Telesair, Inc.

An integrated breathing circuit, a control method thereof and an electronic system. The integrated breathing circuit includes: a first circuit, including two heater wires coupled together; and a second circuit, including a temperature sensor and two wires connected with the temperature sensor; where the heater wires are configured to regulate and maintain a temperature within the integrated breathing circuit, and the temperature sensor is configured to measure the temperature within the integrated breathing circuit.

A breathing system, including a breathing apparatus, a breathing gas supply conduit, and a patient interface for a user; where the breathing apparatus is operatively connected to one end of the breathing gas supply conduit, and the patient interface is operatively connected to the other end of the breathing gas supply conduit; where the breathing apparatus is configured to provide breathing gas to the user through the breathing gas supply conduit and the patient interface; where at least one of the breathing gas supply conduit or the patient interface is equipped with a verification chip, and the verification chip is electrically connected to the breathing apparatus and used for identity verification of either or both the breathing gas supply conduit or the patient interface.

Embodiments provide an oxygen supply device having multiple operational states including a first state and a second state. In the first state, the oxygen supply device is controllable to a local control instruction such that the oxygen supply device can be operated by a user physically located within a proximity of the oxygen supply device. In the second state, the oxygen supply device is only controllable to a remote-control instruction such that the oxygen supply device can be operated by a user remote to the oxygen supply device. For example, the user can be located in an office remote to a location of the oxygen supply device, which, for example, may be placed at a patient's home. In the second state, the user is enabled to control the oxygen supply device from a device associated with the user in the remote location.

A method for assisting a patient in weaning from a therapy, the method being executed by a controller, and the controller being configurable with different at least one weaning strategy. The method includes setting, based on at least one input by a user, a target weaning strategy among the at least one weaning strategy, where the at least one input corresponds to a clinical decision determined by the user.

An obstacle avoidance method and related apparatuses. The obstacle avoidance method includes: determining, based on a measurement from each of sensing devices in a first sensing set, an initial turning angle for the moving device to follow a target, where each of the sensing devices is operatively coupled to the moving device, and the measurement is indicative of information of at least one object within a measuring range of each of the sensing devices; determining whether there is an obstacle in a direction of the initial turning angle; and obtaining an adjusted turning angle of which direction has no obstacle based on a determination of the obstacle in the direction of the initial turning angle.

An HFNC system, including at least one first sensor disposed on a first housing, a compensating device disposed on a second housing and a the controller communicatively connected with the at least one first sensor and the compensating device respectively; where the at least one first sensor is configured to collect first sensing data, and send the first sensing data to the controller; the controller is configured to receive the first sensing data, generate a first driving signal according to the first sensing data, and send the first driving signal to the compensating device; and the compensating device is configured to receive the first driving signal, where the first driving signal is used to cause vibration of the compensating device according to the first driving signal, vibration of the second housing caused by vibration of the first housing is compensated by the vibration of the compensating device.

A monitoring method and related products. The method includes: obtaining sensing data measured by at least one sensing device, where the at least one sensing device is provided within the monitoring device and the sensing data characterizes a physical parameter of a gas flow at a side of the monitoring device, where the gas flow is delivered from the side of the monitoring device to a first user; and determining a first physiological parameter of the first user based on the sensing data.

A manufacturing method of a chamber adaptor, where the chamber adaptor includes: a housing provided with a gas inlet, a gas outlet, a chamber inlet, and a chamber outlet, where the gas inlet is configured to be removably connected to a main board device, the gas outlet is configured to be removably connected to a respiratory pathway, the chamber inlet is configured to be removably connected to an input end of a chamber for storing liquid and the chamber outlet is configured to be removably connected to an output end of the chamber, the chamber adaptor further includes a control circuit and at least one sensing apparatus, where the at least one sensing apparatus is arranged on one end of the control circuit closer to the gas outlet and extends into a gas output channel.

A chamber adaptor and a manufacturing method thereof. The chamber adaptor includes: a housing provided with a gas inlet, a gas outlet, a chamber inlet, and a chamber outlet, where the gas inlet is configured to be removably connected to a main board device, the gas outlet is configured to be removably connected to a respiratory pathway, the chamber inlet is configured to be removably connected to an input end of a chamber for storing liquid and the chamber outlet is configured to be removably connected to an output end of the chamber, the chamber adaptor further includes a control circuit and at least one sensing apparatus, where the at least one sensing apparatus is arranged on one end of the control circuit closer to the gas outlet and extends into a gas output channel.