JP6966836B2 - Game program, recording medium, game processing method - Google Patents

Description

The present invention relates to a game program, a recording medium, and a game processing method.

Conventionally, there is known a method in which a user gives an instruction to move an object to be operated displayed on a touch panel by using a finger. In this method, when the user touches the display position of the object on the touch panel and moves the touch position while continuing the touch, the object moves to that position. Then, when the object moves to a desired position, the user ends the touch and releases the finger from the touch panel. The operation on the touch panel performed in such a movement method is called, for example, swiping, dragging, flicking, sliding, or the like.

In addition, for example, Patent Document 1 discloses a technique in which a virtual controller is displayed at the start position when a touch to the touch panel is started, and various operations for the game can be performed by touching the virtual controller. ..

Japanese Patent No. 4932010

In the above-mentioned moving method and the technique disclosed in Patent Document 1, a part or all of the object or the like is hidden by the user's finger, and it is difficult to move the object or the like while observing the state of the object or the like. Further, when the moving distance of the object or the like is long, the distance for performing the operation such as swiping becomes long, so that there is a problem that the operation becomes troublesome.

The present invention has been made in view of such problems, and an object of the present invention is to provide a game program, a recording medium, and a game processing method capable of improving visibility and simplicity when a player moves an object with a finger. And.

In order to achieve the above object, in the game program of the present invention, the information processing device that transmits / receives signals to / from the touch panel is a detection processing unit that detects contact with the touch panel, from the start to the end of the detection of the contact. A fluctuation determination processing unit that determines whether or not there is a change in the contact position between the two, a first display processing unit that displays an operation target object and a movement instruction object for instructing a movement destination of the operation target object on the touch panel, and the variation. When it is determined by the determination processing unit that there is no change in the contact position, the movement instruction object displayed by the first display processing unit is placed at the contact position, and it is determined that there is a change in the contact position. In this case, the movement instruction object is made to function as a first movement processing unit that moves the movement instruction object based on the fluctuation of the contact position.

As a result, the player can place the movement instruction object at the tap position by performing a tap operation (an operation in which the contact position does not change) at an arbitrary position on the touch panel. Then, by performing a swipe operation (an operation in which the contact position fluctuates) at an arbitrary position on the touch panel, the movement instruction object arranged at a predetermined position can be moved according to the swipe operation by the above tap operation.

Therefore, the player can easily place the movement instruction object at the movement destination by tapping even when the movement distance of the operation target object is long. In this way, the move instruction object can be easily temporarily placed. It is also possible to rearrange the movement instruction object many times by performing this tap operation many times. Further, since the player can operate the movement of the movement instruction object by swiping the position away from the movement instruction object, the movement of the movement instruction object can be operated while visually recognizing the movement instruction object, the objects around it, the background, and the like. .. This makes it possible to fine-tune the position of the temporarily placed movement instruction object by tapping it.

As described above, the visibility and simplicity when the player moves the object with his / her finger can be improved.

Further, the game program of the present invention preferably has a movement destination determination processing unit that determines the movement destination of the operation target object to the display position of the movement instruction object based on the operation input of the player. When the movement destination is determined by the movement destination determination processing unit, the operation target object is further functioned as a second movement processing unit that moves the operation target object to the display position of the movement instruction object.

As a result, when the player completes the movement operation (tap operation, swipe operation) of the movement instruction object, the movement destination can be determined by a simple operation, and the operation target object can be quickly moved to a desired position. Therefore, the convenience of the player can be improved. Further, since the movement destination is not determined until the player performs the determination operation, it is possible to consider the movement destination while repeating the movement operation of the movement instruction object, and the strategicity can be improved.

Further, the game program of the present invention preferably further functions the information processing device as an instruction canceling processing unit for canceling a movement destination instruction by the movement instruction object based on a player's operation input, and the first movement. The processing unit arranges the movement instruction object at the display position of the operation target object when the instruction of the movement destination is canceled by the instruction cancellation processing unit.

As a result, for example, when the player wants to redo the movement operation of the movement instruction object or cancels the movement of the operation target object itself, the player can cancel the movement instruction with a simple operation, and the movement instruction object can be moved to the initial position ( It can be returned to the display position of the operation target object at the start of the turn). Therefore, the convenience of the player can be improved.

Further, in the game program of the present invention, preferably, the information processing apparatus has the shortest moving distance of the operation target object based on the display position of the operation target object and the display position of the movement instruction object. Further functions as a movement route determination processing unit for determining a movement route.

In the present invention, the movement route of the operation target object is automatically determined. As a result, the player only needs to indicate the movement destination by the movement instruction object, and it is not necessary to instruct the route on the way, so that the convenience of the player can be improved. In addition, since the movement route is determined so that the movement distance is the shortest, it is possible to accelerate the progress to the destination while effectively utilizing the movement distance (parameter of the ability value) of the operation target object.

Further, in the game program of the present invention, preferably, the movement route determination processing unit has an inaccessible area in which the operation target object cannot enter between the display position of the operation target object and the display position of the movement instruction object. If it exists, it is determined so that the movement distance is the shortest while bypassing the inaccessible area on the movement route.

As a result, even if there is an inaccessible area in the traveling direction, the player only needs to indicate the destination, and it is not necessary to instruct the route along the way, so that the convenience of the player can be improved. In addition, since the movement route is determined so that the movement distance is the shortest, it is possible to accelerate the progress to the destination while effectively utilizing the movement distance (parameter of the ability value) of the operation target object.

Further, the game program of the present invention preferably further functions the information processing apparatus as a second display processing unit that displays the movement route determined by the movement route determination processing unit.

As a result, the player can operate the movement of the movement instruction object while confirming the automatically set movement route, so that the convenience of the player can be improved. For example, when there is an inaccessible area in the traveling direction and the route is detoured, it is possible to change the destination so as to avoid it.

Further, the game program of the present invention preferably further functions the information processing device as a third display processing unit that displays the movable range of the operation target object.

As a result, the player can operate the movement of the movement instruction object while recognizing the range in which the movement instruction object can be moved by referring to the displayed movable range, so that the convenience of the player can be improved. ..

In order to achieve the above object, the recording medium of the present invention is a recording medium that records the game program and can be read by an information processing apparatus.

In order to achieve the above object, the game processing method of the present invention is a game processing method executed by an information processing device that transmits and receives signals to and from a touch panel, and includes a step of detecting contact with the touch panel and the contact. A step of determining whether or not there is a change in the contact position from the start to the end of detection, and a step of displaying the operation target object and the movement instruction object for instructing the movement destination of the operation target object on the touch panel. When it is determined that there is no change in the contact position, the movement instruction object is placed in the contact position, and when it is determined that there is a change in the contact position, the movement instruction object is placed in the contact position. It has a step to move based on the fluctuation of.

According to the game program or the like of the present invention, it is possible to improve the visibility and simplicity when the player moves the object with his / her finger.

It is a system block diagram which shows an example of the whole structure of the game system which concerns on one Embodiment. It is explanatory drawing for demonstrating an example of the structure of one turn in a turn-based battle. It is explanatory drawing for demonstrating an example of a battle map screen. It is a block diagram showing an example of the functional configuration of the server related to the formation of a unit. It is explanatory drawing for demonstrating an example of a unit formation screen. It is explanatory drawing for demonstrating an example of a formation selection screen. It is explanatory drawing for demonstrating an example of a formation vassal selection screen. It is explanatory drawing for demonstrating an example of the confirmation display screen at the time of change of a vassal. It is explanatory drawing for demonstrating an example of the unit formation screen after formation change. It is explanatory drawing for demonstrating an example of the confirmation display screen at the time of formation change. It is a flowchart which shows an example of the processing procedure which concerns the formation of a unit executed by the CPU of a server. It is a block diagram showing an example of the functional configuration of the server related to the movement instruction of a unit. It is explanatory drawing for demonstrating an example of a movement instruction screen. It is explanatory drawing for demonstrating an example of the movement instruction screen when a player performs a tap operation. It is explanatory drawing for demonstrating an example of the movement instruction screen when a player performs a swipe operation. It is explanatory drawing for demonstrating an example of the movement instruction screen when a movement instruction is completed. It is explanatory drawing for demonstrating an example of the movement instruction screen in the case where the inaccessible area exists. It is a flowchart which shows an example of the processing procedure which concerns on the movement instruction of a unit executed by the CPU of a server. It is a block diagram which shows an example of the functional configuration of a server related to the switching of a control mode. It is explanatory drawing for demonstrating an example of pop-up display when there is no operation for a certain period of time during a battle. It is explanatory drawing for demonstrating an example of pop-up display when the 1st operation input is performed. It is a flowchart which shows an example of the processing procedure which concerns on the switching of the control mode executed by the CPU of a server. It is a block diagram which shows an example of the hardware configuration of a server.

Hereinafter, an embodiment of the present invention will be described with reference to the drawings.

<1. Overall configuration of the game system>
First, an example of the overall configuration of the game system 1 according to the present embodiment will be described with reference to FIG. As shown in FIG. 1, the game system 1 has a plurality of terminal devices 3 and a server 5. The plurality of terminal devices 3 and the server 5 are connected so as to be able to communicate with each other via a network NW such as a LAN or the Internet. Although the server 5 is composed of one computer in FIG. 1, it may be composed of a plurality of computers.

The terminal device 3 is, for example, a smartphone, a tablet computer, a portable game machine, or the like. The terminal device 3 has a touch panel 7 on which various displays and various input operations by the user are performed. The user performs a desired operation input by touching the touch panel 7 with a finger, a pen, or the like.

The detection method of the touch panel 7 is not particularly limited, but various detection methods such as a resistance film method, a capacitance method, an optical method, and an electromagnetic induction method can be adopted. The terminal device 3 may include an input unit such as a button or a switch in addition to the touch panel 7.

The server 5 (an example of an information processing device) receives access from the terminal device 3 of each user who receives the game service via the network NW, stores and manages the game information of each user in the storage device, and manages each user. Provides game services via network NW.

As a form of providing a game service by the server 5, a game program (also referred to as application software) is implemented in the server 5, and the user's operation input is performed on the terminal device 3 instead of executing the game on the terminal device 3. There is a form in which a game is executed on the server 5 according to the above and the execution result is transmitted to the terminal device 3 of each user. For example, the server 5 provides a so-called browser game in which a game can be played by a web browser mounted on the terminal device 3 of each user. Alternatively, the server 5 may provide a so-called cloud gaming service in which the game video as a result of executing the game on the server 5 is transmitted to the terminal device 3 in, for example, a streaming format. A part of the game program may be installed in the terminal device 3 so that the game execution process is partially performed not only in the server 5 but also in the terminal device 3.

<2. Outline of the game>
Next, with reference to FIGS. 2 and 3, an example of the outline content of the game according to the present embodiment, that is, the game provided to each terminal device 3 when the game program of the present invention is executed by the server 5. explain.

In the game according to this embodiment, a plurality of players are divided into a plurality of groups (for example, historical daimyo), and each player gathers and trains vassals such as military commanders, or creates a unit to play with other daimyo. It is a so-called Sengoku simulation game that expands the territory of the daimyo family served by the player by engaging in battles.

Each player creates one or more units and collaborates with other player's units belonging to the same group (same daimyo, etc.) to battle in real time with the player's units belonging to other groups (other daimyo, etc.). I do. As shown in FIG. 2, in a battle, an input phase in which each player instructs and inputs a movement, a strategy, etc. to his or her unit, and a solution in which the input results are reflected on the display of each terminal device 3. A so-called turn-based battle is adopted in which turns consisting of phases are repeated a predetermined number of times.

FIG. 3 shows an example of the battle map screen. In this example, on the game field GF, there are a plurality of (five in this example) friendly units 9, a plurality of (five in this example) enemy units 11, a friendly main team 13, and an enemy main team 15. Have been placed. In the ally unit 9 operated by the player, an object 17 indicating that the ally unit 9 (player character) is one's own ally unit 9 is displayed. Further, on the battle map screen, a mini-map 19 that can confirm the current location of each unit and the position of the main team is displayed.

At the bottom of the battle map screen, a plurality of (four in this example) buttons 21, 23, 25, 27 for the player to input instructions are displayed. The "camp" button 21 is a button for setting up a team of allies at a desired position. The "move" button 23 is a button for moving the ally unit 9 to a desired position. The "strategy" button 25 is a button for executing a strategy such as a fire meter, a water meter, a surprise attack, or an ambush. The "call" button 27 is a button for displaying a messenger to players of the ally unit 9 other than the player. Buttons other than the above may be provided. In this embodiment, the "camp" is a base where a friendly unit 9 or an enemy unit 11 is stationed for attacking or defending an opponent's unit in a battle, and is also called a camp, a camp, or a camp.

Each player gives an instruction to his / her ally unit 9 by using the buttons 21, 23, 25, 27, etc. during the input phase. These instruction information is sequentially transmitted to the server 5 and processed. Then, when the instruction input completion operation is performed by each player for all the ally units 9, or when the time limit of the input phase elapses, the process shifts to the resolution phase. At the time of this transition, the server 5 provides information representing the result of instruction input by each player (for example, which unit moves to which position, which enemy is attacked, what kind of victory or defeat, etc.). , Is transmitted to each terminal device 3 all at once. The terminal device 3 displays the result based on the information received from the server 5.

At this time, the terminal device 3 generates 3D display data based on the information received from the server 5 by using a standard specification for displaying 3D computer graphics on a web browser such as WebGL, and a touch panel. It may be displayed in 7. In this case, since the three-dimensional display data is generated on the terminal device 3 side, the communication data can be reduced in weight and the communication speed can be reduced as compared with the case where the server 5 generates the three-dimensional display data and transmits the three-dimensional display data to each terminal device 3. 3D expression on the browser becomes possible while increasing the speed.

Victory conditions and defeat conditions are set in advance for the battle, and if the conditions are met, the ally's army will win or defeat. For example, if the enemy's main team 15 is dropped within the specified turn, or if the number of owned teams of the ally's team exceeds the enemy at the end of the specified turn, the ally's army wins. On the other hand, if the main team 13 of the ally is dropped within the specified turn, or the number of enemy teams owned exceeds the ally at the end of the specified turn, etc., the ally's army is defeated. In addition, victory conditions and defeat conditions other than these may be set.

The above is the outline content of the game according to the present embodiment, but the content of the feature portion will be described in detail below.

<3. Functional configuration of servers involved in unit formation>
In the game according to the present embodiment, each player can customize the formation of his / her ally unit 9 before participating in the battle and in the input phase during the battle. Next, among the functional configurations of the server 5, an example of the functional configuration mainly related to the formation of the unit will be described with reference to FIGS. 4 to 10.

As shown in FIG. 4, the server 5 includes a unit formation processing unit 29, an attribute setting processing unit 31, a vassal parameter specification processing unit 33, a reflection degree setting processing unit 35, a unit parameter determination processing unit 37, and a formation. It has a setting processing unit 39, a formation selection processing unit 41, a first organization change processing unit 43, a first confirmation display processing unit 45, a second organization change processing unit 47, and a second confirmation display processing unit 49.

The unit formation processing unit 29 (an example of a group formation processing unit) forms an ally unit 9 (an example of a group) by associating a plurality of vassals (an example of an object) with a plurality of frames.

FIG. 5 shows an example of a unit formation screen displayed by the unit formation processing unit 29. The player can open this unit formation screen by a predetermined operation input at any timing including during and outside the battle. As shown in FIG. 5, eight frames 51a to 51h for associating eight vassals including a guest general are displayed on the unit formation screen. The unit formation processing unit 29 forms a friendly unit 9 by associating these frames 51a to 51h with the vassals A to H selected by the player.

Returning to FIG. 4, the attribute setting processing unit 31 sets attributes in each of the plurality of frames. In this embodiment, for example, "general", "soldier", "attack", "defense", "knowledge", "speed", and "support" are prepared as the attributes of the frame, and the attribute setting processing unit 31 is used. These attributes are set in the frames 51a to 51h according to the formation selected by the player. In addition, attributes other than the above may be set.

For example, in the example shown in FIG. 5, a square formation (see also FIG. 6 described later) is selected, and the attributes “general”, “soldier”, and “soldier” are assigned to each of the frames 51a to 51h according to the formation. , "Attack", "Defense", "Knowledge", "Speed", and "Support" are set respectively.

Returning to FIG. 4, the vassal parameter specifying processing unit 33 (an example of the object parameter specifying processing unit) has a plurality of vassal parameters (object parameters) representing the ability values of the vassals based on the attributes set by the attribute setting processing unit 31. From one example), at least one vassal parameter to be reflected in the unit parameter (an example of the group parameter) representing the ability value of the ally unit 9 is specified.

In this embodiment, for example, "soldier", "attack", "defense", "knowledge", and "speed" are prepared as vassal parameters (see FIG. 7 described later). "Soldier" stands for physical strength (also called endurance or hit points), "attack" stands for offensive power, "defense" stands for defensive power, "intelligence" stands for intelligence, and "speed" stands for speed. The vassal parameter specifying processing unit 33 selects from the above vassal parameters "soldier", "attack", "defense", "knowledge", and "speed" of the vassal associated with the frame according to the attribute of the frame. Identify one or more vassal parameters to be reflected in the unit parameters of friendly unit 9.

For example, in the example shown in FIG. 5, since the attribute "general" is set in the frame 51a, all the vassal parameters "soldier", "attack", "defense", and "defense" of the vassal A associated with the frame 51a are set. "Knowledge" and "speed" are specified as parameters to be reflected in the unit parameters. Further, since the attribute "soldier" is set in the frames 51b and 51c, the "soldier" in the vassal parameters of the vassals B and C associated with the frames 51b and 51c is used as a parameter to be reflected in the unit parameter. Be identified. Further, since the attribute "attack" is set in the frame 51d, "attack" in the vassal parameters of the vassal D associated with the frame 51d is specified as a parameter to be reflected in the unit parameter. Further, since the attribute "Mamoru" is set in the frame 51e, "Mamoru" in the vassal parameters of the vassal E associated with the frame 51e is specified as a parameter to be reflected in the unit parameter. Further, since the attribute "knowledge" is set in the frame 51f, "knowledge" in the vassal parameters of the vassal F associated with the frame 51f is specified as a parameter to be reflected in the unit parameter. Further, since the attribute "speed" is set in the frame 51g, "speed" in the vassal parameters of the vassal G associated with the frame 51g is specified as a parameter to be reflected in the unit parameter. Further, since the attribute "support" is set in the frame 51h, all the vassal parameters "soldier", "attack", "defense", "knowledge", and "speed" of the vassal H associated with the frame 51h are set. Is specified as a parameter to be reflected in the unit parameters.

Returning to FIG. 4, the reflection degree setting processing unit 35 represents the degree to which the vassal parameters specified by the vassal parameter specifying processing unit 33 are reflected in the unit parameters based on the attributes set by the attribute setting processing unit 31. Set the degree of reflection. In the present embodiment, the reflection degree is set to 30% in the case of the frame in which the attribute "general" is set, and the reflection degree is set to 20% in the case of the frame in which the attribute "support" is set. In the case of frames with other attributes "Soldier", "Attack", "Defense", "Intelligence", and "Speed", the degree of reflection is set to 100% (Fig. 6 below). reference).

The unit parameter determination processing unit 37 (an example of the group parameter determination processing unit) has the reflection degree set by the reflection degree setting processing unit 35 and the vassal parameters of each vassal specified by the vassal parameter identification processing unit 33. Based on this, determine the unit parameters.

For example, in the example shown in FIG. 5, the unit parameters of ally unit 9 are level 14, "soldier" is 650, "attack" is 135, "defense" is 120, "knowledge" is 129, and "speed" is 128. These are displayed on the parameter display unit 52. The level of friendly unit 9 is the total value of the levels of each vassal A to H. Each value of "soldier", "attack", "defense", "knowledge", and "speed" of the ally unit 9 is determined by the unit parameter determination processing unit 37 according to the following equation.

Unit "Soldier" = Vassal A "Soldier" x 0.3 + Vassal B "Soldier" + Vassal C "Soldier" + Vassal H "Soldier" x 0.2
Unit "attack" = vassal A "attack" x 0.3 + vassal D "attack" + vassal H "attack" x 0.2
Unit "Mamoru" = Vassal A "Mamoru" x 0.3 + Vassal E "Mamoru" + Vassal H "Mamoru" x 0.2
Unit "Knowledge" = Vassal A "Knowledge" x 0.3 + Vassal F "Knowledge" + Vassal H "Knowledge" x 0.2
Unit "speed" = vassal A "speed" x 0.3 + vassal G "speed" + vassal H "speed" x 0.2

That is, regarding the vassal parameters of the vassal A placed in the "general" frame 51a, all the items are reflected in all the unit parameter items at a rate of 30%, respectively, and the vassal H placed in the "support" frame 51h. As for the vassal parameters of, all items are reflected in all the items of the unit parameters at a rate of 20% each. In addition, regarding the vassal parameters of vassals B to G placed in the frames 51b to 51g of "soldier", "attack", "defense", "knowledge", and "speed", the same items as the attributes of the frame are 100%. It is reflected in the corresponding item of the unit parameter at the rate of.

Returning to FIG. 4, the formation setting processing unit 39 (an example of the frame type setting processing unit) sets a plurality of types of formations (an example of the frame type) that define the arrangement mode of the plurality of types of frames having different attributes. Further, the formation selection processing unit 41 (an example of the frame type selection processing unit) selects a formation from a plurality of types of formations set by the formation setting processing unit 39 based on the operation input of the player.

FIG. 6 shows an example of a formation selection screen displaying a list of formations set by the formation setting processing unit 39. As shown in FIG. 6, in this embodiment, one of the attributes "general", "soldier", "soldier", "attack", "defense", "knowledge", "speed", and "support" is set. As formations that define the arrangement mode of each frame 51a to 51h, for example, horizontal formation, square circle formation, clerical formation, crane wing formation, 鋒 葉 formation, Kogetsu formation, vertical formation, etc. are prepared. .. In addition, formations other than the above may be set. Each formation has its own characteristics. For example, in the horizontal formation and the formation of the arrow, the attribute of "attack" is set in multiple frames, and the attack power is relatively high. Also, in the square circle, the attribute of "soldier" is set in multiple frames, and the durability is relatively high. In addition, in the camp of the intellectuals and the camp of Kogetsu, the attribute of "intelligence" is set in multiple frames, and the intelligence is relatively high. In addition, in the Tsuru Tsubasa team, the attribute of "defense" is set in multiple frames, and the defensive power is relatively high. Also, in the line of battle, the attribute of "speed" is set in multiple frames, and the speed is relatively high. The spot colors of each formation are displayed on the spot color display unit 53 so that the player can see them at a glance. Further, in each formation, a shape display unit 55 showing a schematic shape and attributes and reflection degrees of each of the frames 51a to 51h are displayed.

The player can select a formation by performing a predetermined operation input (for example, touching a specific formation with a finger) on the formation selection screen. FIG. 5 above is a unit formation screen when a square circle is selected.

In the example shown in FIG. 6, the attribute of the leftmost frame 51a is fixed to "general" and the attribute of the rightmost frame 51h is fixed to "support" in all formations, and the attributes of the frames 51b to 51g are arranged between them. Although it is stipulated that only change, the arrangement of the "general" and "support" attributes at both ends may also be changed according to the formation. In addition, in all formations, the degree of reflection of "general" is fixed at 30%, the degree of reflection of "support" is fixed at 20%, and the degree of reflection of other attributes is fixed at 100%. It may be changed according to the formation.

Returning to FIG. 4, the first formation change processing unit 43 changes the vassal associated with the predetermined frame to another vassal based on the operation input of the player during the formation of the unit by the unit formation processing unit 29. .. Further, the first confirmation display processing unit 45 displays both the unit parameters before the vassal change and the unit parameters after the vassal change by the first organization change processing unit 43.

FIG. 7 shows an example of the organization vassal selection screen displayed by the first organization change processing unit 43. FIG. 7 shows a case where the vassal D of the frame 51d in which the attribute of “attack” is set is changed to another vassal on the unit formation screen shown in FIG. This formation vassal selection screen can be opened by the player performing a predetermined operation input (for example, touching the frame 51d with a finger) on the unit formation screen shown in FIG.

As shown in FIG. 7, various parameters of the vassal D to be changed and the physical strength gauge 56 are displayed on the parameter display unit 57 at the upper part of the organization vassal selection screen. In this example, the vassal parameters of vassal D are level 2, "soldier" is 206, "attack" is 92, "defense" is 24, "knowledge" is 12, "speed" is 46, and "attack". It is shown by the reflection degree display unit 59 that the value of is reflected in the unit parameter at a rate of 100%. Further, the "remove" button 61 is displayed on the parameter display unit 57, and the player can release the association of the vassal D with respect to the frame 51d by touching the "remove" button 61. When released, the frame 51d becomes an empty frame to which the vassals are not associated.

At the bottom of the formation vassal selection screen, other vassals that replace vassal D are displayed in descending order of attack power in this example. In the example shown in FIG. 7, three vassals C, vassals I, and vassals J are displayed on the parameter display units 63, 65, and 67 together with the parameters, etc., in descending order of attack power from the plurality of vassals possessed by the player. ing. The vassal C is a vassal associated with the frame 51c in which the attribute of "soldier" is set. The conditions for the order of these vassals can be set by the player to desired conditions using the pull-down menu 69. For example, when changing the vassals of the frame 51f in which the attribute of "intelligence" is set, the order of the highest intellect, and when changing the vassals of the frame 51e in which the attribute of "defense" is set, the order of the highest defensive power. , And so on.

The player cancels the association of the vassal D with respect to the frame 51d by pressing the "remove" button 61, and then performs a predetermined operation input (for example, touching any of the parameter display units 63, 65, 67 with a finger). , A vassal to be newly associated with the frame 51d can be selected. For example, in the example shown in FIG. 7, when the vassal I or the vassal J is selected, the vassal I or the vassal J is newly associated with the frame 51d. Further, for example, when the vassal C is selected, the vassal C is automatically released from the frame 51c of the attribute of "soldier" and newly associated with the frame 51d. In this case, the frame 51c is an empty frame.

The player can switch the vassals between the two frames by touching the replacement button 71. For example, in the example shown in FIG. 7, when the replacement button 71 is touched after the selection of the vassal C, the vassal D and the vassal C are swapped. That is, the vassal D moves from the frame 51d to the frame 51c, and the vassal C moves from the frame 51c to the frame 51d.

FIG. 8 shows an example of a confirmation display screen displayed by the first confirmation display processing unit 45 when the vassal D and the vassal C are exchanged. As shown in FIG. 8, on the confirmation display screen, both the unit parameters before the replacement of the vassals D and C and the unit parameters after the replacement are displayed in a comparable manner. In this case, since the "attack" value 98 of the vassal parameter of the vassal C is 6 higher than the "attack" value 92 of the vassal D, the "attack" value of the unit parameter increases by 6. On the other hand, since the value 206 of the vassal parameter "soldier" of the vassal C and the value 206 of the "soldier" of the vassal D are equal, the value of the "soldier" of the unit parameter is constant. Also, other unit parameters do not change. Therefore, the above-mentioned change of vassals is effective, for example, when it is desired to make the best use of the ability of vassal C (highest attack power). Further, in the example shown in FIG. 8, the value of "attack" that has increased after the formation change is highlighted. The player can close the confirmation display screen by touching the confirmation button 73.

Returning to FIG. 4, the second formation change processing unit 47 changes the formation to another formation based on the operation input of the player during the formation of the unit by the unit formation processing unit 29. The second confirmation display processing unit 49 displays both the unit parameters before the change and the unit parameters after the change by the second organization change processing unit 47.

FIG. 9 shows an example of a unit formation screen when the formation is changed by the second formation change processing unit 47 (in this example, the formation is changed from a square formation to a horizontal formation) from the state shown in FIG. The player can open the formation selection screen shown in FIG. 6 and change the formation by performing a predetermined operation input (for example, touching the formation display unit 75 with a finger) on the unit formation screen. The player can change the formation at any time, including during and outside the battle.

FIG. 10 shows an example of a confirmation display screen displayed by the second confirmation display processing unit 49 when the formation is changed from the formation of the square to the horizontal formation. As shown in FIG. 10, both the unit parameters before the formation change and the unit parameters after the change are displayed in a comparable manner on the confirmation display screen. As shown in FIGS. 5 and 9 (see also FIG. 6), the difference between the square and horizontal teams is that the attribute of the frame 51c changes from "soldier" to "attack". Since the value of the vassal parameter "attack" of the vassal C associated with the frame 51c is 98, the value of the unit parameter "attack" increases by 98 due to the above formation change. On the other hand, since the value of the vassal parameter "soldier" of vassal C is 206, the value of the unit parameter "soldier" is reduced by 206 due to the above formation change. Other unit parameters do not change. Therefore, the above change in formation is effective when, for example, the durability of a unit may be sacrificed to some extent and the attack power is to be increased. Further, in the example shown in FIG. 10, the value of "attack" that has increased after the formation change is highlighted, and the value of "soldier" that has decreased is displayed in an identifiable manner. The player can close the confirmation display screen by touching the confirmation button 73.

Although not described above, for example, a button such as "Leave it to me" may be provided to automatically organize a vassal according to the formation selected by the player. In that case, for example, the vassal with the highest attribute set in each frame is automatically associated with the frame, or if there are multiple frames with the same attribute, the vassals with the highest attribute are associated with those frames in order. Alternatively, a vassal with a well-balanced vassal parameter or a vassal with the highest level may be associated with the "general" frame, or a vassal with special skills may be associated with the "support" frame.

The processes and the like in each of the above-described processing units are not limited to the example of sharing these processes, and may be processed by, for example, a smaller number of processing units (for example, one processing unit). Further, it may be processed by a further subdivided processing unit. Further, the functions of the above-mentioned processing units are implemented by a game program executed by the CPU 501 (see FIG. 23 described later) described later, but some of them are, for example, dedicated integrated circuits such as ASICs and FPGAs, and others. It may be implemented by an actual device such as an electric circuit of. Further, each of the processing units described above is not limited to the case where all of them are mounted on the server 5 side, and a part or all of them may be mounted on the terminal device 3 side.

<4. Processing procedure related to the formation of units executed by the server>
Next, with reference to FIG. 11, an example of a processing procedure related to the formation of a unit executed by the CPU 501 of the server 5 will be described.

In step S5, the server 5 displays the unit formation screen by the unit formation processing unit 29. This unit formation screen can be opened at any time, including during and outside the battle, by a predetermined operation input of the player.

In step S10, the server 5 determines whether or not to change the formation of the unit based on the operation input of the player. For example, when the player inputs an operation for changing the vassal associated with any of the frames or an operation input for changing the formation (step S10: YES), the next step S15 is performed. Moving. On the other hand, if there is no operation input as described above (step S10: NO), this flow ends.

In step S15, the server 5 determines whether or not to change the vassal based on the operation input of the player. When the player inputs an operation for changing the vassal (step S15: YES), the player moves to the next step S20. On the other hand, if there is no operation input as described above (step S15: NO), the process proceeds to step S35 described later.

In step S20, the server 5 changes the vassal associated with the predetermined frame to another vassal based on the operation input of the player by the first organization change processing unit 43.

In step S25, the server 5 is subjected to the above step by the attribute setting processing unit 31, the vassal parameter specifying processing unit 33, the reflection degree setting processing unit 35, the unit parameter determination processing unit 37, the formation setting processing unit 39, and the formation selection processing unit 41. The vassal parameters of the vassals changed in S20 are reflected in the unit parameters.

In step S30, the server 5 compares both the unit parameters before the reflection by the step S25 (before the change of the vassal) and the unit parameters after the reflection by the step S25 (after the change of the vassal) by the first confirmation display processing unit 45. Confirm and display as possible.

In step S35, the server 5 determines whether or not to change the formation based on the player's operation input. When the player inputs an operation for changing the formation (step S35: YES), the player moves to the next step S40. On the other hand, if there is no operation input as described above (step S35: NO), this flow ends.

In step S40, the server 5 changes the formation to another formation based on the player's operation input by the second formation change processing unit 47.

In step S45, the server 5 is subjected to the above step by the attribute setting processing unit 31, the vassal parameter specifying processing unit 33, the reflection degree setting processing unit 35, the unit parameter determination processing unit 37, the formation setting processing unit 39, and the formation selection processing unit 41. The formation changed in S40 is reflected in the unit parameters.

In step S50, the server 5 compares both the unit parameters before reflection (before formation change) in step S45 and the unit parameters after reflection (after formation change) in step S45 by the second confirmation display processing unit 49. Confirm and display as possible. Then, this flow ends.

In the above, the case of changing the formation of the unit was explained, but the same process as above is also executed when a new unit is formed (for example, when a vassal is set in an empty frame). .. However, in this case, the steps S30 and S50 are omitted.

The above-mentioned processing procedure is an example, and at least a part of the above-mentioned procedure may be deleted or changed, or a procedure other than the above may be added. Further, the order of at least a part of the above procedures may be changed, or a plurality of procedures may be combined into a single procedure.

<5. Functional configuration of the server related to the movement instruction of the unit>
In the game according to the present embodiment, each player can give a simple and accurate movement instruction to his / her ally unit 9 in the input phase during the battle by intuitive operation. Next, among the functional configurations of the server 5, an example of the functional configuration mainly related to the movement instruction of the unit will be described with reference to FIGS. 12 to 17.

As shown in FIG. 12, the server 5 includes a first display processing unit 77, a third display processing unit 79, a detection processing unit 81, a fluctuation determination processing unit 83, a first movement processing unit 85, and a movement route. It has a determination processing unit 87, a second display processing unit 89, a movement destination determination processing unit 91, a second movement processing unit 93, and an instruction cancellation processing unit 95.

The first display processing unit 77 displays on the touch panel 7 a cursor 97 (an example of a movement instruction object) for instructing a movement destination of its own ally unit 9 (an example of an operation target object) and the ally unit 9. When a movement instruction is given on the battle map screen and the movement instruction screen is displayed, the own ally unit 9 is displayed with the substantially center position of the touch panel 7 as the initial position, and the cursor 97 is initially displayed on the ally unit 9, for example. Displayed as a position. It should be noted that another position on the touch panel 7 may be used as the initial position of the ally unit 9 or the cursor 97.

The third display processing unit 79 displays the movable range 99 of its own ally unit 9. The movable range 99 is drawn as a circle centered on the display position of the ally unit 9, for example, with the movable distance of the ally unit 9 as the radius. However, it may be drawn as a figure other than a circle. The range of movement is set as one of the unit parameters for each unit.

FIG. 13 shows an example of a movement instruction screen. This movement instruction screen is displayed, for example, when the "move" button 23 (see FIG. 3) is touched on the battle map screen. As shown in FIG. 13, the first display processing unit 77 displays his / her ally unit 9 together with the object 17 at a substantially central position on the movement instruction screen. Further, the first display processing unit 77 displays a cursor 97 on the ally unit 9 for instructing the movement destination. In the example shown in FIG. 13, the cursor 97 is drawn as a flag figure, but it may be another figure. Further, the movable range 99 of the ally unit 9 is displayed as a circle centered on the initial position of the ally unit 9 by the third display processing unit 79.

Returning to FIG. 12, the detection processing unit 81 detects a touch (contact) with the touch panel 7. The touch here includes a touch (so-called tap, click, etc., hereinafter referred to as "tap operation" as appropriate) in which there is no position change on the touch panel from the start to the end of contact detection, or the contact starts. A touch (so-called swipe, drag, flick, slide, etc., hereinafter appropriately referred to as "swipe operation") in which the position changes on the touch panel between the time when the touch panel is pressed and the time when the touch panel is finished is included.

The variation determination processing unit 83 determines whether or not there is a variation in the touch position (position where contact is detected) from the start to the end of touch detection. That is, the fluctuation determination processing unit 83 determines whether the touch detected by the detection processing unit 81 is a tap operation or a swipe operation.

The first movement processing unit 85 is displayed by the first display processing unit 77 when it is determined by the fluctuation determination processing unit 83 that there is no change in the touch position, that is, when the tap operation is performed by the player. Place the cursor 97 at the touch position (tap position). Further, the first movement processing unit 85 is displayed by the first display processing unit 77 when it is determined by the fluctuation determination processing unit 83 that there is a change in the touch position, that is, when the swipe operation is performed by the player. The cursor 97 is moved based on the fluctuation of the touch position.

The movement route determination processing unit 87 determines the movement route so that the movement distance of the ally unit 9 is the shortest based on the display position of the ally unit 9 and the display position of the cursor 97. Therefore, in principle, the movement route is a straight line, but if there is an inaccessible area 101 between the display position of the ally unit 9 and the display position of the cursor 97, the movement route determination processing unit 87 moves. It is determined that the travel distance is the shortest while bypassing the inaccessible area 101 on the route. The inaccessible area 101 is an area that cannot be entered due to topographical factors such as mountains, seas, rivers, rocks, and trees, and an area that cannot be entered due to buildings such as enemy camps and forts.

The second display processing unit 89 displays the route determined by the movement route determination processing unit 87 as the movement route 103.

FIG. 14 shows an example of a movement instruction screen when the player performs a tap operation. As shown in FIG. 14, when the player taps an arbitrary position within the movable range 99 with the finger 105, the cursor 97 is arranged at the tap position by the first movement processing unit 85. In other words, the cursor 97 momentarily moves from the initial position (position on the ally unit 9) to the tap position. The player can perform the tap operation as many times as necessary, and the cursor 97 is arranged at the tap position each time. When the player taps the outside of the movable range 99, the cursor 97 may not be arranged (does not move from the initial position) as shown in FIG. 18 described later, or within the movable range 99. The cursor 97 may be placed by detecting the position closest to the tap position.

Further, in the example shown in FIG. 14, since the inaccessible area 101 does not exist between the ally unit 9 and the cursor 97 arranged by tapping, the movement route determination processing unit 87 moves the straight line connecting the ally unit 9 and the cursor 97. It is determined as a route, and the route is displayed as a movement route 103 by the second display processing unit 89.

FIG. 15 shows an example of a movement instruction screen when the player swipes. Note that FIG. 15 shows a case where the swipe operation is performed from the state where the cursor 97 is arranged at the tap position shown in FIG. As shown in FIG. 15, when the player swipes at an arbitrary position on the touch panel 7 with the finger 105, the cursor 97 moves according to the swipe operation by the first movement processing unit 85. That is, the cursor 97 moves from the displayed position so as to draw a locus substantially the same as the fluctuation of the touch position in the swipe operation.

The position where the swipe operation is performed may be inside or outside the movable range 99. Further, the player can perform the swipe operation as many times as necessary, and the cursor 97 moves according to the swipe operation each time. Further, the player can repeat the tap operation and the swipe operation many times while appropriately interweaving them. For example, the cursor 97 temporarily placed at an appropriate position by one or multiple tap operations is finely adjusted by one or multiple swipe operations, and then moved to another position by one or multiple tap operations again. It is possible to temporarily arrange the cursor 97 and make fine adjustments by swiping once or a plurality of times. When the swipe operation is performed so that the cursor 97 moves to the outside of the movable range 99, the cursor 97 may be stopped at the edge of the movable range 99, or the position before the start of the swipe operation. You may return to.

Although FIG. 15 shows a case where the temporarily placed cursor 97 is further moved by a swipe operation, the cursor 97 displayed at the initial position can be directly moved by a swipe operation without performing the tap operation. It is possible. In this case as well, the player may perform a swipe operation at an arbitrary position on the touch panel 7.

Further, the movement route determination processing unit 87 determines a straight line connecting the cursor 97 and the ally unit 9 that moves according to the swipe operation as the movement route, and the second display processing unit 89 determines the movement route 103 while moving. Is displayed.

Returning to FIG. 12, the movement destination determination processing unit 91 determines the movement destination of the ally unit 9 at the display position of the cursor 97 based on the operation input of the player. Further, the second movement processing unit 93 moves the ally unit 9 to the display position of the cursor 97 when the movement destination is determined by the movement destination determination processing unit 91.

The instruction cancellation processing unit 95 cancels the instruction of the movement destination by the cursor 97 based on the operation input of the player. In this case, the first movement processing unit 85 arranges the cursor 97 at the display position of the ally unit 9. That is, the cursor 97 is returned to the initial position.

FIG. 16 shows an example of a movement instruction screen when the movement instruction is completed. As shown in FIG. 16, the "instruction complete" button 107 and the "instruction cancel" button 109 are displayed at the bottom of the movement instruction screen. When the player touches the "instruction complete" button 107 after moving the cursor 97 to a desired position by tapping or swiping, the movement destination determination processing unit 91 determines the movement destination of the ally unit 9 to the display position of the cursor 97. Will be done. As a result, as shown in FIG. 16, the ally unit 9 is moved to the destination determined by the second movement processing unit 93.

On the other hand, when the player touches the "instruction cancel" button 109 after moving the cursor 97 to a desired position by a tap operation or a swipe operation, the cursor 97 is returned to the initial position by the first movement processing unit 85, and the above-mentioned figure is shown. The screen display shown in 13 is obtained. As a result, after that, the cursor 97 can be used to redo the instruction of the movement destination, or to input an instruction other than the movement (for example, a strategy, a camp, etc.).

FIG. 17 shows an example of a movement instruction screen when an inaccessible area 101 exists between the ally unit 9 and the cursor 97. In the example shown in FIG. 17, an inaccessible area 101 (river in this example) exists between the ally unit 9 and the cursor 97. Therefore, the movement route 103 is determined so as to bypass the inaccessible area 101 and cross the bridge so that the movement distance is the shortest. At this time, since the movement route 103 has a longer detoured distance, for example, when the cursor 97 is placed near the edge of the movable range 99, the movement route 103 is larger than the movable distance of the ally unit 9. It may be large. In such a case, as shown in FIG. 17, the movement route 103 does not reach the cursor 97 and is displayed as a route halfway there.

The processes and the like in each of the above-described processing units are not limited to the example of sharing these processes, and may be processed by, for example, a smaller number of processing units (for example, one processing unit). Further, it may be processed by a further subdivided processing unit. Further, the functions of the above-mentioned processing units are implemented by a game program executed by the CPU 501 (see FIG. 23 described later) described later, but some of them are, for example, dedicated integrated circuits such as ASICs and FPGAs, and others. It may be implemented by an actual device such as an electric circuit of. Further, each of the processing units described above is not limited to the case where all of them are mounted on the server 5 side, and a part or all of them may be mounted on the terminal device 3 side.

<6. Processing procedure related to the movement instruction of the unit executed by the server>
Next, an example of the processing procedure related to the movement instruction of the unit executed by the CPU 501 of the server 5 will be described with reference to FIG.

In step S105, the server 5 displays the cursor 97 at the initial position on the touch panel 7 (position on the own ally unit 9) by the first display processing unit 77.

In step S110, the server 5 displays the movable range 99 of the ally unit 9 on the touch panel 7 by the third display processing unit 79.

In step S115, the server 5 determines whether or not the touch panel 7 is touched by the detection processing unit 81. If no touch is detected (step S115: NO), the process proceeds to step S145, which will be described later. On the other hand, when the touch is detected (step S115: YES), the process proceeds to the next step S120.

In step S120, the server 5 determines whether the touch detected in step S115 is a tap operation or a swipe operation by the fluctuation determination processing unit 83. If it is a tap operation, the process proceeds to the next step S123.

In step S123, the server 5 determines whether or not the position where the touch is detected is within the movable range 99. If the detection position is outside the movable range 99 (step S123: NO), the process returns to the previous step S115. On the other hand, if the detection position is within the movable range 99 (step S123: YES), the process proceeds to the next step S125.

In step S125, the server 5 arranges the cursor 97 at the tap position by the first movement processing unit 85. In other words, the cursor 97 displayed at the initial position in step S105 is instantaneously moved to the tap position. After that, the process proceeds to step S135 described later.

If the detected touch is a swipe operation in step S120, the process proceeds to the next step S130.

In step S130, the server 5 moves the cursor 97 by the first movement processing unit 85 so as to correspond to the swipe operation. After that, the process proceeds to the next step S135.

In step S135, the server 5 determines the movement route by the movement route determination processing unit 87 so that the movement distance of the ally unit 9 is the shortest based on the display position of the ally unit 9 and the display position of the cursor 97. ..

In step S140, the server 5 displays the movement path 103 determined in step S135 on the touch panel 7 by the second display processing unit 89.

In step S145, the server 5 determines whether or not to cancel the instruction of the movement destination by the cursor 97 by the instruction cancellation processing unit 95. When the "instruction cancel" button 109 is touched by the player (step S145: YES), the process returns to the previous step S105. As a result, the cursor 97 is returned to the initial position. On the other hand, if the "instruction cancel" button 109 is not touched by the player (step S145: NO), the process proceeds to the next step S150.

In step S150, the server 5 determines whether or not to complete the instruction of the movement destination of the ally unit 9 by the movement destination determination processing unit 91. If the "instruction complete" button 107 is not touched by the player (step S150: NO), the process returns to the previous step S115. On the other hand, when the "instruction complete" button 107 is touched by the player (step S150: YES), the process proceeds to the next step S155.

In step S155, the server 5 moves the ally unit 9 to the display position of the cursor 97 by the second movement processing unit 93. After that, this flow ends.

The above-mentioned processing procedure is an example, and at least a part of the above-mentioned procedure may be deleted or changed, or a procedure other than the above may be added. Further, the order of at least a part of the above procedures may be changed, or a plurality of procedures may be combined into a single procedure.

For example, in the above, the cursor 97 is first displayed at the initial position on the move instruction screen, and the cursor 97 is moved by tap operation or swipe operation, but for example, the cursor 97 is not displayed at first on the move instruction screen. , The cursor 97 may be displayed for the first time when the tap operation is performed.

<7. Functional configuration of the server related to switching control modes>
A manual control mode and an automatic control mode are implemented in the game according to the present embodiment, and each player uses the automatic control mode to advance the game without disturbing other players participating in the battle. can do. Next, among the functional configurations of the server 5, an example of the functional configuration mainly related to the switching of the control mode will be described with reference to FIGS. 19 to 21.

As shown in FIG. 19, the server 5 includes a game execution processing unit 111, an operation presence / absence determination processing unit 113, a mode switching processing unit 115, an automatic control display processing unit 117, and a first switching operation determination processing unit 119. The second switching operation determination processing unit 121 is provided.

The game execution processing unit 111 executes the game in a manual control mode in which the game is advanced based on the operation input of the player, or an automatic control mode in which the game is advanced without the operation input of the player. In the game according to the present embodiment, an automatic control mode is implemented in which the battle is automatically advanced without any operation input by the player. Regarding this automatic control mode, the player may be able to set how to proceed with the battle (for example, emphasis on attack, emphasis on defense, emphasis on strategy, etc.).

The operation presence / absence determination processing unit 113 determines whether or not any operation input by the player has been detected until the predetermined set time elapses. The predetermined set time may be set as, for example, the elapsed time from the last operation input, or, for example, the elapsed time from a predetermined event in the game (or the time until the predetermined event occurs). May be set as.

The mode switching processing unit 115 performs processing for switching between the manual control mode and the automatic control mode. In particular, when it is determined by the operation presence / absence determination processing unit 113 that no operation input has been detected, the manual control mode is switched to the automatic control mode.

The automatic control display processing unit 117 displays that the mode switching processing unit 115 has switched to the automatic control mode when the manual control mode is switched to the automatic control mode.

FIG. 20 shows an example of a display indicating that the automatic control has been switched to when there is no operation for a certain period of time during the battle. In the example shown in FIG. 20, a pop-up window 123 indicating that automatic control has been switched to is displayed on the battle map screen. The pop-up window is a window that appears to pop out in the foreground on the operation screen of the computer. That is, if there is no operation for a certain period of time during the battle in the manual control mode, the mode switching processing unit 115 automatically switches from the manual control mode to the automatic control mode, and then the automatic control display processing unit 117 displays the pop-up window. 123 is displayed. The OK button 125 is displayed on the pop-up window 123, and the player can erase the pop-up window 123 by touching the OK button 125. At that time, the screen displayed on the touch panel 7 automatically transitions from the battle map screen to another screen in the game (a screen other than the battle-related screen).

Returning to FIG. 19, the first switching operation determination processing unit 119 determines whether or not a predetermined first operation input for switching to the automatic control mode by the player has been detected until the set time elapses. .. The first operation input is, for example, an operation of transitioning from a battle map screen or other battle-related screens to another screen in the game (for example, a screen for performing domestic affairs). The first operation input may be an operation input other than the above. When it is determined by the first switching operation determination processing unit 119 that the first operation input is detected, the mode switching processing unit switches from the manual control mode to the automatic control mode. At this time, the automatic control display processing unit 117 displays that the automatic control has been switched to.

FIG. 21 shows an example of a display indicating that the automatic control has been switched to when the first operation input is performed during the battle. In the example shown in FIG. 21, a pop-up window 127 indicating that automatic control has been switched to is displayed on the screen for performing domestic affairs, for example, which has been transitioned from the battle-related screen. In addition, domestic affairs means, for example, creating facilities and divisions in a territory for the development of the territory. That is, the player can switch from the manual control mode to the automatic control mode at any timing during the battle (either the input phase or the resolution phase) by inputting the first operation, and in that case, the pop-up mentioned above. Window 127 is displayed. The OK button 129 is displayed in the pop-up window 127, and the player can erase the pop-up window 127 by touching the OK button 129.

In addition to the operation of transitioning from the battle-related screen to another screen in the game as the first operation input, the player may perform an operation such as closing the web browser during game execution or switching to another browser. It is also possible to switch from the manual control mode to the automatic control mode by input. However, in that case, the above pop-up window is not displayed.

Returning to FIG. 19, the second switching operation determination processing unit 121 determines whether or not a predetermined second operation input for switching to the manual control mode by the player is detected in the automatic control mode. The second operation input is, for example, an operation of transitioning from a screen other than the battle-related screen in the game (for example, a screen for performing domestic affairs) to a battle map screen or another battle-related screen. Also, if the automatic control mode is set by closing the web browser or switching to another browser as described above, the operation to start the web browser, execute the game, and then transition to the battle-related screen. And so on. The second operation input may be an operation input other than the above. When it is determined by the second switching operation determination processing unit 121 that the second operation input is detected, the mode switching operation processing unit 115 switches from the automatic control mode to the manual control mode.

The processes and the like in each of the above-described processing units are not limited to the example of sharing these processes, and may be processed by, for example, a smaller number of processing units (for example, one processing unit). Further, it may be processed by a further subdivided processing unit. Further, the functions of the above-mentioned processing units are implemented by a game program executed by the CPU 501 (see FIG. 23 described later) described later, but some of them are, for example, dedicated integrated circuits such as ASICs and FPGAs, and others. It may be implemented by an actual device such as an electric circuit of. Further, each of the processing units described above is not limited to the case where all of them are mounted on the server 5 side, and a part or all of them may be mounted on the terminal device 3 side.

<8. Processing procedure related to switching the control mode executed by the server>
Next, with reference to FIG. 22, an example of the processing procedure related to the switching of the control mode executed by the CPU 501 of the server 5 will be described.

In step S205, the server 5 determines whether the control mode is the manual control mode or the automatic control mode by the game execution processing unit 111. In the case of the manual control mode, the process proceeds to the next step S210, and the game is executed in the manual control mode.

In step S215, the server 5 determines whether or not the first operation input by the player, that is, the operation input for closing the web browser or switching to another browser, is detected by the first switching operation determination processing unit 119. When the operation input is detected (step S215: YES), the process proceeds to the next step S220, and the mode switching processing unit 115 switches from the manual control mode to the automatic control mode. After that, the process proceeds to step S265 described later.

On the other hand, if the operation input is not detected in step S215 (step S215: NO), the process proceeds to the next step S225.

In step S225, the server 5 determines whether or not the first operation input by the player, that is, the operation input for transitioning from the battle-related screen to another screen in the game, is detected by the first switching operation determination processing unit 119. judge. When the above operation input is detected (step S225: YES), the process proceeds to step S240 described later. On the other hand, if the operation input is not detected (step S225: NO), the process proceeds to the next step S230.

In step S230, the server 5 determines whether or not any operation input other than the first operation input by the player is detected by the operation presence / absence determination processing unit 113. If any operation input is detected (step S230: YES), the process proceeds to step S265 described later. On the other hand, if no operation input is detected (step S230: NO), the process proceeds to the next step S235.

In step S235, the server 5 determines whether or not a predetermined set time has elapsed by the operation presence / absence determination processing unit 113. If the set time has not elapsed (step S235: NO), the process proceeds to step S265 described later. On the other hand, if the set time elapses without detecting any operation input (step S235: YES), the process proceeds to the next step S240.

In step S240, the server 5 switches from the manual control mode to the automatic control mode by the mode switching processing unit 115.

In step S245, the server 5 displays a pop-up indicating that the automatic control has been switched to by the automatic control display processing unit 117. After that, the process proceeds to step S265 described later.

If the server 5 is in the automatic control mode in the previous step S205, the server 5 moves to the next step S250 and executes the game in the automatic control mode by the game execution processing unit 111.

In step S255, the server 5 uses the second switching operation determination processing unit 121 to input a second operation by the player, here, an operation input for transitioning from a screen other than the battle-related screen in the game to a battle-related screen, or a web browser. It starts up, executes the game, and determines whether or not the operation input that transitions to the battle-related screen is detected. When the operation input is detected (step S255: YES), the process proceeds to the next step S260, and the mode switching processing unit 115 switches from the automatic control mode to the manual control mode. After that, the process proceeds to step S265 described later. On the other hand, if the operation input is not detected (step S255: NO), the process proceeds to the next step S265.

In step S265, the server 5 determines whether or not the player has detected the end operation of the game. If the end operation is not detected (step S265: NO), the process returns to the previous step S205, and the same procedure is repeated. On the other hand, when the end operation is detected (step S265: YES), this flow is terminated.

The above-mentioned processing procedure is an example, and at least a part of the above-mentioned procedure may be deleted or changed, or a procedure other than the above may be added. Further, the order of at least a part of the above procedures may be changed, or a plurality of procedures may be combined into a single procedure.

<9. Server hardware configuration>
Next, an example of the hardware configuration of the server 5 that realizes each processing unit implemented by the program executed by the CPU 501 described above will be described with reference to FIG. 23. The terminal device 3 may have a similar hardware configuration.

As shown in FIG. 23, the server 5 includes, for example, a CPU 501, a ROM 503, a RAM 505, a GPU 506, a dedicated integrated circuit 507 constructed for a specific application such as an ASIC or FPGA, and an input device 513. It has an output device 515, a recording device 517, a drive 519, a connection port 521, and a communication device 523. These configurations are connected so that signals can be transmitted to each other via a bus 509, an input / output interface 511, and the like.

The game program can be recorded in, for example, a ROM 503, a RAM 505, a recording device 517, or the like.

Further, the game program is temporarily or permanently (non-temporarily) recorded on, for example, a magnetic disk such as a flexible disk, various CDs, MO disks, an optical disk such as a DVD, or a removable recording medium 525 such as a semiconductor memory. You can also keep it. Such a recording medium 525 can also be provided as so-called package software. In this case, the game program recorded on these recording media 525 may be read by the drive 519 and recorded on the recording device 517 via the input / output interface 511, the bus 509, or the like.

Further, the game program can be recorded on, for example, a download site, another computer, another recording device, or the like (not shown). In this case, the game program is transferred via a network NW such as LAN or the Internet, and the communication device 523 receives this program. The program received by the communication device 523 may be recorded in the recording device 517 via the input / output interface 511, the bus 509, or the like.

Further, the game program can be recorded in an appropriate externally connected device 527, for example. In this case, the game program may be transferred via an appropriate connection port 521 and recorded in the recording device 517 via the input / output interface 511, the bus 509, or the like.

Then, the CPU 501 executes various processes according to the program recorded in the recording device 517, thereby realizing the processes by the unit formation processing unit 29, the first display processing unit 77, the game execution processing unit 111, and the like. NS. At this time, for example, the CPU 501 may directly read the program from the recording device 517 and execute it, or may execute it after loading it into the RAM 505 once. Further, for example, when the CPU 501 receives the program via the communication device 523, the drive 519, or the connection port 521, the CPU 501 may directly execute the received program without recording it in the recording device 517.

Further, the CPU 501 is based on signals and information input from input devices 513 such as a mouse, keyboard, and microphone, if necessary, in addition to signals input from the touch panel 7 of each terminal device 3 via the network NW. Various processes may be performed.

The GPU 506 performs a process for displaying an image, such as a rendering process, in response to an instruction from the CPU 501.

Then, the CPU 501 and the GPU 506 output the result of executing the above processing to the touch panel 7 of each terminal device 3 via the network NW, and if necessary, an audio output unit such as a speaker or a headphone (shown). Output from the output device 515, including the output device 515. Further, the CPU 501 and the GPU 506 may transmit the processing result via the communication device 523 or the connection port 521 as necessary, or may record the processing result on the recording device 517 or the recording medium 525.

<10. Effect of embodiment>
In the game program of the present embodiment, the touch panel 7 and the server 5 that transmits / receives signals to the touch panel 7 have a detection processing unit 81 that detects a touch on the touch panel 7, and a change in the touch position between the start and the end of touch detection. The touch position is determined by the fluctuation determination processing unit 83, the first display processing unit 77 that displays the cursor 97 for instructing the movement destination of the ally unit 9 and the ally unit 9 on the touch panel 7, and the fluctuation determination processing unit 83. When it is determined that there is no change, the cursor 97 displayed by the first display processing unit 77 is placed at the touch position, and when it is determined that there is a change in the touch position, the cursor 97 is used for the change in the touch position. It functions as a first movement processing unit 85, which is moved based on the above.

As a result, the player can place the cursor 97 at the tapped position by tapping the touch panel 7 at an arbitrary position. Then, by performing a swipe operation at an arbitrary position on the touch panel 7, the cursor 97 arranged at a predetermined position can be moved according to the swipe operation by the above tap operation. Therefore, the player can easily place the cursor 97 at the movement destination by tapping even when the movement distance of the ally unit 9 is long. In this way, the cursor 97 can be easily temporarily arranged. It is also possible to rearrange the cursor 97 many times by performing this tap operation many times. Further, since the player can operate the movement of the cursor 97 by swiping the position away from the cursor 97, the player can operate the movement of the cursor 97 while visually recognizing the cursor 97, objects around it, the background, and the like. This makes it possible to fine-tune the position while looking at the temporarily placed cursor 97 by tapping. As described above, the visibility and simplicity when the player moves the ally unit 9 with his / her finger can be improved.

Further, in the present embodiment, in particular, in the game program, the server 5 has a movement destination determination processing unit 91 and a movement destination determination processing unit that determine the movement destination of the ally unit 9 at the display position of the cursor 97 based on the operation input of the player. When the movement destination is determined by 91, it further functions as a second movement processing unit 93 that moves the ally unit 9 to the display position of the cursor 97.

As a result, when the player completes the movement operation (tap operation, swipe operation) of the ally unit 9, the movement destination can be determined by a simple operation, and the ally unit 9 can be quickly moved to the desired position. Therefore, the convenience of the player can be improved. Further, since the movement destination is not determined until the player performs the determination operation, it is possible to consider the movement destination while repeating the movement operation of the ally unit 9, and the strategicity can be improved.

Further, in the present embodiment, in particular, the game program further functions the server 5 as an instruction canceling processing unit 95 for canceling the instruction of the moving destination by the cursor 97 based on the operation input of the player, and the first moving processing unit 85. , When the instruction of the movement destination is canceled by the instruction cancellation processing unit 95, the cursor 97 is placed at the display position of the ally unit 9.

As a result, for example, when the player wants to redo the movement operation of the cursor 97 or wants to cancel the movement of the ally unit 9, the player can cancel the movement instruction with a simple operation, and the cursor 97 can be moved to the initial position (turn start). It can be returned to the display position of the ally unit 9 at the time). Therefore, the convenience of the player can be improved.

Further, in the present embodiment, in particular, the game program determines the movement route of the server 5 based on the display position of the ally unit 9 and the display position of the cursor 97 so that the movement distance of the ally unit 9 is the shortest. Further functions as a movement route determination processing unit 87.

As a result, the movement route of the ally unit 9 is automatically determined. As a result, the player only needs to indicate the movement destination with the cursor 97, and does not need to instruct the route on the way, so that the convenience of the player can be improved. In addition, since the movement route is determined so that the movement distance is the shortest, it is possible to accelerate the progress to the destination while effectively utilizing the movement distance (unit parameter) of the ally unit 9.

Further, in the present embodiment, in particular, when the movement route determination processing unit 87 has an inaccessible area 101 between the display position of the ally unit 9 and the display position of the cursor 97, the movement route cannot be entered by the ally unit 9. It is determined that the moving distance is the shortest while bypassing the inaccessible area 101.

As a result, even when the inaccessible region 101 exists in the traveling direction, the player only needs to indicate the destination, and it is not necessary to indicate the route in the middle of the movement, so that the convenience of the player can be improved. In addition, since the movement route is determined so that the movement distance is the shortest, it is possible to accelerate the progress to the destination while effectively utilizing the movement distance (unit parameter) of the ally unit 9.

Further, in the present embodiment, in particular, the game program further functions the server 5 as a second display processing unit 89 that displays the movement route 103 determined by the movement route determination processing unit 87.

As a result, the player can operate the movement of the cursor 97 while checking the automatically set movement path 103, so that the convenience of the player can be improved. For example, when the inaccessible area 101 exists in the traveling direction and becomes a detour route, it is possible to change the movement destination so as to avoid it.

Further, in the present embodiment, in particular, the game program further functions the server 5 as a third display processing unit 79 that displays the movable range 99 of the ally unit 9.

As a result, the player can operate the movement of the cursor 97 while recognizing the range in which the cursor 97 can be moved by referring to the displayed movable range 99, so that the convenience of the player can be improved.

Further, according to the present embodiment, the following effects can be further obtained in addition to the effects described above.

In the game program of the present embodiment, the server 5 is associated with a plurality of vassals in a plurality of frames to form a ally unit 9, a unit formation processing unit 29, and an attribute setting processing unit in which attributes are set in each of the plurality of frames. 31. Vassal parameter identification processing unit 33, vassal that specifies at least one vassal parameter to be reflected in the unit parameter that represents the ability value of ally unit 9 from among a plurality of vassal parameters that represent the ability value of the vassal based on the attribute. It functions as a unit parameter determination processing unit 37 that determines unit parameters based on the vassal parameters of each vassal specified by the parameter specification processing unit 33.

As a result, for example, a vassal who specializes in a specific ability can be associated with a frame in which an attribute is set so that the ability is reflected in the unit parameter, and a friendly unit 9 is formed to increase the unit parameter. can. In addition, for example, by forming a unit 9 by associating a vassal with a high balance of multiple abilities with the vassal in a frame in which attributes such that those abilities are reflected in the unit parameters in a well-balanced manner are set. The parameters can be increased. In this way, by tactically assembling the frame to which the vassals are associated in the unit formation, it is possible to enhance the ability of the ally unit 9 so that the battlefield has an advantage, and thus the strategicity can be improved. In addition, since it becomes possible to effectively utilize the abilities of the vassals, the meaning of collecting many vassals with various abilities is strengthened. As a result, it becomes possible to motivate the player to acquire new vassals and to strengthen and develop the unique abilities of each vassal, and the interest of the game can be improved.

Further, in the present embodiment, in particular, the game program sets the reflection degree indicating the degree of reflecting the vassal parameter specified by the vassal parameter specifying processing unit 33 to the unit parameter based on the attribute of the server 5. Further functioning as the processing unit 35, the unit parameter determination processing unit 37 is based on the reflection degree set by the reflection degree setting processing unit 35 and the vassal parameters of each vassal specified by the vassal parameter specifying processing unit 33. , Determine unit parameters.

As a result, for example, all of the specific items of the vassal parameters are reflected in the corresponding items of the unit parameters, or some of the multiple items of the vassal parameters are reflected in the corresponding items of the unit parameters in a well-balanced manner. As such, it is possible to set in more detail how to reflect the vassal parameters to the unit parameters. As a result, it becomes possible to tactically assemble a frame to which the vassals are associated in the formation of a unit, so that the strategicity can be further improved.

Further, in the present embodiment, in particular, in the game program, the server 5 is associated with a vassal who is associated with a predetermined frame based on the operation input of the player during the formation of the ally unit 9 by the unit formation processing unit 29. Further functions as a first confirmation display processing unit 45 that displays both the unit parameters before the change and the unit parameters after the change by the first organization change processing unit 43 and the first organization change processing unit 43.

As a result, the player can freely change the vassal associated with the predetermined frame to another vassal during the formation of the ally unit 9. At that time, the unit parameters before and after the change of the vassal can be referred to, so it is possible to confirm how the change of the vassal is reflected in the unit parameters. In this way, it is possible to change the unit formation while changing the vassals many times while confirming whether or not the desired unit parameters have been obtained, so that the strategicity can be further improved and the convenience of the player can be improved.

Further, in the present embodiment, in particular, the game program is set by the formation setting processing unit 39 and the formation setting processing unit 39 that set a plurality of types of formations that define the arrangement mode of a plurality of types of frames having different attributes. Further functions as a formation selection processing unit 41 that selects a formation based on a player's operation input from a plurality of types of formations, and a unit formation processing unit 29 selects a plurality of vassals by the formation selection processing unit 41. The ally unit 9 is formed in association with each of the plurality of frames defined by the formation.

As a result, by setting multiple types of formations, such as "attack type", "defensive type", "intelligent type", and "speed type", each of which has its own characteristics, the player can select the battlefield from among them. It is possible to form an ally unit 9 by selecting the formation according to the above. For example, select the "defensive type" formation when the formation of the enemy unit 11 is "attack type", or select the "attack type" formation when the formation of the enemy unit 11 is "intelligent type". By doing so, it becomes possible to advance the battlefield in an advantageous manner. In this way, the strategic nature can be further improved.

Further, in the present embodiment, in particular, the game program changes the formation of the server 5 to another formation based on the operation input of the player during the formation of the ally unit 9 by the unit formation processing unit 29. It is further functioned as a second confirmation display processing unit 49 that displays both the unit parameters before the change and the unit parameters after the change by the unit 47 and the second organization change processing unit 47.

As a result, the player can freely change the formation to another formation during the formation of the ally unit 9. At that time, the unit parameters before and after the formation change can be referred to, so it is possible to confirm how the formation change is reflected in the unit parameters. In this way, it is possible to change the formation while confirming whether or not the desired unit parameters have been obtained, and thus the formation of the unit can be changed, so that the strategicity can be further improved and the convenience of the player can be improved.

Further, according to the present embodiment, the following effects can be further obtained in addition to the effects described above.

The game program of the present embodiment is a game in which the server 5 is executed in a manual control mode in which the game is advanced based on the operation input of the player, or an automatic control mode in which the game is advanced without the operation input of the player. Any operation input is also detected by the execution processing unit 111, the operation presence / absence determination processing unit 113 for determining whether or not any operation input by the player is detected until the predetermined set time elapses, and the operation presence / absence determination processing unit 113. If it is determined that this is not the case, the mode switching processing unit 115 for switching from the manual control mode to the automatic control mode is made to function.

For example, when playing an online game using a terminal device 3 such as a smartphone, it is conceivable that the control mode cannot be switched due to some reason such as deterioration of the communication state. It is also conceivable that the player forgets to switch the control mode.

In the present embodiment, when the set time elapses without any operation input by the player, the manual control mode can be automatically switched to the automatic control mode. Therefore, in an online game in which a game is played in real time by a plurality of players, it is possible to prevent interruption of a player's operation from hindering the progress of the game and prevent inconvenience to other players.

Further, in the present embodiment, in particular, the game program performs automatic control display processing for displaying that the server 5 has been switched to automatic control when the mode switching processing unit 115 has switched from the manual control mode to the automatic control mode. Further function as part 117.

As a result, when the player automatically switches to the automatic control mode due to the interruption of the player's operation, the player can confirm that his / her player character is automatically controlled and does not hinder the progress of the game. .. Therefore, the sense of security of the player can be improved. Further, since the operation for confirming that the control mode has been switched is unnecessary, the convenience can be improved.

Further, in the present embodiment, in particular, the game program determines whether or not the server 5 has detected a predetermined first operation input for switching to the automatic control mode by the player before the set time elapses. Further functioning as the first switching operation determination processing unit 119, the mode switching processing unit 115 automatically controls from the manual control mode when it is determined by the first switching operation determination processing unit 119 that the first operation input has been detected. Switch to mode.

As a result, the manual control mode can be switched to the automatic control mode at any timing by the player's voluntary operation. For example, when playing at home and going out, or when playing on the train and getting off the train, it is possible to voluntarily switch to the automatic control mode. Therefore, it is possible to surely prevent the interruption of the player's operation from hindering the progress of the game, and it is possible to improve the convenience of the player.

Further, in the present embodiment, in particular, the first switching operation determination processing unit 119 determines whether or not a transition from a predetermined battle screen in the game to another screen has been detected as the first operation input, and the mode is switched. The processing unit 115 switches from the manual control mode to the automatic control mode when it is determined by the first switching operation determination processing unit 119 that a transition to another screen has been detected.

As a result, for example, the ally unit 9 can automatically control the battle, and the player himself can open a screen other than the battle and do other things (for example, open the internal affairs screen to develop the territory). Therefore, the convenience of the player can be enhanced.

Further, in the present embodiment, in particular, the game program determines whether or not the server 5 has detected a predetermined second operation input for switching to the manual control mode by the player in the automatic control mode. Further functioning as the processing unit 121, the mode switching processing unit 115 switches from the automatic control mode to the manual control mode when it is determined by the second switching operation determination processing unit 121 that the second operation input has been detected.

As a result, the automatic control mode can be switched to the manual control mode at any timing by the player's voluntary operation. For example, if the automatic control mode is automatically switched due to the deterioration of the communication state, the game can be returned to the game when the communication state becomes good thereafter. Further, for example, when the automatic control mode is voluntarily switched at the time of changing trains, the game can be returned to the game in the train after changing trains. In this way, it is possible to surely prevent the interruption of the player's operation from hindering the progress of the game, and it is possible to improve the convenience of the player.

Further, in the present embodiment, in particular, the second switching operation determination processing unit 121 determines whether or not a transition from a screen other than the battle screen in the game to a predetermined battle screen has been detected as the second operation input. The mode switching processing unit 115 switches from the automatic control mode to the manual control mode when it is determined by the second switching operation determination processing unit 121 that a transition to a predetermined battle screen has been detected.

As a result, for example, when the ally unit 9 is made to perform the battle under automatic control, and the player himself opens a screen other than the battle and does other things (for example, opens the internal affairs screen to develop the territory). , It is possible to open the battle screen at any time and return to the battle. Further, for example, in the case of a game system in which the experience value, items, rewards, etc. due to the battle cannot be acquired in the automatic control mode, the player can acquire the experience value or the like by switching to the manual control mode. Therefore, the convenience of the player can be enhanced.

<11. Modification example>
The present invention is not limited to the above embodiment, and various modifications can be made without departing from the spirit and technical idea.

For example, in the above, the case where the present invention is applied to a Sengoku simulation game has been described as an example, but games of other genres, such as non-Sengoku simulation games, role-playing games, action games, adventure games, and puzzle games. , The present invention can also be applied to mahjong games and the like.

Further, although the case where the present invention is applied to the online game has been described above, for example, the functions related to the formation of the unit and the instruction to move the unit can also be applied to the offline game.

Further, although the case where the terminal device 3 is a portable terminal device has been described above, for example, a server computer, a desktop computer, a notebook computer, or the like, a stationary game machine, or the like may be used.

In addition to the above-mentioned above, the methods according to the above-described embodiment and each modification may be appropriately combined and used. In addition, although not illustrated one by one, the above-described embodiment and each modification are carried out with various modifications within a range that does not deviate from the purpose.

3 Terminal device 5 Server 7 Touch panel 9 Ally unit 29 Unit formation processing unit 31 Attribute setting processing unit 33 Vassal parameter specification processing unit 35 Reflection degree setting processing unit 37 Unit parameter determination processing unit 39 Formation setting processing unit 41 Formation selection processing unit 43 1 organization change processing unit 45 1st confirmation display processing unit 47 2nd organization change processing unit 49 2nd confirmation display processing unit 51a to 51h frame 77 1st display processing unit 79 3rd display processing unit 81 detection processing unit 83 fluctuation judgment processing Unit 85 1st movement processing unit 87 Movement route determination processing unit 89 2nd display processing unit 91 Movement destination determination processing unit 93 2nd movement processing unit 95 Instruction cancellation processing unit 97 Cursor 99 Movable range 101 Inaccessible area 111 Game execution processing Unit 113 Operation presence / absence judgment processing unit 115 Mode switching processing unit 117 Automatic control display processing unit 119 First switching operation judgment processing unit 121 Second switching operation judgment processing unit 525 Recording media A to H retainers

Claims (8)

An information processing device that sends and receives signals to and from the touch panel
A detection processing unit that detects contact with the touch panel,
A fluctuation determination processing unit that determines whether or not there is a change in the contact position between the start and the end of the contact detection.
A first display processing unit that displays an operation target object and a movement instruction object for instructing a movement destination of the operation target object on the touch panel.
When it is determined by the fluctuation determination processing unit that there is no change in the contact position in the detected contact, the movement instruction object is temporarily placed in the contact position, and in the contact detected after the temporary placement, the movement instruction object is temporarily placed. first moving unit that moves when it is determined that there is variation in the contact position, the temporary arrangement position based provisionally arranged the movement instruction object to variations in the contact position,
To function as
The first movement processing unit is
The movement instruction object is moved based on the fluctuation of the contact position detected at a position away from the position where the movement instruction object is temporarily placed.
Game program. The information processing device
A movement destination determination processing unit that determines the movement destination of the operation target object at the display position of the movement instruction object based on the operation input of the player.
A second movement processing unit that moves the operation target object to the display position of the movement instruction object when the movement destination is determined by the movement destination determination processing unit.
To function further,
The game program according to claim 1. An information processing device that sends and receives signals to and from the touch panel
A detection processing unit that detects contact with the touch panel,
A fluctuation determination processing unit that determines whether or not there is a change in the contact position between the start and the end of the contact detection.
A first display processing unit that displays an operation target object and a movement instruction object for instructing a movement destination of the operation target object on the touch panel.
When it is determined by the fluctuation determination processing unit that there is no change in the contact position, the movement instruction object displayed by the first display processing unit is placed at the contact position, and the contact position is changed. A first movement processing unit that moves the movement instruction object based on the fluctuation of the contact position when it is determined.
Instruction cancellation processing unit that cancels the instruction of the movement destination by the movement instruction object based on the operation input of the player,
To function as
The first movement processing unit is
When the instruction of the movement destination is canceled by the instruction cancellation processing unit, the movement instruction object is arranged at the display position of the operation target object.
Game program. An information processing device that sends and receives signals to and from the touch panel
A detection processing unit that detects contact with the touch panel,
A fluctuation determination processing unit that determines whether or not there is a change in the contact position between the start and the end of the contact detection.
A first display processing unit that displays an operation target object and a movement instruction object for instructing a movement destination of the operation target object on the touch panel.
When it is determined by the fluctuation determination processing unit that there is no change in the contact position, the movement instruction object displayed by the first display processing unit is placed at the contact position, and the contact position is changed. A first movement processing unit that moves the movement instruction object based on the fluctuation of the contact position when it is determined.
A movement route determination processing unit that determines a movement route so that the movement distance of the operation target object is the shortest based on the display position of the operation target object and the display position of the movement instruction object.
To function as
The movement route determination processing unit is
When there is an inaccessible area where the operation target object cannot enter between the display position of the operation target object and the display position of the movement instruction object, the movement distance is the shortest while bypassing the inaccessible area on the movement route. Decide to be,
Game program. The information processing device
A second display processing unit that displays the movement route determined by the movement route determination processing unit,
To function further,
The game program according to claim 4. The information processing device
A third display processing unit that displays the movable range of the operation target object,
To function further,
The game program according to any one of claims 1 to 5. A recording medium readable by an information processing apparatus on which the game program according to any one of claims 1 to 6 is recorded. A game processing method executed by an information processing device that sends and receives signals to and from a touch panel.
The step of detecting contact with the touch panel and
A step of determining whether or not there is a change in the contact position between the start and the end of the contact detection, and
A step of displaying the operation target object and the movement instruction object for instructing the movement destination of the operation target object on the touch panel, and
When it is determined that there is no change in the contact position in the detected contact, the movement instruction object is temporarily placed in the contact position, and there is a change in the contact position in the contact detected after the temporary placement. When it is determined that the movement instruction object is temporarily placed, the movement instruction object is moved from the temporarily placed position based on the fluctuation of the contact position.
In the step of moving the move instruction object,
The movement instruction object is moved based on the fluctuation of the contact position detected at a position away from the position where the movement instruction object is temporarily placed.
Game processing method.

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