TW201810040A - System for alternating lighting of DRAM - Google Patents

Abstract

A system for alternating lighting of DRAM includes plural DRAMs and a portable electrical device. Each DRAM includes a processing unit and a lighting unit. The processing unit is able to trigger the lighting unit to light up on a specific mode. The lighting units define a lighting module. An application software is installed in the electrical device. The application software sends signals to the processing units via the electrical device to match up with them and to trigger them to make the lighting module light up on the specific mode.

Description

Dynamic random access memory illumination control system

The present invention relates to an illumination control system for a dynamic random access memory.

For example, the dynamic random access memory disclosed in TW201520737 has a substrate, a booster circuit and a plasma tube. The boosting circuit is disposed on the substrate, and the boosting circuit is electrically connected to the two power output ends; the opposite ends of the plasma tube have two electrodes electrically connected to the two power output ends.

However, in the case of such conventional dynamic random access memory, the change of the plasma tube or the light-emitting diode is relatively simple and unattractive.

On the other hand, the dynamic random access memory sold in the market has a fixed frequency, color, mode, and the like of the light-emitting diodes and the blinking, and the user cannot adjust the light-emitting mode according to his own needs or preferences.

The main object of the present invention is to provide a dynamic random access memory illumination control system capable of controlling the illumination mode of a dynamic random access memory by an application to meet user needs and preferences.

To achieve the above object, the present invention provides a dynamic random access memory illumination control system comprising a plurality of dynamic random access memories and a mobile electronic device.

Each of the DRAMs includes a processing unit and an illuminating unit. The processing unit can drive the illuminating unit to emit light in a specific mode. The illuminating units are assembled as a lighting module. An application is installed on a mobile electronic device. The application can send signals to the processing units of the DRAM by the mobile electronic device, pair and recognize the DRAMs, and cause each processing unit to control the illuminating The unit emits light to cause the light emitting module to emit light in a specific mode.

Therefore, the system provided by the present invention enables the user to control and design the illumination mode of the dynamic random access memory by using a mobile electronic device (such as a smart phone) or the like according to needs or preferences.

The following is a description of the possible embodiments of the present invention, and is not intended to limit the scope of the invention as claimed.

Referring to FIG. 1 to FIG. 3, the present invention provides a dynamic random access memory illumination control system including a plurality of dynamic random access memories 10 and a mobile electronic device 20.

Each of the DRAMs 10 includes a housing 11 , a body 12 , a processing unit 14 , and a light emitting unit 13 . The body 12 , the processing unit 14 , and the light emitting unit 13 are received in the housing 11 . The processing unit 14 can drive the illumination unit 13 to emit light in a specific mode. More specifically, the processing unit 14 of each of the dynamic random access memory 10 can control the illumination frequency, the illumination color, and the illumination delay time of the illumination unit 13. Each of the light-emitting units 13 preferably includes at least one light-emitting diode 131. More preferably, each of the light-emitting units 13 further includes at least one light guide 132 adjacent to the light-emitting diodes. The body 131 is partially exposed, and the light of the light-emitting diode 131 is transmitted through the light guide 132. Preferably, each of the light-emitting units 13 includes a plurality of light-emitting diodes 131, and the light-emitting diodes The color of the body 131 is different from each other. The light-emitting units 13 are collectively arranged as a light-emitting module 101. Preferably, the light-emitting units 13 are adjacent to each other. In addition, each of the dynamic random access memories 10 also has a general user's Connections, etc. An application 21 is installed in a mobile electronic device 20, and the application 21 can send signals to the processing units 14 of the dynamic random access memory 10 by the mobile electronic device 20, and the dynamic random access memory. The body 10 performs pairing and identification, and each of the processing units 14 controls the light-emitting unit 13 to emit light, so that the light-emitting module 101 emits light in a specific mode. Preferably, each of the processing units 14 receives signals from the mobile electronic device 20. The light-emitting unit 13 is then caused to repeat a specific illumination mode in a cyclic manner.

In actual use, the DRAM 10 can be purchased and assembled by the user. The processing unit 14 of the DRAM 10 has some specific lighting modes or various types of devices. The combined elements (such as the duration of a single illumination, the interval between two illuminations, the color of the illumination, the intensity of the illumination, the frequency of the flicker, the delay time to start the illumination, etc.), when the dynamic random access memory 10 is installed Afterwards, the user can install the application 21 (which can be produced and provided to the user by the manufacturer of the dynamic random access memory) through a mobile electronic device 20 (such as a mobile electronic device such as a smart phone or a tablet). The processing unit 14 of the dynamic random access memory (which must have a device for receiving signals, such as a Bluetooth receiver, an infrared receiver, etc.) is sent via a wireless, remote method (for example, Bluetooth communication, infrared communication, etc.). a signal to cause the processing unit 14 to further control the illumination mode of the illumination unit 13, and more specifically, the application 21 provides The easy interface allows the user to select one of the preset specific illumination modes. For example, if the application detects that there are three dynamic random access memories, it is convenient to display the illumination modes of all three dynamic random access memory combinations on the interface. It is also assumed that the user selects the mode in which "each light unit flashes three times in one second, there is no interval between them, and this cycle", and the application is actually issued to the first dynamic random access memory. The indication of "delay time 0, three seconds flashing three times, two light interval 2 seconds" gives the second DRAM a delay time of 1 second, one second flashing three times, and two light emitting intervals. The indication of "2 seconds" gives an indication to the third DRAM that "delay time is 2 seconds, one second is flashed three times, and two light is emitted at an interval of 2 seconds", and the illumination of the three light-emitting units is combined. The lighting module presents a specific lighting pattern.

The last section only shows an example of the mechanism by which the application controls the lighting mode of the lighting module. However, it is not limited to this. The application can also provide a custom interface to allow the user to design a unique lighting mode, or even a coloring interface. Controlling the illuminating color of the illuminating unit (the actual mechanism is to control whether the illuminating diodes of the different colors are different), and may have other additional convenient functions, such as a voice-activated illuminating mode.

In summary, the dynamic random access memory illumination control system provided by the illumination can be used by the user to adjust the illumination mode of the illumination module at will, and can provide various diversifications according to the number of dynamic random access memories. The illumination mode can even be designed by the user to design the illumination mode and color, and the same dynamic random access memory can be customized to achieve the illumination mode.

10‧‧‧Dynamic random access memory
101‧‧‧Lighting module
11‧‧‧Shell
12‧‧‧Ontology
13‧‧‧Lighting unit
131‧‧‧Lighting diode
132‧‧‧Light guides
14‧‧‧Processing unit
20‧‧‧Mobile electronic devices
21‧‧‧Application

1 is a perspective view of a dynamic random access memory of the present invention. 2 is an exploded perspective view of the dynamic random access memory of the present invention. Figure 3 is a schematic illustration of the system of the present invention.

Claims (10)

A dynamic random access memory illumination control system comprising: a plurality of dynamic random access memories, each dynamic random access memory comprising a processing unit and a lighting unit, the processing unit capable of driving the lighting unit in a specific mode The illuminating unit is a illuminating module; a mobile electronic device, an application is installed in a mobile electronic device, and the application can send signals to the dynamic random access memory by the mobile electronic device Processing unit, pairing and recognizing the dynamic random access memory, and causing each processing unit to control the illumination unit to emit light, so that the illumination module emits light in a specific mode; wherein the processing unit is communicated by Bluetooth Contact the mobile electronic device. The dynamic random access memory lighting control system of claim 1, wherein each of the light emitting units comprises at least one light emitting diode. The DRAM lighting control system of claim 2, wherein each of the illuminating units comprises a plurality of illuminating diodes, the colors of the illuminating diodes being different from each other. The dynamic random access memory lighting control system of claim 1, wherein each of the processing units of the dynamic random access memory is capable of controlling a light emitting frequency, a light emitting color, a light emitting delay time, and a blinking pattern of the light emitting unit. The DRAM lighting control system of claim 1, wherein each of the processing units receives the signal from the mobile electronic device, and then causes the illuminating unit to repeat the specific illuminating mode in a cyclic manner. A dynamic random access memory illumination control system comprising: a plurality of dynamic random access memories, each dynamic random access memory comprising a processing unit and a lighting unit, the processing unit capable of driving the lighting unit in a specific mode The illuminating unit is a illuminating module; a mobile electronic device, an application is installed in a mobile electronic device, and the application can send signals to the dynamic random access memory by the mobile electronic device Processing unit, pairing and recognizing the dynamic random access memory, and causing each processing unit to control the illumination unit to emit light, so that the illumination module emits light in a specific mode; wherein the processing unit is connected by infrared communication The mobile electronic device is in contact. The dynamic random access memory lighting control system of claim 6, wherein each of the light emitting units comprises at least one light emitting diode. The dynamic random access memory illuminating control system of claim 7, wherein each of the illuminating units comprises a plurality of illuminating diodes, and the colors of the illuminating diodes are different from each other. The DRAM lighting control system of claim 6, wherein the processing unit of each of the DRAMs can control the illuminating frequency, the illuminating color, the illuminating delay time, and the flickering pattern of the illuminating unit. The DRAM lighting control system of claim 6, wherein each of the processing units receives the signal from the mobile electronic device and causes the illuminating unit to repeat the specific illuminating mode in a cyclic manner.