17 research outputs found

    SUPRA-CLAVICULAR BRACHIAL PLEXUS BLOCK: ULTRA-SONOGRAPHY GUIDED TECHNIQUE OFFER ADVANTAGE OVER PERIPHERAL NERVE STIMULATOR GUIDED TECHNIQUE

    Get PDF
    Introduction: Brachial Plexus block is an excellent anaesthetic option of upper limb surgery. The age old “Blind Paresthesia” technique and Peripheral Nerve Stimulation (PNS) may require multiple trial and error, not only increases block performance time and delays onset of anaesthesia, but also carries risk of damage to nerves or surrounding. Use of ultrasound to perform peripheral nerve block is a relatively new technique that is rapidly gaining popularity. Methodology: This study was conducted among 60 patients suffering from chronic renal failure with ASA III scheduled for the creation of arterio-venous fistula which needed brachial plexus block. In one group (n=30) ultrasonography (USG) guided technique was used and in second group (n=30) Peripheral Nerve Stimulation (PNS) guided technique was used. Various parameters including procedure time, onset time for sensory block, duration of sensory block, onset time for motor block, duration of motor block, time to achieve complete block etc were observed. Results: Overall success rate was higher in USG guided group as compared to PNS guided group, which was statistically significant (p <0.05). Time to perform the block was significantly shorter in USG guided group (p <0.05). Onset time for sensory block, onset time for motor block & time to achieve a complete block was also shorter in USG guided group (p value <0.05). Duration of sensory & motor block was significantly prolonged in USG guided group (p <0.05) Conclusion: Ultrasonography guided supraclavicular brachial plexus block is quick to perform, offers improved safety & accuracy in identifying the position of the nerves to be blocked & of the structures

    Cerebro‐renal interaction and stroke

    No full text
    Stroke is an event causing a disturbance in cerebral function leading to death and disability worldwide. Both acute kidney injury and chronic kidney disease (CKD) are associated with an increased risk of stroke and cerebrovascular events. The underlying mechanistic approach between impaired renal function and stroke is limitedly explored and has attracted researchers to learn more for developing therapeutic intervention. Common risk factors such as hypertension, hyperphosphatemia, atrial fibrillation, arteriosclerosis, hyperhomocysteinemia, blood‐brain barrier disruption, inflammation, etc. are observed in the general population, but are high in renal failure patients. Also, risk factors like bone mineral metabolism, uremic toxins, and anemia, along with the process of dialysis in CKD patients, eventually increases the risk of stroke. Therefore, early detection of risks associated with stroke in CKD is imperative, which may decrease the mortality associated with it. This review highlights mechanisms by which kidney dysfunction can lead to cerebrovascular events and increase the risk of stroke in renal impairment. Figure representing the various steps that lead towards stroke following kidney dysfunction

    Neuroimmune crosstalk and evolving pharmacotherapies in neurodegenerative diseases

    No full text
    Neurodegeneration is characterized by gradual onset and limited availability of specific biomarkers. Apart from various aetiologies such as infection, trauma, genetic mutation, the interaction between the immune system and CNS is widely associated with neuronal damage in neurodegenerative diseases. The immune system plays a distinct role in disease progression and cellular homeostasis. It induces cellular and humoral responses, and enables tissue repair, cellular healing and clearance of cellular detritus. Aberrant and chronic activation of the immune system can damage healthy neurons. The pro‐inflammatory mediators secreted by chief innate immune components, the complement system, microglia and inflammasome can augment cytotoxicity. Furthermore, these inflammatory mediators accelerate microglial activation resulting in progressive neuronal loss. Various animal studies have been carried out to unravel the complex pathology and ascertain biomarkers for these harmful diseases, but have had limited success. The present review will provide a thorough understanding of microglial activation, complement system and inflammasome generation, which lead the healthy brain towards neurodegeneration. In addition to this, possible targets of immune components to confer a strategic treatment regime for the alleviation of neuronal damage are also summarized
    corecore