Dynamic password verification method

Abstract

The invention discloses a dynamic password verification method, which comprises a setting process and a verification process, and the setting process is as follows: a user clicks symbols listed on a screen in sequence to form a group of symbol combination, namely a password; the verification process comprises the following steps: dynamically displaying different symbols on a screen, sequentially selecting the symbols by a user to form a decryption symbol combination, finally clicking a confirmation button to finish input, comparing whether the decryption symbol combination and a password are the same or not by equipment, if so, indicating that the verification is passed, and if not, indicating that the verification is failed. In the scheme, the symbol is in the motion state or the relative motion state, so that the difficulty of virus interception or peeping is greatly improved, and the safety is improved.

Description

Technical Field

[0001] The present invention relates to the field of identity recognition, and in particular to a dynamic password verification method for devices such as mobile phones, tablets, and notebooks. Background Art

[0002] In existing mobile phones and other electronic devices, digital password unlocking is inevitable as a backup solution. However, when using the digital password, it is clicked at a fixed position, and the password disk interface is fixed, which can be easily intercepted by viruses or spied on by people / devices around, posing a security risk. Summary of the invention

[0003] The present invention mainly solves the problem in the prior art that a digital password is easily intercepted or spied on when input, and provides a dynamic password verification method which can reduce the risk of leakage and improve security.

[0004] The present invention aims to solve the above technical problems mainly through the following technical solutions: a dynamic password verification method, characterized by comprising a setting process and a verification process, wherein the setting process is: a user clicks the symbols listed on the screen in sequence to form a set of symbol combinations, which is the password; The verification process is as follows: different symbols are dynamically displayed on the screen, the user selects symbols in order to form a decryption symbol combination, and finally clicks the confirmation button to end the input. The device compares the decryption combination and the password to see if they are the same. If they are the same, it means the verification is successful. If they are not the same, it means the verification has failed.

[0005] In this solution, the symbols are in motion or relative motion, which greatly increases the difficulty of being intercepted by viruses or spied on, thereby improving security.

[0006] Preferably, the symbol is a graphic and / or text. The symbol can be fruit, animal, object, number, English, Chinese character, etc., or a combination of several of them, thereby greatly expanding the password library and reducing the possibility of being cracked.

[0007] Preferably, in the verification process, the dynamic display method is that all symbols surround to form at least one turntable, the initial state of the turntable is a wait-to-click state, the wait-to-click state is static or rotates at a speed of less than 20 circles per minute, and the user selects symbols by clicking. After one click, the turntable rotates at least one circle at a speed greater than 60 circles per minute and then returns to the wait-to-click state, and the decryption symbol combination is formed in the order of clicks.

[0008] When waiting to be clicked, the turntable is stationary or rotates slowly, which is convenient for users to click accurately. After being clicked once or several times, the turntable rotates quickly for at least one circle (the specific number of circles can be a random non-integer, such as 1.25 circles, 2.6 circles, etc.). After the rotation, the symbol position is not in the original position, and then the user clicks and inputs again. The turntable can be two or more concentric rings. When rotating, different rings have their own independent rotation direction (clockwise or counterclockwise), rotation speed and number of rotations, which further reduces the order. Each time the turntable is displayed, the arrangement order of the symbols is also random.

[0009] Preferably, in the verification process, the dynamic display method is as follows: the symbol is displayed in the upper area of ​​the screen, and there is a launcher that can launch arrows or projectiles in the lower area of ​​the screen. The user selects the symbol by controlling the launch angle of the launcher to shoot the symbol, and the decryption symbol combination is formed according to the shooting order. The symbol can be a fruit, and the background is a tree, and the fruit is hanging on the tree. The user controls the launcher to shoot the fruit, that is, the user does not directly touch the specific symbol, thereby greatly reducing the possibility of the password being intercepted.

[0010] Preferably, in the verification process, the dynamic display method is as follows: symbols are displayed in the upper area of ​​the screen, and there are several launching devices marked with serial numbers in the lower area of ​​the screen that can launch arrows or projectiles. The user selects symbols by controlling the launching angle of the launching device to shoot the symbols. The serial number of the launching device is the order in which the symbols hit by this launching device are arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

[0011] For example, if there is a 6-digit password, there are 6 transmitters. The symbol shot by the Nth transmitter is the Nth digit in the decryption symbol combination. In this way, the user can enter the symbols in random order, such as first entering the 5th digit, then the 3rd digit, then the 2nd digit, and so on until all digits are entered. This can reduce the possibility of password leakage. When the same transmitter is repeatedly fired, the symbol shot last is used as the standard, and the previous ones are ignored. This can avoid the need to repeat the whole process due to wrong shooting, and can also confuse the peeping personnel by increasing the complexity of the action through repeated firing.

[0012] Preferably, in the verification process, the symbols are arranged into several columns, and each column scrolls from top to bottom or from bottom to top at a rate of less than 20 cycles per minute. The user selects the symbol by clicking, and the column number of the selected symbol is the order in which the symbol is arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

[0013] For example, if the password is 6 digits, there will be 6 columns of symbols scrolling continuously. When a user clicks a symbol in the Nth column, it means that this symbol is the Nth digit in the decryption symbol combination, that is, the user can also enter in a random order to improve security. The clicked symbol is highlighted or the border is highlighted, and it continues to scroll instead of stopping, reducing the possibility of being peeped, and the wrong password can be changed by clicking again, avoiding the need to repeat the whole process due to wrong clicks.

[0014] Preferably, in the verification process, symbols are randomly distributed in the verification area of ​​the screen. A continuously moving touch mark is also displayed in the verification area. Four direction keys for controlling the direction of the touch mark, namely up, down, left and right, are displayed on the screen. The user selects symbols by controlling the movement of the touch mark through the direction keys. When the moving mark touches the symbol, it means that the symbol is selected as an element in the decryption symbol combination. The order in which the symbols are touched is the order in which the symbols are arranged in the decryption symbol combination, thereby forming a decryption symbol combination.

[0015] In this way, the touched mark disappears, which can improve safety.

[0016] Preferably, in the verification process, a motion area is provided on the screen, and the symbol moves downward from the top of the motion area and disappears below the bottom line of the motion area. The user selects the symbol by clicking, and the symbol has an auxiliary mark for marking the order. When a symbol is clicked, its auxiliary mark is the order in which the symbol is arranged in the decryption symbol combination, thereby forming a decryption symbol combination.

[0017] Preferably, the symbol is a fruit, and the auxiliary mark of the symbol is the number of leaves; or the symbol is a fruit, and the auxiliary mark of the symbol is a preset color sequence.

[0018] For example, if a falling apple has three leaves, clicking it will put the apple in the third position of the decryption symbol combination, and if a falling pear has one leaf, clicking it will put the pear in the first position of the decryption symbol combination. Or set the color order to red, yellow, blue, and green, clicking on the red apple will put the apple in the first position of the decryption symbol combination, and clicking on the blue banana will put the banana in the third position of the decryption symbol combination.

[0019] Preferably, in the verification process, the symbols are single or in groups of two or three. When the user selects symbols in groups of two or three, it means that two or three symbols are selected at the same time and enter the decryption symbol combination in order from left to right or from top to bottom.

[0020] For example, if the symbol is fruit, the user first clicks on an apple, and the apple is placed at the first position of the decryption symbol combination. Then the user clicks on the combination of a pear on the left and a banana on the right, then the pear and banana are placed at the second and third positions of the decryption symbol combination respectively, thus forming the decryption symbol combination.

[0021] This solution can also enhance the fun through the coordination of symbols and backgrounds. For example, the moving touch mark can be designed as a snake mode, and the symbols falling from top to bottom can be designed as a fruit catching mode, thereby enhancing the user experience.

[0022] The substantial effect brought by the present invention is that the possibility of passwords being peeped or intercepted can be reduced, security can be improved, and interest can be increased. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a verification flow chart of the present invention. DETAILED DESCRIPTION

[0024] The technical solution of the present invention is further specifically described below through embodiments and in conjunction with the accompanying drawings.

[0025] Embodiment: A dynamic password verification method includes a setting process and a verification process, wherein the setting process is: a user clicks on symbols listed on a screen in order to form a set of symbol combinations, which is a password; like Figure 1 As shown, the verification process is as follows: different symbols are dynamically displayed on the screen, the user selects symbols in order to form a decryption symbol combination, and finally clicks the confirmation button to end the input. The device compares the decryption combination and the password to see if they are the same. If they are the same, it means the verification is passed. If they are not the same, it means the verification has failed.

[0026] In this solution, the symbols are in motion or relative motion, which greatly increases the difficulty of being intercepted by viruses or spied on, thereby improving security.

[0027] Symbols are graphics and / or text. Symbols can be fruits, animals, objects, numbers, English, Chinese characters, etc., or a combination of several of them, which greatly expands the password library and reduces the possibility of being cracked.

[0028] The specific implementation methods are as follows: (1) In the verification process, the dynamic display method is that all symbols surround to form at least one turntable. The initial state of the turntable is the waiting-to-click state. The waiting-to-click state is static or rotates at a speed of less than 20 revolutions per minute. The user selects the symbol by clicking. After one click, the turntable rotates at least one circle at a speed of more than 60 revolutions per minute and then returns to the waiting-to-click state. The decryption symbol combination is formed in the order of the clicks.

[0029] When waiting to be clicked, the turntable is stationary or rotates slowly, which is convenient for users to click accurately. After being clicked once or several times, the turntable rotates quickly for at least one circle (the specific number of circles is a random non-integer, such as 1.25 circles, 2.6 circles, etc.). After the rotation, the symbol position is not in the original position, and then the user clicks and inputs again. The turntable can be two or more concentric rings. When rotating, different rings have their own independent rotation direction (clockwise or counterclockwise), rotation speed and number of rotations, which further reduces the order. Each time the turntable is displayed, the arrangement order of the symbols is also random.

[0030] (2) In the verification process, the dynamic display method is as follows: the symbols are displayed in the upper area of ​​the screen, and there is a launching device that can fire arrows or projectiles in the lower area of ​​the screen. The user selects the symbols by controlling the firing angle of the launching device to shoot the symbols, and the decryption symbol combination is formed according to the shooting order.

[0031] The symbol can be a fruit, with a tree as the background, and the fruit hanging on the tree. The user controls the launcher to shoot the fruit, which means that the user does not directly touch the specific symbol, thereby greatly reducing the possibility of the password being intercepted.

[0032] (3) In the verification process, the dynamic display method is as follows: the symbols are displayed in the upper area of ​​the screen, and there are several launching devices marked with serial numbers in the lower area of ​​the screen that can launch arrows or projectiles. The user selects the symbol by controlling the launching angle of the launching device to shoot the symbol. The serial number of the launching device is the order in which the symbols hit by this launching device are arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

[0033] For example, if there is a 6-digit password, there are 6 transmitters. The symbol shot by the Nth transmitter is the Nth digit in the decryption symbol combination. Compared with method (2), this method not only does not directly contact the specific symbols, but the user can also enter them in random order, such as first entering the 5th digit, then the 3rd digit, then the 2nd digit, and so on until all digits are entered. This can reduce the possibility of password leakage. When the same transmitter is repeatedly fired, the symbol shot last is used as the standard, and the previous ones are ignored. This can avoid the need to repeat the entire operation due to a wrong shot, and can also confuse the peeping personnel by increasing the complexity of the action through repeated firing.

[0034] (4) During the verification process, the symbols are arranged into several columns, and each column scrolls from top to bottom or from bottom to top at a rate of less than 20 cycles per minute. The user selects a symbol by clicking it. The column number of the selected symbol is the order in which the symbol is arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

[0035] For example, if the password is 6 digits, there will be 6 columns of symbols scrolling continuously. When a user clicks a symbol in the Nth column, it means that this symbol is the Nth digit in the decryption symbol combination, that is, the user can also enter in a random order to improve security. The clicked symbol is highlighted or the border is highlighted, and the column continues to scroll instead of stopping, reducing the possibility of being peeped, and the wrong password can be changed by clicking again, avoiding the need to repeat the whole process due to wrong clicks.

[0036] Because there is a final operation of pressing OK to start the comparison and verification, changing the input password in various ways will not affect security.

[0037] (5) During the verification process, symbols are randomly distributed in the verification area of ​​the screen. A continuously moving touch mark is also displayed in the verification area. The screen displays four direction keys for controlling the direction of the touch mark: up, down, left and right. The user selects symbols by controlling the movement of the touch mark using the direction keys. When the moving mark touches a symbol, it means that the symbol is selected as an element in the decryption symbol combination. The order in which the symbols are touched is the order in which the symbols are arranged in the decryption symbol combination, thus forming the decryption symbol combination.

[0038] In this mode, the touched mark disappears, which can improve safety. This mode can be designed as a greedy snake mode.

[0039] (6) During the verification process, there is a moving area on the screen. The symbol moves downward from the top of the moving area and disappears below the bottom line of the moving area. The user selects the symbol by clicking. The symbol has an auxiliary mark for marking the order. When a symbol is clicked, its auxiliary mark is the order in which the symbol is arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

[0040] In this method, the symbol is a fruit, and the auxiliary mark of the symbol is the number of leaves. For example, a falling apple has three leaves, and if clicked, the apple will be placed in the third position of the decrypted symbol combination. A falling pear has one leaf, and if clicked, the pear will be placed in the first position of the decrypted symbol combination.

[0041] Or the symbol is a fruit, and the auxiliary mark of the symbol is a pre-set color sequence. Set the color sequence to red, yellow, blue, and green. Clicking on the red apple will put the apple in the first place of the decrypted symbol combination, and clicking on the blue banana will put the banana in the third place of the decrypted symbol combination.

[0042] Taking the fun into consideration, this method can be selected not by clicking, but by designing a fruit catching mode. There is a basket at the bottom, and the user controls the basket to move and catch the falling fruits to complete the symbol selection.

[0043] In each verification process, the symbol is single or in groups of two or three. When the user selects symbols in groups of two or three, it means that two or three symbols are selected at the same time and enter the decryption symbol combination in order from left to right or from top to bottom.

[0044] For example, if the symbol is fruit, the user first selects an apple, and the apple is placed at the first position of the decryption symbol combination. Then the user selects a combination of a pear on the left and a banana on the right, then the pear and banana are placed at the second and third positions of the decryption symbol combination respectively, thus forming the decryption symbol combination.

[0045] The specific embodiments described herein are merely examples of the spirit of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in similar ways, but they will not deviate from the spirit of the present invention or exceed the scope defined by the appended claims.

[0046] Although the terminology such as symbol, decryption symbol combination is used more frequently in this article, the possibility of using other terms is not excluded. These terms are used only to more conveniently describe and explain the essence of the present invention; interpreting them as any additional limitation is contrary to the spirit of the present invention.

Claims

1. A dynamic password verification method, characterized in that: It includes a setting process and a verification process. The setting process is: the user clicks the symbols listed on the screen in order to form a set of symbol combinations, which is the password; The verification process is as follows: different symbols are dynamically displayed on the screen, the user selects symbols in order to form a decryption symbol combination, and finally clicks the confirmation button to end the input. The device compares the decryption combination and the password to see if they are the same. If they are the same, it means the verification is successful. If they are not the same, it means the verification has failed.

2. A dynamic password verification method according to claim 1, characterized in that: The symbols are graphics and / or text.

3. The dynamic password verification method according to claim 2, characterized in that: In the verification process, the dynamic display method is that all symbols surround to form at least one turntable, the initial state of the turntable is a waiting-to-click state, the waiting-to-click state is static or rotates at a speed of less than 20 circles per minute, and the user selects symbols by clicking. After one click, the turntable rotates at least one circle at a speed greater than 60 circles per minute and then returns to the waiting-to-click state, and the decryption symbol combination is formed in the order of clicks.

4. A dynamic password verification method according to claim 2, characterized in that: In the verification process, the dynamic display method is as follows: symbols are displayed in the upper area of ​​the screen, and there is a launching device that can launch arrows or projectiles in the lower area of ​​the screen. The user selects symbols by controlling the launching angle of the launching device to shoot the symbols, and the decryption symbol combination is formed according to the shooting order.

5. A dynamic password verification method according to claim 2, characterized in that: In the verification process, the dynamic display method is as follows: symbols are displayed in the upper area of ​​the screen, and there are several launching devices marked with serial numbers in the lower area of ​​the screen that can launch arrows or projectiles. The user selects symbols by controlling the launching angle of the launching device to shoot the symbols. The serial number of the launching device is the order in which the symbols hit by this launching device are arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

6. A dynamic password verification method according to claim 2, characterized in that: In the verification process, the symbols are arranged into several columns, and each column scrolls from top to bottom or from bottom to top at a rate of less than 20 cycles per minute. The user selects symbols by clicking, and the column number of the selected symbol is the order in which the symbol is arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

7. A dynamic password verification method according to claim 2, characterized in that: In the verification process, symbols are randomly distributed in the verification area of ​​the screen. A continuously moving touch mark is also displayed in the verification area. Four direction keys for controlling the direction of the touch mark, namely up, down, left and right, are displayed on the screen. Users select symbols by controlling the movement of the touch mark through the direction keys. When the moving mark touches the symbol, it means that the symbol is selected as an element in the decryption symbol combination. The order in which the symbols are touched is the order in which the symbols are arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

8. A dynamic password verification method according to claim 2, characterized in that: In the verification process, a moving area is provided on the screen, and the symbol moves downward from the top of the moving area and disappears below the bottom line of the moving area. The user selects the symbol by clicking, and the symbol has an auxiliary mark for marking the order. When a symbol is clicked, its auxiliary mark is the order in which the symbol is arranged in the decryption symbol combination, thereby forming the decryption symbol combination.

9. A dynamic password verification method according to claim 8, characterized in that: The symbol is a fruit, and the auxiliary mark of the symbol is the number of leaves; or the symbol is a fruit, and the auxiliary mark of the symbol is a preset color sequence.

10. A dynamic password verification method according to any one of claims 1 to 9, characterized in that: In the verification process, the symbols are single or in groups of two or three. When the user selects symbols in groups of two or three, it means that two or three symbols are selected at the same time and enter the decryption symbol combination in order from left to right or from top to bottom.

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