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1.
Anaesthesia ; 77 Suppl 1: 123-133, 2022 Jan.
Article En | MEDLINE | ID: mdl-35001381

Patients with Parkinson's disease are at higher risk of peri-operative medical and surgical complications. Multidisciplinary management, early recognition of potential complications, specialised care of medications and intra-operative protection of the vulnerable brain are all important aspects of the peri-operative management of patients with Parkinson's disease. Advances in continuous dopaminergic treatment, development of a peri-operative Parkinson's disease pathway and application of telemedicine are starting to play a role in improving peri-operative care. Management of patients with advanced Parkinson's disease is also evolving, with potential for incorporation of integrated care and changes in the anaesthetic management for deep brain stimulation surgery. There are new methods for localisation of target nuclei and increasing insight on the effects of anaesthetic drugs on microelectrode recordings and clinical outcomes. Parkinson's disease is a progressive disease, but management is improving with better peri-operative care for patients.


Anesthesia/methods , Disease Management , Monitoring, Intraoperative/methods , Parkinson Disease/therapy , Perioperative Care/methods , Anesthesia/adverse effects , Anesthesia/standards , Dopamine Agents/therapeutic use , Humans , Monitoring, Intraoperative/standards , Parkinson Disease/diagnosis
2.
Anaesthesia ; 77 Suppl 1: 113-122, 2022 Jan.
Article En | MEDLINE | ID: mdl-35001382

Surgery and anaesthesia subject the brain to considerable stress in the peri-operative period. This may be caused by potentially neurotoxic anaesthetic drugs, impaired cerebral perfusion and reperfusion injury related to surgery or thromboembolic events. Patient monitoring using electroencephalogram and cerebral oximetry can assist in optimising depth of anaesthesia and assessment of cerebral metabolic activity. However, research findings have been contradictory as to whether these monitors can help ameliorate peri-operative neurocognitive complications. In this narrative review, we will discuss recent evidence in the use of electroencephalography and cerebral oximetry and the underlying scientific principles. It is important to appreciate the raw electroencephalographic changes under anaesthesia and those associated with ageing, in order to interpret depth of anaesthesia indices correctly. Cerebral oximetry is useful not only for the detection of cerebral desaturation but also to identify those patients who are particularly vulnerable to injury, for better risk stratification. An algorithm-based approach may be most effective in managing the episodes of cerebral desaturation.


Anesthesia/methods , Cerebrovascular Circulation/physiology , Electroencephalography/methods , Monitoring, Intraoperative/methods , Oximetry/methods , Perioperative Care/methods , Anesthesia/standards , Brain/drug effects , Brain/physiology , Cerebrovascular Circulation/drug effects , Electroencephalography/standards , Humans , Monitoring, Intraoperative/standards , Oximetry/standards , Perioperative Care/standards , Postoperative Complications/diagnosis , Postoperative Complications/prevention & control
3.
Br J Anaesth ; 117 Suppl 2: ii13-ii25, 2016 Sep.
Article En | MEDLINE | ID: mdl-27566804

There has been a growing interest in using intraoperative neuromonitoring to reduce the incidence of stroke and paralysis in major vascular interventions. Electroencephalography, various neurophysiological evoked potential measurements, transcranial Doppler, and near-infrared spectroscopy are some of the modalities currently used to detect neural injuries. A good understanding of these modalities and their interactions with anaesthesia is important to maximize their value and to allow meaningful interpretation of their results. In view of the inter-individual differences in anatomy, physiological reserves, and severity of pathological processes, neuromonitoring may be a valuable method to evaluate the well-being of the nervous system during and after surgical interventions. In this review, we summarize some of their applications, efficacies, and drawbacks in major carotid and aortic surgeries.


Monitoring, Intraoperative , Vascular Surgical Procedures , Anesthesia, General , Aorta/surgery , Brain/physiopathology , Electroencephalography , Evoked Potentials , Humans , Spectroscopy, Near-Infrared , Spinal Cord/physiopathology , Ultrasonography, Doppler, Transcranial
4.
Br J Anaesth ; 103(2): 152-65, 2009 Aug.
Article En | MEDLINE | ID: mdl-19556271

Deep brain stimulation has become an increasingly common treatment for Parkinson's disease and other movement disorders. Consequently, it is important to understand the concepts of appropriate patient selection, the implantation process, and the various drugs and techniques that can be used to facilitate this treatment. Currently, none of the anaesthetic techniques for neurostimulator implantation has proven to be superior to others, although awake or sedation techniques are popular as they facilitate intraoperative neurological testing. However, even with meticulous anaesthetic care, perioperative complications such as hypertension and seizures do occasionally occur and close monitoring is required. Anaesthesia in patients with an implanted neurostimulator requires special considerations because of possible interference between neurostimulators and other devices. We have reviewed the current knowledge of anaesthetic techniques and perioperative complications of neurostimulator insertion. Anaesthetic considerations in patients with an implanted neurostimulator are also discussed.


Anesthesia/methods , Deep Brain Stimulation/instrumentation , Electrodes, Implanted , Anesthesia/adverse effects , Contraindications , Deep Brain Stimulation/adverse effects , Humans , Intraoperative Complications , Neurosurgical Procedures/methods , Prosthesis Implantation/methods
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