TWM632219U - Structure of intelligent memory - Google Patents

Abstract

The present invention provides a structure of an intelligent memory, which is a temperature detection method and structure, which is used in a memory device, wherein the memory device includes a substrate, a temperature sensor, a plurality of memory chips, a micro-control unit, and a notification module. The steps include generating at least one temperature value according to the temperature of the plurality of memory chips sensed by the temperature sensor, transmitting the at least one temperature value to the micro-control unit, and the micro-control unit determining whether the at least one temperature value is not less than a first threshold value, When at least one temperature value is not less than the first threshold value, the micro-control unit transmits a first control signal to a notification module, which can further be used for the method and structure for displaying real-time information.

Description

The structure of a fully intelligent memory

This work is about the structure of a memory, especially the structure of a fully intelligent memory.

Memory is an electronic device for storing data. Currently, it is commonly used in computers, mobile phones, game software and other supplies that need to store data.

Solid-state hard disk is a storage hard disk made of integrated circuits. Since the first solid-state hard disk was released in 1989, it has also been widely used in various hard disk related fields. Compared with traditional hard disks, it has higher reading speed. Fast, low energy consumption and other advantages.

A serial bus circuit (I ² C) is a serial communication bus that uses two communication lines to transmit messages between integrated circuits (ICs).

In order to monitor the temperature of the internal parts of the computer, but do not want to increase too much volume, the temperature sensor is developed to integrate the electronic erasable programmable read-only memory (EEPROM), and the EEPROM can be adjusted by a specific voltage. EEPROM is also commonly used inside DDR memory to perform multiple data erasures and fill in new information.

Today, computers are ubiquitous everywhere, including home personal computers, portable notebook computers, computers used by personnel in companies and schools, computers that perform process steps in industrial manufacturing or laboratory operations, and computers that collect data.

Since the popularity of computer products in various places, users have begun to use computers for various entertainment and competitions, pursuing computer performance, self-assembly, and increasing computer performance and memory space. It started with a pattern design, and even started to move the casing to a transparent design. With the lighting settings, you can clearly see the internal structure, including whether the fan and other parts are running. Using the RGB lighting with the program, the computer can emit specific lights according to the user's preferences. Color radiance, towards personal design.

Computers and their related products emit light when they are executed, which is commonly seen in gaming computer equipment. Its function is limited to increasing the splendor of the computer, and it can only be known that the equipment is performing work.

When performing work in the factory, the equipment usually has a reminder function, or some additional detectors are added. When abnormal, it emits a specific color or uses a buzzer to warn the user. The user can immediately stop the operation and perform maintenance, or notify When abnormal situations such as gas leakage occur, personnel should be evacuated urgently to reduce accidents and casualties. Computers that enable normal operation of equipment usually do not add additional lights or buzzers to reveal the state of the computer itself, such as the temperature of the internal parts of the computer. When the personnel confirm the status, they must enter the computer program to read the temperature of the parts. When the factory computer is running, the screen will display the status of the manufacturing, or the execution page that needs to be controlled by the personnel. The computer status will not be displayed all the time.

Therefore, when the temperature of computer parts is abnormal, it is difficult for on-site personnel to find out immediately, but only when the abnormal temperature causes the computer to not operate normally will they realize that the cooling system is abnormal or other reasons cause the computer to be overheated.

In addition, if the computer in the factory can have a method to warn the on-site personnel before the abnormal temperature of the memory causes the overheating, it can reduce the occurrence of memory damage caused by the overheating.

This creation provides an all-intelligent memory, which is aimed at solving the conventional knowledge that the temperature of the memory needs to be passed through the central processing unit to increase the resource load of the central processing unit, and no other structure or method is designed to display the memory. related state of the body. .

One purpose of the present invention is to provide an all-intelligent memory structure, which can automatically detect the temperature of the memory device according to the internal temperature sensor of the memory, so as to achieve the purpose of automatic temperature detection.

For the above purpose, the present invention provides an all-smart memory structure with temperature monitoring, which is used in a memory device, and the memory device includes a substrate, a temperature sensor, a plurality of memory chips, a micro-control unit, and a notification module, the temperature sensor, the memory chips, the micro-control unit and the notification module are arranged on the substrate, and the steps of the temperature monitoring method of the all-intelligent memory device include: according to the temperature sensor Sensing the temperature of the memory chips to generate the at least one temperature value; when the at least one temperature value is transmitted to the microcontroller, it is determined whether the at least one temperature value is not less than a first threshold value; and when the at least one temperature value is If the value is not less than the first threshold value, the micro-control unit transmits a first control signal to a notification module.

The present invention provides an embodiment, wherein, in the step of transmitting the first control signal to the notification module by the micro-control unit when the at least one temperature value is not less than the first threshold value, the micro-control unit determines that the Whether at least one temperature value is less than a second threshold value, if so, the micro-control unit transmits the first control signal to the notification module.

The present invention provides an embodiment, wherein, in the step of transmitting the first control signal to the notification module by the micro-control unit when the at least one temperature value is not less than the first threshold value, when the at least one temperature value is not less than the second threshold value, the micro-control unit further determines whether the at least one temperature value is less than a third threshold value, if so, the micro-control unit transmits a second control signal to the notification module; otherwise, the micro-controller The unit transmits a third control signal to the notification module.

The present invention provides an embodiment, wherein the notification module includes a first light-emitting device, and when the notification module receives the first control signal, the first light-emitting device emits light in a first corresponding color.

The present invention provides an embodiment, wherein the notification module includes a second light-emitting device and a third light-emitting device, and when the notification module receives the second control signal, the second light-emitting device displays a second corresponding color When the notification module receives the third control signal, the third lighting device emits light in a third corresponding color.

The present invention provides an embodiment, wherein the notification module includes a buzzer, when the notification module receives the first control signal, the buzzer generates a first sound, and the notification module receives the first control signal. When the second control signal is received, the buzzer generates a second sound, and when the notification module receives the third control signal, the buzzer generates a third sound.

The present invention provides an embodiment, wherein the memory device is a volatile memory or a non-volatile memory or a solid state hard disk.

The present invention provides an embodiment, wherein the memory device is electrically connected to a mainboard, and a central processing unit transmits a control command to the memory device through the mainboard.

Another object of this creation is to provide a structure of an all-intelligent memory. The micro-control unit is used to determine the temperature value and the threshold value of the body. If the temperature value is not less than the threshold value, the micro-control unit transmits a control signal to the notification module, so that the The notification module can instantly notify field personnel.

For the above purpose, the present invention provides a structure of an all-smart memory with temperature monitoring. The all-smart memory includes: a substrate, a micro-control unit and a plurality of memory chips, and the micro-control unit is electrically connected to these a memory chip; a temperature sensor disposed above the substrate and electrically connected to the micro-control unit for sensing one of the memory chips; and a notification module disposed Above the substrate, it is electrically connected to the micro-control unit; wherein, the micro-control unit receives at least one temperature value from the temperature sensor, and if the at least one temperature value is not less than a first threshold value, the micro-control unit The control unit transmits a first control signal to the notification module.

The present invention provides an embodiment, wherein, in the step of transmitting the first control signal to the notification module by the micro-control unit when the at least one temperature value is not less than the first threshold value, the micro-control unit determines that the Whether at least one temperature value is less than a second threshold value, if so, the micro-control unit transmits the first control signal to the notification module.

The present invention provides an embodiment, wherein, in the step of transmitting the first control signal to the notification module by the micro-control unit when the at least one temperature value is not less than the first threshold value, when the at least one temperature value is not less than the second threshold value, the micro-control unit further determines whether the at least one temperature value is less than a third threshold value, if so, the micro-control unit transmits a second control signal to the notification module; otherwise, the micro-controller The unit transmits a third control signal to the notification module.

The present invention provides an embodiment, wherein the notification module includes a first light-emitting device, and when the notification module receives the first control signal, the first light-emitting device emits light in a first corresponding color.

The present invention provides an embodiment, wherein the notification module includes a second light-emitting device and a third light-emitting device, and when the notification module receives the second control signal, the second light-emitting device displays a second corresponding color When the notification module receives the third control signal, the third lighting device emits light in a third corresponding color.

The present invention provides an embodiment, wherein the notification module includes a buzzer, when the notification module receives the first control signal, the buzzer generates a first sound, and the notification module receives the first control signal. When the second control signal is received, the buzzer generates a second sound, and when the notification module receives the third control signal, the buzzer generates a third sound.

The present invention provides an embodiment, wherein the all-intelligent memory is a volatile memory or a non-volatile memory or a solid state hard disk.

The present invention provides an embodiment, wherein the all-intelligent memory is electrically connected to a mainboard, and a central processing unit transmits a control command to the memory device through the mainboard.

In addition, another purpose of the present invention is to provide an all-smart memory, and the notification module of the all-smart memory can be used for notification when a communication software receives a message.

In view of the above purpose, the present invention provides a fully intelligent memory with notification function, which is used in a memory device, and is electrically connected to a motherboard, the motherboard is electrically connected to a central processing unit, and the memory device includes A substrate, a micro-control unit and a notification module, the micro-control unit and the notification module are arranged on the substrate, and the steps of the monitoring method for the all-intelligent memory include an electronic device sending a real-time signal via a server to the mainboard, the mainboard uses the central processing unit to execute a software to receive the real-time signal, the central processing unit transmits a signal to the micro-control unit, and the micro-control unit transmits a control signal to activate the notification module.

This creation provides an embodiment, wherein the software is instant messaging software or game software.

The present invention provides an embodiment, wherein the notification module includes a first lighting device, a second lighting device and a third lighting device, when the notification module receives the control signal, the first lighting device, the The second light-emitting device and the third light-emitting device emit light in a corresponding color.

The present invention provides an embodiment, wherein the notification module includes a buzzer, and when the notification module receives the control signal, the buzzer generates a corresponding sound.

The present invention provides an embodiment, wherein the memory device is a volatile memory or a non-volatile memory or a solid state hard disk.

The present invention also provides a structure of an all-smart memory with a notification function, which is electrically connected to a mainboard, and the mainboard is electrically connected to a central processing unit. The all-smart memory includes: a substrate; The control unit and a notification module are disposed above the substrate and are electrically connected to the micro-control unit, wherein an electronic device transmits a real-time signal to the mainboard via a server, and the mainboard uses the central processing The controller executes a software to receive the real-time signal, the central processing unit transmits a signal to the micro-control unit, and the micro-control unit transmits a control signal to activate the notification module.

This creation provides another embodiment, wherein the software is instant messaging software or game software.

The present invention provides another embodiment, wherein the notification module includes a first lighting device, a second lighting device and a third lighting device, when the notification module receives the control signal, the first lighting device, The second light-emitting device and the third light-emitting device emit light in a corresponding color.

The present invention provides another embodiment, wherein the notification module includes a buzzer, and when the notification module receives the control signal, the buzzer generates a corresponding sound.

The present invention provides another embodiment, wherein the all-intelligent memory is a volatile memory or a non-volatile memory or a solid state hard disk.

1: Motherboard

10: Memory device

101: Substrate

102: Micro Control Unit

103: Temperature sensor

104: Memory Chip

1041: temperature value

105: Notification Module

1051: The first light-emitting device

1052: Second Lighting Device

1053: Third Lighting Device

1054: Buzzer

11: CPU

111: Software

112:Signal

113: Control signal

114: corresponding color

115: Corresponding sound

21: The first threshold value

211: The first control signal

212: The first corresponding color

213: First sound

22: The second threshold

221: The second control signal

222: The second corresponding color

223: Second Sound

23: The third threshold

231: The third control signal

232: The third corresponding color

233: The third sound

3: Electronic device

4: Server

41: Instant Signal

S10-S30: Steps

S31: Step

S32: Step

S33: Step

S40-S50: Steps

S51-S52: Steps

S53: Step

S60-S61: Steps

S62: Step

S70-S110: Steps

S120: Steps

Fig. 1: It is a flow chart of the temperature detection method of the all-smart memory according to the first embodiment of the present invention; Fig. 2: It is a block diagram of the structure of the all-smart memory according to the first embodiment of the present invention; Fig. 3 Figure: It is the flow chart of the temperature detection method of the all-smart memory of the second embodiment of the present invention; Figure 4: It is a block diagram of the structure of the all-smart memory of the second embodiment of the present invention; Figure 5: It is a flow chart of the temperature detection method of the all-smart memory of the third embodiment of the present invention; Fig. 6: It is a block diagram of the structure of the all-smart memory of the third embodiment of the present invention; Fig. 7: It is The flow chart of the notification method of the all-intelligent memory of the fourth embodiment of the present creation; Fig. 8: It is a block diagram of the structure of the all-smart memory of the fourth embodiment of the present creation; Fig. 9: It is the present creation The flow chart of the notification method of the all-intelligent memory according to the fifth embodiment. Fig. 10 is a block diagram of the structure of the all-smart memory according to the fifth embodiment of the present invention. Fig. 11 is the sixth embodiment of the present invention. The flow chart of the notification method of the all-smart memory; and Figure 12: It is a block diagram of the structure of the all-smart memory of the sixth embodiment of the creation.

In order to enable your reviewers to have a further understanding and understanding of the characteristics of this creation and the effects achieved, I would like to provide a preferred embodiment and a detailed description. The description is as follows: Although the conventional memory is designed with a light-emitting structure, it is only used for appearance changes, and there is no self-monitoring system to monitor whether the memory temperature is too high, so that the user cannot immediately notice when the memory temperature is too high.

The present invention provides a fully intelligent memory. A temperature sensor is set up in the memory to sense the temperature of the memory, and the temperature is compared by a micro-control unit, and a corresponding control signal is sent to a notification module. The computer uses the threshold value set by the corresponding software, the RGB color mixing setting of the light-emitting device and the buzzer setting. The computer central processing unit transmits the setting result as a signal to the micro-control unit of the memory through a signal line or through another. A signal line is transmitted to the solid-state hard disk controller, and then the solid-state hard disk controller is transmitted to the micro-control unit of the solid-state hard disk, notifying the module according to the corresponding control signal provided by the micro-control unit. Corresponding response, so as to achieve the effect of notifying the user immediately when the memory temperature is too high.

Hereinafter, the present creation will be described in detail by illustrating various embodiments of the present creation by means of drawings. The concepts of the present creation may, however, be embodied in many different forms and should not be construed as limited to the exemplary embodiments set forth herein.

First, please refer to FIG. 1, which is a flow chart of the temperature detection method of the all-smart memory according to the first embodiment of the present invention. As shown in the figure, the first implementation of the temperature detection method of the all-smart memory of the present invention For example, the steps are as follows: step S10: the temperature sensor 103 senses the temperature of the plurality of memory chips 104 to generate at least one temperature value 1041; step S20: the temperature sensor 103 transmits at least one temperature value 1041 to the micro-control unit 102; Step S30: The micro-control unit 102 determines whether the at least one temperature value 1041 is not less than the first threshold value 21, and if so, executes step S31; if not, returns to step S10; and step S31: the micro-control unit 102 transmits the first control Signal 211 to notification module 105 .

Please refer to FIG. 2, which is a block diagram of the structure of the first embodiment of the present invention. As shown in the figure, the structure of the all-intelligent memory of the present invention is used in a memory device 10. The memory device 10 includes a The substrate 101, a temperature sensor 103, a plurality of memory chips 104, a micro-control unit 102 and a notification module 105, wherein the temperature sensor 103, the memory chips 104, the micro-control unit 102 and The micro-control unit 102 is disposed on the substrate 101 , the temperature sensor 103 is electrically connected to the memory chips 104 , and the micro-control unit 102 is electrically connected to the temperature sensor 103 and the notification module 105 .

Referring to FIG. 1 again, the steps of the first embodiment of the temperature detection method of the all-smart memory of the present invention will be described in detail below. As shown in step S10, the temperature sensor 103 of a memory device 10 senses the memory device The plurality of memory chips 104 of 10, wherein the temperature sensor 103 can select the temperature of one or more memory chips 104 from the plurality of memory chips 104 to generate at least one temperature value 1041, and the memory device 10 can be a volatile volatile memory or a non-volatile memory or a solid state hard drive.

As shown in step S20 , the temperature sensor 103 generates the at least one temperature value 1041 and transmits it to the micro-control unit 102 .

As shown in step S30, the micro-control unit 102 compares the at least one temperature value 1041 with the first threshold value 21, and determines whether the at least one temperature value 1041 is not less than the first threshold value 21, and if so, executes Step S31 ; if not, go back to Step S10 , wherein the first threshold value 21 has been set by the user opening the corresponding program of the computer before the process starts, and the setting result is set by the central processing unit 11 set on the motherboard 1 It is transmitted to the microcontroller 102 or the central processing unit 11 through a signal line The signal line is transmitted to the solid-state hard disk controller, and then the solid-state hard disk controller is transmitted to the microcontroller unit 102 of the solid-state hard disk.

As shown in step S31 , the micro-control unit 102 will transmit the first control signal 211 to the notification module 105 .

The temperature sensor 103 is set in the memory device 10 of the first embodiment of the present invention. The memory device 10 can sense the temperature of the memory device 10 by itself, and transmit the temperature to the notification module 105 in real time, so as to solve the conventional needs The temperature of the memory can be detected by the sensor set in the computer, such as the temperature of volatile memory, non-volatile memory and solid state hard disk and its usage/health.

Continuing the above, please refer to FIG. 3 , which is a flow chart of a temperature detection method for an all-smart memory according to the second embodiment of the present invention, wherein steps S10 to S20 are the same as those in the previous embodiment, and will not be repeated here.

The steps of the second embodiment of the present creation are as follows: Step S30: The micro-control unit 102 determines whether at least one temperature value 1041 is not less than the first threshold value 21, if so, executes steps S31 and S40; if not, returns to step S10; Step S31: The micro-control unit 102 transmits the first control signal 211 to the notification module 105; Step S32: The notification module 105 generates the first corresponding color 212 according to the first control signal 211; Step S40: The micro-control unit 102 determines at least one temperature Whether the value 1041 is less than the second threshold value 22, if so, go to step S31; if not, go to step S50; Step S50: the micro-control unit 102 determines whether at least one temperature value 1041 is less than the third threshold value 23, if so, execute Step S51 ; if not, go to Step S60 ; Step S51 : the micro-control unit 102 transmits the second control signal 221 to the notification module 105 ; Step S52: the notification module 105 generates the second corresponding color 222 according to the second control signal 221; Step S60: the microcontroller 102 transmits the third control signal 231 to the notification module 105; Step S61: the notification module 105 according to the third control The signal 231 generates a third corresponding color 232 .

Please refer to FIG. 4, which is a block diagram of the structure of the second embodiment of the present invention. As shown in the figure, the structure of the all-intelligent memory of the present invention is used in the memory device 10, and the memory device 10 includes the The substrate 101 , the temperature sensor 103 , the memory chips 104 , the microcontroller unit 102 and the notification module 105 , wherein the temperature sensor 103 , the memory chips 104 , the microcontroller unit 102 and the micro-control unit 102 is disposed on the substrate 101, the temperature sensor 103 is electrically connected to the memory chips 104, the micro-control unit 102 is electrically connected to the temperature sensor 103 and the notification module 105, wherein The notification module 105 includes a first lighting device 1051 , a second lighting device 1052 , and a third lighting device 1053 .

Referring to FIG. 3 again, the steps of the second embodiment of the temperature detection method of the all-smart memory of the present invention will be described in detail below. As shown in step S30, the micro-control unit 102 associates the at least one temperature value 1041 with the first temperature value 1041. The threshold value 21 is compared to determine whether the at least one temperature value 1041 is not less than the first threshold value 21 , if so, go to step S31 and step S40 ; otherwise, go back to step S10 .

Step S31 is the same as that in the previous embodiment, and will not be repeated here.

As shown in step S32 , the notification module 105 includes the first lighting device 1051 , the second lighting device 1052 and the third lighting device 1053 , and the notification module 105 makes the first lighting device 105 according to the first control signal 211 The device 1051 emits light with a first corresponding color 212, wherein the first corresponding color 212 has been set by the user to open the corresponding program of the computer before the process starts, and the setting result is set by The central processing unit 11 transmits the signal line to the microcontroller unit 102, or the central processing unit 11 transmits the signal line to the solid-state hard disk controller, and then the solid-state hard disk controller transmits it to the microcontroller of the solid-state hard disk unit 102.

As shown in step S40, the micro-control unit 102 compares the at least one temperature value 1041 with a second threshold value 22 to determine whether the at least one temperature value 1041 is smaller than the second threshold value 22, and if so, execute the step S31; if not, go to step S50, wherein the second threshold value 22 has been set by the user to start the corresponding program of the computer before the process starts, and the setting result is transmitted to the microcomputer through the central processing unit 11 through the signal line The control unit 102 or the central processing unit 11 is transmitted to the solid-state hard disk controller through a signal line, and then transmitted from the solid-state hard disk controller to the microcontroller unit 102 of the solid-state hard disk.

As shown in step S50, the micro-control unit 102 compares the at least one temperature value 1041 with a third threshold value 23 to determine whether the at least one temperature value 1041 is smaller than the third threshold value 23, and if so, execute the step S51; if not, go to step S53, wherein the third threshold value 23 has been set by the user to start the corresponding program of the computer before the process starts, and the setting result is transmitted to the microcomputer through the central processing unit 11 through the signal line The control unit 102 or the central processing unit 11 is transmitted to the solid-state hard disk controller through a signal line, and then transmitted from the solid-state hard disk controller to the microcontroller unit 102 of the solid-state hard disk.

As shown in step S51 , the micro-control unit 102 will transmit a second control signal 221 to the notification module 105 .

As shown in step S52, the notification module 105 emits light in a second corresponding color 222 according to the second control signal 221 and the second light-emitting device 1052, wherein the second corresponding color 222 has been turned on by the user before the process starts The corresponding program is set, and the setting result is transmitted to the micro-control unit 102 through the central processing unit 11 through the signal line, or the central processing unit 11 is transmitted to the solid-state hard disk controller through the signal line, and then controlled by the solid-state hard disk The controller is transmitted to the microcontroller unit 102 of the solid state drive.

As shown in step S60 , the micro-control unit 102 will transmit a third control signal 231 to the notification module 105 .

As shown in step S61, the notification module 105 causes the third light-emitting device 1053 to emit light with a third corresponding color 232 according to the third control signal 231, wherein the third corresponding color 232 has been turned on by the user before the process starts The corresponding program of the computer is set, and the setting result is transmitted to the micro-control unit 102 through the central processing unit 11 through the signal line, or the central processing unit 11 is transmitted to the solid-state hard disk controller through the signal line, and then the solid-state hard disk is transmitted. The controller is passed to the microcontroller unit 102 of the solid state drive.

The temperature sensor 103 is set in the memory device 10 of the second embodiment of the present invention. The memory device 10 can sense the temperature of the memory device 10 by itself, and detect the temperature of the memory device 10 in real time through a notification module 105. The first light-emitting device 1051, the second light-emitting device 1052, and the third light-emitting device 1053 in the notification module 105 notify the user, so as to solve the conventional knowledge that it is necessary to query the status of each part of the computer to obtain information such as temperature, so that the user can obtain information such as temperature. Real-time understanding of the temperature state of the memory device 10 and judging whether to cool down or not can solve the problem that the user cannot respond immediately when the memory temperature is too high, causing memory damage, such as detecting volatile memory, non-volatile memory Memory and SSD temperatures and their usage/health.

Continuing the above, please refer to FIG. 5, which is a flow chart of the temperature detection method of the all-smart memory according to the third embodiment of the invention, wherein steps S10 to S60, S31 and S51 are the same as those of the second embodiment, and will not be repeated here. .

The steps of the third embodiment of the present creation are as follows: Step S33: the notification module 105 generates the first sound 213 according to the first control signal 211; Step S53: the notification module 105 generates the second sound 223 according to the second control signal 221; Step S62 : The notification module 105 generates a third sound 233 according to the third control signal 231 .

Please refer to FIG. 6, which is a block diagram of the structure of the third embodiment of the present invention. As shown in the figure, the structure of the all-intelligent memory of the present invention is used in the memory device 10, and the memory device 10 includes the The substrate 101 , the temperature sensor 103 , the memory chips 104 , the microcontroller unit 102 and the notification module 105 , wherein the temperature sensor 103 , the memory chips 104 , the microcontroller unit 102 and the micro-control unit 102 is disposed on the substrate 101, the temperature sensor 103 is electrically connected to the memory chips 104, the micro-control unit 102 is electrically connected to the temperature sensor 103 and the notification module 105, wherein The notification module 105 includes a buzzer 1054 .

Referring to FIG. 5 again, the steps of the third embodiment of the temperature detection method for an all-smart memory of the present invention will be described in detail below. As shown in step S33, the notification module 105 includes the buzzer 1054, and the notification module 105 causes the buzzer 1054 to generate a first sound 213 according to the first control signal 211, wherein the first sound 213 has been set by the user opening a corresponding program of the computer before the process starts, and the setting result is set by The central processing unit 11 is transmitted to the microcontroller unit 102 through a signal line, or the central processing unit 11 is transmitted to the solid-state hard disk controller through a signal line, and then transmitted from the solid-state hard disk controller to the solid-state hard disk. Micro Control Unit 102 .

As shown in step S53, the notification module 105 causes the buzzer 1054 to generate a second sound 223 according to the second control signal 221, wherein the second sound 223 corresponds to the user turning on the computer before the process starts The program is set, and the setting result is transmitted to the microcontroller unit 102 through the central processing unit 11 through the signal line, or the central processing unit 11 is transmitted to the solid-state hard disk controller through the signal line, and then transmitted by the solid-state hard disk controller. to the microcontroller unit 102 of the solid state hard disk.

As shown in step S62, the notification module 105 causes the buzzer 1054 to generate a third sound 233 according to the third control signal 231, wherein the third sound 233 corresponds to the user turning on the computer before the process starts The program is set, and the setting result is transmitted through the central processing unit 11 through the signal line To the microcontroller unit 102, or the central processing unit 11 transmits the signal to the solid-state hard disk controller through a signal line, and then the solid-state hard disk controller transmits the signal to the microcontroller unit 102 of the solid-state hard disk.

The temperature sensor 103 is set in the memory device 10 of the third embodiment of the present invention. The memory device 10 can sense the temperature of the memory device 10 by itself, and detect the temperature of the memory device 10 in real time through a notification module 105. The internal buzzer 1054 of the notification module 105 notifies the user to solve the conventional knowledge that it is necessary to query the status of various components of the computer to obtain information such as temperature, so that the user can instantly know the temperature status of the memory device 10 and determine whether to Cooling and other processing can solve the problem that the user cannot respond immediately when the memory temperature is too high, causing memory damage, such as detecting the temperature of volatile memory, non-volatile memory and solid-state hard disk and its usage/ health.

The first light-emitting device 1051, the second light-emitting device 1052, the third light-emitting device 1053 of the notification module 105 of the second embodiment of the present invention and the buzzer of the notification module 105 of the third embodiment 1054 can be used in combination.

Please refer to FIG. 7, which is a flow chart of the notification method of the all-smart memory of the fourth embodiment of the present invention. As shown in the figure, the steps of the fourth embodiment of the notification method of the all-smart memory of the present invention are as follows: Steps S70: The electronic device 3 sends the real-time signal 41 to the motherboard 1 via the server 4; Step S80: The motherboard 1 uses the CPU 11 to execute the software 111 to receive the real-time signal 41; Step S90: The CPU 11 transmits the signal 112 to the microcontroller Unit 102 ; Step S100 : the micro-control unit 102 transmits the control signal 113 to actuate the notification module 105 .

Please refer to FIG. 8, which is a block diagram of the structure of the fourth embodiment of the present invention. As shown in the figure, an all-intelligent memory is used in a memory device 10, and the memory device 10 is electrically Connected to a motherboard 1, the motherboard 1 is electrically connected to a central processing unit 11, and the memory device 10 includes a substrate 101, a micro-control unit 102 and a notification module 105, the micro-control unit 102 and the notification module 105 are arranged on the substrate 101; the software 111 can be a communication software (for example: Facebook or line or WeChat, etc.) or game software.

Referring to FIG. 7 again, the steps of the fourth embodiment of the all-smart memory notification method of the present invention will be described in detail below. As shown in step S70, the communication software in an electronic device 3 transmits an instant signal 41 to a server 4. The server 4 sends the real-time signal 41 to the motherboard 1 after receiving it.

As shown in step S80 , the central processing unit 11 in the motherboard 1 executes a software 111 to receive the real-time signal 41 from the server 4 .

As shown in step S90 , the central processing unit 11 generates a signal 112 and transmits the signal 112 to the microcontroller unit 102 .

As shown in step S100 , the micro-control unit 102 transmits a control signal 113 to activate the notification module 105 .

When the motherboard 1 of the fourth embodiment of the present invention receives a communication software message notification from the electronic device 3, it receives the message through the central processing unit 11 and transmits the signal 112 to the micro-control unit 102, and the micro-control unit 102 transmits the control signal 113 goes to the notification module 105 to solve the conventional problem that the memory device 10 cannot be used to obtain the instant message of the user communication software.

Continuing from the above, please refer to FIG. 9 , which is a flowchart of a notification method for an all-smart memory according to the fifth embodiment of the present invention, wherein steps S70 to S100 are the same as those in the previous embodiment, and will not be repeated.

The steps of the fifth embodiment of this creation are as follows:

Step S110 : the notification module 105 generates the corresponding color 114 according to the control signal 113 .

Please refer to FIG. 10, which is a block diagram of the structure of the fifth embodiment of the present invention. As shown in the figure, an all-intelligent memory is used in the memory device 10, and the memory device 10 is electrical. even A mainboard 1 is connected, the mainboard 1 is electrically connected to a central processing unit 11, the memory device 10 includes a substrate 101, a micro-control unit 102 and a notification module 105, the micro-control unit 102 and the notification module 105 is disposed on the substrate 101 , wherein the notification module 105 includes the first light-emitting device 1051 , the second light-emitting device 1052 , and the third light-emitting device 1053 .

Referring to FIG. 9 again, the steps of the fifth embodiment of the notification method of the all-smart memory of the present invention will be described in detail below. As shown in step S110, the notification module 105 includes the first light-emitting device 1051, the second light-emitting device The device 1052 and the third lighting device 1053, the notification module 105 makes the first lighting device 1051, the second lighting device 1052 and the third lighting device 1053 emit light with a corresponding color 114 according to the control signal 113, wherein, The corresponding color 114 has been set by the user by starting the corresponding program of the computer before the process starts, and the setting result is transmitted to the microcontroller unit 102 through the central processing unit 11 through the signal line, or the central processing unit 11 through the signal line It is transmitted to the solid-state hard disk controller, and then transmitted from the solid-state hard disk controller to the microcontroller unit 102 of the solid-state hard disk.

When the motherboard 1 of the fifth embodiment of the present invention receives a communication software message notification from the electronic device 3, it receives the message through the central processing unit 11 and transmits the signal 112 to the micro-control unit 102, and the micro-control unit 102 transmits the control signal 113 Go to the notification module 105, the first light-emitting device 1051, the second light-emitting device 1052 and the third light-emitting device 1053 inside the notification module 105 notify the user, so as to solve the conventional problem that the memory device 10 cannot be used to immediately notify the user of the message of the communication software .

Continuing from the above, please refer to FIG. 11 , which is a flowchart of a notification method for an all-smart memory according to the sixth embodiment of the present invention, wherein steps S70 to S100 are the same as those of the fourth embodiment, and will not be repeated here.

The steps of the sixth embodiment of this creation are as follows:

Step S120 : the notification module 105 generates the corresponding sound 115 according to the control signal 113 .

Please refer to FIG. 12 , which is a structural block diagram of the sixth embodiment of the present invention. As shown in the figure, an all-intelligent memory is used in the memory device 10 , and the memory device 10 is electrical Connected to a mainboard 1, the mainboard 1 is electrically connected to a central processing unit 11, the memory device 10 includes a substrate 101, a micro-control unit 102 and a notification module 105, the micro-control unit 102 and the notification module 105 is disposed on the substrate 101 , wherein the notification module 105 includes the buzzer 1054 .

Referring to FIG. 11 again, the steps of the fifth embodiment of the notification method of the all-smart memory of the present invention will be described in detail below. As shown in step S120, the notification module 105 includes the buzzer 1054, and the notification module 105 According to the control signal 113, the buzzer 1054 makes a corresponding sound 115, wherein the corresponding sound 115 has been set by the user to start the corresponding program of the computer before the process starts, and the setting result is passed through the central processing unit 11 by the signal The line is transmitted to the micro-control unit 102, or the central processing unit 11 transmits the signal line to the solid-state hard disk controller, and then the solid-state hard disk controller transmits the signal to the micro-control unit 102 of the solid-state hard disk.

When the motherboard 1 of the sixth embodiment of the present invention receives a communication software message notification from the electronic device 3, it receives the message through the central processing unit 11 and transmits the signal 112 to the micro-control unit 102, and the micro-control unit 102 transmits the control signal 113 Go to the notification module 105, the buzzer 1054 inside the notification module 105 notifies the user, so as to solve the conventional problem that the memory device 10 cannot be used to immediately notify the user of the message of the communication software.

The first light-emitting device 1051, the second light-emitting device 1052, the third light-emitting device 1053 of the notification module 105 of the fifth embodiment of the present invention and the buzzer of the notification module 105 of the sixth embodiment 1054 can be used in combination.

The following is a description of the practical application of an embodiment of this creation: The user uses the computer specific software to set the first threshold 21 of the erasing memory notification to 40 degrees, the second threshold 22 to 50 degrees, and the third threshold 23 to 60 degrees before the full smart memory is executed. The first threshold value 21 of the disc notification is 50 degrees, the second threshold value 22 is 60 degrees, the third threshold value 23 is 70 degrees, the first corresponding color 212 is green, the second corresponding color 222 is orange, and the third corresponding color 232 is red, the first sound 213 sounds at a slow frequency, the second sound 223 sounds at a normal frequency, and the third sound 233 sounds at a fast frequency.

The temperature sensor 103 of the memory device 10 senses a plurality of memory chips 104 of the memory device 10 , wherein the temperature sensor 103 can select the temperature of one or more memory chips 104 from the plurality of memory chips 104 to generate at least one temperature The value is 1041. The temperature sensor 103 will generate at least one temperature value 1041 and transmit it to the microcontroller unit 102. If the memory device 10 is a volatile memory or a non-volatile memory, the microcontroller unit 102 determines at least one temperature value 1041. Whether it is not less than 40 degrees, if so, the micro-control unit 102 will transmit the first control signal 211 to the notification module 105, and the notification module 105 makes the first light-emitting device 1051 flash green according to the first control signal 211, The buzzer 1054 emits the first sound 213 at a slow frequency and determines whether at least one temperature value 1041 is less than 50 degrees. If it is less than 50 degrees, the microcontroller unit 102 will transmit the first control signal 211 to the notification module 105. The first light-emitting device 1051 keeps flashing green, and the buzzer 1054 continuously emits a first sound 213 at a slow frequency. If it is not less than 50 degrees, the micro-control unit 102 determines whether at least one temperature value 1041 is less than 60 degrees. , if it is less than 60 degrees, the micro-control unit 102 will transmit the second control signal 221 to the notification module 105, and the notification module 105 will make the second light-emitting device 1052 flash in orange according to the second control signal 221, and the buzzer 1054 will be in a normal If the frequency is not less than 60 degrees, the micro-control unit 102 will transmit the third control signal 231 to the notification module 105, and the notification module 105 will make the third light-emitting device 1053 flash in red according to the third control signal 231, The buzzer 1054 emits a third sound 233 at a fast frequency. If the memory device 10 is a solid state hard disk, the microcontroller 102 Determine whether at least one temperature value 1041 is not less than 50 degrees, if so, the microcontroller 102 will transmit the first control signal 211 to the notification module 105 , and the notification module 105 will make the first light emitting according to the first control signal 211 The device 1051 flashes green, the buzzer 1054 emits the first sound 213 at a slow frequency and determines whether at least one temperature value 1041 is less than 60 degrees, if it is less than 60 degrees, the micro-control unit 102 will transmit the first control signal 211 To the notification module 105, the first light-emitting device 1051 keeps flashing green, and the buzzer 1054 continuously emits the first sound 213 at a slow frequency. If it is not less than 60 degrees, the micro-control unit 102 performs at least one temperature value 1041 The determination of whether it is less than 70 degrees, if it is less than 70 degrees, the micro-control unit 102 will transmit the second control signal 221 to the notification module 105, and the notification module 105 will make the second light-emitting device 1052 flash orange according to the second control signal 221, and bee The buzzer 1054 emits the second sound 223 at a normal frequency. If it is not less than 70 degrees, the micro-control unit 102 will transmit the third control signal 231 to the notification module 105 , and the notification module 105 will make the third light emitting according to the third control signal 231 The device 1053 flashes red, and the buzzer 1054 emits a third sound 233 at a fast frequency.

The following is a description of the practical application of another embodiment of the present creation: the communication software in the user's electronic device 3 transmits the real-time signal 41 to the server 4, and the server 4 receives the real-time signal 41 to the motherboard 1, The central processing unit 11 inside the motherboard 1 executes the software 111 to receive the real-time signal 41 from the server 4 , the central processing unit 11 generates the signal 112 and transmits it to the micro-control unit 102 , and the micro-control unit 102 transmits a control signal 113 to actuate the notification module 105, the notification module 105 makes the first light-emitting device 1051, the second light-emitting device 1052, and the third light-emitting device 1053 flash in yellow according to the control signal 113, and the buzzer 1054 emits a corresponding sound at a frequency 115.

In the above-mentioned embodiment, the all-intelligent memory of the present creation uses the temperature sensor in the memory device to sense the temperature of a plurality of memory chips to achieve the function of self-sensing and real-time notification, so that the memory device can sense the temperature by itself Measure the temperature of the memory device itself, and detect the temperature of the memory device in real time The notification module notifies the user to solve the conventional knowledge that the computer needs to query the status of various components of the computer to obtain information such as temperature. It cannot respond to the problem of memory damage when the memory temperature is too high, such as detecting the temperature of volatile memory, non-volatile memory and solid-state hard disk and its usage/health, and communication software (such as: Facebook, IG, or other) can use color or sound to notify users.

Therefore, this work is actually novel, progressive and available for industrial use, and it should meet the requirements of patent application in my country's patent law.

However, the above descriptions are only preferred embodiments of the present creation, and are not intended to limit the scope of implementation of the present creation. All equivalent changes and modifications are made according to the shape, structure, characteristics and spirit described in the patent scope of the present creation. , shall be included in the scope of the patent application for this creation.

1: Motherboard

10: Memory device

101: Substrate

102: Micro Control Unit

103: Temperature sensor

104: Memory Chip

105: Notification Module

11: CPU

Claims (13)

An all-intelligent memory, which comprises: a substrate, a micro-control unit and a plurality of memory chips are arranged, the micro-control unit is electrically connected to the memory chips; a temperature sensor is arranged above the substrate, is electrically connected with the micro-control unit, which is used for sensing one of the memory chips; and a notification module is disposed above the substrate and is electrically connected with the micro-control unit; wherein, the The micro-control unit receives at least one temperature value from the temperature sensor, and if the at least one temperature value is not less than a first threshold value, the micro-control unit transmits a first control signal to the notification module. The all-smart memory of claim 1, wherein, in the step of transmitting the first control signal to the notification module by the microcontroller when the at least one temperature value is not less than the first threshold, the The micro-control unit determines whether the at least one temperature value is less than a second threshold value, and if so, the micro-control unit transmits the first control signal to the notification module. The all-smart memory of claim 2, wherein, in the step of transmitting the first control signal to the notification module by the micro-control unit when the at least one temperature value is not less than the first threshold value, when The at least one temperature value is not less than the second threshold value, the micro-control unit further determines whether the at least one temperature value is less than a third threshold value, and if so, the micro-control unit transmits a second control signal to the communication the notification module, otherwise the micro-control unit transmits a third control signal to the notification module. The all-smart memory according to claim 1 or 2, wherein the notification module includes a first light-emitting device, and when the notification module receives the first control signal, the light-emitting devices correspond to a first Colors glow. The all-smart memory of claim 3, wherein the notification module includes a second lighting device and a third lighting device, and when the notification module receives the second control signal, the second lighting device emits A second corresponding color emits light, and when the notification module receives the third control signal, the third light emitting device emits light in a third corresponding color. The all-smart memory of claim 3, wherein the notification module includes a buzzer, and when the notification module receives the first control signal, the buzzer generates a first sound, and the notification module When the module receives the second control signal, the buzzer generates a second sound, and when the notification module receives the third control signal, the buzzer generates a third sound. The all-smart memory of claim 1, wherein the all-smart memory is a volatile memory or a non-volatile memory or a solid state hard disk. The all-smart memory of claim 1, wherein the all-smart memory is electrically connected to a mainboard, and a central processing unit transmits a control command to a memory device through the mainboard. An all-intelligent memory, which is electrically connected to a mainboard, the mainboard is electrically connected to a central processing unit, and the all-intelligent memory includes: a substrate, a micro-control unit is arranged; and a notification module is arranged above the substrate and is electrically connected to the micro-control unit; wherein, an electronic device transmits a real-time signal to the motherboard via a server, the The main board uses the central processing unit to execute a software to receive the real-time signal, the central processing unit transmits a signal to the micro-control unit, and the micro-control unit transmits a control signal to activate the notification module. The fully intelligent memory according to claim 9, wherein the software is instant messaging software or game software. The all-intelligent memory of claim 9, wherein the notification module comprises a first lighting device, a second lighting device and a third lighting device, and when the notification module receives the control signal, the first lighting A light-emitting device, the second light-emitting device, and the third light-emitting device emit light in a corresponding color. The fully intelligent memory of claim 9, wherein the notification module includes a buzzer, and when the notification module receives the control signal, the buzzer generates a corresponding sound. The fully intelligent memory of claim 9, wherein the fully intelligent memory is a volatile memory or a non-volatile memory or a solid state hard disk.

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