Method for door lock calibration, door lock, and non-transitory computer storage medium

A door lock, comprising a calibration apparatus, wherein the calibration apparatus comprises:

• a sensor configured to collect a first magnetic-field-intensity numerology at a position of a door in an ajar state, a second magnetic-field-intensity numerology at a position of the door in an open state, and a third magnetic-field-intensity numerology at a position of the door in a locked state;
• and
• a transmitter configured to transmit to a database a mapping relationship between the ajar state of the door and the first magnetic-field-intensity numerology, a mapping relationship between the open state of the door and the second magnetic-field-intensity numerology, and a mapping relationship between the locked state of the door and the third magnetic-field-intensity numerology;
• wherein the first magnetic-field-intensity numerology contains at least one first magnetic-field-intensity parameter, and each of the at least one first magnetic-field-intensity parameter corresponds to an ajar position of the door in the ajar state;
• the second magnetic-field-intensity numerology contains at least one second magnetic-field-intensity parameter, and each of the at least one second magnetic-field-intensity parameter corresponds to an open position of the door in the open state;
• and
• the third magnetic-field-intensity numerology contains at least one third magnetic-field-intensity parameter, and each of the at least one third magnetic-field-intensity parameter corresponds to a lock position of the door in the locked state;
• wherein the sensor is further configured to:
• obtain a first validation magnetic-field-intensity parameter corresponding to the position of the door in the ajar state;
• determine whether the first validation magnetic-field-intensity parameter is in an interval ranging from a minimum first magnetic-field-intensity parameter in the first magnetic-field-intensity numerology to a maximum first magnetic-field-intensity parameter in the first magnetic-field-intensity numerology, and if no, collect first validation magnetic-field-intensity parameters that respectively correspond to a plurality of positions of the door in the ajar state, determine first deviations by comparing the first validation magnetic-field-intensity parameters that correspond to the plurality of positions and first magnetic-field-intensity parameters in the first magnetic-field-intensity numerology respectively, and re-adjust each first magnetic-field-intensity parameter in the first magnetic-field-intensity numerology according to a corresponding first deviation;
• obtain a second validation magnetic-field-intensity parameter corresponding to the position of the door in the open state;
• determine whether the second validation magnetic-field-intensity parameter is in an interval ranging from a minimum second magnetic-field-intensity parameter in the second magnetic-field-intensity numerology to a maximum second magnetic-field-intensity parameter in the second magnetic-field-intensity numerology, and if no, collect second validation magnetic-field-intensity parameters that respectively correspond to a plurality of positions of the door in the open state, determine second deviations by comparing the second validation magnetic-field-intensity parameters that correspond to the plurality of positions and second magnetic-field-intensity parameters in the second magnetic-field-intensity numerology respectively, and re-adjust each second magnetic-field-intensity parameter in the second magnetic-field-intensity numerology according to a corresponding second deviation;
• obtain a third validation magnetic-field-intensity parameter corresponding to the position of the door in the locked state;
• and
• determine whether the third validation magnetic-field-intensity parameter is in an interval ranging from a minimum third magnetic-field-intensity parameter in the third magnetic-field-intensity numerology to a maximum third magnetic-field-intensity parameter in the third magnetic-field-intensity numerology, and if no, collect third validation magnetic-field-intensity parameters that respectively correspond to a plurality of positions of the door in the locked state, determine third deviations by comparing the third validation magnetic-field-intensity parameters that correspond to the plurality of positions and third magnetic-field-intensity parameters in the third magnetic-field-intensity numerology respectively, and re-adjust each third magnetic-field-intensity parameter in the third magnetic-field-intensity numerology according to a corresponding third deviation.

A non-transitory computer storage medium configured to store computer instructions which, when executed by a processor, are operable with the processor to implement:

• collecting a first magnetic-field-intensity numerology at a position of a door in an ajar state, a second magnetic-field-intensity numerology at a position of the door in an open state, and a third magnetic-field-intensity numerology at a position of the door in a locked state;
• and
• transmitting to a database, a mapping relationship between the ajar state of the door and the first magnetic-field-intensity numerology, a mapping relationship between the open state of the door and the second magnetic-field-intensity numerology, and a mapping relationship between the locked state of the door and the third magnetic-field-intensity numerology;
• wherein the first magnetic-field-intensity numerology contains at least one first magnetic-field-intensity parameter, and each of the at least one first magnetic-field-intensity parameter corresponds to an ajar position of the door in the ajar state;
• the second magnetic-field-intensity numerology contains at least one second magnetic-field-intensity parameter, and each of the at least one second magnetic-field-intensity parameter corresponds to an open position of the door in the open state;
• and
• the third magnetic-field-intensity numerology contains at least one third magnetic-field-intensity parameter, and each of the at least one third magnetic-field-intensity parameter corresponds to a lock position of the door in the locked state;
• wherein the computer instructions, when executed by a processor, are further operable with the processor to implement:
• obtaining, by the sensor, a first validation magnetic-field-intensity parameter corresponding to the position of the door in the ajar state;
• determining, by the sensor, whether the first validation magnetic-field-intensity parameter is in an interval ranging from a minimum first magnetic-field-intensity parameter in the first magnetic-field-intensity numerology to a maximum first magnetic-field-intensity parameter in the first magnetic-field-intensity numerology, and if no, collecting, by the sensor, first validation magnetic-field-intensity parameters that respectively correspond to a plurality of positions of the door in the ajar state, determining, by the sensor, first deviations by comparing the first validation magnetic-field-intensity parameters that correspond to the plurality of positions and first magnetic-field-intensity parameters in the first magnetic-field-intensity numerology respectively, and re-adjusting, by the sensor, each first magnetic-field-intensity parameter in the first magnetic-field-intensity numerology according to a corresponding first deviation;
• obtaining, by the sensor, a second validation magnetic-field-intensity parameter corresponding to the position of the door in the open state;
• determining, by the sensor, whether the second validation magnetic-field-intensity parameter is in an interval ranging from a minimum second magnetic-field-intensity parameter in the second magnetic-field-intensity numerology to a maximum second magnetic-field-intensity parameter in the second magnetic-field-intensity numerology, and if no, collecting, by the sensor, second validation magnetic-field-intensity parameters that respectively correspond to a plurality of positions of the door in the open state, determining, by the sensor, second deviations by comparing the second validation magnetic-field-intensity parameters that correspond to the plurality of positions and second magnetic-field-intensity parameters in the second magnetic-field-intensity numerology respectively, and re-adjusting, by the sensor, each second magnetic-field-intensity parameter in the second magnetic-field-intensity numerology according to a corresponding second deviation;
• obtaining, by the sensor, a third validation magnetic-field-intensity parameter corresponding to the position of the door in the locked state;
• and
• determining, by the sensor, whether the third validation magnetic-field-intensity parameter is in an interval ranging from a minimum third magnetic-field-intensity parameter in the third magnetic-field-intensity numerology to a maximum third magnetic-field-intensity parameter in the third magnetic-field-intensity numerology, and if no, collecting, by the sensor, third validation magnetic-field-intensity parameters that respectively correspond to a plurality of positions of the door in the locked state, determining, by the sensor, third deviations by comparing the third validation magnetic-field-intensity parameters that correspond to the plurality of positions and third magnetic-field-intensity parameters in the third magnetic-field-intensity numerology respectively, and re-adjusting, by the sensor, each third magnetic-field-intensity parameter in the third magnetic-field-intensity numerology according to a corresponding third deviation.