Intelligent networked energy recovery ventilator

An intelligent networked energy recovery ventilator, comprising:

• a main body comprising an intake channel and an exhaust channel;
• at least one filtering component disposed at an entrance of the intake channel and/or an entrance of the exhaust channel;
• at least one air guiding fan disposed at a rear side of a filtering component of the at least one filtering component at the entrance of the intake channel and/or at a rear side of a filtering component of the at least one filtering component at the entrance of the exhaust channel, wherein the at least one air guiding fan is configured to guide a gas to pass through the at least one filtering component for purification and to achieve a gas exchange between an indoor field and an outdoor field;
• a heat exchange core disposed in the main body and respectively communicated with the intake channel and the exhaust channel, wherein the intake channel and the exhaust channel are not communicated with each other, the intake channel is separated by the heat exchange core to communicate with the indoor field through one end thereof and with the outdoor field through the other end thereof, and the exhaust channel is separated by the heat exchange core to communicate with the indoor field through one end thereof and with the outdoor field through the other end thereof, so that a gas is guided to pass through the heat exchange core for achieving a heat exchange, and wherein the intake channel guides a gas from the outdoor field to the indoor field, and the exhaust channel guides a gas from the indoor field to the outdoor field, so as to achieve the gas exchange between the indoor field and the outdoor field;
• at least one host driving controller controlling an enablement of the at least one air guiding fan, and dynamically adjusting an operation frequency and an output air volume of the at least one air guiding fan;
• and
• at least one gas detection module electrically connected to the at least one host driving controller, wherein the at least one gas detection module detects a temperature, a humidity and an air pollution in an air to generate a detection data, the detection data is transmitted to a networked cloud computing service device through IoT communication, and the networked cloud computing service device collects and analyzes the detection data in real time, intelligently selects a control instruction according to the detection data, and transmits the control instruction to the at least one gas detection module, for controlling the at least one host driving controller to enable the at least one air guiding fan in the intake channel and/or the exhaust channel and dynamically adjust the operation frequency and the output air volume of the at least one air guiding fan, thereby achieving the gas exchange and the heat exchange between the indoor field and the outdoor field.