TWM562998U - Asynchronous copying device of solid state disk - Google Patents

Abstract

A non-synchronized copying device for a solid-state hard disk, comprising: a casing; a plurality of solid-state hard disk copying units located on a surface of the casing, each of the solid-state hard disk copying units including a solid state memory and a copy An interface, wherein the solid state memory system is configured to store a specified mother image file, and the copy interface has a PCI-E interface and a SATA interface to match the specified mother image file to a PCI-E solid state drive or a a SATA solid state hard disk for a copy operation; and a USB port for communicating with an information processing device; wherein the information processing device is configured to transmit data via the USB port to copy each of the solid state hard disks The unit obtains the specified parent source image corresponding thereto.

Description

Non-synchronous copy device for solid-state hard disk

This creation relates to a solid-state hard disk copy device, and more particularly to a non-synchronous copy device of a solid-state hard disk.

Please refer to FIG. 1, which is a schematic diagram of a synchronous copy operation of a conventional solid-state hard disk copy device. As shown in FIG. 1, the solid-state hard disk copying device has a duplicator 10 and a personal computer 20. The duplicator 10 has a plurality of solid-state hard disk connectors 11, and the personal computer 20 has a female source A image file 21.

During operation, the personal computer 20 will transmit the mother source A image file 21 to the copy machine 10 according to an operation instruction, and then the copy machine 10 will first decompress the mother source A image file 21 and then decompress the obtained mother source A. The data is written into the plurality of solid state drives via the plurality of solid state drive connectors 11 to complete a batch copying operation.

However, when an operator has a need for writing different source data into a plurality of different solid-state hard disks, the conventional solid-state hard disk copying device cannot meet the demand. In addition, during a copying operation, if a solid-state hard disk has a poor contact with a solid-state hard disk connector 11 due to an external force collision, an operator needs to re-plug the solid-state hard disk in addition to In order to restart the copying operation, the conventional solid-state hard disk copy device needs to be restarted.

In order to solve the foregoing problems, a novel non-synchronous copy device for a solid state hard disk is urgently needed in the art.

One of the purposes of this creation is to disclose a non-synchronous copying device of a solid state hard disk, which can perform a rapid multi-source data batch copy operation on a plurality of solid state disks according to a work list.

Another purpose of this creation is to disclose a non-synchronous copy device of a solid state hard disk, which can determine the work list by performing a barcode scanning operation on the plurality of solid state hard disks.

Another purpose of this creation is to disclose a non-synchronous copy device of a solid state hard disk, which can provide a plurality of different source data from an information processing device or a cloud server.

Another purpose of this creation is to disclose a non-synchronous copy device of a solid state hard disk, which can selectively connect a PCI-E solid state hard disk or a SATA solid state hard disk through a PCI-E interface or a SATA interface.

Another purpose of this creation is to disclose a non-synchronous copy device of a solid state hard disk, which can be integrated with a robotic arm to enable the robotic arm to perform a solid state hard disk insertion operation according to the work list.

In order to achieve the foregoing object, a non-synchronous copying device for a solid-state hard disk is proposed, which has: a casing; a plurality of solid-state hard disk copy units located on one surface of the casing, and each of the solid-state hard disk copy units is It includes a solid-state memory and a copy interface, wherein the solid-state memory system is used to store a designated mother source image file, and the copy interface has a PCI-E interface and a SATA interface to register one with the designated mother source image file. A PCI-E solid state hard disk or a SATA solid state hard disk for a copy operation; and a USB port for communicating with an information processing device; wherein the information processing device is used to transmit data through the USB port to Each solid-state hard disk copy unit is made to obtain the designated mother source image file corresponding to the solid-state hard disk copy unit.

In one embodiment, the plurality of solid-state hard disk copy units transmit data in a serial manner.

In one embodiment, each of the solid-state hard disk copy units includes an interface signal identification module to process a PCI-E interface signal or a SATA interface signal.

In one embodiment, each of the plurality of solid-state hard disk copy units has at least one indicator light.

In an embodiment, the information processing device is connected to a code machine to receive a job list, and the information processing device transmits the corresponding to each of the solid-state hard disk copy units according to the job list. Specify the parent source image.

In an embodiment, the information processing device is connected to a robotic arm so that the robotic arm receives the work list and performs a solid state hard disk insertion operation on the plurality of solid state hard disk copy units according to the work list. .

In order to allow your reviewers to further understand the structure, characteristics and purpose of this creation, drawings and detailed descriptions of the preferred embodiments are attached below.

10‧‧‧ Duplicator

11‧‧‧Solid State Drive Connector

20‧‧‧ Personal Computer

21‧‧‧Maternal source A image file

100‧‧‧shell

110‧‧‧Solid Hard Disk Copy Unit

111‧‧‧ indicator

112‧‧‧PCI-E interface

113‧‧‧SATA interface

120‧‧‧USB port

110a‧‧‧control unit

1110‧‧‧Solid State Memory

200‧‧‧ Information Processing Device

201‧‧‧Maternity A image file

202‧‧‧Maternal source B image file

203‧‧‧Maternal C image file

204‧‧‧Maternity D image file

205‧‧‧Mother source E image file

206‧‧‧Control unit

400a‧‧‧PCI-E SSD

400b‧‧‧SATA Solid State Drive

FIG. 1 is a schematic diagram of a synchronous copy operation of a conventional solid-state hard disk copy device.

FIG. 2 is a schematic diagram of an appearance of an embodiment of an asynchronous copy device for creating a solid state hard disk.

FIG. 3 is a block diagram of an embodiment of the asynchronous copy device of the solid state hard disk of FIG. 2.

FIG. 4 is a block diagram of another embodiment of the asynchronous copy device of the solid state hard disk of FIG. 2.

FIG. 5 is a block diagram of another embodiment of the asynchronous copy device of the solid state hard disk of FIG. 2.

FIG. 6 is a block diagram of another embodiment of the asynchronous copy device of the solid state hard disk of FIG. 2.

FIG. 7 is an operation schematic diagram of an asynchronous copy device for creating a solid state hard disk.

Please refer to FIG. 2, which is a schematic diagram illustrating an appearance of an embodiment of an asynchronous copy device for creating a solid state hard disk.

As shown in FIG. 2, the non-synchronous copy device of the solid state hard disk includes a casing 100, a plurality of solid state disk copy units 110, and a USB port 120.

The plurality of solid-state hard disk copy units 110 are located on a surface of the casing 100 for insertion of a plurality of solid-state hard disks, wherein the plurality of solid-state hard disk copy units 110 transmit data in a serial manner; each solid-state hard disk The disc copy units 110 each include a solid-state memory (not shown) and a copy interface. The solid-state memory system is used to store a designated source image file. The copy interface has a PCI-E (peripheral components interconnect, express; quick interface for interconnecting peripheral components) interface 112 and a SATA (serial advanced technology attachment) interface 113 to pair a PCI-E solid state hard disk or a SATA solid state according to the specified mother source image file The hard disk performs a copying operation, in which each solid-state hard disk copy unit 110 uses an interface signal identification module (not shown in the figure) Automatically identify a PCI-E interface signal or a SATA interface signal to complete the corresponding copy process. In addition, the solid-state hard disk copy unit 110 has at least one indicator light 111 to indicate an operation state.

The USB connection port 120 is used to communicate with an information processing device 200, wherein the information processing device 200 may be a personal computer or a server, and the information processing device 200 is used to transmit data through the USB connection port 120 to make each solid state The hard disk copy unit 110 obtains the designated mother source image file corresponding thereto. In addition, the information processing device 200 may be connected to a code machine (not shown in the figure) to receive a work list, and transmit the designated source corresponding to each of the solid-state hard disk copy units 110 according to the work list. Image. In addition, the information processing device 200 may be connected to a robotic arm (not shown) to enable the robotic arm to receive the work list, and perform a solid state operation on the plurality of solid-state hard disk copy units 110 according to the work list. Hard disk insertion.

Please refer to FIG. 3, which is a block diagram of an embodiment of the asynchronous copy device of the solid state hard disk of FIG. 2. As shown in FIG. 3, the information processing device 200 includes a mother source A image 201, a mother source B image 202, a mother source C image 203, a mother source D image 204, and a mother source E image 205, and a control Unit 206. There are five solid-state hard disk copy units 110 inside the casing 100. Each solid-state hard disk copy unit 110 has a control unit 110a, a PCI-E interface 112, and a SATA interface 113, and the control unit 110a has a solid-state memory 1110. . In this embodiment, the asynchronous copy device of the solid state hard disk in FIG. 3 communicates with the control unit 206 through the USB port 120 to obtain a mother source A image 201, a mother source B image 202, and a mother source C image file. 203. The mother source D image file 204 and the mother source E image file 205. The five solid-state hard disk copy units 110 store the mother source A image 201 and the mother source B image file with the solid state memory 1110. 202, mother source C image file 203, mother source D image file 204, and mother source E image file 205, and each PCI-E interface 112 is connected to a PCI-E solid state hard disk 400a to be copied.

Please refer to FIG. 4, which is a block diagram of another embodiment of the asynchronous copy device of the solid state hard disk of FIG. 2. As shown in FIG. 4, the information processing device 200 has a mother source A image 201, a mother source B image 202, a mother source C image 203, a mother source D image 204, and a mother source E image 205, and a control Unit 206. There are five solid-state hard disk copy units 110 inside the casing 100. Each solid-state hard disk copy unit 110 has a control unit 110a, a PCI-E interface 112, and a SATA interface 113, and the control unit 110a has a solid-state memory 1110. . In this embodiment, the asynchronous copy device of the solid state hard disk in FIG. The port 120 communicates with the control unit 206 to obtain a mother source A image 201, a mother source B image 202, a mother source C image 203, a mother source D image 204, and a mother source E image 205. The five solid state The hard disk copy unit 110 uses its own solid-state memory 1110 to store mother source A image 201, mother source B image 202, mother source C image 203, mother source D image 204, and mother source E image 205, and each SATA interface 113 is connected to a SATA solid state hard disk 400b to be copied.

Please refer to FIG. 5, which is a block diagram of another embodiment of the asynchronous copy device of the solid state hard disk of FIG. 2. As shown in FIG. 5, the information processing apparatus 200 includes a mother source A image file 201, a mother source B image file 202, and a control unit 206. The casing 100 includes a plurality of solid-state hard disk copy units 110. Each solid-state hard disk copy unit 110 has a control unit 110a, a PCI-E interface 112, and a SATA interface 113. The control unit 110a has a solid-state memory 1110. . In this embodiment, the non-synchronous copying device of the solid state hard disk of FIG. 5 communicates with the control unit 206 through the USB port 120 to obtain a mother source A image file 201 and a mother source B image file 202. The plurality of solid state drives One part of the hard disk copy unit 110 stores the source A image 201 with its own solid-state memory 1110, and the remaining part of the plurality of solid-state hard disk copy units 110 is with its own solid-state memory 1110 The mother source B image file 202 is stored, and each PCI-E interface 112 is connected to a PCI-E solid state hard disk 400a to be copied.

Please refer to FIG. 6, which is a block diagram of another embodiment of the asynchronous copy device of the solid state hard disk of FIG. 2. As shown in FIG. 6, the information processing device 200 includes a mother source A image 201, a mother source B image 202, and a control unit 206. The casing 100 includes a plurality of solid-state hard disk copy units 110. Each solid-state hard disk copy unit 110 has a control unit 110a, a PCI-E interface 112, and a SATA interface 113. The control unit 110a has a solid-state memory 1110. . In this embodiment, the asynchronous copy device of the solid-state hard disk of FIG. 6 communicates with the control unit 206 through the USB port 120 to obtain a mother source A image 201 and a mother source B image file 202. The plurality of solid state drives One part of the hard disk copy unit 110 stores the source A image 201 with its own solid-state memory 1110, and the remaining part of the plurality of solid-state hard disk copy units 110 is with its own solid-state memory 1110 The mother source B image file 202 is stored, and each SATA interface 113 is connected to a SATA solid state hard disk 400b to be copied.

In addition, the non-synchronous copy device of the solid-state hard disk of this creation can be connected to a to-be-copied one in an online pluggable manner through the PCI-E interface 112 or the SATA interface 113 of the solid-state hard disk copy unit 110. A PCI-E solid state drive or a SATA solid state drive, and the solid state drive can be restored by reinserting the PCI-E solid state drive or the SATA solid state drive into the PCI-E interface 112 or the SATA interface 113 Copy job. For example, when a connection between a PCI-E solid state hard disk and a PCI-E interface 112 is caused by a collision, which results in a poor contact, causing an indicator 111 to blink, an operator can directly change the The PCI-E solid state hard disk is pulled out and re-inserted into the PCI-E interface 112 to resume a copy operation of the PCI-E solid state hard disk.

Please refer to FIG. 7, which is an operation schematic diagram of an asynchronous copy device for creating a solid state hard disk. As shown in FIG. 7, after inserting a plurality of PCI-E solid-state hard disks 400 a and a plurality of SATA solid-state hard disks 400 b into a plurality of PCI-E interfaces 112 and a plurality of SATA interfaces 113, the information processing device 200 is operated by In order to start a copy operation, the asynchronous copy device of the created solid-state hard disk can copy the same or different source data to a PCI-E solid-state hard disk 400a or a SATA solid-state hard disk 400b, respectively.

With the design disclosed above, this creation has the following advantages:

1. The non-synchronous copy device of the solid-state hard disk of this creation can perform a fast multi-source data batch copy operation on a plurality of solid-state hard disks according to a work list.

2. The non-synchronous copying device of the solid state hard disk of this creation may determine the work list by performing a barcode scanning operation on the plurality of solid state hard disks.

3. The non-synchronous copy device of the solid-state hard disk created by this invention may provide a plurality of different source data from an information processing device or a cloud server.

4. The non-synchronous copy device of the solid state hard disk of this creation can be selectively connected to a PCI-E solid state hard disk or a SATA solid state hard disk through a PCI-E interface or a SATA interface.

5. The non-synchronous copy device of the solid state hard disk of this creation can be integrated with a robotic arm to enable the robotic arm to perform a solid state hard disk insertion operation according to the work list.

What is disclosed in this case is a preferred embodiment. For example, those who have partial changes or modifications that are derived from the technical ideas of this case and are easily inferred by those skilled in the art, do not depart from the scope of patent rights in this case.

In summary, regardless of the purpose, method and effect, this case is showing its technical characteristics that are quite different from the conventional ones, and its first creation is practical and practical, and it is also in line with the new type of patent requirements. Granting patents at an early date will benefit society and feel good.

Claims (6)

A non-synchronous copy device for a solid-state hard disk includes: a casing; a plurality of solid-state hard disk copy units located on one surface of the casing; each of the solid-state hard disk copy units includes a solid-state memory and a copy Interface, in which the solid-state memory system is used to store a designated mother source image file, and the copy interface has a PCI-E interface and a SATA interface to a PCI-E solid state hard disk or a The SATA solid state hard disk performs a copying operation; and a USB port is used to communicate with an information processing device; wherein the information processing device is used to transmit data through the USB port to copy each of the solid state hard disks. The unit obtains the specified mother source image file corresponding to the unit. The non-synchronous copying device for a solid-state hard disk as described in item 1 of the scope of patent application, wherein the plurality of solid-state hard disk copy units transmit data in a serial manner. According to the non-synchronous copying device of the solid-state hard disk described in the first item of the patent application scope, each of the solid-state hard disk copy units includes an interface signal identification module to process a PCI-E interface signal or a SATA interface signal. The non-synchronous copying device for a solid state hard disk according to item 1 of the scope of the patent application, wherein each of the plurality of solid state hard disk copy units has at least one indicator light. The non-synchronous copy device of the solid-state hard disk according to item 1 of the scope of patent application, wherein the information processing device is connected to a code machine to receive a job list, and the information processing device is based on the job list And transmitting the designated mother source image file corresponding to each of the solid-state hard disk copy units. The non-synchronous copying device of the solid-state hard disk according to item 5 of the scope of patent application, wherein the information processing device is connected to a robotic arm to enable the robotic arm to receive the work list and to perform the operation according to the work list. A plurality of solid state disk copy units perform a solid state disk insertion operation.