Massager and control method thereof
A massager includes a shell component provided with a contact side plate; a semiconductor refrigeration sheet, wherein the semiconductor refrigeration sheet is provided in the shell component, and the first working surface of the semiconductor refrigeration sheet is attached to the contact side plate; at least two electrode plates, wherein all of the electrode plates are provided on the contact side plate, and the polarities of the at least two electrode plates are opposite. The massager and the control method thereof according to the present disclosure use the semiconductor refrigeration sheet to cool or heat, so that the massager can realize various massage functions of cold compress, hot compress and alternating cold and hot massage, and achieve the effect of dissolving fat particles and discharging the fat particles out of the body. Moreover, an electrode plate is provided to release pulses, so that muscles can exercise passively.
1 . A massager, comprising:
a shell component ( 1 ), wherein the shell component ( 1 ) is provided with a contact side plate ( 11 );
semiconductor refrigeration sheets ( 2 ), wherein the semiconductor refrigeration sheets ( 2 ) are provided in the shell component ( 1 ), and a first working surface of the semiconductor refrigeration sheets ( 2 ) is attached to the contact side plate ( 11 );
at least two electrode plates ( 3 ), wherein all of the electrode plates ( 3 ) are provided on the contact side plate ( 11 ), and the polarities of the at least two electrode plates ( 3 ) are opposite; and
a control device ( 4 ), wherein the control device ( 4 ) is electrically connected with the semiconductor refrigeration sheets ( 2 ) and all the electrode plates ( 3 ), and the control device ( 4 ) is capable of controlling the first working surface of the semiconductor refrigeration sheets ( 2 ) to cool or heat and controlling the electrode plates ( 3 ) to discharge;
wherein the electrode plate ( 3 ) comprises metal sheets, all of the metal sheets are provided on the contact side plate ( 11 ), and the semiconductor refrigeration sheets ( 2 ) are attached to at least one of the metal sheets;
wherein the semiconductor refrigeration sheets ( 2 ) correspond to the metal sheets one by one, and the semiconductor refrigeration sheets ( 2 ) are attached to the corresponding metal sheets;
wherein the massager further comprises temperature detection mechanisms corresponding to the metal sheets one by one, the temperature detection mechanisms are capable of detecting the temperature of the corresponding metal sheets, and the temperature detection mechanisms are electrically connected with the corresponding semiconductor refrigeration sheets ( 2 ); and
wherein the side of the metal sheet facing the semiconductor refrigeration sheets ( 2 ) is provided with a groove, the temperature detection mechanism comprises a thermistor, and the pin of the thermistor is provided in the groove through a thermal conductive film.
2 . The massager according to claim 1 , wherein the shell component ( 1 ) is provided with an air inlet ( 12 ) and an air outlet ( 13 ), an airflow channel is provided in the shell component ( 1 ), the airflow channel is communicated with the air inlet ( 12 ) and the air outlet ( 13 ), the semiconductor refrigeration sheets ( 2 ) are provided with a second working surface opposite to the first working surface, and the gas in the airflow channel flows through the second working surface.
3 . The massager according to claim 2 , wherein the massager further comprises a heat dissipation structure ( 5 ), the heat dissipation structure ( 5 ) is provided on the second working surface of the semiconductor refrigeration sheet ( 2 ), and the heat dissipation structure ( 5 ) is located in the airflow channel.
4 . The massager according to claim 2 , wherein the airflow channels correspond to the semiconductor refrigeration sheets ( 2 ) one by one, and the airflow in each airflow channel flows through the second working surface of the corresponding semiconductor refrigeration sheet ( 2 ).
5 . The massager according to claim 2 , wherein a vortex fan ( 6 ) is provided in the airflow channel, and the air intake of the vortex fan ( 6 ) faces the semiconductor refrigeration sheets ( 2 ).
6 . The massager according to claim 1 , wherein the massager further comprises at least two massage parts, each of the massage parts is provided with at least one semiconductor refrigeration sheet ( 2 ) and at least one electrode plate ( 3 ), and a distance adjusting mechanism is provided between two adjacent massage parts.
7 . A control method of the massager according to claim 1 , wherein the massager is provided with a dual-temperature massage mode, and the control method further comprises:
when the massager is in the dual-temperature massage mode, controlling a semiconductor refrigeration sheet ( 2 ) to alternately cool and heat, and controlling an electrode plate ( 3 ) to generate pulses.
8 . The control method according to claim 7 , wherein controlling the semiconductor refrigeration sheet ( 2 ) to alternately cool and heat comprises:
S 1 , controlling the semiconductor refrigeration sheet ( 2 ) to cool for a first time period;
S 2 , controlling the semiconductor refrigeration sheet ( 2 ) to heat for a second time period;
S 3 , repeating the steps S 1 and S 2 .
9 . The control method according to claim 7 , wherein the massager comprises at least two semiconductor refrigeration sheets ( 2 ), and the control method comprises:
when the massager is in the dual-temperature massage mode, heating by at least one of the semiconductor refrigeration sheets ( 2 ) while cooling by at least one of the semiconductor refrigeration sheets ( 2 ).
10 . The control method according to claim 7 , wherein the massager is further provided with a single-cooling massage mode, and the control method comprises:
when the massager is in the single-cooling massage mode, controlling the semiconductor refrigeration sheet ( 2 ) to cool, and controlling the electrode plate ( 3 ) to generate pulses.
11 . The control method according to claim 10 , wherein controlling the semiconductor refrigeration sheet ( 2 ) to cool further comprises:
performing cyclic refrigeration in a first preset temperature range by the semiconductor refrigeration sheet ( 2 ).
12 . The control method according to claim 7 , wherein the massager is further provided with a single-heating massage mode, and the control method comprises:
when the massager is in the single-heating massage mode, controlling the semiconductor refrigeration sheet ( 2 ) to heat, and controlling the electrode plate ( 3 ) to generate pulses.
13 . The control method according to claim 12 , wherein controlling the semiconductor refrigeration sheet ( 2 ) to heat further comprises:
performing cyclic refrigeration in a second preset temperature range by the semiconductor refrigeration sheet ( 2 ).
14 . The control method according to claim 7 , wherein the electrode plate ( 3 ) is provided with at least two pulse modes, and controlling the electrode plate ( 3 ) to generate pulses further comprises:
controlling the electrode plate ( 3 ) to switch freely in the at least two pulse modes.