TWI649995B - Wireless smart button and communication system thereof - Google Patents

Abstract

A wireless smart buckle suitable for communicating with a first button body. The first button body is disposed on a wearing object. The first button body includes a first connecting unit and a first processing unit, and the first connecting unit is coupled to the first processing unit. The wireless smart buckle includes an energy storage unit, a processing module and a wireless application module. The processing module is coupled to the energy storage unit through a third voltage stabilizing unit. The processing module includes a third processing unit and a communication unit, and the third processing unit is coupled to the communication unit. The wireless application module is coupled to the processing module. The wireless smart button transmits a control information to the first button body through the communication unit, and the first processing unit processes the control information and communicates with a mobile communication device through a Bluetooth terminal of the master terminal, wherein the Bluetooth unit of the master terminal is coupled to the first A processing unit.

Description

Wireless smart buckle and its communication system

The invention relates to a wireless smart buckle and a communication system thereof, and particularly relates to a wireless smart buckle and a communication system thereof used in the intelligent life of the Internet of Things.

Since ancient times, people's daily lives have been related to wearing objects. Among them, wearing articles such as clothes, jackets, clothing, pants, footwear, gloves, hats, hair clips, brooches, scarves, raincoats, rain gear, backpacks, handbags, purses, suitcases or other wearables, and the like. For example, people wear clothes. The weather is hot and people are wearing cooler clothes. The weather is cold and people are wearing warm jackets. It’s raining, people carry raincoats or rain gear. To the store to purchase items, people carry handbags. In other words, people's daily lives cannot be separated from these wearing objects.

With the advancement of technology, the existing industry has developed a variety of smart wearing objects. For example, smart watches, smart bracelets, smart headphones or other wearables. However, these smart wearing objects still have the defects of "consuming a lot of power", "requiring frequent charging to ensure their function" or "forgetting to carry". In particular, smart watches often have to be recharged frequently, causing forgetting to carry them; or the battery in the smart wearing object is damaged and a new battery operation has to be replaced, thereby making it inconvenient to use smart wearing objects.

In view of this, the present invention discloses a wireless smart buckle and a communication system thereof, which are designed to increase the convenience of use of the wireless smart buckle and its communication system through the design of wireless communication between the communication unit and the first button body.

The invention provides a wireless smart buckle, which is suitable for communication with a first button body of a wired smart buckle. The first button body is disposed on a wearing object, and the first button body includes a first connecting unit and a first processing unit. The first connecting unit is coupled to the first processing unit. The wireless smart buckle includes an energy storage unit, a processing module and a wireless application module. The processing module is coupled to the energy storage unit through a third voltage stabilizing unit. The processing module includes a third processing unit and a communication unit, and the third processing unit is coupled to the communication unit. The wireless application module is coupled to the processing module. The wireless smart buckle transmits a control information to the first button body through the communication unit, and the first processing unit processes the control information and communicates with a mobile communication device through a Bluetooth terminal of the master terminal, wherein the Bluetooth unit of the master terminal is coupled. Connect to the first processing unit.

The invention provides a wireless smart buckle communication system, which comprises a wired smart buckle and a wireless smart buckle. The first smart body button includes a first button body, and the first button body is disposed on a wearable object. The first button body includes a first connecting unit and a first processing unit, and the first connecting unit is coupled to the first processing unit.

Based on the above, the present invention provides a wireless smart buckle, which is designed to wirelessly communicate with a first button body disposed on a wearing object, thereby improving the functionality, diversity, and convenience of the wearing object. Among them, the wireless smart buckle uses wireless communication technology to enhance the extension, expansion and application of the wired smart buckle, and enhance the convenience of use of the smart buckle.

In order to further understand the technology, method and function of the present invention in order to achieve the intended purpose, reference should be made to the detailed description and drawings of the invention. The drawings and the annexed drawings are to be considered as illustrative and not restrictive.

1‧‧‧Wire Wisdom Buckle

11, 11a, 11b, 11c‧‧‧ first button body

110‧‧‧First Processing Unit

111‧‧‧First connection unit

112, 112n‧‧‧ voltage waveform generating unit

114, 114n‧‧‧ voltage control switch unit

116, 116n‧‧‧Load detection unit

118, 118n‧‧‧ first reading unit

PS1, PS1n‧‧‧ first current protection switch

RD1, RD1n‧‧‧ first detection resistor

T1, T1n‧‧‧ conversion unit

BP1‧‧‧ battery unit

LD1‧‧‧First regulator unit

P1, P1n‧‧‧ first contact

P2, P2n‧‧‧ second contact

12, 12a~12l‧‧‧second button body

120‧‧‧Second processing unit

122‧‧‧Second connection unit

124‧‧‧Signal detection unit

126‧‧‧Signal generating unit

128‧‧‧second reading unit

PS2‧‧‧Second current protection switch

RD2‧‧‧second detection resistor

LD2‧‧‧second voltage regulator unit

AP‧‧‧Application Module

P4‧‧‧fourth joint

P5‧‧‧ fifth junction

D1~D3‧‧‧ diode

Q1~Q6‧‧‧O crystal

R1~R11‧‧‧ resistor

C11, C21, C23‧‧‧ comparator

Blocks A1, B1~BN, C1~CN, E‧‧‧

W‧‧‧ wearing objects

VCC‧‧‧ working voltage

14, 14a~14f‧‧‧Wireless Wisdom Buckle

140, 140a~140f, 140a'~140d'‧‧‧ processing module

1400‧‧‧ third processing unit

1402, 1402a~1402f, 1402a'~1402d'‧‧‧ communication unit

142‧‧‧ Energy storage unit

144‧‧‧Charging unit

146, 146a~146f‧‧‧Wireless Application Module

148‧‧‧ third connection unit

1480‧‧‧ Magnetic components

LD3‧‧‧third regulator unit

MD‧‧‧ mobile communication device

RF‧‧‧Master RF unit

BT‧‧‧Master Bluetooth Unit

P7‧‧‧ seventh junction

P8‧‧‧8th joint

P1X, P2X‧‧‧ extended contact

FIG. 1 is a schematic circuit diagram of a first button body of a wired smart buckle according to another embodiment of the present invention.

2 is a circuit diagram of a second button body of a wired smart buckle according to another embodiment of the present invention; intention.

FIG. 3 is a schematic functional block diagram of a wireless smart buckle according to another embodiment of the present invention.

4 is a schematic structural diagram of a communication system of a first button body of a wireless smart buckle and a wired smart buckle according to another embodiment of the present invention.

FIG. 5 is a schematic structural diagram of a communication system of a first button body of a wireless smart buckle and a wired smart buckle according to another embodiment of the present invention.

FIG. 6 is a functional block diagram of a first button body of a wired smart buckle according to another embodiment of the present invention.

FIG. 7 is a schematic structural diagram of a wired smart buckle disposed on a wearable object according to another embodiment of the present invention.

8A, 8B, 8C, and 8D are schematic diagrams showing a first connecting unit of a first button body of a wired smart buckle according to another embodiment of the present invention.

9A, 9B, 9C, and 9D are schematic diagrams showing a second button body of a wired smart buckle according to another embodiment of the present invention.

10A, 10B, and 10C are schematic diagrams showing a first button body of a wired smart buckle according to another embodiment of the present invention.

FIG. 11 is a schematic diagram of a first button body of a wired smart buckle according to another embodiment of the present invention.

FIG. 12 is a schematic diagram of an operational architecture of a wired smart buckle according to another embodiment of the present invention.

FIG. 13 is a schematic diagram of an operational architecture of a hybrid communication of a wired smart buckle and a wireless smart buckle according to another embodiment of the present invention.

In the following, the invention will be described in detail by way of illustration of various exemplary embodiments of the invention. However, the inventive concept may be embodied in many different forms and should not be construed as being limited to the illustrative embodiments set forth herein. In addition, the same reference numerals may be used in the drawings to indicate similar elements.

1 is a circuit diagram of a first button body of a wired smart buckle according to another embodiment of the present invention; intention. Please refer to Figure 1. The first button body 11 in FIG. 1 includes a first connecting unit 111, a voltage waveform generating unit 112, a converting unit T1, a battery unit BP1, a voltage control switch unit 114, and a load detecting unit 116. A first voltage stabilizing unit LD1, a first processing unit 110, a first current protection switch PS1, a first reading unit 118 and a first detecting resistor RD1. The first connecting unit 111 includes a first contact P1 and a second contact P2.

In practice, the voltage waveform generating unit 112 is coupled to the first contact P1, the converting unit T1, and the first processing unit 110. The conversion unit T1 is coupled to the voltage waveform generation unit 112, the voltage control switch unit 114, the first processing unit 110, and the battery unit BP1. The voltage control switch unit 114 is coupled to the first contact P1, the conversion unit T1, and the first processing unit 110. The load detecting unit 116 is coupled to the second contact P2, the first current protection switch PS1, and the first processing unit 110. The first current protection switch PS1 is coupled to the second contact P2, the load detecting unit 116, the first processing unit 110, and the first detecting resistor RD1. The first reading unit 118 is coupled to the first processing unit 110, the first current protection switch PS1, and the first detecting resistor RD1. The first voltage stabilizing unit LD1 is coupled to the battery unit BP1, the converting unit T1, and the first processing unit 110.

Further, the first button body 11 is detachably coupled to the second button body 12. That is, the first connecting unit 111 of the first button body 11 is detachably coupled with the second connecting unit 122 of the second button body 12. The first contact P1 is a contact for transmitting a voltage. The second contact P2 is a contact for transmitting current. Therefore, when the second button body 12 is combined with the first button body 11, the application module AP of the second button body 12 can operate; or when the application module AP of the second button body 12 is a battery module, the battery The module can supply power to the battery unit BP1 of the first button body 11. That is to say, the first button body 11 realizes power supply simplex or full-duplex transmission through two lines. In other embodiments, the first connecting unit 111 may further include a third contact. The third contact is the contact point for transmitting data. That is to say, the first button body 11 realizes simplex or full-duplex transmission of power, data, etc. through a three-wire type.

Next, the voltage waveform generating unit 112 is, for example, for generating a DC pulse signal. Circuit. The DC pulse signal is used to inquire about the identity, type and demand of the second button body 12. The DC pulse signal is, for example, a square wave signal of 4.3 volts to 5 volts. That is, the first button body 11 transmits the DC pulse signal generated by the voltage waveform generating unit 112 to identify the identity, type, and demand of the second button body 12.

For example, there are two second buttons 12, and the application module AP of the first second button 12 is a touch button or a voice recognition controller. The application module AP of the second second button body 12 is a Bluetooth music player. The touch button or the voice recognition controller of the first second button body 12 is used to control the playing mode of the Bluetooth music player of the second second button body 12, such as the previous song, the next song, and the shuttle forward. Or back, volume, and other features. The touch button or the voice recognition controller requires the first button body 11 to provide power requirements. When the first button body 11 is combined with the second button body 12, the voltage waveform generating unit 112 outputs a DC pulse signal to inquire about the identity, type, and demand of the second button body 12. The second button body 12 transmits a reply signal to the first button body 11, so that the first processing unit 110 of the first button body 11 knows that the second button body 12 is a touch button. Therefore, the first button body 11 is transmitted through the first connecting unit 111 to supply power to the second button body 12. When the touch button or the voice recognition controller of the first second button body 12 is pressed or the voice command is issued, the first second button body 12 transmits the button data or the voice command data to the first button body 11, After the first button body 11 reads the data, the button data or voice command data is transmitted to the Bluetooth music player of the second second button body 12, and the second second button body 12 is changed according to the button data. status.

In addition, when the application module AP of the second button body 12 is a battery module. This battery module can be used as a mobile power source. The battery module stores electrical energy. When the first button body 11 is combined with the second button body 12, the voltage waveform generating unit 112 outputs a DC pulse signal to inquire about the identity, type, and demand of the second button body 12. The second button body 12 transmits a reply signal to the first button body 11, so that the first processing unit 110 knows that the second button body 12 is a battery module. Therefore, the second button body 12 is transmitted through the first connecting unit 111 to supply power to the first button body 11.

Briefly, when the first button body 11 is combined with the second button body 12, the voltage waveform The generating unit 112 outputs a DC pulse signal to inquire about the identity, type, and demand of the second button body 12. The first processing unit 110 knows the identity, type, and requirements of the second button body 12 according to the reply signal. The second button body 12 is an application module AP having "power supply to the first button body 11" or an application module AP having "power supply to the first button body 11".

Next, the voltage control switch unit 114 is realized by, for example, "a combination of at least one diode, at least one transistor, and at least one resistor." The voltage controlled switch unit 114 is one or more switches that are controlled by the first processing unit 110. That is, the first processing unit 110 can control the on or off of the voltage control switch unit 114.

The first contact P1, the voltage waveform generating unit 112, and the converting unit T1 form a first path. The first contact P1, the voltage control switch unit 114 and the conversion unit T1 form a second path. The first path is a path for outputting power to the second button body 12. The second path is a path for receiving power of the second button body 12. In other words, the power of the first button body 11 is transmitted from the first path to the second button body 12; or the power of the second button body 12 is transmitted from the second path to the first button body 11.

The load detection unit 116 is configured to detect an external load. The load detecting unit 116 is realized by, for example, "a combination of a transistor and at least one resistor." When the second button body 12 is not combined with the first button body 11, the first current protection switch PS1 is in an off state, and the load detection unit 116 is in a detection waiting state. That is to say, when the first button body 11 is not coupled to the second button body 12, the second contact point P2 is in an open state, and the load detecting unit 116 is in a detection waiting state.

When the second button body 12 is coupled to the first button body 11, the load detecting unit 116 detects the second button body 12 and outputs a first detection signal to the first processing unit 110. The first processing unit 110 controls the first current protection switch PS1 to be turned on according to the first detection signal, and causes the load of the second button body 12 to be in a conducting loop state, wherein the current flows from the second contact point P2 through the first current protection. The switch PS1 and the first detecting resistor RD1, the first reading unit 118 reads the current of the first detecting resistor RD1, or reads the voltage change generated by the current flowing through the first detecting resistor RD1.

That is to say, when the first button body 11 is combined with the second button body 12, the second contact point P2 has a voltage at one end, so that the load detecting unit 116 is turned on, for example, the high logic level is pulled to a low logic level, thereby awakening The first processing unit 110. Therefore, the first processing unit 110 learns the message "the first button body 11 is combined with the second button body 12" and turns on the first current protection switch PS1. Therefore, the current flows from the second contact P2 and passes through the first current protection switch PS1 and the first detection resistor RD1. The first current protection switch PS1 is realized, for example, by a transistor or a gold oxide half field effect transistor.

It is worth mentioning that the first reading unit 118 is implemented, for example, by a comparator or an operational amplifier. The first reading unit 118 can read the external signal and can be used as a current limiting protector, a circuit breaker or a short circuit protector. For example, the first reading unit 118 can read the voltage change of the first detecting resistor RD1, and transmit the first read signal of the voltage change to the first processing unit 110, whereby the first processing unit 110 has the same The first read signal of the voltage change is to identify the identity, type, and requirements of the second button body 12.

The first reading unit 118 has a first preset current value. When the current flowing through the first detecting resistor RD1 is greater than the first preset current value, such as an overcurrent, the first reading unit 118 outputs a first A read signal is sent to the first processing unit 110. The first processing unit 110 controls the on state and the on state of the first current protection switch PS1 according to the first read signal, or turns off the first current protection switch PS1.

It is worth mentioning that, in some applications, the first reading unit 118 can also be replaced by an analog digital conversion function module built in the first processing unit 110. That is, the current flowing through the first detecting resistor RD1 is directly read by the first reading unit 118, and the first processing unit 110 can achieve all the functions of the first reading unit 118.

Further, the battery unit BP1 is realized by, for example, a rechargeable battery such as a nickel-zinc battery, a nickel-iron battery, or a lithium battery. The conversion unit T1 is realized by, for example, one or a combination of a boosting circuit, a step-down circuit, a buck-boost circuit, and a charging circuit, thereby providing different voltages such as 3V to 15V and a current of up to 3A. The first voltage stabilizing unit LD1 is, for example, a linear regulator (LDO, Low Dropout Linear Regulator). First place The processing unit 110 is realized by, for example, a control chip, a processing chip, an MCU, a CPU, or an arithmetic integrated circuit. This embodiment does not limit the aspect of the battery unit BP1, the conversion unit T1, the first voltage stabilization unit LD1 or the first processing unit 110, such as a multi-core core MCU, several MCU coprocessors, an integrated MCU of a Bluetooth chip, and an integrated WI. - MCU of the FI chip or MCU of the integrated RF unit.

In other embodiments, those skilled in the art can freely design to omit "one or a combination of battery unit BP1, conversion unit T1, voltage control switch unit 114". For example, if the first button body 11 does not have the battery unit BP1, the battery module of the second button body 12 supplies power to the first button body 11; or the first button body 11 does not have the voltage control switch unit 114, The first button body 11 passes through the first path to provide power to the second button body 12; or the battery unit BP1 is in a replaceable form.

In addition, the first processing unit 110 can also be coupled to, for example, a Bluetooth communicator, a GPS communicator, a mobile phone, an infrared communicator, a radio frequency communicator, or other application modules. Thereby, the first button body 11 can also achieve unpredictable effects such as positioning tracking, wireless communication, wireless remote control or Internet of Things communication. This embodiment does not limit the aspect of the first button body 11. It is worth mentioning that the first button body 11 further includes a main control terminal radio unit RF and a main control terminal Bluetooth unit BT. In practice, the main control unit RF unit RF and the main control terminal Bluetooth unit BT are respectively coupled to the first processing unit 110. The RF unit of the master terminal communicates with one or more wireless smart buttons through radio frequency technology. The main control Bluetooth unit BT communicates with one or more mobile communication devices via Bluetooth communication technology, or communicates with other wireless smart buttons or the second button body 12.

Please refer to Figure 2 for a wired smart clasp circuit diagram. The voltage waveform generating unit 112 includes a first diode D1, a first transistor Q1, and a second transistor Q2. The first transistor Q1 is connected in parallel with the diode D3. The drain of the first transistor Q1 is coupled to the anode of the first diode D1, and the source of the first transistor Q1 is coupled to the conversion unit T1. The cathode of the first diode D1 is coupled to the first contact P1. The drain of the second transistor Q2 is coupled to the gate of the first transistor Q1. The gate of the second transistor Q2 is coupled to the first Processing unit 110. The source of the second transistor Q2 is coupled to ground.

The voltage control switch unit 114 includes a second diode D2, a third transistor Q3, and a fourth transistor Q4. The source of the third transistor Q3 is coupled to the cathode of the second diode D2, the drain of the third transistor Q3 is coupled to the conversion unit T1, and the gate of the third transistor Q3 is coupled to the cathode of the fourth transistor Q4. The gate of the fourth transistor Q4 is coupled to the first processing unit 110, and the source of the fourth transistor Q4 is coupled to the ground.

The load detecting unit 116 includes a fifth transistor Q5 and at least one resistor R3, R4. The drain of the fifth transistor Q5 is coupled to the first processing unit 110, the source of the fifth transistor Q5 is coupled to the ground, and the gate of the fifth transistor Q5 is coupled to the second contact P2. The gate of the first current protection switch PS1 is coupled to the gates of the second node P2 and the fifth transistor Q5. The gate of the first current protection switch PS1 is coupled to the first processing unit 110, and the first current protection switch PS1 The source is coupled to the first detecting resistor RD1. The first reading unit 118 includes a comparator C11. The output of the comparator C11 is coupled to the first processing unit 110. The non-inverting input of the comparator C11 is coupled to the operating voltage VCC and the ground. The inverting input of the comparator C11 is coupled to the first detecting resistor RD1. This embodiment does not limit the aspect of the wired smart buckle circuit.

Next, the detailed components and operation of the second button body 12 will be further described.

FIG. 2 is a schematic circuit diagram of a second button body 12 of a wired smart buckle according to another embodiment of the present invention. Please refer to Figure 2. The second button body 12 includes a second connecting unit 122, a signal generating unit 126, a signal detecting unit 124, a second voltage stabilizing unit LD2, a second processing unit 120, an application module AP, and a second current. The protection switch PS2, a second detection resistor RD2 and a second reading unit 128.

In practice, the second connecting unit 122 is detachably coupled to the first connecting unit 111. The second connecting unit 122 includes a fourth contact P4 and a fifth contact P5. The fourth contact P4 is for combining with the first contact P1, and the fifth contact P5 is for combining with the second contact P2. That is to say, the second button body 12 realizes power supply simplex or full-duplex transmission through two lines. In other embodiments, the second connecting unit 122 may further include a sixth contact. The sixth contact is for engaging with the third contact. The sixth contact is coupled to the second processing unit 120, and the sixth contact is used for transmitting data. That is to say, the second button body 12 realizes simplex or full-duplex transmission of power, data, etc. through the three-wire type.

The signal generating unit 126 is coupled to the fourth node P4, the fifth node P5, and the second processing unit 120. The signal detecting unit 124 is coupled to the fourth node P4 and the second processing unit 120. The second voltage stabilizing unit LD2 is coupled to the fourth node P4 and the second processing unit 120. The application module AP is coupled to the fourth node P4 and the second processing unit 120. The second current protection switch PS2 is coupled to the application module AP, the second detection resistor RD2, and the second processing unit 120. The second reading unit 128 is coupled to the second current protection switch PS2, the second detection resistor RD2, and the second processing unit 120.

Then, the application module AP is, for example, a touch keyboard, a touch panel, a Bluetooth remote controller, a smart meter, a camera, a camera, a GPS, an LED, a battery module, a mobile power source, a sensor, a mobile phone, an electronic payment, a heat generating sheet, Or a USB charging cable, humidity sensor, pressure sensor, barometric sensor, alcohol concentration detector, CO2 sensor, air quality PM2.5 monitor, heartbeat sensor extending through two lines , UV sensor, PIR human body detection module, inertial sensor, motion sensor, acceleration sensor, gesture recognition module, fingerprint reader, eye tracker, gyroscope module, magnetic field sensor module , electronic nose module, alcohol sensor, infrared temperature sensor, brain wave control and detection module, toxic gas detection module, laser indicator, laser receiving module, laser or ultrasonic measurement Module, electronic compass, electronic compass module, wireless walkie-talkie module, Bluetooth walkie-talkie module, WIFI camera module, WIFI communication module, NFC module, infrared transmission module, chip card module, membership card module Financial card module E-passport, 2D or 3D barcode scanner, women's wolf alarm, mosquito repellent, dog drive, clothes heater module, timer module, radio module, memory card reader, wireless flash drive , infrared remote control, ultraviolet sterilization module, LED direction indicator, LED brake light, night collision LED warning light, LED flashlight module, ultra-small video and audio recording module, interference or anti-wireless pinhole camera, microphone module Group, SOS distress signal transmitter, energy acquisition module, ultra small Wind power generation module, small vibration power generation module, small hand power generation module, power bank module, rechargeable battery module, OLED display module, electronic paper display module, LED display module or other application modules . This embodiment does not limit the aspect of the application module AP.

Among them, the application module AP can communicate with smart phones, laptops, etc. through Bluetooth communication, WI-FI communication, Zigbee communication, RFID, Long Range Signal & Control (LRSC), infrared or other radio communication technology. Tablet, PDA, Bluetooth headset, Bluetooth speaker, smart appliance or other device communication.

The second button body 12 passes through the signal detecting unit 124 to detect the DC pulse signal and transmits the DC pulse signal to the second processing unit 120. The second processing unit 120 controls the signal generating unit 126 to turn on or off according to the DC pulse signal, so that the signal generating unit 126 generates a reply signal. The reply signal is output from the fifth contact P5 and input from the second contact P2 of the first button body 11.

The signal detecting unit 124 is realized by, for example, a comparator or an operational amplifier. When the second button body 12 is coupled to the first button body 11, the signal detecting unit 124 transmits the comparator to compare the DC pulse signal with the reference voltage, thereby causing the second processing unit 120 to know that the first button body 11 and the first button body 11 The message of the two button body 12 is combined. Therefore, the second processing unit 120 passes the control signal generating unit 126 to turn on or off, so that the signal generating unit 126 generates a reply signal such as a DC pulse code.

The reply signal enters through the second contact P2 and passes through the first current protection switch PS1 and the first detecting resistor RD1. Therefore, the first detecting resistor RD1 will generate different voltage changes according to the current change of the reply signal. The first reading unit 118 reads the voltage change of the first detecting resistor RD1, so that the first processing unit 110 knows the identity, type, and demand of the second button body 12.

Further, the signal generating unit 126 is realized by, for example, a switch or a transistor. The turn-on or turn-off of the signal generating unit 126 is controlled by the control signal that is turned on or off output by the second processing unit 120. The second voltage stabilizing unit LD2 is, for example, a linear regulator (LDO, Low Dropout Linear Regulator). The second processing unit 120 is realized, for example, by a control chip, a processing chip, an MCU, a CPU, or an arithmetic integrated circuit. This embodiment does not limit the aspect of the signal generating unit 126, the second voltage stabilizing unit LD2, or the second processing unit 120.

It is worth noting that, as shown in FIG. 2, a wired smart buckle circuit diagram. The signal generating unit 126 is a sixth transistor Q6. The source of the sixth transistor Q6 is coupled to the fifth contact P5 and the ground, the drain of the sixth transistor Q6 is coupled to the fourth contact P4 through the resistor R11, and the gate of the sixth transistor is coupled to The second processing unit 120. The signal detecting unit 124 includes a comparator C21. The output of the comparator C21 is coupled to the second processing unit 120. The non-inverting input of the comparator C21 is coupled to the fourth contact P4. The inverting input of the comparator C21 is coupled to the operating voltage VCC and the ground.

The first current protection switch PS2 is coupled to the application module AP, the second current protection switch PS2 is coupled to the second detection resistor RD2, and the second current protection switch PS2 is coupled to the second processing unit 120. . The second reading unit 128 includes a comparator C23. The output of the comparator C23 is coupled to the second processing unit 120. The non-inverting input of the comparator C23 is coupled to the operating voltage and the ground, and the inverting input of the comparator C23. The second detecting resistor RD2 is coupled to the second detecting resistor RD2. In some application module AP applications, such as touch button applications, the second current protection switch PS2, the second detection resistor RD2, and the second reading unit 128 may not be provided.

Furthermore, the second read unit 128 is implemented, for example, by a comparator or an operational amplifier. The second reading unit 128 can read the voltage signal of the second detecting resistor RD2 and can be used as a current limiting protector, a circuit breaker or a short circuit protector. For example, the second reading unit 128 has a second preset current value. When the current flowing through the second detecting resistor RD2 is greater than the second preset current value, such as an overcurrent, the second reading unit 128 outputs one. The second read signal is sent to the second processing unit 120. The second processing unit 120 controls the conduction state of the second current protection switch PS2 according to the second read signal or turns off the second current protection switch PS2.

Based on the above, when the application module AP is a battery module, the battery module outputs one The output voltage and the output voltage are supplied to the conversion unit T1 via the first contact P1 and the voltage control switch unit 114, and the conversion unit T1 converts the output voltage into electric power for charging the battery unit BP1. That is, the output voltage is transmitted through the second path of the first button body 11 to supply power to the battery unit BP1.

In addition, the application module AP is a touch keyboard, a touch panel, a Bluetooth remote controller, a smart meter, a camera, a camera, an LED, a sensor, a mobile phone, a heat generating chip, or a USB charging cable extending outward through two lines. The first button body 11 passes through the first path to supply power to the application module AP of the second button body 12. When the second button body 12 is combined with the first button body 11, an application module AP of the second button body 12 is in an operating state. Therefore, the user can wirelessly control other devices or perform functions such as photography, photography, communication, or illumination through the application module AP of the second button body 12.

In brief, the second button body 12 is an "application module AP that does not require the power requirement of the first button body 11", and when the second button body 12 can supply power to the first button body 11, the first processing unit 110 The voltage waveform generating unit 112 outputs a DC pulse signal to inquire about the identity, type and demand of the second button body 12, and the second button body 12 transmits a reply signal to the first button body 11, so that the first processing unit 110 obtains After the second button body 12 is a battery module, the first processing unit 110 will cause the voltage waveform generating unit 112 to be in a closed state. Therefore, the power of the second button body 12 will pass through the first contact P1 and the second path to supply power to the first button body 11. The second button body 12 is an "application module AP that requires the power demand of the first button body 11", and the first processing unit 110 causes the voltage waveform generating unit 112 to be in an on state. The battery unit BP1 of the first button body 11 will pass through the first path and the first contact point P1 to supply power to the application module AP of the second button body 12.

FIG. 3 is a schematic functional block diagram of a wireless smart buckle according to another embodiment of the present invention. Please refer to Figure 3. A wireless smart buckle 14 includes a processing module 140, a third voltage stabilizing unit LD3, an energy storage unit 142, a charging unit 144, a wireless end application module 146, and a third connecting unit 148. In practice, the processing module 140 is coupled to the wireless end application module 146, the third voltage stabilizing unit LD3, and the operating voltage VCC. Energy storage list The element 142 is coupled to the charging unit 144 and the third voltage stabilizing unit LD3. The third connecting unit 148 includes a seventh contact P7 and an eighth contact P8. The seventh contact P7 is coupled to the charging unit 144.

In detail, the wireless smart buckle 14 can be remote from the first button body 11 and wirelessly communicate with the first button body 11; or the wireless smart button 14 can be combined with the first button body 11 to cause the first button body 11 to supply power to the wireless device. Wisdom buckle 14. In other words, when the wireless smart button 14 is not combined with the first button body 11, the wireless smart button 14 is powered by the energy storage unit 142 to supply the processing module 140 and the wireless terminal application module 146, thereby the wireless smart button 14 can be transmitted. Control signal or control information to the first button body 11. When the wireless smart buckle 14 is combined with the first buckle body 11, the first button body 11 is supplied to the charging unit 144 through the third connecting unit 148, so that the charging unit 144 charges the energy storage unit 142.

The processing module 140 includes a third processing unit 1400 and a communication unit 1402. In practice, the third processing unit 1400 is implemented, for example, by controlling a wafer, processing a wafer, an MCU, a CPU, or an arithmetic integrated circuit. The communication unit 1402 is coupled to the third processing unit 1400. The communication unit 1402 is implemented by, for example, a slave radio frequency module (Slave Radio Frequency Module) or a slave Bluetooth module (Slave Bluetooth Module) of 315 MHz to 5.8 GHz.

In addition, the slave terminal RF communication module is configured to communicate with the RF terminal of the first button body 11 RF. The slave Bluetooth communication module is used to communicate with the Bluetooth BT of the master of the first button body 11. The slave Bluetooth communication module is, for example, built into the microprocessor of the ARM; or integrated with a 8-bit or 32-bit microprocessor as a circuit board. This embodiment does not limit the aspect of the processing module 140.

The wireless application module 146 is, for example, a touch button, a Bluetooth player, a smart meter, a sensor, a GPS, a GSM, a voice recognition controller, a vibration reminder, an access control, an alarm, an identity recognizer, or other application module. This embodiment does not limit the aspect of the wireless end application module 146.

The third voltage stabilizing unit LD3 is, for example, a linear regulator (LDO, Low Dropout Linear Regulator). The energy storage unit 142 is, for example, a small lithium battery, a button battery, Nickel-zinc or nickel-metal hydride batteries. The energy storage unit 142 is configured to store power and supply power to the processing module 140 and the wireless application module 146. Further, the charging unit 144 is realized, for example, by a charging circuit or a fast charge charging path. The charging unit 144 is configured to provide a charging power required by the energy storage unit 142. This embodiment does not limit the aspects of the third voltage stabilizing unit LD3, the energy storage unit 142, and the charging unit 144.

It is worth mentioning that the third connecting unit 148 is used for detachably combining with the first connecting unit. The seventh contact P7 is used for combining with the first contact P1, and the eighth contact P8 is for combining with the second contact P2. That is, the first button body 11 will supply power to the charging unit 144 through the seventh contact point P7, causing the charging unit 144 to charge the energy storage unit 142. Therefore, the wireless smart buckle 14 is designed to charge the energy storage unit 142 through a two-wire type.

The third connecting unit 148 further includes a magnetic element 1480. The magnetic element 1480 is, for example, a magnet, a rubber magnet, a ferrite magnet, an alnico magnet, a samarium cobalt magnet, a neodymium magnet or neodymium iron boron. Therefore, the wireless smart buckle 14 is magnetically attracted to an object through the magnetic element 1480. For example, the user can magnetically charge the wireless smart buckle 14 to a bicycle, a refrigerator, a home appliance, a motor home, a wearing article, a mobile vehicle, a home appliance, an office device, or other object. In other implementations, the third connection unit 148 may not include a magnetic element 1480.

In other embodiments, the wireless smart button 14 may also not include the third connecting unit 148 and the charging unit 144. Therefore, when the power of the wireless smart buckle 14 is lacking, the user can replace the energy storage unit 142, for example, replace the new button battery, whereby the wireless smart buckle 14 can still wirelessly communicate with the first button body 11. This embodiment does not limit the aspect of the wireless smart buckle 14.

4 is a schematic structural diagram of a communication system of a first button body of a wireless smart buckle and a wired smart buckle according to another embodiment of the present invention. Please refer to Figure 4. FIG. 4 illustrates a mobile communication device MD, a first button body 11 and six wireless smart buttons 14a-14f. Among them, the mobile communication device MD is, for example, a smart phone, a notebook, a tablet, PDA or other mobile device.

For convenience of description, the present embodiment is described by six wireless smart buttons 14a-14f. In other embodiments, the communication system architecture of "a tens of thousands, hundreds, or thousands of wireless smart buttons 14a-14f on the first button body 11" may be used. This embodiment does not limit the aspect of the above communication system architecture.

In addition, the communication units 1402a~1402f of the wireless smart buttons 14a-14f are slave radio frequency communication modules. The first button body 11 has a main control terminal radio unit RF and a main control terminal Bluetooth unit BT. Therefore, the wireless smart buttons 14a-14f communicate wirelessly with the RF terminal RF of the first button body 11 through the slave terminal radio frequency communication module. The wireless end application modules 146a-146f of the wireless smart buttons 14a~14f are respectively a Bluetooth player, a touch selection button, a heartbeat sensor, a briefcase anti-lost module, a game or identity recognition module, and an anti-theft alarm. Or access control module or other application module.

In practice, the wireless smart buckles 14a-14f are wireless transmission control information to the first button body 11. The wireless smart buttons 1402a~1402f are used for wireless communication with the first button body 11, and do not directly communicate wirelessly with the mobile communication device MD. That is to say, the first button body 11 is the leader or superior supervisor of these wireless smart buttons 1402a to 1402f. This leader or the supervisor of this communication system architecture is responsible for communicating with the mobile communication device MD. Therefore, the mobile communication device MD does not directly receive the control information transmitted by the wireless smart buttons 1402a to 1402f.

For example, the user magnetizes the wireless smart buckle 14b such as a touch button on the handlebar of the bicycle. The first wireless mode is that the wireless end application module 146a of the wireless smart buckle 14a can be clipped to the collar of the Bluetooth player, or the second wired mode is changed to the wired second button body 12 of the collar. Bluetooth player. When the user wants to listen to the song, the user can tap the wireless smart button 14b, so that the wireless smart button 1402b transmits the control information to the master radio unit RF of the first button body 11. The primary radio unit RF transmits control information to the first processing unit 110 for processing, and has two different processing modes. The first wireless mode is controlled by the first processing unit 110. The main control unit RF unit transmits the control information to the slave radio frequency communication module 1402a of the wireless smart button 14a, thereby changing the playing state when the mobile communication device MD transmits the music stream signal to the wireless end application module 146a. The second wired mode is performed by the first processing unit 110, and the control information is transmitted by the voltage waveform generating unit 112 of the first button body 11 to transmit the data to the Bluetooth playback of the wired second button body 12 placed on the collar. In order to control the state of playback. The control information includes an identification code indicating the wireless smart buckle 14b, a button control code, and a communication protocol.

Briefly, between the first button body 11 and the wireless smart buttons 1402a and 1402b, and between the first button body 11 and the signal detecting unit 124 of the wired second button body 12, etc., control data is transmitted. The voice stream signal is transmitted between the mobile communication device MD and the wireless terminal application module 146a of the wireless smart button 14a.

Wherein, if the wireless smart button 14b such as a touch button is replaced by a wireless smart button 14e such as a voice recognition controller, and the user wirelessly pushes the wireless smart button 14e such as the voice recognition controller on the handle of the bicycle. When the user wants to listen to the song, the user can tell the voice recognition controller's wireless smart button 14e with a password such as "start playing song, previous song, next song or other playback", so that the wireless smart button 14e will control the information transmission. The radio frequency unit RF of the main control terminal of the first button body 11 is given. The main control unit RF unit transmits control information to the first processing unit 110 for processing, and has two different processing modes. The first wireless mode is that the first processing unit 110 controls the main control unit radio unit RF, and the control information is controlled. The slave terminal RF communication module 1402a is transmitted to the wireless smart button 14a, whereby the mobile communication device MD and the wireless terminal application module 146a are wirelessly connected via Bluetooth, and the mobile communication device MD transmits the music stream signal to the wireless terminal application module. 146a, by which the playback state is controlled. The second wired mode is performed by the first processing unit 110, and the control information is transmitted by the voltage waveform generating unit 112 of the first button body 11 to transmit the control data to the wired second button body 12 of the collar. The player controls the state of playback. The control information includes an identification code indicating the wireless smart buckle 14e, a button control code, and a communication protocol.

For another example, the user uses the wireless smart buckle 14c as a silicone suction cup or patch. Paste close to the heart. The wireless end application module 146c of the wireless smart buckle 14c is a heartbeat sensor for sensing the heartbeat number or blood oxygen concentration of the user. The above-mentioned data sensed by the heartbeat sensor will transmit information to the master RF unit RF of the first button body 11 by the slave terminal RF communication module 1402c. Then, the first button body 11 transmits the information to the mobile communication device MD through the master Bluetooth unit BT. The information includes information such as sensing the user's heart rate or blood oxygen concentration or body temperature.

For another example, the user places the wireless smart buckle 14d in the briefcase. The wireless end application module 146d of the wireless smart buckle 14d is a Bluetooth anti-lost module, or the wireless smart buckle 14d does not have a wireless end application module 146d but only the slave radio frequency communication module 1402d. When the briefcase is relatively far away from the first button body 11 of the user, for example, 10 meters or more, the two kinds of wireless signals and the first button body 11 can be mutually timed and cannot be in contact with each other. The distance between the briefcase and the user is too far, so that the first button body 11 notifies the Bluetooth player of the second button body 12 to issue a warning sound or a voice reminder.

FIG. 5 is a schematic structural diagram of a communication system of a first button body of a wireless smart buckle and a wired smart buckle according to another embodiment of the present invention. Please refer to Figure 5. Among them, the communication systems in FIG. 5 and FIG. 4 are similar in structure. The difference between the communication system architecture is that the first button body 11a and the four wireless smart buttons 14a'~14d' in FIG. 5 are wirelessly communicated through the Bluetooth communication technology, and the first button body 11a does not have the master control. Terminal RF unit RF.

FIG. 5 illustrates a mobile communication device MD, a first button body 11a and four wireless smart buttons 14a' to 14d'. Due to the limitation of the Bluetooth communication technology, the first button body 11a can connect to 3 to 7 slave Bluetooth devices through the master Bluetooth. The mobile communication device MD transmits a control signal only to the Bluetooth BT of the master of the first button body 11a. The Bluetooth BT of the main control terminal of the first button body 11a can be processed by the software, and can be connected with the slave Bluetooth communication module 1402 a'~1402d' of the other 3~7 wireless smart buttons 14a'~14d'. To transmit control signals.

In addition, the communication units 1402a'~1402d' of these wireless smart buttons 14a'~14d' All are slave Bluetooth communication modules. The first button body 11a has a master Bluetooth unit BT. Therefore, the wireless smart buttons 14a'~14d' are wirelessly communicated with the master Bluetooth unit BT of the first button body 11a via the slave Bluetooth communication module. The wireless end application modules 146a'~146d' of the wireless smart buttons 14a'~14d' may respectively be a Bluetooth player, a touch selection button, a heartbeat sensor, a briefcase anti-lost module, and the like.

In practice, the wireless smart buttons 14a'~14d' respectively transmit control information to the first button body 11a, and the first button body 11a transmits control information to other related wireless smart buttons 14a'~14d'. In addition, the wireless smart buckles 14a'~14d' respectively transmit data data, such as heartbeat data or ambient temperature or password of the electronic wallet, etc., to be transmitted to the first button body 11a, and then the first button body 11a transmits the master control. The Bluetooth unit BT wirelessly transmits the data to the Bluetooth device of the mobile communication device MD to draw an ECG or other processing. The slave Bluetooth communication modules 1402 a'~1402d' of these wireless smart buttons 14a'~14d' do not directly communicate wirelessly with the mobile communication device MD. That is to say, the first button body 11a is the leader or superior manager of the wireless smart buttons 14a'~14d', and the leader or the superior manager is unified to report the heartbeat or temperature or other data to the mobile communication device MD. Information, or transfer control data to wireless smart buttons 14a'~14d'. When the 146a'~146d' of the wireless smart buttons 14a'~14d' are Bluetooth application modules, such as a Bluetooth player, the mobile communication device MD can send streaming music and the like to the wireless smart buttons 146a'~146d'. One, some or all play.

For example, the user magnetizes the wireless smart buckle 14b' such as a touch button on the handlebar of the bicycle. The wireless terminal application module 146a' of the wireless smart button 14a' is a Bluetooth player sandwiched between the collars. When the user wants to listen to the song, the user can tap the wireless smart button 14b' to cause the wireless smart button 14b' to transmit the control information to the master Bluetooth unit BT of the first button body 11a. The master Bluetooth unit BT transmits the control information to the first processing unit 110 for processing, and the first processing unit 110 controls the master Bluetooth unit BT to transmit the control data to the communication unit 1402a' of the wireless smart button 14a', and Such as the wireless terminal application module 146a' of the Bluetooth player and the mobile communication device The MD transmits the information, causing the mobile communication device MD to transmit the music stream signal to the wireless end application module 146a'. Therefore, the wireless end application module 146a' of the Bluetooth player will play the music. When the user wants to change the song or control the volume or pause the music, the user can tap the wireless smart button 14b', so that the wireless smart button 14b' transmits the control information to the master of the first button body 11a. The Bluetooth unit BT, the master Bluetooth unit BT transmits the control information to the first processing unit 110 for processing, and the first processing unit 110 controls the master Bluetooth unit BT to transmit the control data to the communication unit 1402a of the wireless smart button 14a'. 'And the wireless terminal application module 146a' such as the Bluetooth player transmits information to the mobile communication device MD to replace the first song or control the volume or pause the music playback. The control information includes an identification code indicating the wireless smart button 14b', a key data code, and a wireless smart buckle 14b' or a communication protocol with the mobile communication device MD. The rest are the same and will not be repeated here.

FIG. 6 is a functional block diagram of a first button body of a wired smart buckle according to another embodiment of the present invention. Please refer to Figure 6. 6 shows a circuit of an A block A1, N B blocks B1 B BN, and N C blocks C1 CN. Where N is a positive integer. In practice, the A block A1 of the first button body 11 includes a battery unit BP1, a first voltage stabilizing unit LD1, and a first processing unit 110.

Then, each of the B blocks B1 B BN of the first button body 11 includes a conversion unit T1, a voltage waveform generating unit 112, a voltage control switch unit 114, a load detecting unit 116, a first current protection switch PS1, and a first detection. The resistor RD1 and the first reading unit 118. Each C block C1 CN of the first button body 11 includes a first contact point P1 and a second contact point P2. Briefly, the N B blocks B1 to BN share one A block A1.

In practice, the A block A1, the N B blocks B1 BNN and the N C blocks C1~CN of the first button body 11 can be integrated on one circuit board; or the A blocks A1, N B Blocks B1~BN and N C blocks C1~CN are independent and interconnected individual circuit boards; or A block A1 and N B blocks B1~BN are integrated into one circuit board, and N C The blocks C1 to CN are respectively disposed at any position of the wearing object W. That is, each The C blocks C1 to CN are connected to the circuit board of the "integrated A block A1 and N B blocks B1~BN" through the circuit line.

FIG. 7 is a schematic structural diagram of a wired smart buckle disposed on a wearable object according to another embodiment of the present invention. Please refer to Figure 7. The wearing article W is, for example, clothes, clothing, brooches, pants, belts, shoes, hats, scarves, backpacks, handbags, purses or suitcases. For convenience of explanation, the wearing article W of the present embodiment is a garment. The circuit of the first button body 11b of FIG. 6 is disposed on the clothing of FIG.

In practice, the wired smart buckle 1 includes a first button body 11b and a plurality of second button bodies 12a, 12b, 12c. The A block A1 of the first button body 11b and the battery and the N B blocks B1 BBN are integrated into a circuit board, and the circuit board is coupled to the C block C1~CN through a plurality of lines, as shown in FIG. 7. Drawn. For example, the user can install the second button body 12b of the application module AP of the camera on the first button body 11b of the C block C2, whereby the camera can perform the operation of recording the image.

For another example, the second button body 12a having the application module AP of the LED is mounted on the first button body 11b of the C block C1, whereby the LED will generate illumination brightness. Or a second button body 12c having a battery module is mounted on the first button body 11b of the C block C3, whereby the second button body 12c supplies power to the first button body 11b or charges the built-in battery thereof. . This embodiment does not limit the application aspect of the wired smart buckle 1.

FIG. 8A is a schematic diagram of a first connecting unit of a first button body of a wired smart buckle according to another embodiment of the present invention. FIG. 8B is a schematic diagram of a first connecting unit of a first button body of a wired smart buckle according to another embodiment of the present invention. FIG. 8C is a schematic diagram of a first connecting unit of a first button body of a wired smart buckle according to another embodiment of the present invention. FIG. 8D is a schematic diagram of a first connecting unit of a first button body of a wired smart buckle according to another embodiment of the present invention. Please refer to FIG. 8A, FIG. 8B, FIG. 8C and FIG. 8D.

The first connecting unit 111 includes a first contact P1 and a second contact P2. The first contact P1 and the second contact P2 can be respectively a circular contact, a square contact, a delta contact, a polygonal contact, a cartoon shape contact, a ring contact or an extension type Points are implemented in different ways.

The first contact P1 and the second contact P2 shown in FIG. 8A are presented by two circular contacts adjacent to each other in the left and right directions. The first contact P1 and the second contact P2 shown in FIG. 8B are presented in the form of inner and outer loops. The first contact P1 and the second contact P2 shown in FIG. 8C are presented in a shape like Mickey Mouse. The first contact P1 is disposed, for example, in two white hollow circles, and the second contact P2 is disposed, for example, in a black hollow ring. The first contact P1 and the second contact P2 shown in FIG. 8D are presented in the form of extended contacts P1X, P2X. Wherein, the inner and outer loops of FIG. 8B are transmitted through two extension lines to connect to the inner and outer loops of the other end, as shown in FIG. 8D.

It is worth mentioning that the second connecting unit 122 is used for combining with the first connecting unit 111. Therefore, the second connecting unit 122 correspondingly designs different aspects according to the aspect of the first connecting unit 111. For example, corresponding to the first connecting unit 111 of FIG. 8C, the second connecting unit 122 is connected to the Mickey Mouse model of FIG. 8C. This embodiment does not limit the first and second contacts P1, P2 of the first connection unit 111 and the fourth and fifth contacts P4, P5 of the second connection unit 122.

In addition, the third connecting unit 148 of the wireless smart buckle 14 in FIG. 3 is used to be combined with the first connecting unit 111. Therefore, the third connecting unit 148 correspondingly designs different aspects according to the aspect of the first connecting unit 111. For example, corresponding to the first connecting unit 111 of FIG. 8C, the third connecting unit 148 is connected to the Mickey Mouse model of FIG. 8C. This embodiment does not limit the aspects of the seventh and eighth contacts P7, P8 of the third connecting unit 148.

9A, 9B, 9C, and 9D are schematic diagrams showing a second button body of a wired smart buckle according to another embodiment of the present invention. 9C is a second button body 12 of a one-piece PCB board. FIG. 9A illustrates a first side of a second button body 12, including an E block circuit and an application module AP as shown in FIG. And the second connecting unit 122 of the second side of the second button body 12 is illustrated in FIG. 9B, as shown in FIG. 8B. Briefly, FIG. 9C illustrates a button of a one-piece PCB board, and FIGS. 9A and 9B show the front and back sides of the button of the one-piece PCB board.

In addition, FIG. 9D illustrates the second button body 12a of the two-piece PCB board. That is, the second button body 12a includes two PCB boards, one PCB board is the second connection unit, and the other PCB board is “including the E block circuit and the application module AP as shown in FIG. 2”. 9D. In other embodiments, the wireless smart button 14 can also be in the form of FIGS. 9A, 9B, 9C, and 9D. This embodiment does not limit the aspect of the second button body 12 or the wireless smart button 14.

10A, 10B, and 10C are schematic diagrams showing a first button body of a wired smart buckle according to another embodiment of the present invention. FIG. 10A illustrates a first button body 11b of a three-piece PCB board. The circuits of the A block A1 and the B blocks B1 B B2 in FIG. 6 are disposed in the middle PCB board of FIG. 10A. The circuits of the two C blocks C1 to C2 in FIG. 6 are disposed on the left and right sides of the intermediate PCB board, as shown in FIG. 10A. The second button body 12 or the wireless smart button 14 is detachably connected to the first connecting unit of the C blocks C1 C C2.

In detail, the first button body 11b in FIGS. 10B and 10C is a three-piece PCB board as shown in FIG. 10A. That is, FIG. 10B and FIG. 10C are respectively side views of FIG. 10A. As shown in FIG. 10B, a second button body 12 is detachably connected to the first connecting unit of the C block C2, and a wireless smart button 14 is detachably connected to the first connecting unit of the C block C2. Therefore, the first button body 11b, the second button body 12 and the wireless smart buckle 14 as shown in FIG. 10B are combined into a multi-function button, for example, as a pocket watch, an accessory or a device for other functions.

In addition, the difference between the first button body 11b illustrated in FIG. 10C and FIG. 10B is that the intermediate PCB board of the first button body 11b of FIG. 10C extends through the wire to couple the first connection unit of the C block C1. Fig. 10C is another variation of the first button body 11b of Fig. 10B. Wherein, the intermediate PCB board of FIG. 10C is connected to the first connecting unit of the C block C1 through the electric wires. For example, the first connecting unit of the C block C1 is disposed on the collar. The first connection unit of the intermediate PCB board and the C block C2 is disposed on the left sleeve cuff, wherein the second button body 12 is a touch button, the wireless smart button 14 is a Bluetooth player or the Bluetooth of another second button body 12 The player is replaced.

For example, as shown in FIG. 10C, the user can operate the second button body 12 such as the touch button to cause the first button body 11b to wirelessly transmit control information to the wireless smart button 14, or the voltage of the first button body 11. The wave pattern generating unit 112 transmits the control data to the Bluetooth player of the other second button body 12 in a wired manner. Thereby, the mobile communication device can transmit the audio stream signal to the wireless smart button 14 such as a Bluetooth player or another second button body 12 such as a Bluetooth player. Therefore, the wireless smart button 14 or another second button body 12 can output a voice stream signal. The rest are the same and will not be repeated here.

In other embodiments, the first connecting unit of the C blocks C1 C C2 is detachably connected to the second button body 12 . The two second buttons 12 can be a smart meter and a backup battery respectively; or respectively, a Bluetooth player and an electronic payment module; or any two of the application modules AP of the second button body 12 respectively. Aspect. In addition, the first connection unit of the C blocks C1 to C2 can be detachably connected to the wireless smart buckle 14. The two wireless smart buttons 14 can be smart meters and anti-theft devices respectively; or respectively, the touch buttons and the bluetooth player; or any two of the wireless end application modules 146.

FIG. 11 is a schematic diagram of a first button body of a wired smart buckle according to another embodiment of the present invention. The first button body 11c shown in FIG. 11 transmits a circuit connecting a plurality of C blocks C1 to CN in parallel to realize a multi-function button design. The first button body 11c of FIG. 11 has an A block A1 circuit as shown in FIG. 6 and a B block B1 circuit as shown in FIG. The first connection unit of the C block C1 is coupled to the B block B1 circuit. The first connection unit of the C block C2 is coupled to the circuit of the C block C1, and the first connection unit of the C block CN is coupled to the circuit of the C block C(N-1) of the previous stage, as shown in FIG. . Therefore, the plurality of second buckles 12a, 12b, 12c or the wireless smart buckle 14 in FIG. 11 detachably connect the first connection units of the C blocks C1 to CN.

FIG. 12 is a schematic diagram of an operational architecture of a wired smart buckle according to another embodiment of the present invention. FIG. 12 illustrates an architecture of a wired smart button. Among them, the operational structure of Figure 12 Similar to the operational embodiment of Figure 6 or Figure 7. The circuit of the A block A1 and the B block B1 BB of the first button body 11b of FIG. 6 is built in the wearing article, wherein the electric wire is woven by a textile technique to be woven on a wearing article such as a clothes.

In practice, the first connection unit of C block C1~CN is arranged such as the collar angle of the clothes, the cuffs on the left side of the clothes, the left side pocket of the clothes, the chest logo on the left side of the clothes, the chest lining on the left side of the clothes, the back of the clothes, the right side of the clothes, and the right side of the clothes. The chest is lined with the right side of the garment. The second button bodies 12a~12n are respectively ultra-small Bluetooth music players, single-button or multi-touch sensors, battery modules such as mobile power, voice controllers, "heartbeat, body temperature sensor", Wi -Fi camera, GSM module, GPS module, "access control, electronic payment module", heating sheet for warm clothes, second connection unit for outlet to other equipment, etc. This embodiment does not limit the aspect of the wired smart buckle.

FIG. 13 is a schematic diagram of an operational architecture of a hybrid communication of a wired smart buckle and a wireless smart buckle according to another embodiment of the present invention. FIG. 13 illustrates a hybrid architecture of a wired smart buckle and a wireless smart buckle 14. The hybrid architecture includes four wireless smart buttons 14a-14d and six second buttons 12a-12f. The four wireless smart buckles 14a~14d are respectively disposed at the user's clothes collar position, close to the user's chest position, "placed in the briefcase, trunk, child or pet position", or home appliances, access control, lighting control , or magnetically position on the bicycle.

For example, the user can touch the wireless smart buckle 14c that is magnetically attracted to the bicycle, so that the wireless smart buckle 14c transmits control information to the radio terminal RF of the first control unit 11b, and the control data includes the wireless smart buckle 14c. Identification code, touch button data, communication protocol, etc. After receiving the control data, the main control terminal radio unit RF of the first button body 11b transmits the control information to the communication unit 1402a of the wireless smart button 14a. Therefore, the first button body 11b transmits control information to the communication unit 1402a of the wireless smart button 14a, and the mobile communication device MD outputs the voice stream signal to the wireless terminal application module 146a of the wireless smart button 14a, such as a Bluetooth player. This configuration is for the user's clothing. The wireless smart buckle 14a in the collar position will output the sound. The wireless smart buckle 14a is disposed at a garment collar position through a clamping member, a pin, an adhesive, a magnet, or other attached component. Therefore, the user can listen to music while riding the bicycle.

In addition, the second button bodies 12a-12f are, for example, single- or multi-touch sensors, mobile power, Wi-Fi cameras, left LED direction indicators, right LED direction indicators, or other function buttons. Therefore, when the second button bodies 12a to 12f are connected to the first button body 11b, the second button body 12b such as the mobile power source supplies power to the first button body 11b. The second button bodies 12a, 12c to 12f such as a one-button or multi-button touch controller, a Wi-Fi camera, a left LED direction indicator or a right LED direction indicator will receive the power supply of the first button body 11b.

Wherein, the second button body 12d of the Wi-Fi camera is disposed at a central position behind the clothes, so that when the user rides the bicycle, the second button body 12d of the Wi-Fi camera will display the instant video signal behind the user. It is transmitted via Wi-Fi to the mobile communication device MD placed on the front of the bicycle faucet. Therefore, the user can place the mobile communication device MD on the handlebar of the bicycle, thereby viewing the incoming vehicle, the environment and the image thereof. It is also possible to add the touch button of the second button body 12a or the wireless touch button of the third button body 14c, so as to more conveniently and safely control the control of the video, camera, image enlargement and image reduction of the Wi-Fi camera. This embodiment does not limit the aspect of the hybrid architecture of the wired smart buckle and the wireless smart buckle 14a-14d.

In summary, the embodiment provides a wireless smart buckle, which is designed to wirelessly communicate with the first button body disposed on the wearing object through the communication unit, thereby improving the functionality, diversity, extension, and convenience of the wearing object. Sex. Wherein, when the communication unit is a slave radio frequency communication module, the wireless smart buckle and the first button body transmit control information through the radio frequency communication technology, and the first button body transmits the control information to the second button body through the cable. Or transmitting the wireless smart communication button such as the third button body through the slave terminal radio frequency communication module, so that the mobile communication device transmits the voice stream signal to the wireless smart button or the second button body Bluetooth application module; the other communication unit is the slave When the Bluetooth communication module is used, the wireless smart buckle and the first button body are transmitted through the Bluetooth communication technology. Control information, and the control information is transmitted to the second button body by the first button body, or transmitted to other wireless smart buttons such as the third button body through the slave terminal RF communication module, so that the mobile communication device transmits the voice string The flow signal is given to the wireless smart button or the second button body of the Bluetooth application module. In addition, the detachable wireless smart buckle can be coupled to the design of the first button body on the wearing article, whereby the first button body can charge the wireless smart button or supply its application module power for a long time. Among them, the wireless smart buckle has a simplified circuit design, thereby reducing the power loss in the wireless smart buckle. In this way, the embodiment can indeed improve the convenience of use of the wireless smart buckle.

The above description is only a possible embodiment of the present invention, and all the equivalent changes and modifications made by the scope of the present invention should be within the scope of the following patent application.

Claims (14)

A wireless smart buckle is configured to communicate with a first button body of a wired smart buckle. The first button body is disposed on a wearing object, and the first button body includes a first connecting unit and a first processing unit. The first connection unit is coupled to the first processing unit, the wireless smart buckle includes: an energy storage unit; a processing module coupled to the energy storage unit through a third voltage stabilization unit, the processing module includes a third processing unit and a communication unit, the third processing unit is coupled to the communication unit; a wireless end application module coupled to the processing module; a charging unit; and a third connecting unit, the charging unit Charging the energy storage unit, the wireless smart buckle is detachably coupled to the first buckle body, and the third connection unit is configured to be coupled with the first connection unit of the first buckle body, wherein the first connection unit The first connection unit includes a first contact and a second contact. The third connection unit includes a seventh contact and an eighth contact, and the charging unit is coupled to the seventh contact and the energy storage unit. The eight contacts are coupled to the ground, and the seventh contact is used to The first contact unit is coupled to the second contact; wherein the wireless smart buckle transmits the control information or data to the first button through the communication unit, the first processing unit The control information or data is processed and communicated with a mobile communication device via a Bluetooth terminal of the master, wherein the Bluetooth unit of the master is coupled to the first processing unit. The wireless smart buckle according to claim 1, wherein when the third connecting unit is combined with the first connecting unit, the first button body transmits power to the seventh contact through the first contact, and the power is supplied The energy storage unit is charged via the charging unit, and the energy storage unit is a lithium battery or a button battery. The wireless smart buckle according to claim 1, wherein the third connecting unit further comprises a magnetic component for magnetically absorbing the wearing object, a mobile vehicle, and an electrical device. The backup unit is an office device, and the third regulator unit is a linear regulator. The wireless smart buckle according to claim 1, wherein the first button body comprises: a voltage waveform generating unit coupled to the first contact and the first processing unit; and a voltage control switch unit coupled to the first And the first processing unit; a load detecting unit coupled to the second contact, the first processing unit and a first current protection switch; a first reading unit coupled to the first processing unit a first current protection switch and a first detection resistor; a conversion unit coupled to the voltage waveform generation unit, the voltage control switch unit and the first processing unit; and a battery unit coupled to the conversion unit and A first voltage stabilizing unit. The wireless smart buckle according to claim 4, wherein the voltage waveform generating unit comprises a first diode, a first transistor and a second transistor, wherein the first transistor is connected in parallel with a diode. a diode of the first diode is coupled to the anode of the first diode, a source of the first transistor is coupled to the conversion unit, and a cathode of the first diode is coupled to the first contact. The gate of the second transistor is coupled to the gate of the first transistor, the gate of the second transistor is coupled to the first processing unit, and the source of the second transistor is coupled to the ground; the voltage control switch The unit includes a second diode, a third transistor, and a fourth transistor. The source of the third transistor is coupled to the cathode of the second diode, and the third transistor is coupled to the drain. In the conversion unit, the gate of the third transistor is coupled to the drain of the fourth transistor, the gate of the fourth transistor is coupled to the first processing unit, and the source of the fourth transistor is coupled to Ground. The wireless smart buckle according to claim 4, wherein the load detecting unit includes a fifth transistor and at least one resistor, and the drain of the fifth transistor is coupled to the first processing unit, the fifth transistor The source is coupled to the ground, the gate of the fifth transistor The first current protection switch is coupled to the second contact and the fifth transistor, and the first current protection switch has a gate coupled to the first a processing unit, the source of the first current protection switch is coupled to the detecting resistor, the first reading unit includes a comparator, and an output end of the comparator is coupled to the first processing unit, and the comparator is positive The phase input end is coupled to the working voltage and the ground, the inverting input end of the comparator is coupled to the detecting resistor, and the converting unit is one or a combination of a boosting circuit, a step-down circuit, and a buck-boost circuit. The first voltage stabilizing unit is a linear regulator. The wireless smart buckle according to claim 4, wherein the first reading unit has a first preset current value, and when the current flowing through the first detecting resistor is greater than the first preset current value, the first a reading unit outputs a first read signal to the first processing unit, and the first processing unit controls the conduction level of the first current protection switch according to the first read signal, or turns off the first current protection switch. The wireless smart buckle according to claim 4, wherein the wired smart buckle further comprises a second button body, the second button body comprises a second connecting unit, a signal generating unit, a signal detecting unit, and a second stable a second connection unit for combining with the first connection unit, the second connection unit includes a fourth contact and a fifth contact, the fourth connection unit The contact is configured to be coupled to the first contact, the fifth contact is coupled to the second contact, the signal generating unit is coupled to the fourth contact, the fifth contact, and the second processing unit The signal detecting unit is coupled to the fourth contact and the second processing unit, the second voltage stabilizing unit is coupled to the fourth contact and the second processing unit, and the application module is coupled to the fourth contact And the second processing unit. The wireless smart buckle according to claim 8, wherein the signal generating unit is a sixth transistor, the source of the sixth transistor is coupled to the fifth contact and the ground, and the sixth transistor is bungee The gate of the sixth transistor is coupled to the second processing unit through a resistor, the signal detecting unit includes a comparator, and the output of the comparator is coupled to the second processing Unit, the positive phase input coupling of the comparator Connected to the fourth contact, the inverting input of the comparator is coupled to the operating voltage and ground. The wireless smart buckle according to claim 8, wherein the second button body further comprises a second current protection switch, a second detection resistor and a second reading unit, wherein the second current protection switch is coupled to the application The second reading unit is coupled to the second current protection switch, the second detection resistor and the second processing unit, and the second reading unit is coupled to the second processing unit The second reading unit outputs a second read signal to the second processing unit when the current flowing through the second detecting resistor is greater than the second predetermined current value. The second processing unit controls the conduction level of the second current protection switch according to the second read signal or turns off the second current protection switch. The wireless smart buckle according to claim 10, wherein a drain of the second current protection switch is coupled to the application module, a source of the second current protection switch is coupled to the detection resistor, and the second current protection switch The gate is coupled to the second processing unit, the second reading unit includes a comparator, the output of the comparator is coupled to the second processing unit, and the non-inverting input of the comparator is coupled to the operating voltage and The grounding end of the comparator is coupled to the second detecting resistor. The wireless smart buckle according to claim 1, wherein the communication unit is a slave radio frequency communication module, and the first button body comprises a main control terminal radio unit and the main control end Bluetooth unit, and the main control terminal radio unit And the main control terminal Bluetooth unit is coupled to the first processing unit, the slave terminal radio frequency communication module is configured to wirelessly communicate with the main control terminal radio unit, and the main control end Bluetooth unit is used to wirelessly communicate with the mobile communication device. The communication is used to communicate with another wireless smart button. When the wireless application module of the wireless smart button is a Bluetooth player, a Bluetooth speaker or a Bluetooth headset, the mobile communication device provides a voice string. Streaming signals to the wireless application module. The wireless smart buckle according to claim 1, wherein the communication unit is a slave Bluetooth communication module, and the slave Bluetooth communication module is used for the Bluetooth terminal of the slave terminal. Wireless communication, and the Bluetooth terminal of the main control terminal is used for wireless communication with the mobile communication device or for communicating with another wireless smart button; the wireless application module of the wireless smart buckle is a Bluetooth player. When a Bluetooth speaker or a Bluetooth headset is used, the mobile communication device provides a voice stream signal to the wireless application module. A wireless smart buckle communication system, comprising: a wired smart buckle, comprising a first button body, wherein the first button body is disposed on a wearing object, the first button body comprises a first connecting unit and a first processing unit The first connection unit is coupled to the first processing unit; and the wireless smart buckle of one of the claims 1 to 13 includes: an energy storage unit; a processing module, through a third voltage stabilization unit The processing module includes a third processing unit and a communication unit, the third processing unit is coupled to the communication unit; a wireless application module coupled to the processing module; And a third connecting unit, the charging unit is configured to charge the energy storage unit, and the wireless smart buckle is detachably coupled to the first button body, and the third connecting unit is used for the first button body The first connecting unit is coupled to the first connecting unit, wherein the first connecting unit includes a first contact and a second contact, the third connecting unit includes a seventh contact and an eighth contact, and the charging unit is coupled The seventh contact and the energy storage unit, the eighth The point is coupled to the ground, the seventh contact is for combining with the first contact, the eighth contact is for combining with the second contact; wherein the wireless smart buckle transmits the control information through the communication unit Or the data is sent to the first button body, the first processing unit processes the control information or data data, and communicates with a mobile communication device via a Bluetooth terminal of the master terminal, wherein the Bluetooth device of the master terminal is coupled to the first A processing unit.