Abstract: A scrubber-heating apparatus for a diving rebreather includes an oxygen supplying element. The oxygen supplying element has a gas mixing portion connected thereto. The gas mixing portion has a breath connecting element connected thereto. The breath connecting element has a scrubber connected thereto. The scrubber is provided with an absorbent heating element and a temperature detecting component. The temperature detecting component has a state display connected thereto. The absorbent heating element and the state display are electrically connected to a power supplying portion. Thereby, the scrubber can recycle gas exhaled by a user to prolong the duration of use of the rebreather. Additionally, the absorbent heating element increases the temperature in the scrubber, thereby enhancing the adsorption efficiency and prolonging the overall duration of use.

Abstract: A scrubber-heating apparatus for a diving rebreather includes an oxygen supplying element. The oxygen supplying element has a gas mixing portion connected thereto. The gas mixing portion has a breath connecting element connected thereto. The breath connecting element has a scrubber connected thereto. The scrubber is provided with an absorbent heating element and a temperature detecting component. The temperature detecting component has a state display connected thereto. The absorbent heating element and the state display are electrically connected to a power supplying portion. Thereby, the scrubber can recycle gas exhaled by a user to prolong the duration of use of the rebreather. Additionally, the absorbent heating element increases the temperature in the scrubber, thereby enhancing the adsorption efficiency and prolonging the overall duration of use.

Abstract: A drainable wireless charging device includes a power emitting unit assembled on a first connection member in a waterproof manner and a power receiving unit assembled on a second connection member in a waterproof manner. The first connection member and the second connection member respectively have an insertion groove and an inserting portion for inserting into the insertion groove. The insertion groove has a second attaching surface corresponding to the power receiving unit. The inserting portion has a first attaching surface corresponding to the power emitting unit. The first connection member and the second connection member, and the first attaching surface is closely attached against the second attaching surface, so that water can be drained from the space between the first attaching surface and the second attaching surface.

Abstract: A drainable wireless charging device includes a power emitting unit assembled on a first connection member in a waterproof manner and a power receiving unit assembled on a second connection member in a waterproof manner. The first connection member and the second connection member respectively have an insertion groove and an inserting portion for inserting into the insertion groove. The insertion groove has a first attaching surface corresponding to the power emitting unit or the power receiving unit. The inserting portion has a second attaching surface corresponding to the power emitting unit and the power receiving unit. The first connection member and the second connection member, and the first attaching surface is closely attached against the second attaching surface, so that water can be drained from the space between the first attaching surface and the second attaching surface.

Abstract: The present invention discloses an interactive biosensing device and a method thereof. The interactive biosensing device is arranged on a living body and comprises a physiological detection module detecting physiological signals of the living body; a physical sensation module triggering at least one physical device according to control instructions; a first wireless transmission module receiving control instructions or sends out physiological signals; a storage module storing physiological signals and control instructions; a video module capturing images of the living body; a control module processing physiological signals and control instructions and controlling operations of the video module; and a display unit presenting the images captured by the video module.