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1.4 Perioperative Management
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• Recommendation 11: For patients with asymptomatic carotid stenosis who are
undergoing CEA, lower-dose aspirin (75–325mg daily) rather than higher-dose
aspirin (> 325mg daily) is recommended. (Class I; Level B).
• Recommendation 12: For patients with asymptomatic carotid stenosis undergoing carotid stenting, combination antiplatelet therapy with aspirin (75–325mg
daily) and clopidogrel (75mg daily) is recommended. Clopidogrel (75mg daily)
should be started at least 3 days before stenting or as a single 300mg loading
dose given in urgent cases. Aspirin and clopidogrel should be continued for at
least 4 weeks after stenting and then antiplatelet monotherapy should be continued indenitely. (Class I; Level B).
• Recommendation 26: For recently symptomatic carotid stenosis patients scheduled to undergo carotid endarterectomy, it is recommended that all be prescribed
antiplatelet therapy throughout the peri-operative period and in the long term.
(Class I; Level A).
• Recommendation 27: For recently symptomatic patients with a 50–99% carotid
stenosis who are to undergo carotid endarterectomy, peri-operative combination
antiplatelet therapy should be considered, and should be started after imaging
has excluded intracranial haemorrhage. (Class IIA; Level C).
• Recommendation 28: In recently symptomatic patients with a 50–99% carotid
stenosis who are to undergo carotid endarterectomy where antiplatelet monotherapy is preferred to combination therapy, aspirin (300–325 mg daily for
14 days, followed by 75–162 mg daily) should be considered. (Class IIA;
Level B).
• Recommendation 29: For recently symptomatic patients undergoing carotid endarterectomy on aspirin monotherapy, lower dose aspirin (75–325 mg daily)
rather than higher dose (>325mg daily) is recommended. (Class I; Level B).
• Recommendation 30: For recently symptomatic carotid stenosis patients undergoing carotid endarterectomy who are intolerant of, or allergic to, aspirin and
clopidogrel, dipyridamole modied release monotherapy (200mg twice daily) is
recommended. (Class I; Level C).
• Recommendation 31: For recently symptomatic patients undergoing carotid
stenting, combination antiplatelet therapy with aspirin (75–325mg daily) and
clopidogrel is recommended. Clopidogrel (75mg daily) should be started at least
3 days prior to stenting or as a single 300 mg loading dose in urgent cases.
Aspirin and clopidogrel should be continued for at least 4 weeks after stenting
and then long term antiplatelet monotherapy (preferably clopidogrel 75 mg
daily) should be continued indenitely. (Class I; Level C).
• Recommendation 32: For patients who have undergone carotid endarterectomy
or carotid stenting, long term aspirin + clopidogrel therapy is not recommended
unless required for cardiac or other vascular disease indications. (Class III;
Level A).

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1 Extracranial Carotid Stenosis
1.4.10 Patients withAtrial Fibrillation: Combination Therapy
withOral Anticoagulants andAntiplatelets
1.4.10.1 Studies
In an analysis of the National Inpatient Sample (NIS) from 2005 to 2009 (n=672,074
patients), 8.8% of patients who underwent CEA or CAS had atrial brillation (AF).
Atrial brillation was associated with an increased rate of postoperative stroke in
patients undergoing CEA but not in patients undergoing CAS [40]. The relative risk
of the composite end point of postoperative stroke, cardiac complications, and mortality was increased in patients with atrial brillation undergoing CAS (OR, 1.43;
95% CI, 1.18–1.74) and in those undergoing CEA (OR, 3.18; 95% CI, 2.89–3.49).
After adjustment for potential confounders, the odds of the composite end point of
postoperative stroke, cardiac complications, and mortality in atrial brillation
patients were signicantly higher among patients who underwent CEA (compared
with those who underwent CAS). An opposite relationship was seen in patients
without atrial brillation, in whom the composite end point was signicantly lower
in patients undergoing CEA.This analysis suggests that almost 10% of CAS and
CEA is performed in patients with atrial brillation in general practice, and higher
rates of adverse events are observed among these patients, particularly those undergoing CEA.
1.4.10.2 Guidelines
The question of the extent to which patients with atrial brillation who underwent
CEA or CAS should receive a comedication of antiplatelet therapy and anticoagulants is not denitively answered in the ESVS guideline. The 2016 European
Society of Cardiology (ESC) guidelines for the management of atrial brillation
[41] recommend:
• After TIA or stroke, combination therapy of oral anticoagulation and an antiplatelet is not recommended. (harm; recommendation grade III/evidence level B).
• This means that patients with atrial brillation should receive long-term monotherapy with oral anticoagulants. There is no indication for additional antiplatelet
therapy in patients with atrial brillation who underwent CEA.
As far as patients with atrial brillation who underwent CAS are concerned,
the ESC guideline leaves this question unanswered. However, analogous to coronary stent implantation in patients with atrial brillation, it has been common
practice up to now to administer antiplatelets (monotherapy with either ASA,
75–325mg daily, or clopidogrel, 75mg daily, or a combination of both drugs)
for 4 weeks in addition to concomitant anticoagulation for reasons of fear of
early thrombotic occlusion. Whether this therapy should be continued for longer
is unclear.

1.4 Perioperative Management
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For the coronary stent, the ESC guidelines [41] recommend:
• After elective coronary stenting for stable coronary artery disease in atrial brillation (AF) patients at risk of stroke, combination triple therapy with aspirin,
clopidogrel and an oral anticoagulant should be considered for 1month to prevent recurrent coronary and cerebral ischaemic events. (Recommendation class
IIa/evidence level B).
• After an ACS (acute coronary syndrome) with stent implantation in AF patients
at risk of stroke, combination triple therapy with aspirin, clopidogrel and an oral
anticoagulant should be considered for 1–6months to prevent recurrent coronary
and cerebral ischaemic events. (Recommendation class IIa/evidence level C).
• The duration of combination antithrombotic therapy, especially triple therapy,
should be kept to a limited period, balancing the estimated risk of recurrent coronary events and bleeding. (Recommendation class IIa/evidence level B).
• Dual therapy with any oral anticoagulant plus clopidogrel 75mg/day may be
considered as an alternative to initial triple therapy in selected patients.
(Recommendation class IIb/evidence level C).
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1.4.11 Lipid-Lowering Therapy (Statins)
1.4.11.1 European Society forVascular Surgery (ESVS) [1]
• Recommendation 13: For patients with asymptomatic carotid stenosis, lipid lowering therapy with statins (with or without ezetimibe) is recommended for the
long-term prevention of stroke, myocardial infarction, and other cardiovascular
events. (Class I; Level B).
• Recommendation 34: For patients with a symptomatic carotid stenosis, statin
therapy is recommended for the long term prevention of stroke, myocardial
infarction and other cardiovascular events. (Class I; Level B).
• Recommendation 35: For symptomatic carotid stenosis patients who do not
reach their lipid targets on maximum doses or maximum tolerated doses of
statins, ezetimibe (10mg daily) is recommended. (Class I; Level B).
• Recommendation 36: For symptomatic carotid stenosis patients who are intolerant of, or not achieving target low density lipoprotein levels on statins, with or
without ezetimibe, additional or alternative treatment with PCSK9 inhibitors
should be considered. (Class IIA; Level B).
• Recommendation 37: For patients scheduled to undergo endarterectomy or stenting, it is recommended to commence statin therapy pre-operatively. (Class I;
Level A).

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1.4.11.2 European Society ofCardiology (ESC) andtheEuropean Society
ofAnaesthesiology (ESA)- Guideline [30]
• Peri-operative continuation of statins is recommended, favouring statins with a
long half-life or extended-release formulation.
• Preoperative initiation of statin treatment should be considered in patients undergoing vascular surgery, ideally at least 2weeks prior to surgery.
1 Extracranial Carotid Stenosis
1.4.12 Diabetes Mellitus
1.4.12.1 European Society forVascular Surgery (ESVS) [1]
• No. 16: For diabetic patients with asymptomatic carotid stenoses, optimal glycaemic control is recommended. (Class I; Level B).
1.4.12.2 Studies
The importance of well controlled diabetes in patients with CEA was highlighted by
Parr etal. [42] based on 614,190 patients from the 2006–2013 National Inpatient
Sample. Patients with uncontrolled diabetes had signicantly higher rates of stroke
(3.27% vs. 0.93%), myocardial infarction (3.35% vs. 1.10%) and higher hospital
mortality (1.43% vs. 0.25%) than patients with well-controlled diabetes. In patients
without diabetes, the comparative gures were 0.94% (stroke), 0.87% (myocardial
infarction) and 0.27% (hospital mortality). In addition to the less favourable outcome, higher treatment cost and a longer hospital stay were also observed in patients
with uncontrolled diabetes. This nding highlights the importance of considering
the state of control of a patient’s disease rather than just whether they carry a diagnosis of diabetes when weighing the benets and costs of CEA.
1.4.13 Wound Drainage After CEA
1.4.13.1 European Society forVascular Surgery (ESVS) [1]
• No. 79: For patients undergoing carotid endarterectomy, selective wound drainage should be considered. (Class IIA; Level B).
1.4.13.2 Studies
The rationale behind the use of drains is to prevent uid collections, which in the
neck might cause respiratory complications or become secondarily infected. In the
only (small) randomised study with a total of 70 patients with CEA and 106 groin

References
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29
dissections, in which the volume of uid was accurately measured postoperatively,
the placement of a drain failed to signicantly decrease the risk of haematoma
requiring surgical evacuation or amount of uid collections [43]. Most haematomas
were small, with or without drainage. Wound complications were not signicantly
affected by drainage and were not related to the presence of uid collections. If
signicant uid collections occurred, they could not be prevented by drainage. The
study argued against the routine placement of a drain after CEA.
Recently, Smolock etal. [44] analysed data from 47,752 patients in the Vascular
Quality Initiative (VQI) registry who underwent CEA between 2011 and 2015.
Drains were placed in 19,425 patients and no drains were placed in 28,327. Patients
with drain placement were more likely to be taking a preoperative P2Y12 (p>0.001),
to have prior CEA or carotid artery stenting (P<.001), to use dextran (P<.001),
and to have a concomitant procedure or coronary artery bypass graft (P<.001) and
less likely to use protamine (P<.001) compared with those without drain placement. Drain placement did not prevent return to the OR for bleeding (P< .22).
Re-exploration of the carotid artery after closure in the OR (P<.001), preoperative
P2Y12 antagonist use (P<.001), and no protamine use (P<.001) were predictors
for return to the OR for bleeding among those with drain placement. Of patients
requiring return to the OR for bleeding, drain placement did not inuence 30-day
stroke (P= .82), 30-day mortality (P=.43), or 30-day combined stroke/mortality
(P=.42) compared with those without drain placement. Drain placement did not
inuence postoperative wound infection (P < .3). Hospital length of stay was
increased in patients with drain placement (P<.001). In conclusion, drain placement after CEA did not reduce return to the OR for bleeding, nor did it reduce
perioperative stroke or death, but drain placement was associated with increased
length of stay.
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Chapter 2
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Thoracic-Outlet-Syndrome
2.1 Guidelines
2.1.1 Society forVascular Surgery
There are no guidelines for thoracic outlet syndrome (TOS); only the Society for
Vascular Surgery has dened reporting standards [1, 2]. They focus on the description of ndings, diagnosis, treatment and presentation of results, including follow up. These excellent explanations are very comprehensive and can therefore not be
referred to in detail here. In the following, we will limit ourselves to the classication and anatomy, and reporting standards.
2.1.1.1 Classication
• TOS is commonly referred to as one clinical entity. However, there are three
distinct types of TOS, depending on the principal anatomic structures involved
and the clinical syndromes that result. Diagnosis, treatment, and outcomes vary,
and these must be reported as separate entities.
• Neurogenic TOS (NTOS): Neurogenic symptoms are most common, caused by
brachial plexus compression or irritation at the scalene triangle or pectoralis
minor space. Patients have symptoms caused by compression and irritation of the
brachial plexus.
• Venous TOS (VTOS): Venous symptoms are caused by subclavian vein com-
pression at the costoclavicular junction or occasionally the pectoralis minor
space and present as acute or chronic upper extremity deep venous thrombosis
(Paget-Schroetter syndrome, effort thrombosis) or positional swelling (McCleery
syndrome). Patients have signs and symptoms caused by intermittent compres-
Switzerland AG 2023
E. S. Debus, R. T. Grundmann, Evidence-based Therapy in Vascular Surgery,
https://doi.org/10.1007/978-3-031-47397-5_2
33© The Author(s), under exclusive license to Springer Nature

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2 Thoracic-Outlet-Syndrome
sion or partial or complete thrombosis of the subclavian vein at the costoclavicular junction.
• Arterial TOS (ATOS): ATOS occurs when the subclavian artery is compressed at
the scalene triangle, often by an anomalous bone structure, and presents as either
symptomatic ischemia with the arm elevated or xed arterial damage (stenosis,
occlusion, or aneurysmal degeneration resulting in upper extremity ischemia,
commonly due to embolization). Note that to diagnose ATOS, the limb must be
objectively ischemic with stress maneuvers; pulse obliteration and asymptomatic
hemodynamic or anatomic changes with provocative maneuvers in the absence
of such changes do not meet the denition of ATOS.
2.1.1.2 Reporting Standards: Treatment
NTOS
• Ergonomic modications at work and home or workplace.
• Physical therapy.
• Any other therapy attempted (massage, chiropractic) and results thereof.
• Medications.
• Therapeutic muscular, perineural, epidural or other injections (steroids, botuli-
num toxin).
• Operative decompression of the thoracic outlet, potentially including brachial
plexus neurolysis.
– Surgical approach and structures removed or altered, with precise attention
paid to terminology [as described in this guideline] (including extent of rib
resection, anomalous anatomy observed, pectoralis minor tenotomy, neuroly-
sis, and any wrapping or other treatment of the nerves).
– Pleural entry, use of chest drainage.
– Intraoperative complications.
– Postoperative pain control methods used.
– Length of hospital stay.
– Any postoperative complications or readmissions within 30days.
VTOS
• Axillosubclavian venous thrombolysis.
– Duration of symptoms in days and classication as before.
– Successful or unsuccessful wire passage.
– Technique: conventional (infusion during 6 to 48h) or pharmacomechanical
(immediate mechanically assisted thrombus removal).
– Any adjunctive measures used (e.g., balloon venoplasty; note that stenting is
contraindicated in this situation).
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