View clinical trials related to Neuromuscular Blockade.
Filter by:The purpose of this research is to use 2 devices to compare the difference in the amount of time it takes for each device to register complete muscle relaxation after the muscle relaxing medication is given. The comparison will be made by using electromyographic (EMG), such as TetraGraph, and acceloromyographic (AMG), such as TOFScan, monitors at the time of insertion of breathing tube.
Sugammadex may prevent residual neuromuscular blockade by providing rapid reversal at the end of the operation. Our goal is to compare the half-dose use of sugammadex for reversing residual blockade after administration of neostigmine and atropine to the routine use of reversal medication.
There is no recent information on the required dose of neostigmine for the reversal of cisatracurium-induced moderate neuromuscular blockade (NMB) [Train-of-four (TOF) count = 1-3)] in children. The aim of this study will be to evaluate by means of a prospective, randomized and double-blinded clinical trial, the time required for reversal of moderate NMB (TOFc 3) to T4/T1 (TOF ratio, TOFr) > 0.9 and TOFr = 1.0 after administration of different doses of neostigmine (10, 20 or 30 mcg/kg) or placebo in children undergoing inhalational (sevoflurane) general anesthesia. In addition, the probability of NMB reversal in less than 10 minutes, the presence of bradycardia, respiratory complications and postoperative vomiting will be evaluated. The time for reversal is expected to be inversely proportional to the administered dose of neostigmine.
The use of low-pressure pneumoperitoneum seems to be able to reduce complications such as postoperative pain. However, the quality of evidence for most studies evaluating this relationship is considered low. The absence of concealment of pneumoperitoneum pressure and the lack of description of neuromuscular blockade characteristics are the main causes of bias. The purpose of this study will be to evaluate by means of a prospective, randomized and double-blinded trial, the quality of recovery (QoR-15) questionnaire of patients undergoing laparoscopic cholecystectomy under moderate neuromuscular blockade, using low pneumoperitoneum pressure or "standard" pressure. Eighty patients submitted to laparoscopic cholecystectomy and randomly distributed in two groups will be included: low pneumoperitoneum pressure (10 mmHg) or "standard" pressure (14 mmHg). The value of abdominal pressure will be kept hidden for all participants, except for the nurse responsible for the operating room. Moderate neuromuscular blockade will be maintained according to Train-of-four count (TOFc) = 3 for all cases.
The aim of the present study will be to evaluate by means of a prospective randomized clinical trial, the time required for the reversal of moderate neuromuscular blockade (NMB) (Train-of-four count = 3; TOFc 3) to Train-of-four ratio (TOFr) > 0.9 and TOFr = 1.0 after administration of different doses of neostigmine (30, 50 and 70 mcg/kg) in patients undergoing general anesthesia with propofol or sevoflurane. In addition, the probability of NMB reversal in less than 10 minutes or 15 minutes after neostigmine administration will be registered.
The aim of this study is to examine whether the administration of the TQL block cause motor block of the lumbar plexus and thereby quadriceps muscle weakness. The investigators hypothesise that the administration of a unilateral TQL block does not cause quadriceps muscle weakness compared to a placebo block.
The overall objective of this research is to evaluate different laboratory-built and commercially available sensors used to measure the effects of neuromuscular blocking drugs on neuromuscular function during surgery, by measuring evoked thumb twitch response to ulnar nerve stimulation (also known as "twitch monitoring"). The specific aim is to compare mechanomyography, which is the "gold standard" laboratory measurement to assess neuromuscular blockade, to the sensors used in commercially available neuromuscular blockade monitors, such as acceleromyography and electromyography. The study endpoints are the train-of-four count (TOFC), the ratio of the height of the 4th twitch to the height of the 1st twitch (train-of-four ratio, TOFR), and the post tetanic count (PTC). The mechanomyography devices have been constructed in our laboratory and are not commercially available.
This is a monocentric, prospective, observational study that will be conducted in the general ICU of San Gerardo Hospital (Monza, Italy). Study protocol will be started when NMBAs infusion will be stopped for clinical reason until regain of spontaneous breathing activity. Patients will be enrolled at the moment of NMBAs infusion interruption ("baseline" phase). Clinical data will be collected: hemodynamics, ventilation parameters and respiratory mechanics, arterial blood gas analysis, drugs used for sedation and their dosages. An EIT belt will be positioned around the patient's chest when clinical signs of spontaneous breathing activity will be detectable (unstable flow curve on the ventilator, deflection in airway pressure during an expiratory pause). In this phase ("NMBA interruption") same clinical data will be collected as at baseline. Patients will be ventilated in the same ventilation mode as before (Volume Controlled mechanical ventilation), but the inspiratory trigger on the ventilator will be turned on to reduce patient-ventilator asynchronies. When an EIT trace lasting at least 10 minutes will be recorded, an NMBA bolus (as prescribed by the treating physician) will be administered and a continuous infusion will be restarted. Clinical data will be collected again in this phase ("NMBA restart").
This observational study was designed to assess the agreement between the recently marketed electromyographic neuromuscular blockade monitor Tetragraph® (Senzime, Uppsala, Sweden) and the TOF Watch® SX (Organon Teknika B.V., Boxtel, Holland), an accelerometric neuromuscular blockade monitor frequently used in clinical practice
The goal of the CELESTE study is to evaluate whether calibration of EMG is needed for reliable interpretation of neuromuscular function and if so, to identify the minimal necessary depth of anesthesia.