A walking training apparatus includes a walking assistance apparatus for a leg of a trainee, a first wire winding mechanism for pulling a wire for the leg upward and forward, pulling control means for controlling the first wire winding mechanism to pull the wire with a first pulling force, and storage amount detection means for detecting a storage amount of the wire. The pulling control means controls the first wire winding mechanism so that the first wire winding mechanism pulls the wire with a second pulling force larger than the first pulling force in a swinging start period in which the storage amount of the wire detected by the storage amount detection means is equal to or smaller than a predetermined storage amount of the wire in a period including a timing when the wire of the first wire winding mechanism changes from a pulling-out state to a winding state.

A walking training system includes a detection unit that detects whether a leg portion of a walking trainee on which a walking assistance apparatus has been mounted has performed a walking operation or a stepping operation on a belt of a treadmill on which the walking trainee performs walking training, and a controller maintains an operation prohibition state in which a rotational operation of the belt is not started until the time that the detection unit detects the walking operation or the stepping operation a predetermined number of times and cancels the operation prohibition state after the detection unit detects the walking operation or the stepping operation the predetermined number of times.

A motion assistance apparatus including a fixing module attached to a user, a driving module fixed to the fixing module to generate rotation power, a supporting module configured to support a portion of a body of the user and driven by the driving module, a sensor configured to measure a width of the fixing module, and a controller configured to adjust the rotation power of the driving module based on the measured width.

A gait state determination apparatus includes a foot attachment structure disposed in the walking assistance apparatus, the foot attachment structure to be attached to a foot of a user, pressure detection means, disposed in the foot attachment structure, for detecting a pressure exerted on a sole of the user, pressure center calculation means for successively calculating a center position of a pressure exerted on the sole during a gait motion of the user based on the pressure exerted on the sole detected by the pressure detection means, and motion determination means for determining that it is a timing of a start of forward swinging of the leg to which the walking assistance apparatus is attached when the center position of the pressure calculated by the pressure center calculation means is shifted from a position in a heel region of the sole to a toe region thereof.

An adjustable air bladder apparatus is provided. The apparatus includes an outer enclosure, a first interior section within the outer enclosure that contains a plurality of air bladders, a second interior section within the outer enclosure that contains a support layer, and an air pump pneumatically coupled to the plurality of air bladders, where the air pump is configured to selectively supply pressurized air to the air bladders independently through a pneumatic coupling. The pneumatic coupling includes one or more supply valves, outlet valves, and pressure sensors coupled to each air bladder or to one or more groupings of air bladders. A control device is provided for monitoring the pressure within the air bladders and for controlling an amount of air provided to or released from the bladders or groupings of bladders. A method of providing rolling massage with the apparatus is also disclosed.

An exercise balance board may have at least a platform for a user supported by a resilient, air-filled partial sphere. It contains features which allow users of any size or fitness level to properly exercise muscle groups. The balance board allows a user to exercise upper and lower muscle extremity groups either individually or simultaneously.

A method of monitoring a neonate includes sensing a force applied to an infant support platform supporting a neonate, each load cell is configured to receive at least a portion of an applied force on the infant support platform while the neonate is on the infant support platform and to generate a load signal indicative of the portion of the applied force received. The load signal over time is analyzed during performance of a chest compression on the neonate, including determining a slope value, an impulse value, a jerk value, or a combination thereof for the chest compression based on the load signal and comparing the slope value to a slope threshold, the impulse value to an impulse threshold, and/or the jerk value to a jerk threshold to generate a comparison result for the chest compression. A user interface device is controlled to generate a care instruction based on the comparison result.

A medical system includes a manual patient ventilation unit defining an airflow path arranged so that when the unit is applied to a patient the airflow path is in fluid communication with the patient's airway. The patient ventilation unit includes a ventilation bag configured to enable manual ventilation of the patient by a rescuer, an airflow sensor in the airflow path positioned to sense the presence of ventilation airflow and measure a gas flow rate in the airflow path, and a pressure sensor in the airflow path positioned to sense gas pressure in the airflow path. The system also includes a processor arranged to receive data generated by the airflow sensor and the pressure sensor and determine one or more ventilation quality parameters based at least in part on a gas flow volume calculated based on the sensed gas flow rate and gas pressures.

A medical system includes a manual patient ventilation unit defining an airflow path arranged so that when the unit is applied to a patient the airflow path is in fluid communication with the patient's airway. The patient ventilation unit includes a ventilation bag configured to enable manual ventilation of the patient by a rescuer, an airflow sensor in the airflow path positioned to sense the presence of ventilation airflow and measure a gas flow rate in the airflow path, and a pressure sensor in the airflow path positioned to sense gas pressure in the airflow path. The system also includes a processor arranged to receive data generated by the airflow sensor and the pressure sensor and determine one or more ventilation quality parameters based at least in part on a gas flow volume calculated based on the sensed gas flow rate and gas pressures.

An air or walking boot accessory to enhance mobility and independence for individuals using orthopedic walking boots is disclosed. The accessory integrates with or removably attaches to conventional orthopedic or walking boots. The accessory includes a telescoping cane or pole having a plurality of apertures, an ergonomic handle, and an air shock relief member. A cane receiving member accommodates the cane and includes a spring button locking mechanism for secure height adjustment of the cane. In some embodiments, a forearm support crutch can be accommodated in the cane receiving member. A clip member securely attaches the device to the boot, while a slip-resistant cylindrical member enhances stability. Additionally, the device includes a dial weight indicator with a calibration mechanism to monitor and display the applied weight, ensuring users adhere to doctor-prescribed weight-bearing limits. A user can walk with support from the cane or other supporting member.