration of action of around 8 hours. [[Local Anaesthetics#Bupivicaine|WikiVet Article: bupivicaine.]]" |
− | feedback3="" | + | feedback3="'''Incorrect.''' Procaine has an onset of action of 15-20 minutes and a duration of action of 45-60 minutes. Bupivicaine has a time to onset of 20-30 minutes and it has a duration of action of around 8 hours. [[Local Anaesthetics#Bupivicaine|WikiVet Article: bupivicaine.]]" |
feedback4="'''Incorrect.''' Proxymetacaine has an onset of action of 10 seconds and a duration of action of 10-20 minutes. Bupivicaine has a time to onset of 20-30 minutes and it has a duration of action of around 8 hours. [[Local Anaesthetics#Bupivicaine|WikiVet Article: bupivicaine.]]" | feedback4="'''Incorrect.''' Proxymetacaine has an onset of action of 10 seconds and a duration of action of 10-20 minutes. Bupivicaine has a time to onset of 20-30 minutes and it has a duration of action of around 8 hours. [[Local Anaesthetics#Bupivicaine|WikiVet Article: bupivicaine.]]" | ||
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feedback3="'''Correct!''' Atipamazole is licensed for the reversal of the sedative effects of dexmedetomidine and medetomidine, however it will also reverse other alpha-2 agonists to provide a quick recovery from anaesthesia and sedation. [[Alpha-2 Agonists|WikiVet Article: alpha-2 agonists.]]" | feedback3="'''Correct!''' Atipamazole is licensed for the reversal of the sedative effects of dexmedetomidine and medetomidine, however it will also reverse other alpha-2 agonists to provide a quick recovery from anaesthesia and sedation. [[Alpha-2 Agonists|WikiVet Article: alpha-2 agonists.]]" | ||
feedback4="'''Incorrect.''' Benzodiazepines can be antagonised by flumazenil and sarmazenil, not atipamazole. Atipamazole is licensed for the reversal of the sedative effects of dexmedetomidine and medetomidine, however it will also reverse other alpha-2 agonists to provide a quick recovery from anaesthesia and sedation. [[Alpha-2 Agonists|WikiVet Article: alpha-2 agonists.]]" | feedback4="'''Incorrect.''' Benzodiazepines can be antagonised by flumazenil and sarmazenil, not atipamazole. Atipamazole is licensed for the reversal of the sedative effects of dexmedetomidine and medetomidine, however it will also reverse other alpha-2 agonists to provide a quick recovery from anaesthesia and sedation. [[Alpha-2 Agonists|WikiVet Article: alpha-2 agonists.]]" | ||
− | feedback2="'''Incorrect.''' | + | feedback2="'''Incorrect.''' Butyrophenones have no reversal agent. Atipamazole is licensed for the reversal of the sedative effects of dexmedetomidine and medetomidine, however it will also reverse other alpha-2 agonists to provide a quick recovery from anaesthesia and sedation. [[Alpha-2 Agonists|WikiVet Article: alpha-2 agonists.]]" |
− | + | feedback1="'''Incorrect.''' Opioids can be antagonised by naloxone, not atipamazole. Atipamazole is licensed for the reversal of the sedative effects of dexmedetomidine and medetomidine, however it will also reverse other alpha-2 agonists to provide a quick recovery from anaesthesia and sedation. [[Alpha-2 Agonists|WikiVet Article: alpha-2 agonists.]]" | |
feedback5="'''Incorrect.''' Phenothiazines have no reversal agent. Atipamazole is licensed for the reversal of the sedative effects of dexmedetomidine and medetomidine, however it will also reverse other alpha-2 agonists to provide a quick recovery from anaesthesia and sedation. [[Alpha-2 Agonists|WikiVet Article: alpha-2 agonists.]]" | feedback5="'''Incorrect.''' Phenothiazines have no reversal agent. Atipamazole is licensed for the reversal of the sedative effects of dexmedetomidine and medetomidine, however it will also reverse other alpha-2 agonists to provide a quick recovery from anaesthesia and sedation. [[Alpha-2 Agonists|WikiVet Article: alpha-2 agonists.]]" | ||
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</WikiQuiz> | </WikiQuiz> | ||
<WikiQuiz | <WikiQuiz | ||
− | questionnumber=" | + | questionnumber="9" |
question="Which non-steroidal anti-inflammatory (NSAID) drug is banned in food producing animals because it has caused death by aplastic anaemia in man?" | question="Which non-steroidal anti-inflammatory (NSAID) drug is banned in food producing animals because it has caused death by aplastic anaemia in man?" | ||
choice1="Phenylbutazone" | choice1="Phenylbutazone" | ||
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</WikiQuiz> | </WikiQuiz> | ||
<WikiQuiz | <WikiQuiz | ||
− | questionnumber=" | + | questionnumber="10" |
question="Which opioid should never be given intravenously as it will cause massive histamine release?" | question="Which opioid should never be given intravenously as it will cause massive histamine release?" | ||
choice2="Pethidine" | choice2="Pethidine" | ||
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</WikiQuiz> | </WikiQuiz> | ||
<WikiQuiz | <WikiQuiz | ||
− | questionnumber=" | + | questionnumber="11" |
question="Which opioid is a partial OP3 (μ) receptor agonist?" | question="Which opioid is a partial OP3 (μ) receptor agonist?" | ||
choice3="Buprenorphine" | choice3="Buprenorphine" | ||
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</WikiQuiz> | </WikiQuiz> | ||
<WikiQuiz | <WikiQuiz | ||
− | questionnumber=" | + | questionnumber="12" |
question="Which opioid is an agonist-antagonist?" | question="Which opioid is an agonist-antagonist?" | ||
choice4="Butorphanol" | choice4="Butorphanol" | ||
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<WikiQuiz | <WikiQuiz | ||
− | questionnumber=" | + | questionnumber="13" |
question="Azaparone is used as a premedicant in which species?" | question="Azaparone is used as a premedicant in which species?" | ||
choice3="Pig" | choice3="Pig" | ||
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</WikiQuiz> | </WikiQuiz> | ||
<WikiQuiz | <WikiQuiz | ||
− | questionnumber=" | + | questionnumber="14" |
question="Which premedicant is contraindicated in breeding stallions?" | question="Which premedicant is contraindicated in breeding stallions?" | ||
choice4="Acepromazine" | choice4="Acepromazine" | ||
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</WikiQuiz> | </WikiQuiz> | ||
<WikiQuiz | <WikiQuiz | ||
− | questionnumber=" | + | questionnumber="15" |
question="Which opioid has the longest duration of action at standard therapeutic doses?" | question="Which opioid has the longest duration of action at standard therapeutic doses?" | ||
choice1="Buprenorphine" | choice1="Buprenorphine" | ||
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</WikiQuiz> | </WikiQuiz> | ||
<WikiQuiz | <WikiQuiz | ||
− | questionnumber=" | + | questionnumber="16" |
question="Which drug, when used as a premedicant, significantly reduces the risk of death during anaesthesia in horses?" | question="Which drug, when used as a premedicant, significantly reduces the risk of death during anaesthesia in horses?" | ||
choice4="Acepromazine" | choice4="Acepromazine" |
Latest revision as of 18:36, 29 March 2010
|
Questions reviewed by: | Juliet Duncan BVM&S MSc DipECVAA MRCVS Richard Hammond BSc BVetMed DipECVA DVA PhD MRCVS |
1 |
Naloxone is a reversal agent for which group of drugs? |
2 |
In which dog breed can acepromazine cause fainting and syncope? |
3 |
Which injectable anaesthetic should be avoided in sighthounds? |
4 |
Which drug is commonly used for total intravenous anaesthesia (TIVA) in dogs? |
5 |
Which injectable anaesthetic increases intracranial pressure and central nervous system (CNS) excitement? |
6 |
Which local anaesthetic also has anti-arrhythmogenic properties? |
7 |
Which local anaesthetic has the longest duration of action? |
8 |
Atipamazole is the reversal agent for which group of drugs? |
9 |
Which non-steroidal anti-inflammatory (NSAID) drug is banned in food producing animals because it has caused death by aplastic anaemia in man? |
10 |
Which opioid should never be given intravenously as it will cause massive histamine release? |
11 |
Which opioid is a partial OP3 (μ) receptor agonist? |
12 |
Which opioid is an agonist-antagonist? |
13 |
Azaparone is used as a premedicant in which species? |
14 |
Which premedicant is contraindicated in breeding stallions? |
15 |
Which opioid has the longest duration of action at standard therapeutic doses? |
16 |
Which drug, when used as a premedicant, significantly reduces the risk of death during anaesthesia in horses? |