TWI587897B - Method and system for controlling status of unit of service platform - Google Patents

Description

Method and system for unit state control in a service platform

The present invention relates to the field of game technologies, and in particular, to a method and system for unit state control in a service platform.

In existing large and medium-sized games, a single state machine technology is usually used to control the condition of the game unit. As more and more units in the game, the status and functions of the unit become more and more complicated. If a single state machine technology is still used to control the multi-state and multi-function of the unit in the game, the program of the game system will be caused. Complex and confusing, which affects the stability of the game.

Embodiments of the present invention provide a method and system for unit state control in a service platform to control the state and function of a unit in a game, thereby simplifying the program of the game system and improving the stability of the game.

A first aspect of the present invention provides a method for unit state control in a service platform, configured to control the unit performance destination state, and the method includes: providing an external interface to receive an input state control instruction; and receiving the state according to the received state The control instruction generates a corresponding state parameter; determines whether the unit satisfies the first preset condition; and if the unit satisfies the first preset condition, determines the target state according to the state parameter a state layer; determining, according to the state parameter, whether the target state satisfies a second preset condition of the determined state layer; and if the target state satisfies a second preset condition of the determined state layer, then controlling The unit represents the target state.

A second aspect of the present invention provides a system for unit state control in a service platform for controlling the unit to indicate a destination state, the system comprising: an external interface unit for providing an external interface to receive an input state control command, And generating a corresponding state parameter according to the received state control instruction; the determining unit is configured to determine whether the unit meets the first preset condition; and if the unit meets the first preset condition, determine according to the state parameter a state layer to which the destination state belongs; further configured to determine, according to the state parameter, whether the target state meets a second preset condition of the determined state layer; and a control unit, configured to: when the target state meets the determined The second predetermined condition of the state layer controls the unit to represent the destination state.

The embodiment of the present invention receives an input state control command by providing an external interface; generates a corresponding state parameter according to the received state control command; determines whether the unit satisfies the first preset condition; and if the unit satisfies the first pre-condition Setting a condition, determining, according to the state parameter, a state layer to which the target state belongs; determining, according to the state parameter, whether the target state satisfies a second preset condition of the determined state layer; and if the target state satisfies The second preset condition of the determined state layer controls the unit to represent the target state, thereby achieving control of the state and function of the unit in the game. The invention adopts the above method to realize the control of the state and function of the game unit, and simplifies the game program, thereby improving the stability of the game.

Steps S101, S102, S103, S104, S105, S106, S107, S108‧‧

S201, S202, S203, S204, S205, S206, S207, S208, S209, S210, S211, S212, S213, S214, S215‧‧ steps

101‧‧‧External interface unit

102‧‧‧Decision unit

103‧‧‧Control unit

104‧‧‧recording unit

105‧‧‧storage unit

106‧‧‧Enter interface unit

107‧‧‧ Exit interface unit

108‧‧‧Modification unit

109‧‧‧Send unit

110‧‧‧State lock unit

In order to more clearly illustrate the embodiments of the present invention or the prior art BRIEF DESCRIPTION OF THE DRAWINGS The accompanying drawings, which are set forth in the accompanying drawings Other drawings may also be obtained from these drawings without paying for creative labor.

1 is a flowchart of a method for unit state control in a service platform according to a first preferred embodiment of the present invention; FIG. 2A-2B is a method for controlling unit state in a service platform according to a second preferred embodiment of the present invention; FIG. 3 is a schematic structural diagram of a system for unit state control in a service platform according to a first preferred embodiment of the present invention; FIG. 4 is a diagram showing unit state control in a service platform according to a second preferred embodiment of the present invention; Schematic diagram of the system.

The technical solutions in the embodiments of the present invention are clearly and completely described in the following with reference to the accompanying drawings in the embodiments of the present invention. It is obvious that the described embodiments are only a part of the embodiments of the present invention, but not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative efforts are within the scope of the present invention.

A method for controlling unit state in a service platform according to an embodiment of the present invention will be described in detail below with reference to FIG.

1 is a flowchart of a method for unit state control in a service platform according to a first preferred embodiment of the present invention; the method is used to control a state of a target performance of the unit. In this embodiment, the service platform is a game. The method may include the following steps S101 to S108.

S101. An external interface is provided to receive a state control instruction that is input by the external logic module to invoke the external interface. For example, to cause the unit to exhibit a destination state such as running, the external logic module needs to input a state control command to control the unit to represent the destination state.

S102. Generate a corresponding state parameter according to the received state control instruction. The state parameter includes a parameter corresponding to the target state, so that the state that needs to be expressed by the unit is known to be the target state according to the state parameter.

S103. Determine whether the unit satisfies a first preset condition. When the unit satisfies the first preset condition, step S104 is performed. When the unit does not satisfy the first preset condition, step S107 is performed. The first preset condition includes a unit type condition and a unit life condition. The step may include determining whether the type of the unit is of a type that supports state transition control. For example, when the type of the unit is a stationary object such as a tree or the like, the type of the unit does not support the type of state transition control, that is, the type of the unit does not satisfy the type condition. When the type of the unit is a dynamic living body, such as a person or the like, the type of the unit supports the type of state transition control, that is, the type of the unit satisfies the type condition.

It is determined whether the unit has a living condition. When the unit is alive, a status function can be performed to reflect the corresponding animation effect, indicating that the unit has a living condition that satisfies the life condition. When the unit is in a dead state and can no longer perform the state function, thereby failing to reflect the corresponding animation effect, it indicates that the unit does not have a living condition and does not satisfy the life condition. Therefore, it is determined whether the unit has a living condition by determining whether the unit can perform a status function to reflect a corresponding animation effect. When the type of the unit satisfies the type condition and the unit satisfies the life condition, it is determined that the unit satisfies the first preset condition.

S104. Determine, according to the state parameter, a state layer to which the destination state belongs. Among them, according to the functions of the units in the game, abstract the possible All status. All states include walking status (such as walking, running, standing, sitting, etc.), action status (such as attack, cast, death, etc.) and passive status (such as restricted movement, restricted casting, restricted attack, etc.). All states are layered according to the principle of mutual exclusion between states. The principle of mutual exclusion is a mutually exclusive state (a state that cannot exist at the same time, for example, a unit cannot be in a walking state and a running state at the same time) is divided into two layers, non-mutually exclusive states (states that can exist simultaneously, for example The unit can also be in an attack state while running. At different levels. Therefore, in the present embodiment, all states are divided into a first state layer such as a walking state layer, a second state layer such as an action state layer, and a third state layer such as a passive state layer. The action state layer and the walk state layer belong to an active state layer. The walking state layer includes all walking states. The action state layer includes all action states. The passive state layer includes all passive states. Therefore, according to the state parameter, it is known which state the destination state is, and the state layer in which the destination state is located is the determined state layer.

The step S104 may further include: determining, according to the state parameter, whether the target state belongs to a state in the first and second state layers, if the unit satisfies a first preset condition.

If the destination state belongs to a state in the first and second state layers, determining which one of the first and second state layers belongs to the destination state according to the state parameter.

In other embodiments, the number of state layers of all states of the unit may be adjusted according to actual state types, and is not limited to the above three state layers.

S105. Determine, according to the state parameter, whether the target state meets a second preset condition of the determined state layer. When the target state satisfies the second preset condition of the determined state layer, step S106 is performed. When the target state does not satisfy the second preset condition of the determined state layer, step S108 is performed.

Specifically, the second preset condition includes a convertible state condition and a non-locking condition. Determining, according to the state parameter, whether the state transition list of the determined state layer stores the destination state to determine whether the switchable state condition is satisfied, and determining that the destination state is No is locked to determine if the non-locking condition is met. When the state transition list of the determined state layer stores the destination state and the destination state is not locked, indicating that the destination state satisfies the second preset condition of the determined state layer.

Among them, each state layer stores a state transition list. Each state transition list stores other state information that the current unit can convert to at this state layer. Determining, according to the state parameter, whether other state information in the state transition list of the determined state layer has the destination state.

According to the specific requirements of the game, a priority order may be set between the action state layer and the walk state layer. In the present embodiment, the priority order of the operation state layer is set to be higher than the walking state layer, so that the state of the action state layer can prohibit state transition of the walking state layer. For example, when the unit is in a state of death, the unit can no longer express the state of walking or running, etc., in order to meet the actual logic requirements.

Determining whether the destination state is locked may include: determining whether a priority order instruction that determines that a priority order of a state layer in which the destination state is located is lower than another state layer priority order in an active state layer, and the unit current is received Whether there is a state belonging to the other state layer in the state.

When it is determined that the priority order instruction is received, and the current state of the unit has a state belonging to the another state layer, it indicates that the destination state is locked, and a lock instruction is sent; when it is determined that the priority order command is not received, It indicates that the destination state is not locked. For example, the unit is in a state of lying down and dying, the priority order of the state layer in which the death state is located is determined to be higher than the priority order of the state layer in which the lying state is located, and if the destination state is walking, it indicates The state of walking is locked.

The state layer in which the destination state is located is locked according to a lock instruction to prohibit the unit from expressing the destination state.

S106. Control the unit to represent the target state. Each state corresponds to an entry interface and an exit interface. The entry interface is used to enter the unit The corresponding state completes the corresponding function and renders the corresponding animation effect. The exit interface is used to cause the unit to exit the corresponding state and complete the exit of the corresponding function. The unit exits the current state of the state layer by using an exit interface of a current state of the state layer in which the destination state is located, and enters the target state through an entry interface of the target state, thereby controlling the unit to represent the target state. . The current state of the state layer, unlike the target state, continues to maintain its state. For example, the current state of the unit is going and attacking. The target state is running. The running state and the walking state are the same state layer. The state of the attack is not in the same state layer as the state of walking and running. To make the unit show the state of running. Then, it is necessary to exit the state through the exit interface of the state, and enter the running state through the entry interface of the running state. The attack state continues to be maintained. At this time, the unit indicates running and attacking, thereby realizing the state in which the unit is controlled to run.

Initially, the state of the state transition list for each state layer is the preset state. When the unit exits the current state of the same state layer as the destination state, and enters the destination state, the state in the state transition list of the state layer is modified to other states that the destination state can be converted, and the modified state is stored. A list of state transitions. When the unit exits the destination state, the state in the state transition list of the state layer is restored to a preset state.

S107. Send a first instruction to indicate the first reason that the status performance fails. S108. Send a second instruction to indicate a second cause of failure of the status performance. In other embodiments, if it is not necessary to clarify the reason for the handover failure, the steps S107 and S108 may be omitted.

In the preferred embodiment, the present invention provides a state control command input by the external logic module to call the external interface by providing an external interface; generating a corresponding state parameter according to the received state control command; determining the unit Whether the first preset condition is met; if the unit satisfies the first preset condition, determining a state layer to which the target state belongs according to the state parameter; determining, according to the state parameter, whether the target state satisfies the determined state a second preset condition of the layer; and if the target state satisfies the second preset condition of the determined state layer, controlling the unit to represent the target state. The invention realizes the shape of the unit in the game State and function control, which simplifies the game program and improves the stability of the game.

2 is a flowchart of a method for unit state control in a service platform according to a second preferred embodiment of the present invention; in this embodiment, the service platform is a game. The method further includes the following steps S201 to S215.

S201. Record the states of the first state layer, the second state layer, and the third state layer, and the first to third state layers, which are layered in the state of the unit. The state of the first state layer is a mutually exclusive state, the state of the second state layer is a non-exclusive state, and the state of the third state layer is a non-exclusive state, and The states of the first and second state layers are non-exclusive.

Among them, according to the functions of the units in the game, all possible states of the unit are abstracted. All states include walking status (such as walking, running, standing, sitting, etc.), action status (such as attack, cast, death, etc.) and passive status (such as restricted movement, restricted casting, restricted attack, etc.). All states are layered according to the principle of mutual exclusion between states. The principle of mutual exclusion is a mutually exclusive state (a state that cannot exist at the same time, for example, a unit cannot be in a walking state and a running state at the same time) is divided into two layers, non-mutually exclusive states (states that can exist simultaneously, for example The unit can also be in an attack state while running. At different levels. Therefore, in the present embodiment, all states are divided into a first state layer such as a walking state layer, a second state layer such as an action state layer, and a third state layer such as a passive state layer. The action state layer and the walk state layer belong to an active state layer. The walking state layer includes all walking states. The action state layer includes all action states. The passive state layer includes all passive states.

The state of the passive state layer can be accumulated. For example, the unit may be restricted from attack while being restricted from moving. The passive state layer stores each state with a digit occupying a preset bit space. Each meta represents a state. If the value of this bit is "1", it means that there is a corresponding passive state. The value of this bit is "0", which means there is no corresponding passive state. The number of bits of the preset bit is determined by the number of passive states. The addition and deletion of the state of the passive state layer can be achieved using bit operations.

In other embodiments, the number of state layers of all states of the unit may be adjusted according to actual state types, and is not limited to the above three state layers.

S202. Store a first convertible state list set on the first state layer, and store a second convertible state list set on the second state layer. The first convertible state list stores other state information that the state in the current first state layer can be converted into, and the second switchable state list stores the state currently in the second state layer that can be converted into Other status information.

S203. An external interface is provided to receive a state control instruction that is input by the external logic module to invoke the external interface. For example, to cause the unit to exhibit a destination state such as running, the external logic module needs to input a state control command to control the unit to represent the destination state.

S204. Generate a corresponding state parameter according to the received state control instruction. The state parameter includes a parameter corresponding to the target state, so that the state that needs to be expressed by the unit is known to be the target state according to the state parameter.

S205. Determine whether the type of the unit is a type that supports state transition control and whether the unit has a life condition. When it is determined that the type of the unit is a type supporting the state transition control and the unit has a life condition, step S206 is performed. When it is determined that the type of the unit does not support the type of the state transition control or the unit does not have a life condition, step S211 is performed.

For example, when the type of the unit is a stationary object such as a tree or the like, the type of the unit does not support the type of state transition control, that is, the type of the unit does not satisfy the type condition. When the type of the unit is a dynamic living body, such as a person or the like, the type of the unit supports the type of state transition control, that is, the type of the unit satisfies the type condition.

When the unit is alive, a status function can be performed to reflect the corresponding animation effect, indicating that the unit has a living condition that satisfies the life condition. When the unit is in a dead state, the status function can no longer be executed, and thus the corresponding animation effect cannot be reflected. If it is said, the unit does not have a living condition and does not satisfy the living condition. Therefore, it is determined whether the unit has a living condition by determining whether the unit can perform a status function to reflect a corresponding animation effect.

S206. Determine, according to the state parameter, whether the destination state is a state of a third state layer. If the destination state does not belong to the state of the third state layer, step S207 is performed. If the destination state belongs to the state of the third state layer, step S212 is performed.

S207. Determine, according to the state parameter, whether the destination state belongs to a state in the first and second state layers. When it is determined that the destination state belongs to a state in the first and second state layers, step S208 is performed. When it is determined that the destination state does not belong to the state in the first and second state layers, step S214 is performed.

S208. Determine, according to the state parameter, which one of the first and second state layers belongs to the destination state. Wherein, when the destination state is a state in the first state layer, the state layer to which the destination state belongs is the first state layer. When the destination state is the state in the second state layer, then the state layer to which the destination state belongs is the second state layer.

S209. Determine, according to the state parameter, whether the state transition list of the determined state layer stores whether the destination state and the destination state are locked. When it is determined that the state transition list of the determined state layer stores the destination state and the destination state is not locked, step S210 is performed. When it is determined that the state transition list of the determined state layer does not store the destination state or the destination state is locked, step S215 is performed. Among them, each state layer stores a state transition list. Each state transition list stores other state information that the current unit can convert to at this state layer. Determining, according to the state parameter, whether other state information in the state transition list of the determined state layer has the destination state.

According to the specific requirements of the game, a priority order may be set between the action state layer and the walk state layer. In this embodiment, the priority order of the operation state layer is set to be higher than the walking state layer, so that the state of the action state layer may prohibit the walking state. The state transition of the layer. For example, when the unit is in a state of death, the unit can no longer express the state of walking or running, etc., in order to meet the actual logic requirements.

Determining whether the destination state is locked may include: determining whether a priority order instruction that determines that a priority order of a state layer in which the destination state is located is lower than another state layer priority order in an active state layer, and the unit current is received Whether there is a state belonging to the state in the other state layer in the state.

When it is determined that the priority order instruction is received, and the current state of the unit has a state belonging to the another state layer, it indicates that the destination state is locked, and a lock instruction is sent; when it is determined that the priority order command is not received, It indicates that the destination state is not locked. For example, the unit is in a state of lying down and dying, the priority order of the state layer in which the death state is located is determined to be higher than the priority order of the state layer in which the lying state is located, and if the destination state is walking, it indicates The state of walking is locked.

The state layer in which the destination state is located is locked according to a lock instruction to prohibit the unit from expressing the destination state.

S210. Control the unit to exit the current state in the state layer where the destination state is located, and enter the destination state, thereby controlling the unit to represent the destination state. Each state corresponds to an entry interface and an exit interface. The entry interface is used to bring the unit into a corresponding state, complete the corresponding function and present a corresponding animation effect. The exit interface is used to cause the unit to exit the corresponding state and complete the exit of the corresponding function. The unit exits the current state of the state layer by using an exit interface of a current state of the state layer in which the destination state is located, and enters the target state through an entry interface of the target state, thereby controlling the unit to represent the target state. . The current state of the state layer, unlike the target state, continues to maintain its state. For example, the current state of the unit is going and attacking. The target state is running. The running state and the walking state are the same state layer. The state of the attack is not in the same state layer as the state of walking and running. To make the unit show the state of running. Then, it is necessary to exit the state through the exit interface of the state, and enter the running state through the entry interface of the running state. Attack form The state continues to maintain. At this time, the unit indicates running and attacking, thereby realizing the state in which the unit is controlled to run.

Initially, the state of the state transition list for each state layer is the preset state. When the unit exits the current state of the same state layer as the destination state, and enters the destination state, the state in the state transition list of the state layer is modified to other states that the destination state can be converted, and the modified state is stored. A list of state transitions. When the unit exits the destination state, the state in the state transition list of the state layer is restored to a preset state.

S211. Send a first instruction to indicate the first reason that the status performance fails.

S212, sending a management instruction.

S213. Accumulate the target state to the unit according to the management instruction, so that the unit exhibits the target state.

S214. Send a second instruction to indicate a second cause of failure of the status performance.

S215. Send a third instruction to indicate a third reason that the status performance fails. The first to third causes of the failure of the transmission status performance are used to indicate the reason for the failure of the status performance.

In the preferred embodiment, the present invention provides a state control command input by the external logic module to call the external interface by providing an external interface; generating a corresponding state parameter according to the received state control command; determining the unit Whether the first preset condition is met; if the unit satisfies the first preset condition, determining a state layer to which the target state belongs according to the state parameter; determining, according to the state parameter, whether the target state satisfies the determined state a second preset condition of the layer; and if the target state satisfies the second preset condition of the determined state layer, controlling the unit to represent the target state. The invention realizes the control of the state and function of the unit in the game, thereby simplifying the game program and improving the stability of the game.

A unit state control system in a service platform according to an embodiment of the present invention will be described in detail below with reference to FIG. 3 and FIG. It will be appreciated that the system described below can be applied to the methods illustrated in Figures 1 and 2 above. In this embodiment, the service platform is a game.

FIG. 3 is a schematic structural diagram of a system for unit state control in a service platform according to an embodiment of the present invention; a system for unit state control in the service platform is used to control the unit to indicate a destination state. The system may include an external interface unit 101, a determination unit 102, and a control unit 103.

The external interface unit 101 is configured to provide an external interface to receive a state control instruction input by the external logic module to invoke the external interface, and generate a corresponding state parameter according to the received state control instruction. For example, to cause the unit to exhibit a destination state such as running, the external logic module needs to input a state control command to control the unit to represent the destination state. The state parameter includes a parameter corresponding to the target state, so that the state that needs to be expressed by the unit is known to be the target state according to the state parameter.

The determining unit 102 is configured to determine whether the unit satisfies a first preset condition. Specifically, the first preset condition includes a unit type condition and a unit life condition.

The determining unit 102 is configured to determine whether the type of the unit is of a type that supports state transition control. For example, when the type of the unit is a stationary object such as a tree or the like, the type of the unit does not support the type of state transition control, that is, the type of the unit does not satisfy the type condition. When the type of the unit is a dynamic living body, such as a person or the like, the type of the unit supports the type of state transition control, that is, the type of the unit satisfies the type condition.

The determining unit 102 is further configured to determine whether the unit has a living condition. When the unit is alive, a status function can be performed to reflect the corresponding animation effect, indicating that the unit has a living condition that satisfies the life condition. When the unit is in a dead state and can no longer perform the state function, thereby failing to reflect the corresponding animation effect, it indicates that the unit does not have a living condition and does not satisfy the life condition. Therefore, the determining unit 102 determines whether the unit has a living condition by determining whether the unit can perform a status function to reflect a corresponding animation effect. When the type of the unit satisfies the type condition and the unit satisfies the life condition, it is determined that the unit satisfies the first preset condition.

The determining unit 102 is further configured to meet the first preset condition in the unit The state layer to which the destination state belongs is determined according to the state parameter. Among them, according to the functions of the units in the game, all possible states of the unit are abstracted. All states include walking status (such as walking, running, standing, sitting, etc.), action status (such as attack, cast, death, etc.) and passive status (such as restricted movement, restricted casting, restricted attack, etc.). All states are layered according to the principle of mutual exclusion between states. The principle of mutual exclusion is a mutually exclusive state (a state that cannot exist at the same time, for example, a unit cannot be in a walking state and a running state at the same time) is divided into two layers, non-mutually exclusive states (states that can exist simultaneously, for example The unit can also be in an attack state while running. At different levels. Therefore, in the present embodiment, all states are divided into a first state layer such as a walking state layer, a second state layer such as an action state layer, and a third state layer such as a passive state layer. The action state layer and the walk state layer belong to an active state layer. The walking state layer includes all walking states. The action state layer includes all action states. The passive state layer includes all passive states.

The state of the passive state layer can be accumulated. For example, the unit may be restricted from attack while being restricted from moving. The passive state layer stores each state with a digit occupying a preset bit space. Each meta represents a state. If the value of this bit is "1", it means that there is a corresponding passive state. The value of this bit is "0", which means there is no corresponding passive state. The number of bits of the preset bit is determined by the number of passive states. The addition and deletion of the state of the passive state layer can be achieved using bit operations.

In other embodiments, the number of state layers of all states of the unit may be adjusted according to actual state types, and is not limited to the above three state layers.

Specifically, the determining unit 102 is configured to determine, according to the state parameter, whether the target state belongs to a state in the first and second state layers according to the first preset condition. If the target state belongs to a state in the first and second state layers, the determining unit 102 is configured to determine, according to the state parameter, which one of the first and second state layers the target state belongs to Floor.

The determining unit 102 is further configured to determine the purpose according to the state parameter Whether the state satisfies the second preset condition of the determined state layer.

Specifically, the second preset condition includes a convertible state condition and a non-locking condition. The determining unit 102 determines, according to the state parameter, whether the state transition list of the determined state layer stores the target state to determine whether the switchable state condition is satisfied, and determines whether the target state is locked to determine whether The non-locking condition is satisfied. When the state transition list of the determined state layer stores the destination state and the destination state is not locked, indicating that the destination state satisfies the second preset condition of the determined state layer. Among them, each state layer stores a state transition list. Each state transition list stores other state information that the current unit can convert to at this state layer. Determining, according to the state parameter, whether other state information in the state transition list of the determined state layer has the destination state.

According to the specific requirements of the game, a priority order may be set between the action state layer and the walk state layer. In the present embodiment, the priority order of the operation state layer is set to be higher than the walking state layer, so that the state of the action state layer can prohibit state transition of the walking state layer. For example, when the unit is in a state of death, the unit can no longer express the state of walking or running, etc., in order to meet the actual logic requirements.

The control unit 103 is configured to control the unit to represent the destination state when the destination state satisfies a second preset condition of the determined state layer. Each state corresponds to an entry interface and an exit interface. The entry interface is used to bring the unit into a corresponding state, complete the corresponding function and present a corresponding animation effect. The exit interface is used to cause the unit to exit the corresponding state and complete the exit of the corresponding function. The unit exits the current state of the state layer by using an exit interface of a current state of the state layer in which the destination state is located, and enters the target state through an entry interface of the target state, thereby controlling the unit to represent the target state. . The current state of the state layer, unlike the target state, continues to maintain its state. For example, the current state of the unit is going and attacking. The target state is running. The running state and the walking state are the same state layer. The state of the attack is not in the same state layer as the state of walking and running. To make the unit show the state of running. You need to exit by exiting the exit interface. Go to the state and enter the running state through the entry interface of the running state. The attack state continues to be maintained. At this time, the unit indicates running and attacking, thereby realizing the state in which the unit is controlled to run.

Initially, the state of the state transition list for each state layer is the preset state. When the unit exits the current state of the same state layer as the destination state, and enters the destination state, the state in the state transition list of the state layer is modified to other states that the destination state can be converted, and the modified state is stored. A list of state transitions. When the unit exits the destination state, the state in the state transition list of the state layer is restored to a preset state.

In the preferred embodiment, the present invention provides an external interface through the external interface unit 101 to receive a state control instruction input by the external logic module to invoke the external interface, and generate a corresponding state parameter according to the received state control instruction. The determining unit 102 determines whether the unit satisfies the first preset condition; if the unit satisfies the first preset condition, determining a state layer to which the target state belongs according to the state parameter; determining according to the state parameter Whether the target state satisfies a second preset condition of the determined state layer; and the control unit 103 controls the unit performance to be performed when the target state satisfies a second preset condition of the determined state layer Destination status. The invention realizes the control of the state and function of the unit in the game, thereby simplifying the game program and improving the stability of the game.

Referring to FIG. 4, a system for unit state control in a service platform according to a second preferred embodiment of the present invention is the same as the first preferred embodiment. The second preferred embodiment of the present invention is different from the first preferred embodiment in that the system for unit state control in a service platform provided by the second preferred embodiment further includes a recording unit 104, a storage unit 105, and an entry interface. The unit 106, the exit interface unit 107, the modification unit 108, the transmitting unit 109, and the state lock unit 110.

The recording unit 104 is configured to record the first state layer, the second state layer, and the third state layer, and the states in the first to third state layers, which are layered in the state of the unit. In this embodiment, the first state layer is a walking state layer. The second state layer is an action State layer. The third state layer is a passive state layer. In other embodiments, the number of state layers of all states of the unit may be adjusted according to actual state types, and is not limited to the above three state layers.

The storage unit 105 is configured to store a first convertible state list set on the first state layer, and store a second convertible state list set on the second state layer, wherein the first convertible state list is stored There is other state information that the state in the current first state layer can be converted to, and the second switchable state list stores other state information to which the state currently in the second state layer can be converted.

The determining unit 102 is further configured to determine, according to the state parameter, whether the target state is a state of a third state layer, and determine the target state when the target state does not belong to a state of the third state layer. Whether it belongs to the state in the first and second state layers.

The entry interface unit 106 is configured to provide an entry interface such that the control unit 103 invokes the entry interface to cause the unit to enter a corresponding state, complete the corresponding function, and present a corresponding animation effect.

The exit interface unit 107 is configured to provide an exit interface, so that the control unit 103 invokes the exit interface to cause the unit to exit the corresponding state, and complete the exit of the corresponding function.

Each state corresponds to the entry interface and the exit interface. The entry interface unit 106 is configured to invoke the entry interface to cause the unit to enter a corresponding state, complete a corresponding function, and present a corresponding animation effect. The exit interface unit 107 is configured to invoke the exit interface to cause the unit to exit the corresponding state and complete the exit of the corresponding function.

The modifying unit 108 is configured to: when the unit exits the current state of the same state layer as the target state, and enter the destination state, modify the state in the state transition list of the state layer to the target state. Other states of the conversion.

The storage unit 105 is further configured to store the modified state transition list.

The modifying unit 108 is further configured to: when the unit exits the target In the state, the state in the state transition list of the state layer in which the destination state is located is restored to the preset state.

The transmitting unit 109 is configured to send a lock instruction when the determining unit 105 determines that the priority order command is received and the state of the current state of the unit has a state layer belonging to a higher priority order. The sending unit 109 is further configured to: when the destination state belongs to a state of the third state layer, send a management instruction to accumulate the destination state to the unit to cause the unit to express the destination state.

The state lock unit 110 is configured to lock a state layer in which the destination state is located according to a lock instruction to prohibit control of the unit from expressing the destination state.

The sending unit 109 is further configured to: when the unit does not satisfy the first preset condition, send a first instruction to indicate a first cause of failure of the state performance, when determining that the destination state does not belong to the first and the first When the state in the two state layers is, the second instruction is sent to indicate the second cause of the state performance failure; and when it is determined that the state transition list of the determined state layer does not store the destination state or the destination state is locked, The third instruction is sent to indicate the third reason why the status performance failed.

In the preferred embodiment, the present invention provides an external interface through the external interface unit 101 to receive a state control instruction input by the external logic module to invoke the external interface, and generate a corresponding state parameter according to the received state control instruction. The determining unit 102 determines whether the unit satisfies the first preset condition; if the unit satisfies the first preset condition, determining a state layer to which the target state belongs according to the state parameter; determining according to the state parameter Whether the target state satisfies a second preset condition of the determined state layer; and the control unit 103 controls the unit performance to be performed when the target state satisfies a second preset condition of the determined state layer Destination status. The invention realizes the switching control of the state and function of the unit in the game, thereby simplifying the game program and improving the stability of the game.

A person skilled in the art can understand that all or part of the process of implementing the foregoing embodiment method can be completed by a computer program to instruct related hardware. The program may be stored in a computer readable storage medium, which, when executed, may include the flow of an embodiment of the methods described above. The storage medium may be a magnetic disk, a optical disk, a read-only memory (ROM), or a random access memory (RAM).

The above is only the preferred embodiment of the present invention, and the scope of the present invention is not limited thereto, and thus equivalent changes made in the claims of the present invention are still within the scope of the present invention.

Steps S101, S102, S103, S104, S105, S106, S107, S108‧‧

Claims (18)

A method for unit state control in a service platform, for a unit state control system in a service platform, the system comprising an external interface unit, a determination unit and a control unit, the method comprising: the external interface receiving a state of the input a control instruction; generating a corresponding one of the state parameters according to the received state control command; the determining unit determines whether the unit satisfies a first preset condition; if the unit satisfies the first preset condition, according to the state parameter Determining a state layer to which a destination state belongs, and if the unit does not satisfy the first preset condition, sending a first instruction to indicate a first cause of failure of the state performance; the determining unit determines whether the destination state is based on the state parameter Satisfying the determined second preset condition of the state layer; and if the destination state satisfies the determined second preset condition of the state layer, the control unit controls the unit to represent the target state, if the destination When the state does not satisfy the second preset condition of the determined state layer, a second instruction is sent to indicate that the state is out of performance a second reason; wherein the destination state includes multiple independent behaviors of the unit, and the independent behaviors are distinguished into multiple state layers according to whether they are mutually exclusive, and multiple independent in the same state layer The behavior of the expression is mutually exclusive, and the multiple independent behaviors in different state layers allow mutual matching so that the unit exhibits a compound behavior. The method of claim 1, wherein determining whether the unit satisfies the first preset condition comprises: determining whether the type of the unit is a type of support state transition control; and determining whether the unit has a life condition When the type of the unit is the type of the support state transition control and the unit has the life bar When the piece is determined, it is determined that the unit satisfies the first preset condition. The method of claim 1, wherein if the unit satisfies the first preset condition, determining, according to the state parameter, the state layer to which the destination state belongs includes: recording a state of the unit a layered first state layer and a second state layer, and a state in the first state layer and the second state layer, wherein the state of the first state layer is a mutually exclusive state, the second state The state of the layer and the state of the first state layer are non-mutually exclusive; storing a first switchable state list set on the first state layer, and storing a second convertible set on the second state layer a status list, wherein the first convertible status list stores other status information that the status in the first status layer is currently convertible, and the second convertible status list stores a status currently in the second status layer Other state information that can be converted to; wherein, if the unit satisfies the first preset condition, determining, according to the state parameter, which of the first state layer and the second state layer the target state belongs to . The method of claim 3, wherein before determining the state layer to which the destination state belongs according to the state parameter, determining, according to the state parameter, determining whether the destination state belongs to the first state layer and the first a state in the second state layer; wherein, if the destination state belongs to the state in the first state layer and the second state layer, determining, according to the state parameter, that the destination state belongs to the first state layer and the second state Which state layer in the layer. The method of claim 4, wherein determining whether the destination state satisfies the determined second preset condition of the state layer according to the state parameter comprises: determining, according to the state parameter, the determined one of the state layers Whether the state transition list stores the destination state and determines whether the destination state is locked; When the determined state transition list of the state layer stores the destination state and the destination state is not locked, the determined current state of the state layer is exited, and the destination state is entered, thereby controlling the unit to represent the destination state. The method of claim 5, wherein when the unit exits the determined current state of the state layer and enters the destination state, the determined state transition in the state transition list of the state layer is modified. Other states that can be converted to the state for the purpose, and store the modified state transition list. When the unit exits the destination state, the determined state transition state list of the state layer is restored to a preset. status. The method of claim 5, wherein determining whether the destination state is locked comprises: determining whether a priority order of the state layer determining the destination state is lower than the first state layer and the second state a priority order instruction of another state layer priority order in the layer, and whether there is a state belonging to another state layer in the current state of the unit; when it is determined that the priority order instruction is received, and the current state of the unit belongs to In the state of the other state layer, a lock command is sent; the state layer in which the destination state is located is locked according to the lock command to prohibit the unit from expressing the destination state. The method of claim 5, wherein before the providing the external interface to receive the input of the state control instruction, the method further comprises: recording a third state layer layered by the state of the unit; The state of the three-state layer is a non-exclusive state, and the state of the first state layer and the second state layer is a non-exclusive state; wherein, if the unit satisfies the first preset condition, according to the state parameter Before determining the status layer to which the destination state belongs, it also includes: Determining, according to the state parameter, whether the destination state is a state of the third state layer; if the destination state does not belong to the state of the third state layer, determining a state layer to which the destination state belongs. The method of claim 8, wherein if the destination state belongs to the state of the third state layer, a management command is sent to accumulate the destination state to the unit such that the unit exhibits the destination state. A system for unit state control in a service platform for controlling a unit to indicate a destination state, the system comprising: an external interface unit for providing an external interface to receive an input state control command, and according to the received The state control command generates a corresponding state parameter; a determining unit is configured to determine whether a unit satisfies a first preset condition; if the unit satisfies the first preset condition, determining the target state according to the state parameter a first state layer, if the unit does not satisfy the first preset condition, sending a first instruction to indicate a first cause of failure of the state performance; and further for determining whether the destination state is satisfied according to the state parameter a second preset condition of the state layer, if the destination state does not satisfy the second preset condition of the determined state layer, sending a second instruction to indicate a second cause of failure of the state performance; and a control a unit, configured to control the unit to represent the target state when the destination state satisfies the determined second preset condition of the state layer; The target state includes a plurality of independent behaviors of the unit, and the independent behaviors are distinguished into multiple state layers according to whether they are mutually exclusive, and multiple independent behaviors in the same state layer are mutually exclusive. And the multiple independent behaviors in different state layers allow for mutual matching so that the unit exhibits a composite behavior. The system of claim 10, wherein the determining unit is further configured to determine whether the type of the unit is a type of support state transition control, and determine whether the unit has a life condition, and when the type of the unit is When the type of the state transition control is supported and the unit has the life condition, the determining unit determines that the unit satisfies the first preset condition. The system of claim 10, further comprising: a recording unit, configured to record a first state layer and a second state layer layered by the state of the unit, and the first state layer And a state in the second state layer, wherein the state of the unit in the first state layer is a mutually exclusive state, the state of the second state layer and the state of the first state layer are non-exclusive states; and a storage a unit, configured to store a first switchable state list set on the first state layer, and store a second switchable state list set on the second state layer, where the first convertible state list is stored There is other state information that the state in the first state layer can be converted to, and the second switchable state list stores other state information that the state currently in the second state layer can be converted into. The system of claim 12, wherein the determining unit is further configured to determine whether the destination state belongs to a state in the first state layer and the second state layer, if the destination state belongs to the first state The determining unit is further configured to determine, according to the state parameter, which of the first state layer and the second state layer the destination state belongs to. The system of claim 13, further comprising: an access interface unit for providing an access interface, so that the control unit invokes the entry interface to cause the unit to enter a corresponding state, and complete the corresponding function. Presenting corresponding animation effects; and An exit interface unit, configured to provide an exit interface, so that the control unit invokes the exit interface to cause the unit to exit the corresponding state, and completes the exit corresponding function; wherein the determining unit is further configured to determine the location according to the state parameter Determining whether the state transition list of the state layer stores the destination state and determining whether the destination state is locked; the control unit is further configured to: when the state transition list of the determined state layer stores the destination state and the destination state is not When locked, the current state of the determined state layer is exited, and the destination state is entered, thereby controlling the unit to represent the destination state. The system of claim 14, further comprising: a modifying unit, configured to: when the unit exits the determined current state of the state layer, and enters the destination state, the determined state layer The state in the state transition list modifies other states to which the destination state can be converted; the storage unit is further configured to store the modified state transition list; wherein the modifying unit is further configured to: when the unit exits the destination state, The determined state in the state transition list of the state layer is modified to a preset state. The system of claim 14, further comprising: a sending unit, configured to determine, by the determining unit, that a priority order instruction is received, and the current state of the unit belongs to the first state layer and the first a state in the higher priority order state layer of the second state layer, sending a lock instruction; and a state lock unit for locking the state layer in which the destination state is located according to the lock instruction, to prohibit the control of the unit from indicating the Destination status. The system of claim 16, wherein the recording unit is further configured to record a third state layer layered by the state of the unit; the state of the third state layer is a non-exclusive state, and And the states of the first state layer and the second state layer are non-exclusive states; The determining unit is further configured to determine, according to the state parameter, whether the destination state is a state of the third state layer, and when the destination state does not belong to the state of the third state layer, determine a state layer to which the destination state belongs. The system of claim 17, wherein the sending unit is further configured to: when the destination state belongs to the state of the third state layer, send a management command to accumulate the target state to the unit, so that the unit Show the state of the purpose.