TWI417761B - Computer system and the game processing method thereof - Google Patents

Description

Method of controlling games in computer systems and computer systems

The present invention relates to a computer system and a method of controlling a game using a computer system, and more particularly to a computer system capable of providing game services in a non-activated state and a method of controlling the same.

The popularity of computer devices has increased rapidly in the last decade. Many households have at least one desktop computer, and some have family members. Each has its own personal computer, and even has both desktop and portable. Notebook computer. Most of the computer devices in the home are for personal use, and everyone uses their own computer devices to surf the Internet, write files or watch movies.

When family members or friends want to share time and play together, because the computer device is more difficult to cope with the needs of multiple people at the same time, the user needs to purchase the game device separately, such as an electronic game console, and install the game console in the living room. Or connect to display devices, such as saloons, in order to get together and play and interact through game devices and display devices. However, for the user, the game machine must be purchased at an additional cost. Moreover, when the game machine is not used, it is also a waste of space for the layout of the space.

SUMMARY OF THE INVENTION The object of the present invention is to provide a computer system having a game machine function to solve the above problems.

The invention discloses a computer system, which is provided with a voltage by a power supply unit, the system comprising: a game control module and a state monitoring unit . The game control module generates a game screen according to a game program and a motion signal, and outputs the game screen to the display unit. The state monitoring unit is configured to detect a power supply state of the power supply unit to generate a state switching signal, and the state switching signal is used to indicate that the computer system is in an activated state or a non-activated state. The game control module receives the indication of the state switching signal, and receives the working voltage and the motion signal in the non-activated state to generate a game screen.

The invention also discloses a method for controlling a game by a computer system, the computer system comprising a game control module for processing a game program. One of the embodiments of the method detects the power supply status of the computer system to determine whether the computer system is in an activated state or a non-activated state. When the computer system is judged to be in a non-activated state, the power supply unit provides the operating voltage required for the operation of the game control module; after the voltage is obtained, the game control module receives a motion signal and processes the game according to the game program to generate the game. The screen is then output to the display unit.

According to the technical means of the embodiment of the present invention, the computer system still provides the function of reading the game program for the user to play the game in the non-activated state, and achieves the effect of saving power. For a more detailed description and implementation, please refer to the following drawings and further description of the embodiments.

The first figure is a schematic diagram of an embodiment of a game system according to the present invention. The game system embodiment includes a computer system 10 and a remote control device 16 for the user to transmit data or commands to the computer system 10 via the remote control device 16. To perform an interactive game, and display a game screen on a display unit 14. The computer system 10 can be a portable computer that has the advantages of being easy to move and carry, such as a notebook or a mini notebook (Netbook). ). The display unit 14 can be a television screen or projection device having a transmission interface compatible with the computer system 10, and interconnected with the computer system 10 with a cable 22 for transmitting audio and video. The remote control device 16 is, for example, a game sticker for the user to hold and input, to transmit a control command by wireless transmission, or to transmit a motion signal to the computer system 10 according to a change of the user's motion. In the non-activated state, the computer system 10 can receive the command or signal sent by the remote control device 16, and after processing the received command and signal through the computer system 10, display the simulated user action or response on the display unit 14. The game screen of the user action causes the user to issue a corresponding command or motion signal to the computer system 10 according to the game screen displayed by the display unit 14. Thereby, the user can perform an interactive game using the computer system 10 that has been turned off or on standby. In another embodiment, the game screen can also be displayed directly on the screen of the computer system 10.

The second drawing is a block diagram of the first embodiment of the computer system described above to further illustrate the computer system 10 having the gaming machine function. The computer system 10 includes a logic operation module 116 and a game control module 104. The logic operation module 116 includes a logic controller 110, a central processing unit 112, and a system memory 114. The logic operation module 116 is part of the core component of the computer system 10 and is responsible for the logic operations of the general computer. The game control module 104 includes a micro processing unit 1042, a storage unit 1046, and a wireless transceiver unit 106. In addition, the computer system 10 further includes a state monitoring unit 102, a data switching unit 108, power source switching units 120 and 122, and an output connection unit 124.

The game system 1 supplies the operating voltage required by the computer system 10 in various operating states by a power supply unit 100. For example, in the portable computer, the power supply unit 100 can be a battery or an AC power source. Operation of computer system 10 The state includes a startup state and a non-boot state, and the startup state may refer to any one of a computer system that conforms to an advanced configuration and a power interface specification, and the power state is a working (S0) and a sleep state S1 to S3. The non-boot state may refer to any of the system power states being Hibernation (S4) and Soft off (S5) states.

Since the power supply unit 100 of the computer system 10 does not provide power only when the computer system 10 is in the startup state, unless the power supply unit 100 is completely separated or removed from the computer system 10, when the computer system 10 is in the non-activated state, There are still some system components that are partially operational. For example, in a general computer system, an embedded controller (EC) continues to obtain the standby power of the power supply unit 100 and detects the power supply status of the computer system. The first embodiment of the present invention will be described with the embedded controller as the state monitoring unit 102. It should be noted that the state monitoring unit 102 in the first embodiment may also be any device in the computer system 10 that can detect the power supply state of the computer system 10. Those skilled in the art can replace the embedding with other devices according to actual needs. Controller.

The power switching unit 120 is disposed between the power supply unit 100 and the logic computing module 116; the power switching unit 122 is disposed between the power supply unit 100 and the game control module 104. When the computer system 10 is in the startup state, the power supply unit 100 supplies the voltage to the system components in the computer system 10 through the power switching unit 120, including: the logic operation module 116, via the logic controller 110 and the central processing unit 112. The communication status monitoring unit 102, the data switching unit 108, and a device such as a hard disk (not shown). When the computer system 10 is in the non-activated state, the power supply unit 100 supplies the operating voltage to the game control module 104 through the power switching unit 122. . In addition, the game control module 104 can use a voltage regulator unit 118 to adjust the voltage supplied by the power supply unit 100 to an appropriate operating voltage (eg, step-down) for the game control module 104 to operate.

As described above, since the state monitoring unit 102 receives the power provided by the power supply unit 100 regardless of whether it is in the startup or non-activation state, the state monitoring unit 102 can continuously monitor the power supply of the power supply unit 100 to the computer system 10, for example, The magnitude of the current output by the voltage supply unit 100 is monitored to determine whether to assert the output state switching signal 102_SS. Therefore, when the state monitoring unit 102 determines that the computer system 10 is in a non-activated state, for example, when the current value output by the power supply unit 100 is lower than a predetermined threshold, the state monitoring unit 102 sets the state switching signal 102_SS, and the power is switched. Unit 122 will be closed in accordance with an indication of state switching signal 102_SS to enable power supply unit 100 to input voltage to game control module 104. At the same time, the power switching unit 120 is also turned on according to the setting of the state switching signal 102_SS, so that the voltage of the power supply unit 100 is stopped from being input to the logic operation module 116.

The output data 106_SO output by the wireless transceiver unit 106 is transmitted to the micro processing unit 1042 of the game control module 104 to become input data of the micro processing unit 1042. The output data 106_SO of the wireless transceiver unit 106 is derived from a control command or motion signal transmitted by the remote control unit 16. The micro processing unit 1042 reads and executes the game program from the storage unit 1046 according to the instruction of the output data 106_SO, and responds to the motion signal or control command input by the user through the remote control device 16 according to the design of the game program. For example, a virtual avatar that simulates a user action is generated, or a corresponding game content is executed according to the input control command, and the output data 104_SO is outputted to the display unit 14 to interact with the user. Real The wireless transceiver unit 106 in the embodiment may be a Bluetooth, infrared or RF signal transmission unit.

In addition to inputting the operating voltage to the game control module 104, the output data 104_SO generated by the game control module 104 is also outputted by the data switching unit 108 according to the set state switching signal 102_SS, and becomes the display unit 14 via the output connecting unit 124. Input data 14_SI. Thereby, the display unit 14 can present the input data 14_SI (that is, the virtual avatar as described above or the corresponding game content) to the user. In the case of a portable computer, the output connection unit 124 can be a High Definition Multimedia Interface (HDMI) or an AV video interface, and can be connected to a display unit having a compatible connection interface through a cable. 14. In another embodiment, the signal output by the output connection unit 124 can also be directly outputted on the screen of the computer system 10.

The third figure provides a block diagram of a second embodiment of a computer system. In the second embodiment, computer system 10a further includes a control button 126.

When the computer system 10a is in the non-activated state, the user does not necessarily want to start the function of the game. Therefore, in the second embodiment, the state monitoring unit 102 not only monitors the power supply of the power supply unit 100, but also according to The state of the control button 126 determines whether or not the state switching signal 102_SS is set. When the computer system 10a is in the non-activated state, the state monitoring unit 102 does not immediately set the state switching signal 102_SS, but continues to detect whether the control button 126 outputs a start signal trig_S to the state monitoring unit 102. When the to-be-controlled button 126 generates the activation signal trig_S according to the user's pressing, the state monitoring unit 102 sets the state switching signal 102_SS to control the switching of the power switching units 120, 122 and the data switching unit 108. For the function and connection relationship of other components, please refer to the first embodiment. Description.

The fourth figure describes the internal structure of the material switching unit 108 in the first and second embodiments, and includes a video material switching unit 1080 having a changeover switch 10802. The changeover switch 10802 switches according to the indication of the state switch signal 102_SS. When the computer system 10, 10a is in the non-activated state, the switch 10802 switches to the output end of the game control module 104 according to the set state switching signal 102_SS to form a closed state, so that the game control module 104 will process the processed output data. The 104_SO output is transmitted via the output connection unit 124 to become the input material 14_SI of the display unit 14. In practical applications, a switch circuit can be set on the motherboard of the computer system to implement the above-described switch 10802. The way to set the switch circuit does not increase the overall manufacturing cost of the computer system, and the overall system complexity is not too complicated.

Referring again to the second to fourth figures, when the computer system 10, 10a is in the startup state, the state monitoring unit 102 detects that the current supplied by the power supply unit 100 is higher than a preset threshold, that is, de-assert state switching is performed. Signal 102_SS. The power switching unit 120 switches to the off state according to the cancel setting of the state switching signal 102_SS, so that the logic operation module 116 receives the operating voltage provided by the power supply unit 100. In contrast, the power switching unit 122 switches to the on state when the state switching signal 102_SS is canceled, and stops the input of the operating voltage to the game control module 104.

The data switching unit 108 is also controlled by the state switching signal 102_SS. When the state switching signal 102_SS is canceled, the switching switch 10802 of the video data switching unit 1080 switches to the output data 110_SO of the logic controller 110, and the output of the logic controller 110 The data 110_SO outputs the computer system 10 via the data switching unit 108 and the output connection unit 124. 10a becomes the input material 14_SI of the display unit 14. At this time, the game control module 104 does not obtain the operating voltage, that is, does not receive the output data 106_SO through the wireless transceiver unit 106, or transmits the output data 104_SO through the data switching unit 108.

It should be noted that, in the first and second embodiments, the game control module 104 is connected to the display unit 14 by using the original output connection unit 124 in the computer system 10, 10a through the switching of the data switching unit 108, for example, The HDMI or AV port that was originally set in the portable computer does not need to be provided with other connection units in order to play in the non-activated state.

As for the implementation mode of the state switching signal 102_SS, one of the pin inputs of the general-purpose input/output (GPIO) of the embedded controller can be connected to the switch, and a high-potential signal is sent to the switch through the general-purpose output pin. , to notify the switch to switch. Therefore, the state switching signal 102_SS can be switched when the state monitoring unit 102 detects that the computer system is in the startup state (for example, when the current value is higher than the preset threshold), and then the state switching signal 102_SS is cancelled. For example, when the state monitoring unit 102 detects that the computer system is in a non-activated state (as the current value is lower than a predetermined threshold), the state switching signal 102_SS can be The potential value is switched to a low potential.

For a more detailed description of the internal structure of the game control module 104, please refer to the fifth figure. In one embodiment, the game control module 104 includes a power receiving interface 1040, a data receiving interface 1044, and an image processing unit in addition to the micro processing unit 1042 and the storage unit 1046 as shown in the second and third figures. (Graphic Processing Unit, GPU) 1048. Power reception The interface 1040 is coupled to the power supply unit 100 to receive the voltage. The data receiving interface 1044 receives the control command or motion signal (ie, the output data 106_SO) obtained by the wireless transceiver unit 106 from the remote control device 16. After receiving the voltage from the power receiving interface 1040, the micro processing unit 1042 can read the game program in the storage unit 1046 according to the control command received by the data receiving interface 1044. The micro processing unit 1042 then generates a drawing command according to the design of the game program and the motion signal, and the image processing unit 1048 draws the game screen to become the output data 104_SO, and transmits the data switching unit as shown in the second and third figures. 108 and the output connection unit 124 are transmitted to the display unit 14 for display, and after the user sees the game screen of the game on the display unit 14, the corresponding game action is continued.

The remote control device 16 includes a motion sensor 160, such as an accelerometer. When the remote control device 16 generates an acceleration by the user's swing, the motion sensor 160 That is, the acceleration of the remote control device 16 is sensed and a motion signal is generated, such as a three-dimensional acceleration signal, which is wirelessly transmitted to the wireless transceiver unit 106 of the computer system 10, 10a through the transmission interface of the remote control device 16. The micro-processing unit 1042 of the game control module 104 calculates and processes the motion signal and the game program to provide relevant data to the image processing unit 1048, causing the image processing unit 1048 to draw motion with the remote control device 16. Corresponding screen.

Since the computer system is in the startup state, it is necessary to supply voltage to various system components, for example, the central processing unit 112 performs arithmetic processing, the hard disk is rotated and read, the control light is turned off, and the like, so as to provide the user through the computer system 10 at any time. 10a performs activities such as file editing, surfing the Internet, drawing, or watching movies, so the power consumption is large. However, if in the computer system 10, 10a In the state of shutdown or standby, according to the above embodiment, the voltage is transmitted to a game control module 104 that can be independently processed to provide a game program, which not only saves the user from spending a lot of time to start the program, because The power supply unit 100 needs to be powered to other system components (such as logic computing modules and network connection devices) that are not working to be processed. The same power supply unit 100 can allow the game control module 104 to operate for a longer period of time.

Since the storage unit 1046 that stores the game program has a limited capacity and cannot accommodate all the game programs, and the game program is often updated, the user may have a need to update the game program. The game control module 104 can be implemented as an on-board chip integrated in a computer system, or can be an independently pluggable control chip. Taking the fifth figure as an example, when the game control module 104 is a control chip that can be separated from the computer system, if the user wants to update the game program, the entire control chip can be removed from the computer system and stored. Another compatible control chip, including different game programs, is placed in the computer system so that the user can obtain different game programs for the game.

In addition to replacing the entire control chip with hardware to update the game program, the data in the storage unit 1046 can also be updated by the software. Referring to the block diagram of another game control module 104a shown in FIG. 6, the difference from the fifth figure is that the game control module 104a shown in the sixth figure further includes a link to the micro processing unit 1042. Data link interface 1050.

In the embodiment shown in FIG. 6, the user can store the new game program or data on the hard disk or download it from the network in advance; the program or data is under the control of the state monitoring unit 102a. The data is transferred to the game control module 104a via a data transfer unit 130 that is compatible with the data link interface 1050.

When the user wants to update the game data when the computer system is in the startup state, the application module 132 can send an update notification to the status monitoring unit 102a via the application module 132. The application module 132 can be an application. When the status monitoring unit 102a reads the update notification, an update control signal 102_SU is set, and an interface switching unit 128 switches the data transmission unit 130 to the data link interface 1050. After the data transmission unit 130 switches to the data link interface 1050, the game control module 104a generates a virtual memory space (not shown) for receiving the game stored on the hard disk or downloaded from the network through the data transmission unit 130. The virtual memory space updates the new game material to the storage unit 1046.

After the data update is completed, the user can re-use the application module 132 to send a notification to the status monitoring unit 102a, so that the status monitoring unit 102a cancels the setting update control signal 102_SU. The interface switching unit 128 switches to the logic controller 110 according to the canceled update control signal 102_SU for the logic controller 110 to transmit data via the data transmission unit 130.

The data link interface 1050 and the data transfer unit 130 can be a universal serial bus (USB) interface, or can be implemented by a general-purpose input/output (GPIO) pin connection to meet the special design communication interface of the computer system 10. In other words, the update interface is an interface originally configured in the computer system 10, which does not require additional design and increases the cost.

The means for updating the content of the storage unit 1046 shown in FIG. 6 shares the original data transmission unit 130 of the computer system 10b by means of switching, which has the advantage of saving the cost of setting the data transmission unit. However, when the number of data transmission units (such as the above-mentioned universal serial port) on the computer system is sufficient, a dedicated data link interface can be directly provided to connect with the game control module 104 to reduce the circuit layout structure in the computer system. .

Thereby, the game control module 104a can execute the game program to provide the game service in the non-activated state; when the computer system 10b is in the startup state, the program for updating the game program to the game control module 104a can also be executed.

The seventh figure shows a block diagram of a third embodiment of the computer system. The computer system 10b in this embodiment further includes a data access unit 134. When the computer system 10b is in the non-activated state, the data switching unit 108a switches the data access unit 134 to the game control module 104b according to the set state switching signal 102_SS, so that the data access unit 134 will connect an external storage unit 18. The stored data is input to the game control module 104b through the data switching unit 108a. When the computer system 10b is in the startup state, the data switching unit 108a switches the data access unit 134 to the logic controller 110 to transfer the data of the external storage unit 18 to the logic controller 110. The data access unit 134 can be a card reader on the computer system 10b, and the external storage unit 18 can be a memory card such as Flash, CF or SD, and can store game programs and the like for game control. The micro processing unit in module 104b reads.

The eighth figure shows the internal structure of the data switching unit 108a in the third embodiment. Compared with the data switching unit 108 of the fourth embodiment, the data switching unit 108a of the third embodiment further includes an external data switching unit 1082. The external data switching unit 1082 also includes a changeover switch 10822. When the computer system 10b is in the non-activated state, the switch 10822 is switched to the input end of the game control module 104b according to the set state switching signal 102_SS to form a closed state, so that the output data 18_SO stored by the external storage unit 18 is transmitted through the seventh figure. The data access unit 134 outputs the game control module 104b (which becomes the game input data 104_GSI of the game control module 104b). Thereby, the game control module 104b is in a non-starting state of the computer system 10b. In other words, the game program is processed according to the output data 106_SO and the game input data 104_GSI from the wireless transceiver unit 106, and the processed output data 104_SO is output to the display unit 14.

It should be noted that the game control module 104b in the third embodiment can use the original card reading device of the computer system 10b through the switching of the external data switching unit 1082. In the meantime, compared with the game control module 104 of the first and second embodiments, the storage unit of the game control module 104b (see FIG. 5 or FIG. 1064) may be stored in the embodiment. The game program can reduce the production cost and hardware volume of the game control module 104b. When the user wants to use the computer system 10b to perform different interactive games, only the external storage unit 18 needs to be replaced.

In the means for connecting the display unit 14, in addition to the data switching unit 108 sharing the game output control unit 104 with the original output connection unit 124 of the computer system 10 (see the second or third figure), in other embodiments An output connection unit for the output of the game control module can be used. The output connection unit dedicated to the game control module can also be a high-resolution multimedia interface or an AV terminal interface. In practice, the output connection unit and the game control module can be respectively disposed on a motherboard (not shown) of the computer system. Connected by a signal line; the two can also be integrated on an expansion card to be connected to the display unit 14. Those skilled in the art will be able to make appropriate modifications, depending on the spirit of the various embodiments described above, under different manufacturing cost considerations.

Next, the ninth figure is a flowchart of an embodiment of a method for controlling a game in a computer system according to the present invention. Please refer to the second figure together.

In the present embodiment, the state monitoring unit 102 detects whether the operating state of the computer system 10 is in an activated state or a non-activated state according to the power supply state (S301). When the computer system 10 is detected as being in a non-activated state, The state monitoring unit 102 will set a state switching signal 102_SS to cause the game control module 104 to start receiving the operating voltage supplied by the power supply unit 100 (S303). On the other hand, if the computer system 10 is in the startup state, the state monitoring unit 102 cancels the setting state switching signal 102_SS, and the game control module 104 stops receiving the voltage according to the canceled state switching signal 102_SS (S315).

When the game control module 104 obtains the operating voltage in the non-activated state (S303), and the computer system 10 and the display unit 14 are interconnected by the output connecting unit 124, the control command input by the remote control device 16 can be started to be received. The game program is read (S305), and the game screen is displayed on the display unit 14. Then, the computer system 10 generates a three-dimensional acceleration according to the motion signal wirelessly input by the remote control device 16 (S307), for example, the user holds the remote control device 16 to perform a swipe action, and the remote control device 16 generates a three-dimensional acceleration. The motion sensor of the control device 16 generates a motion signal based on the change in acceleration and wirelessly transmits it to the computer system 10 via Bluetooth, infrared, or radio frequency. The micro processing unit 1042 in the game control module 104 generates a drawing command according to the design of the game program and the received motion signal, and then the image processing unit generates a game screen according to the drawing command (S309), for example, generating a simulated user swipe. The image of the virtualized avatar of the action is output from the game control module 104 to the display unit 14 (S311) for the user to view the screen of the game from the display unit 14 to continue to utilize the remote control device 16 and the computer system. 10 to interact.

During this process, the state monitoring unit 102 continuously monitors the operating state of the computer system 10, and determines whether the operating state of the computer system 10 changes according to the change of the power state (S313), where the non-starting state is changed to start. Status: If the operating status has not changed, the game control module 104 The power supply can be continuously obtained, and the process returns to step S307 and below, and new control commands and motion signals are continuously received to generate and output a game screen to interact with the user.

However, if the operating state of the computer system 10 is detected in step S301 or S313 and is detected to be in the activated state, the game control module 104 stops receiving the voltage according to the startup state (S315); The system components other than the game control module 104 receive the power supplied by the power supply unit 100 (S317), such as the logic operation module 116, the hard disk, the network control unit, and the like, so that the computer system 10 is successfully started and is in the startup state. The computer system 10 is responsible for the arithmetic processing by the logic operation module 116 (S319), and communicates with the system components such as the hard disk and the input/output device through the logic controller 110, including updating the game programs and materials in the storage unit 1046.

As in step S313, the state monitoring unit 102 continues to determine whether the operating state of the computer system 10 has changed according to the power supply state when the computer system 10 is in the startup state (S321), and this step refers to changing from the activated state to the non-activated state. If the operating state is unchanged, the computer system 10 continues to be served by components such as the logical touch module 116 (S319); and when the computer system 10 is turned off or in the standby state, the steps S303 and below are executed again. Thereby, it is achieved that the computer system 10 can perform a general operation in the activated state, and the user can perform an interactive game in the non-activated state.

According to the means adopted in the above embodiments, when the computer system is in the startup state, the power is transmitted to various system components in the computer system, as the general computer device operates; and when the computer system is in the non-activated state, the power is The benefits of this approach to game control modules are: The use of computer systems to provide users with more services can also significantly reduce the power consumption of computer systems.

According to several examples exemplified in the above embodiments, various peripheral units or modules required for providing an interactive game service can integrate the original system components of the computer system for implementation, thereby reducing the cost of producing the computer system and Reduce the volume of the electrical system.

In addition, when playing an interactive game, the user mostly prefers to play the game screen through the display unit 14 of a larger size, such as a television screen in the home or projected on the wall through a projection device; when the computer system 10 is a portable type When the device is installed, it can be easily moved to the living room, and connected to the audio-visual device through the data switching unit 108, which not only can enjoy the fun with friends and relatives, but also transforms the computer system 10 from a personal use device to a family life sharing device. The utility model further improves the use efficiency of the computer system 10; at the same time, it also saves the user the cost of purchasing another game-specific host.

However, the items and elements of the above-described embodiments are merely illustrative of the invention and are not intended to limit the scope of the claimed invention. It is also within the scope of the present invention to modify or modify the micro-frames in accordance with the spirit of the present invention and the technical means disclosed herein.

1‧‧‧Game system

10,10a-b‧‧‧ computer system

100‧‧‧Power supply unit

102,102a‧‧‧Status Monitoring Unit

104,104a-b‧‧‧ Game Control Module

1040‧‧‧Power receiving interface

1042‧‧‧Microprocessing unit

1044‧‧‧ data receiving interface

1046‧‧‧ storage unit

1048‧‧‧Image Processing Unit

1050‧‧‧data link interface

106‧‧‧Wireless transceiver unit

108,108a‧‧‧Data switching unit

1080‧‧‧Video and audio data switching unit

10802‧‧‧Toggle switch

1082‧‧‧External data switching unit

10822‧‧‧Toggle switch

110‧‧‧Logic Controller

112‧‧‧Central Processing Unit

114‧‧‧System Memory

116‧‧‧Logical computing module

118‧‧‧Voltage regulator unit

120‧‧‧Power switching unit

122‧‧‧Power switching unit

124‧‧‧Output connection unit

126‧‧‧Control button

128‧‧‧Interface switching unit

130‧‧‧Data Transfer Unit

132‧‧‧Application Module

134‧‧‧data access unit

14‧‧‧Display unit

16‧‧‧Remote control device

160‧‧‧motion sensor

18‧‧‧External storage unit

22‧‧‧ cable

S301-S321‧‧‧ Process steps

FIG. 1 is a block diagram of a first embodiment of a computer system according to the present invention; FIG. 3 is a block diagram of a computer system according to a first embodiment of the present invention; Block diagram; fourth diagram: the structure of an embodiment of a data switching unit provided by the present invention The fifth diagram is a block diagram of an embodiment of a game control module provided by the present invention; the sixth diagram is a block diagram of another embodiment of the game control module provided by the present invention; and the seventh figure is provided by the present invention. A block diagram of a third embodiment of a computer system; an eighth embodiment: a schematic structural diagram of another embodiment of a data switching unit provided by the present invention; and a ninth drawing: a flow of an embodiment of a method for controlling a game in a computer system Figure.

1‧‧‧Game system

10‧‧‧ computer system

100‧‧‧Power supply unit

102‧‧‧Status Monitoring Unit

104‧‧‧ Game Control Module

1042‧‧‧Microprocessing unit

1046‧‧‧ storage unit

106‧‧‧Wireless transceiver unit

108‧‧‧Data switching unit

110‧‧‧Logic Controller

112‧‧‧Central Processing Unit

114‧‧‧System Memory

116‧‧‧Logical computing module

118‧‧‧Voltage regulator unit

120, 122‧‧‧Power switching unit

124‧‧‧Output connection unit

14‧‧‧Display unit

16‧‧‧Remote control device

Claims (16)

A computer system is provided with a working voltage by a power supply unit. The computer system includes: a game control module coupled to the power supply unit, generating a game screen according to a game program and a motion signal, and outputting to a display unit And a state monitoring unit detecting a power supply state of the power supply unit to generate a state switching signal for indicating that the computer system is in an activated state or a non-activated state; wherein the state switching signal indicates the computer system When in the non-activated state, the game control module receives the operating voltage and the motion signal to generate the game screen. The computer system of claim 1, further comprising: a data switching unit coupled to the game control module and a logic computing module of the computer system, the data switching unit comprising: a video data switching unit And performing a switching operation according to the indication of the state switching signal. When the state switching signal indicates that the computer system is in the non-activated state, the video data switching unit receives the state switching signal to generate the game control module. The game screen is transmitted to the display unit; and when the state switching signal indicates that the computer system is in the activated state, the video data switching unit receives the state switching signal to transmit the data generated by the logic operation module to the Display unit. The computer system of claim 2, wherein the data switching unit further comprises: An external data switching unit performs a switching operation according to the indication of the state switching signal, and when the state switching signal indicates that the computer system is in the non-activated state, transmitting the game program stored in an external storage unit to the game control mode group. The computer system of claim 1, further comprising: a first power switching unit, performing a switching operation according to the indication of the state switching signal, when the state switching signal indicates that the computer system is in the non-starting state, The first power switching unit transmits the operating voltage supplied by the power supply unit to the game control module; and a second power switching unit performs a switching operation according to the indication of the state switching signal, when the state switching signal indicates the computer system When in the startup state, the second power switching unit transmits the operating voltage supplied by the power supply unit to a logic operation module of the computer system. The computer system of claim 1, further comprising: a control button, generating a start signal according to the pressing to be transmitted to the status monitoring unit; wherein the status switching signal indicates that the computer system is in the non-activated state, When the status monitoring unit receives the activation signal, the game control module starts to receive the working voltage. The computer system of claim 1, wherein the game control module further comprises: a wireless transceiver unit that receives the motion signal transmitted from a remote control device; and a power receiving interface coupled to the The power supply unit to receive workers a data receiving interface coupled to the wireless transceiver unit for receiving the motion signal; a microprocessor unit for generating a drawing command based on the motion signal and the game program; and an image processing unit for receiving the Draw commands to produce the game screen. The computer system of claim 6, wherein the game control module further comprises: a storage unit for storing the game program for processing by the micro processing unit. The computer system of claim 7, wherein the game control module further comprises: a data link interface, wherein the game control module receives another game program via the data link interface to update the original storage unit Save the game program. The computer system of claim 8 further comprising: a data transmission unit for transmitting the game program to the data link interface; and an application module for controlling the state monitoring unit to generate an update control signal, The update control signal is used to instruct the computer system to update the original game data; and an interface switching unit switches according to the update control signal, and is used for updating when the update control signal indicates that the original game data is updated. The game program is transferred from the data transfer unit to the data link interface. The computer system of claim 1, wherein the status monitoring unit is an embedded controller. The computer system of claim 1, wherein the non-activated state comprises a sleep state or a shutdown state. A computer system for controlling a game, the computer system comprising a game control module for processing a game program, the method comprising: detecting a power supply status of the computer system to determine that the computer system is in a startup state or a non-boot a state; when the computer system is in the non-activated state, a power supply unit provides a working voltage to the game control module; after receiving the working voltage, the game control module processes the motion signal according to a motion signal and a game program to generate a a game screen; and outputting the game screen to a display unit; wherein when the computer system is in the startup state, the power supply unit provides a working voltage to a logic operation module of the computer system. The method of controlling a game of a computer system according to claim 12, wherein the step of determining that the computer system is in the activated state or the non-activated state comprises: detecting, by a state monitoring unit, a power supply state to generate a game A status switching signal to indicate that the computer system is in the active state or the non-active state. The method of controlling a game of a computer system according to claim 13, wherein the state monitoring unit is an embedded controller. The method of controlling a game of a computer system according to claim 13, wherein before the step of outputting the game screen to the display unit, The method further includes: outputting, by the data switching unit, the game screen through an output connection unit according to the indication of the state switching signal; wherein the output connection unit is connected to the display unit. The method of controlling a game of a computer system according to claim 12, wherein the non-activated state comprises a sleep state or a shutdown state.