TWM600044U - Blockchain node device - Google Patents

Abstract

A pivotal block chain node device is used for users to encrypt data and package into block data and transmit the block data to the block chain. The embedded module is electrically connected to the sensor module and receives two output data. The network module is electrically connected to the embedded module and transmits network identification data and time data to the embedded module. The algorithm module is electrically connected to the embedded module and the network module and receives complex operation data, and the algorithm module generates an exclusive private key based on the operation data. Among them, the algorithm module encrypts the data packet into block data according to the exclusive private key, and the block data is transmitted to the block chain through the network module. Among them, the sensor module, the embedded module, the network module and the algorithm module are freely hinged and stacked. In this way, the exclusive private key can be formed based on a variety of data.

Description

Pivot type blockchain node device

The present invention relates to a blockchain technology, and particularly relates to a pivotal blockchain node device.

Blockchain is a series of text data (that is, blocks) that connect and protect the content through cryptography. Each block contains the hash value of the previous block, the corresponding time stamp, and transaction content. The hash value is usually calculated by the Merkle Tree algorithm to calculate the hash value of the blockchain node, thereby making the content of the block It is difficult to tamper with, and the distributed ledger connected by blockchain technology allows both parties to effectively record the transaction and permanently check the transaction.

In the blockchain, each node (Node) can generate a private key, and each private key corresponds to an address. Each transaction records the transfer of value from one address to another. The transaction will be signed by the node that sent the transaction with its private key. The user uses the private key to electronically sign and pay to another user, and then the "miners" (that is, other nodes) of the entire network will time stamp the account. Once When the node receives the transaction, it will verify whether the transaction is legal, and the node will package the transaction into a block. If the block successfully passes the proof of work, the block is legal and uploaded to the blockchain.

However, the current blockchain node equipment can only generate one type of private key corresponding to the blockchain node equipment, or generate private keys by adding various modules to the blockchain node equipment, and it is difficult to apply it to different uses Operators operate on the same blockchain node device. In view of the problems of the above-mentioned block chain node equipment, how to develop a block chain node equipment that can generate different exclusive private keys based on various basic information is really eagerly awaited by the public. It is also the relevant industry that must work hard to develop breakthroughs. The goal and direction.

Therefore, the purpose of the present invention is to provide a pivotal block chain node device, which forms a block chain node device by arbitrarily pivoting various hardware, and collocation time information, user information and various hardware information, so as to generate The private keys can be different, thereby improving the security of transaction content and increasing the convenience of blockchain node devices.

According to an embodiment of an aspect of the present invention, a pivotal block chain node device is provided for a user to encrypt a data packet into a block data and transmit the block data to a block chain. The pivotal blockchain node device includes at least one sensor module, an embedded module, a network module, and an algorithm module. At least one sensor module is used to provide two output data. The embedded module is electrically connected to at least one sensor module and receives two output data. The network module is electrically connected to the embedded module and transmits a network identification data and a time data to the embedded module, and the embedded module generates plural numbers according to the second output data, the network identification data and the time data. Calculation data. The algorithm module is electrically connected to the embedded module and the network module and receives calculation data and data packets, and the algorithm module generates an exclusive private key based on the calculation data. Among them, the algorithm module encrypts the data packet into block data according to the exclusive private key, and the block data is transmitted to the block chain through the network module. Among them, at least one sensor module, embedded module, network module and algorithm module are freely hinged and stacked.

In this way, the hinged blockchain node device of the present invention can combine various modules and add real-time time to generate a unique private key through a hinged manner.

According to the pivotal blockchain node device of the embodiment described in the preceding paragraph, at least one of the sensor modules is plural, and one of the sensor modules is replaceably pluggable in the other sensor module, and is embedded Any one of the mode module, network module and algorithm module.

According to the pivotal blockchain node device of the embodiment described in the preceding paragraph, at least one sensor module has a host serial number, at least one sensor module generates one of the output data according to the host serial number, and at least one sensor The module captures one characteristic of the user and generates another output data.

According to the pivotal blockchain node device of the embodiment described in the preceding paragraph, the other output data is a biometric message, a fingerprint message, a palmprint message, an iris message, a face message, or a voice message.

According to the pivotal blockchain node device of the embodiment described in the preceding paragraph, the network module generates time data before the network module transmits the network identification data to the embedded module.

Please refer to Figures 1 and 2 together. Figure 1 shows a schematic diagram of a pivotal blockchain node device 100 according to an embodiment of the present invention, and Figure 2 shows a pivot according to Figure 1. A perspective view of the integrated blockchain node device 100. As can be seen from Figure 1, the pivotal block chain node device 100 is used for a user (not shown) to encrypt a data packet 200 into a block data 300 and transmit the block data 300 to a block chain (not shown) (Illustrated) . The pivotal blockchain node device 100 includes at least one sensor module 110, an embedded module 120, a network module 130, and an algorithm module 140. At least one sensor module 110 is used to provide two output data 111 and 112. The embedded module 120 is electrically connected to at least one sensor module 110 and receives two output data 111 and 112. The network module 130 is electrically connected to the embedded module 120 and transmits a network identification data 131 and a time data 132 to the embedded module 120, and the embedded module 120 outputs data 111, 112, network The identification data 131 and the time data 132 generate complex operation data 121 respectively. The algorithm module 140 is electrically connected to the embedded module 120 and the network module 130 and receives the calculation data 121 and the data packet 200, and the algorithm module 140 generates a dedicated private key 141 based on the calculation data 121, and calculates One of the algorithms in the method module 140 is a conventional technique in the technical field, and will not be repeated here. Among them, the algorithm module 140 encrypts the data packet 200 into the block data 300 according to the exclusive private key 141, and the block data 300 is transmitted to the blockchain through the network module 130.

In this way, the pivotable blockchain node device 100 forms a blockchain node device by arbitrarily pivoting various hardware, so that the generated exclusive private key 141 will be different, thereby improving the security of transaction content .

As shown in Figure 2, one end of each module can include a rotating seat 101 , And the other end of each module can include another rotating seat 101. The rotating base 101 has a plurality of pins 102 and a plurality of holes 103. By adjusting the rotating base 101 of one module to correspond to the rotating base 101 of the other module, the pins 102 and the holes 103 are connected. Therefore, at least one of the sensor module 110, the embedded module 120, the network module 130, and the algorithm module 140 can be freely hinged and stacked. In detail, at least one sensor module 110, embedded module 120, network module 130, and algorithm module 140 are electrically connected to each other (for example, magnetic, contact, wireless or cable pins) , So that the modules can transmit data or information to each other, and the combination of the modules can be a continuous arrangement on a plane or a three-dimensional stack. This pivoting method allows users to plug in and replace the required hardware modules at will, thereby improving the convenience of use of the pivoting blockchain node device 100 and making its application scope wider. In particular, each of the hardware modules can have different functions, and based on the different hardware data carried by these hardware modules, a private private corresponding to the pivotal blockchain node device 100 can be generated. Key 141.

Specifically, the data packet 200 may be the transaction content between the user and another user. The data packet 200 can also be a copy of the user's own certificate (for example: RFID card) using the embedded system equipment of a specific machine (RFID card reader) and computing machine (such as Raspberry Pi, Arduino) In the report, the algorithm device calculates the private key by adding RFID card information, card reader hardware information, computing machine hardware information, and the current time when the report is completed, but the present invention is not limited to this.

Please refer to FIG. 1 and FIG. 3 together, where FIG. 3 is a schematic diagram of a pivotal blockchain node device 100a according to another embodiment of the present invention. It can be seen from Figure 3 that when at least one sensor module 110 is plural, the pivotal blockchain node device 100a may have multiple sets of sensor devices ranging from the sensor module 110a to the sensor module 110n. And the user can arbitrarily plug and replace one of the sensor modules 110a with another sensor module 110n, or add sensor equipment required by the user. It is worth noting that one of the sensor modules 110a can also be plugged in and out of the other sensor module 110n, embedded module 120, network module 130, and algorithm module 140. By. The sensor module 110a is used for providing two output data 111a and 112a, and the sensor module 110n is used for providing two output data 111n and 112n.

It is worth noting that at least one sensor module 110 may have a host serial number, at least one sensor module 110 generates one of the output data 111 according to the host serial number, and at least one sensor module 110 captures and uses One of the characteristics generates another output data 112. In addition, the other output data 112 may be a biometric message, a fingerprint message, a palm print message, an iris message, a face message, or a voice message, but it is not limited to the content of this disclosure.

Furthermore, before the network module 130 transmits the network identification data 131 to the embedded module 120, the network module 130 generates the time data 132. In detail, the embedded module 120 can also generate another time data (not shown separately), and then the embedded module 120 generates the output data according to the two output data 111, 112, the network identification data 131 and the embedded module 120 Another time data generates complex operation data 121 respectively.

FIG. 4 is a schematic flowchart of a method S100 for pivoting a blockchain node device according to another embodiment of the present invention. It can be seen from Figure 4 that the pivot method S100 of the blockchain node device is used for the user to transfer the block data 300 to the blockchain, and the pivot method S100 of the blockchain node device includes a providing step S110 and a receiving Step S120, a transmission step S130, an operation step S140, and an encryption step S150. The providing step S110 drives at least one sensor module 110 to provide two output data 111 and 112. The receiving step S120 drives the embedded module 120 to receive two output data 111 and 112. The transmission step S130 drives the network module 130 to transmit network identification data 131 and time data 132 to the embedded module 120 , And the embedded module 120 generates the complex operation data 121 according to the two output data 111, 112, the network identification data 131 and the time data 132, respectively. The operation step S140 drives the algorithm module 140 to receive the operation data 121, and the algorithm module 140 calculates according to the operation data 121 to generate the exclusive private key 141. The encryption step S150 drives the algorithm module 140 to encrypt the data packet 200 into the block data 300 according to the exclusive private key 141, and the block data 300 is transmitted to the block chain through the network module 130. Among them, at least one sensor module 110, an embedded module 120, a network module 130, and an algorithm module 140 are freely hinged and stacked. In addition, when at least one of the sensor modules 110 is plural, one of the sensor modules 110 can be replaceably plugged into the other sensor module 110, the embedded module 120, and the network module. Any one of group 130 and algorithm module 140.

Thereby, the pivoting method S100 of the blockchain node device of the present invention can freely pivot and stack various hardware modules by providing step S110, receiving step S120, transmitting step S130, calculating step S140, and encrypting step S150 to form a region. The block chain node device further saves volume, reduces cost, and generates a dedicated private key 141 corresponding to the pivotal block chain node device 100.

FIG. 5 is a schematic flowchart of the providing step S110 of the method S100 of pivoting a blockchain node device according to the embodiment of FIG. 4. It can be seen from FIG. 5 that at least one sensor module 110 may have a host serial number (not shown separately), and the providing step S110 may include a first generating step S111 and a second generating step S112. The first generating step S111 drives at least one sensor module 110 to generate one of the output data 111 according to the host serial number. The second generating step S112 drives at least one sensor module 110 to capture a characteristic of the user to generate another output data 112.

FIG. 6 is a schematic flowchart of the transmission step S130 of the pivoting method S100 of the blockchain node device according to the embodiment of FIG. 4. It can be seen from FIG. 6 that the embedded module 120 may include a microcontroller (not shown separately), and the transmission step S130 may include a receiving sub-step S131 and a conversion sub-step S132. The receiving sub-step S131 drives the microcontroller to receive the two output data 111 and 112, the network identification data 131 and the time data 132. The conversion sub-step S132 drives the microcontroller to convert the two output data 111, 112, the network identification data 131 and the time data 132 into the calculation data 121, respectively. In the transmission step S130, before the network module 130 transmits the network identification data 131, the network module 130 generates the time data 132. The time data 132 can also be generated by the network module 130 when the embedded module 120 receives the second output data 111 and 112 in the receiving step S120.

Based on the above, the present invention has the following advantages: First, various modules can be combined arbitrarily and real-time time can be added by means of a hinge to generate a unique private key. The second is to improve the security of transaction content. Third, save volume and reduce costs. Fourth, the exclusive private key can be formed based on a variety of data.

Although the present invention has been disclosed in the above embodiments, it is not intended to limit the present invention. Anyone who is familiar with this technique can make various changes and modifications without departing from the spirit and scope of the present invention. Therefore, the protection of the present invention The scope shall be subject to the scope of the attached patent application.

100,100a: pivotal blockchain node device 101: Rotating seat 102: Pin 103: Hole 200: data packet 300: block data 110,110a,110n: sensor module 111,112,111a,112a,111n,112n: output data 120: Embedded module 121: calculation data 130: Network Module 131: network identification data 132: Time Data 140: Algorithm module 141: Exclusive private key S100: Pivoting method of blockchain node device S110: Provide steps S111: first generation step S112: second generation step S120: receiving steps S130: Transmission steps S131: receiving sub-step S132: Conversion substep S140: Operation steps S150: Encryption step

Figure 1 is a schematic diagram of a hinged blockchain node device according to an embodiment of the present invention; Figure 2 is a perspective view of the hinged blockchain node device according to Figure 1; Figure 3 is a schematic diagram of a pivotal blockchain node device according to another embodiment of the present invention; FIG. 4 is a schematic flowchart of a method for pivoting a blockchain node device according to another embodiment of the present invention; Fig. 5 is a schematic flow chart showing the steps of providing the pivoting method of the blockchain node device according to the embodiment of Fig. 4; and FIG. 6 is a schematic flowchart of the transmission steps of the pivoting method of the blockchain node device according to the embodiment of FIG. 4. FIG.

100a: pivotal blockchain node device

110a, 110n: sensor module

111a, 112a, 111n, 112n: output data

120: Embedded module

121: calculation data

130: Network Module

131: network identification data

132: Time Data

140: Algorithm module

141: Exclusive private key

200: data packet

300: block data

Claims (5)

A hinged block chain node device for a user to encrypt a data packet into a block of data and transmit the block data to a block chain, and the hinged block chain node device includes: At least one sensor module for providing two output data; An embedded module electrically connected to the at least one sensor module and receiving the two output data; A network module is electrically connected to the embedded module and transmits a network identification data and a time data to the embedded module, and the embedded module is based on the two output data and the network identification data And the time data to generate complex number operation data respectively; and An algorithm module is electrically connected to the embedded module and the network module and receives the calculation data and the data packet, and the algorithm module generates an exclusive private key based on the calculation data ； Wherein, the algorithm module encrypts the data packet into the block data according to the exclusive private key, and the block data is transmitted to the block chain through the network module; Wherein, the at least one sensor module, the embedded module, the network module and the algorithm module are freely hinged and stacked. The pivotal blockchain node device according to claim 1, wherein the at least one sensor module is plural, and one of the sensor modules is replaceably pluggable into the other sensor module Any one of the group, the embedded module, the network module, and the algorithm module. The pivotal blockchain node device according to claim 1, wherein the at least one sensor module has a host serial number, the at least one sensor module generates one of the output data according to the host serial number, and the At least one sensor module captures a characteristic of the user to generate another output data. The pivotal blockchain node device according to claim 3, wherein the other output data is a biometric message, a fingerprint message, a palm print message, an iris message, a face message, or a voice message. The pivotal block chain node device according to claim 1, wherein, before the network module transmits the network identification data to the embedded module, the network module generates the time data.

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