Internet of Things card data management system

Abstract

The utility model discloses an internet of things card data management system, which belongs to the field of electronic equipment and structurally comprises a universal serial bus (USB) socket, a lead, a capacitance slot card reader, a card slot and a network card. The network card is inserted and embedded in the card inserting groove and located on the same horizontal plane with the card inserting groove, and the network card is electrically connected with the capacitance groove card reader. Multiple card slots are matched with network cards of different sizes, gradient data storage and buffering are carried out by combining with a thyristor memory of a capacitor slot, and then the network card is loaded to the Internet of Things, so that the transmission load of a single-chain copper core wire series hardware network card and a computer software Internet of Things of the whole card reader is improved; the overall thyristor single-core strip load reducing and stabilizing main line transmission and the high efficiency of card reading and caching of the thyristor relay sub-carrier in the copper core wire are improved.

Description

Technical Field

[0001] The utility model discloses an Internet of Things card data management system, belonging to the field of electronic equipment. Background Art

[0002] IoT cards are divided into mobile network cards, computer network cards and integrated network cards, which are electronic hardware cards that can read, load and store IoT online data. The card reader is the intermediate data conversion management transmission upload and download hardware that connects the network card and the IoT. It is widely used in data management systems to connect the operation of hardware and software systems. The current technical common shortcomings to be optimized are:

[0003] Conventional card readers are single-card models that are plugged in and out of the port to read data and upload it. Existing multi-function card readers have different card slots, large and small, which are suitable for reading cards in different card slots. However, single-chain hardware motherboard card reading will cause serial data and mixed databases, which will not only cause the network card to burn out, but also easily cause the load to burn out when the card reader is connected in series with the IoT host. Utility Model Content

[0004] In view of the shortcomings of the prior art, the purpose of the utility model is to provide an Internet of Things card data management system to solve the problem that the conventional card reader is a single-card type that is plugged in and out of the port to read data and upload it. The existing multi-functional card readers have different card slots of different sizes and are adapted to different card slots for reading cards. However, single-chain hardware motherboard card reading will cause serial data and mixed databases, which will not only cause the network card to burn, but also easily cause the load to burn when the card reader is connected in series with the Internet of Things host to go online.

[0005] In order to achieve the above-mentioned purpose, the utility model is realized through the following technical scheme: an Internet of Things card data management system, whose structure includes: a USB socket, a wire, a capacitor slot card reader, a card slot, and a network card. The capacitor slot card reader and the card slot are an integrated structure and are on the same horizontal plane. The network card is inserted in the card slot and is on the same horizontal plane. The network card is electrically connected to the capacitor slot card reader. The wire is inserted in the rear side of the capacitor slot card reader. The USB socket is electrically connected to the capacitor slot card reader through the wire. The capacitor slot card reader is provided with a capacitor slot, a relay terminal, a single-chain copper core wire, and a card reader slot shell. The relay terminals are provided with more than two and are all electrically connected to the single-chain copper core wire. The capacitor slot is provided with more than two and are all inserted in the interior of the card reader slot shell. The single-chain copper core wire is installed in the interior of the card reader slot shell and is on the same vertical plane. The card reader slot shell and the card slot are an integrated structure and are on the same horizontal plane.

[0006] To optimize the above technical solution, further measures are taken:

[0007] As a further improvement of the present invention, the capacitor sheet slot is composed of a capacitor sheet, a thyristor memory, and a long pin frame. The thyristor memory is electrically connected to the long pin frame. The thyristor memory and the long pin frame are both installed inside the capacitor sheet and are on the same vertical plane.

[0008] As a further improvement of the utility model, the single-chain copper core wire is composed of a thyristor single-core bar and a copper core wire. The thyristor single-core bar is installed inside the copper core wire. The thyristor single-core bar and the copper core wire are inserted together and are on the same horizontal plane.

[0009] As a further improvement of the present invention, the thyristor memory is a composite single crystal silicon chip block structure with a lead frame in the middle of the core thyristor block, which facilitates the operation effect of forming a segmented data cache to prevent data confusion.

[0010] As a further improvement of the present invention, the thyristor single core strip is a composite copper core strip frame structure of a thyristor twill core tube inner frame, which is convenient for segmented serial reading of the network card to form a data segment pin-attached conduction upload data adaptation management operation effect.

[0011] Beneficial Effects

[0012] The utility model discloses an Internet of Things card data management system. A staff member inserts an Internet card into a card reader with a built-in capacitor slot in a card slot, plugs into a computer host through a USB socket at the other end of a wire, and efficiently reads the Internet card data in a card reader slot shell through a capacitor slot divided into regions and connected in series with relay terminals. The thyristor single-core strip of a single-chain copper core wire and a copper core line form a series conductor to form an electrical signal conduction for uploading data. In addition, multiple card slots are read, and data is transmitted in steps and blocks through a thyristor memory in the capacitor sheet and a long pin rack, thereby preventing fragmented data transmission chaos, and ensuring the stability of the Internet of Things card data management system integrating a hardware card reader and the efficiency of data uploading in steps.

[0013] The advantages that can be achieved after the operation of the utility model are:

[0014] Use capacitor slot card reader in conjunction with network card, adapt network cards of different sizes through multiple card slots and combine with the thyristor memory of the capacitor slot to store and buffer gradient data before going online to the Internet of Things, improve the entire card reader single-chain copper core wire series hardware network card and computer software Internet of Things transmission, improve the overall thyristor single-core strip load reduction and stabilize the main line transmission and the thyristor relay sub-carrier card reading cache efficiency in the copper core wire. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the technical solution of the embodiment of the utility model, the following will be described in detail with reference to the drawings in the description of the embodiment, so that other features, purposes and advantages of the utility model will become more obvious:

[0016] Figure 1 This is a structural schematic diagram of an Internet of Things card data management system of the present utility model.

[0017] Figure 2 It is a detailed top view cross-sectional structural diagram of the capacitance slot card reader of the utility model.

[0018] Figure 3 It is a schematic diagram of a detailed top view cross-sectional structure of the capacitor slot of the utility model.

[0019] Figure 4 It is a detailed top view cross-sectional structural diagram of the single-strand copper core wire of the utility model.

[0020] Explanation of the reference numerals: USB port -1, wire -2, capacitor slot card reader -3, card slot -4, network card -5, capacitor sheet slot -31, relay terminal -32, single-strand copper core wire -33, card reader slot shell -34, capacitor sheet -311, thyristor memory -312, long pin rack -313, thyristor single core strip -331, copper core strip -332. DETAILED DESCRIPTION

[0021] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further described below in conjunction with specific implementation methods.

[0022] Embodiment 1:

[0023] See also Figure 1-Figure 4 The utility model provides an Internet of Things card data management system, which structure includes: a USB socket 1, a wire 2, a capacitor slot card reader 3, a card slot 4, and a network card 5. The capacitor slot card reader 3 and the card slot 4 are an integrated structure and are on the same horizontal plane. The network card 5 is inserted into the inside of the card slot 4 and is on the same horizontal plane. The network card 5 is electrically connected to the capacitor slot card reader 3. The wire 2 is inserted into the rear side of the capacitor slot card reader 3. The USB socket 1 is connected to the capacitor slot card reader through the wire 2. The capacitor slot card reader 3 is electrically connected to the card reader 3, and the capacitor slot card reader 3 is provided with a capacitor slot 31, a relay terminal 32, a single-chain copper core wire 33, and a card reader slot shell 34. The relay terminal 32 is provided with more than two and is electrically connected to the single-chain copper core wire 33. The capacitor slot 31 is provided with more than two and is inserted into the interior of the card reader slot shell 34. The single-chain copper core wire 33 is installed in the interior of the card reader slot shell 34 and is on the same vertical plane. The card reader slot shell 34 and the card slot 4 are an integrated structure and are on the same horizontal plane.

[0024] See also Figure 3The capacitor slot 31 is composed of a capacitor 311, a thyristor memory 312, and a long lead frame 313. The thyristor memory 312 is electrically connected to the long lead frame 313. The thyristor memory 312 and the long lead frame 313 are both installed inside the capacitor 311 and are on the same vertical plane. The thyristor memory 312 is a composite single crystal silicon chip block structure with a lead frame in the core thyristor block, which is convenient for forming a node to cache data for a period of time to prevent data confusion.

[0025] See also Figure 4 The single-chain copper core wire 33 is composed of a thyristor single-core strip 331 and a copper core strip 332. The thyristor single-core strip 331 is installed inside the copper core strip 332. The thyristor single-core strip 331 and the copper core strip 332 are inserted together and are on the same horizontal plane. The thyristor single-core strip 331 is a composite copper core strip frame structure of a thyristor twill core tube inner frame, which is convenient for segmented serial reading of the network card to form a data segment pin-attached conduction upload data adaptation management operation effect.

[0026] Workflow: The staff inserts the network card 5 into the built-in capacitor slot card reader 3 in the card slot 4, plugs into the computer host through the USB socket 1 at the other end of the wire 2, and reads the network card 5 data efficiently in the card reader slot shell 34 through the capacitor slot 31 area series relay terminal 32, and forms an electrical signal conduction for uploading data through the series wire 2 through the thyristor single core strip 331 of the single-chain copper core wire 33 and the copper core line 332, and multiple card slots are read, and the thyristor memory 312 in the capacitor sheet 311 and the long pin rack 313 form a step-by-step gradient block transmission of data to prevent the chaos of fragmented data transmission, thereby ensuring the stability of the hardware card reader integrated in the Internet of Things card data management system and the efficiency of data uploading in steps.

[0027] The utility model achieves the cooperation of the capacitor slot card reader 3 and the network card 5 through the mutual combination of the above-mentioned components, and adapts the network card 5 of different sizes to the multi-card slot 4 and combines the thyristor memory 312 of the capacitor slot 31 to perform gradient data storage and buffering before going online to the Internet of Things, thereby improving the transmission of the entire card reader single-chain copper core wire 33 in series with the hardware network card 5 and the computer software Internet of Things, and improving the overall thyristor single-core strip 331 to reduce the load and stabilize the main line transmission and the thyristor relay sub-carrier card reading cache efficiency in the copper core line, thereby solving the problem that the conventional card reader is a single-card type with port plug-in to read data and upload, and the existing multi-functional card reader has different card slots, large and small, respectively adapted to different card slots for card reading, but the single-chain hardware mainboard card reading will cause serial data and mixed databases, which will not only cause the network card to burn, but also easily cause the load burning when the card reader is serially connected to the Internet of Things end host to go online.

[0028] The specific embodiments described herein are merely examples of the present invention. A person skilled in the art may make various modifications or additions to the specific embodiments described or replace them in a similar manner without departing from the scope of the present invention or exceeding the scope defined in the appended claims.

Claims

1. An Internet of Things card data management system, the structure of which includes: A USB socket (1), a wire (2), a capacitive slot card reader (3), a card slot (4), and a network card (5), characterized in that: The capacitive slot card reader (3) and the card insertion slot (4) are an integrated structure, the network card (5) is inserted into the card insertion slot (4), the network card (5) is electrically connected to the capacitive slot card reader (3), the wire (2) is inserted into the rear side of the capacitive slot card reader (3), and the USB socket (1) is electrically connected to the capacitive slot card reader (3) via the wire (2); The capacitor slot card reader (3) is provided with a capacitor slot (31), a relay terminal (32), a single-strand copper core wire (33), and a card reader slot shell (34); The relay terminals (32) are provided with more than two and are all electrically connected to the single-chain copper core wire (33); the capacitor slots (31) are provided with more than two and are all inserted into the interior of the card reader slot shell (34); the single-chain copper core wire (33) is installed in the interior of the card reader slot shell (34); and the card reader slot shell (34) and the card insertion slot (4) are an integrated structure.

2. The Internet of Things card data management system according to claim 1, characterized in that: The capacitor slot (31) is composed of a capacitor (311), a thyristor memory (312), and a long pin frame (313); the thyristor memory (312) is electrically connected to the long pin frame (313); and the thyristor memory (312) and the long pin frame (313) are both installed inside the capacitor (311).

3. The Internet of Things card data management system according to claim 1, characterized in that: The single-strand copper core wire (33) is composed of a thyristor single core strip (331) and a copper core strip (332); the thyristor single core strip (331) is installed inside the copper core strip (332); and the thyristor single core strip (331) and the copper core strip (332) are inserted and embedded together.

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