Abstract: A method and system for monitoring neuromuscular blockade in patients during surgical procedures. A stimulator provides stimulation to a nerve of the patient, such as train-of-four (TOF). Following such stimulation, the system and method creates a predicted recovery trend for the patient that is based upon measured recovery trend and a recovery model. The recovery model estimates a recovery trend for the patient based on initial model parameter values. The recovery model creates a predicted recovery trend that is used to estimate a recovery time for the patient. The trend values from the patient are monitored and compared to the predicted trend values throughout the operation as long as the NMT measurement is on. During recovery, the recovery model and recovery time estimates are updated based on the recovery trend being formed from measurements of the patient.

Abstract: Methods and systems are provided for monitoring neuromuscular blockade in patients during surgical procedures. In one embodiment, a system includes a stimulator, an electromyography (EMG) sensor, a kinemyography (KMG) sensor, and a single connector configured to couple each of the stimulator, the EMG sensor, and the KMG sensor to a patient monitoring device via a single input. In this way, neuromuscular transmission (NMT) monitoring in patient may be done reliably by ensuring that NMT measurement from a first sensor (EMG sensor) is in line with the measurement of the second sensor (KMG sensor).

Abstract: Method and systems are provided for monitoring neuromuscular blockade in patients during surgical procedures. The system and method utilizes a stimulator to provide stimulation to a nerve of the patient, such as train-of-four (TOF). Following such stimulation, the system and method monitors for muscle twitch reaction and, based upon the monitored muscle twitches, the system and method creates a neuromuscular blocking trend curve. The neuromuscular blocking trend curve provides an estimated time of recovery for the patient and provides the estimated recovery time to a clinician. The estimated recovery time allows the clinician to modify treatment of the patient to accelerate recovery if required.

Abstract: A method and system for monitoring neuromuscular blockade in patients during surgical procedures. A stimulator provides stimulation to a nerve of the patient, such as train-of-four (TOF). Following such stimulation, the system and method creates a predicted recovery trend for the patient that is based upon measured recovery trend and a recovery model. The recovery model estimates a recovery trend for the patient based on initial model parameter values. The recovery model creates a predicted recovery trend that is used to estimate a recovery time for the patient. The trend values from the patient are monitored and compared to the predicted trend values throughout the operation as long as the NMT measurement is on. During recovery, the recovery model and recovery time estimates are updated based on the recovery trend being formed from measurements of the patient.

Abstract: Method and systems are provided for monitoring neuromuscular blockade in patients during surgical procedures. The system and method utilizes a stimulator to provide stimulation to a nerve of the patient, such as train-of-four (TOF). Following such stimulation, the system and method monitors for muscle twitch reaction and, based upon the monitored muscle twitches, the system and method creates a neuromuscular blocking trend curve. The neuromuscular blocking trend curve provides an estimated time of recovery for the patient and provides the estimated recovery time to a clinician. The estimated recovery time allows the clinician to modify treatment of the patient to accelerate recovery if required.

Abstract: Methods and systems are provided for monitoring neuromuscular blockade in patients during surgical procedures. In one embodiment, a system includes a stimulator, an electromyography (EMG) sensor, a kinemyography (KMG) sensor, and a single connector configured to couple each of the stimulator, the EMG sensor, and the KMG sensor to a patient monitoring device via a single input. In this way, neuromuscular transmission (NMT) monitoring in patient may be done reliably by ensuring that NMT measurement from a first sensor (EMG sensor) is in line with the measurement of the second sensor (KMG sensor).