Abstract: An airflow guiding mechanism includes a casing and an airflow guiding member. The airflow guiding member is rotatably disposed in the casing. The airflow guiding member is able to rotate between a first position and a second position. When the airflow guiding member is located at the first position, the airflow guiding member separates two airflow passages at opposite sides of the airflow guiding member from each other. When the airflow guiding member is located at the second position, the two airflow passages communicate with each other.

Abstract: An airflow guiding mechanism includes a casing and an airflow guiding member. The airflow guiding member is rotatably disposed in the casing. The airflow guiding member is able to rotate between a first position and a second position. When the airflow guiding member is located at the first position, the airflow guiding member separates two airflow passages at opposite sides of the airflow guiding member from each other. When the airflow guiding member is located at the second position, the two airflow passages communicate with each other.

Abstract: An electronic device includes a storage array, a row fan, a distance sensor, and a controller. The storage array includes a plurality of storage units. The row fan cools the storage array. The distance sensor senses the distance between the storage array and the row fan and outputs a corresponding distance signal. The controller receives the distance signal and sets the distance threshold of each of the storage units. When the distance is longer than the distance threshold, the controller outputs a control signal to the row fan to increase the rotation speed of the row fan.

Abstract: An airflow guiding mechanism includes a casing and an airflow guiding member. The airflow guiding member is rotatably disposed in the casing. The airflow guiding member is able to rotate between a first position and a second position. When the airflow guiding member is located at the first position, the airflow guiding member separates two airflow passages at opposite sides of the airflow guiding member from each other. When the airflow guiding member is located at the second position, the two airflow passages communicate with each other.

Abstract: A server chassis includes a main frame, a fan module, and a flow-guiding device. The fan module and the flow-guiding device are in the main frame. The flow-guiding device includes a plurality of plate bodies. The plate bodies are parallel to each other and are spaced apart from each other by a spacing. Each of the plate bodies has a plurality of openings. The plurality of openings of one of the plate bodies are arranged alternately with those of another plate body adjacent to the one of the plate bodies.

Abstract: A server chassis includes a main frame, a fan module, and a flow-guiding device. The fan module and the flow-guiding device are in the main frame. The flow-guiding device includes a plurality of plate bodies. The plate bodies are parallel to each other and are spaced apart from each other by a spacing. Each of the plate bodies has a plurality of openings. The plurality of openings of one of the plate bodies are arranged alternately with those of another plate body adjacent to the one of the plate bodies.

Abstract: A cargo-carrying apparatus is provided. The cargo-carrying apparatus includes: an upper deck and a vibration-isolation section. The upper deck is configured to carry cargo. The vibration-isolation section is disposed beneath the upper deck. The vibration-isolation section includes an elastic vibration-isolation layer and one or more indicator components, and the one or more indicator components are disposed on one or more side surfaces of the elastic vibration-isolation layer, and height of the one or more indicator components varies depending on thickness of the elastic vibration-isolation layer. It is determined whether the elastic vibration-isolation layer of the cargo-carrying apparatus is invalid according to a compression ratio of the elastic vibration-isolation layer obtained from an indicator-component image of one of the one or more indicator components.

Abstract: A cargo-carrying apparatus is provided. The cargo-carrying apparatus includes: an upper deck and a vibration-isolation section. The upper deck is configured to carry cargo. The vibration-isolation section is disposed beneath the upper deck. The vibration-isolation section includes an elastic vibration-isolation layer and one or more indicator components, and the one or more indicator components are disposed on one or more side surfaces of the elastic vibration-isolation layer, and height of the one or more indicator components varies depending on thickness of the elastic vibration-isolation layer. It is determined whether the elastic vibration-isolation layer of the cargo-carrying apparatus is invalid according to a compression ratio of the elastic vibration-isolation layer obtained from an indicator-component image of one of the one or more indicator components.