A portable translation stick combining a main machine and a sub-machine

Abstract

The utility model relates to technical fields such as translation machine and provide a portable translation stick of main and vice machine combination, and the translation machine includes: translation host computer, including host computer magnetic suction piece and host computer shell, host computer magnetic suction piece sets up in the inside of host computer shell, translation vice machine, translation vice machine includes vice machine magnetic suction piece and vice machine shell, vice machine magnetic suction piece sets up in the inside of vice machine shell, vice machine shell passes through the vice machine magnetic suction piece inside it and attracts the host computer magnetic suction piece in the host computer shell to be detachable with host computer shell Connection, the periphery of vice machine shell in the connection state and the periphery of host computer shell keep alignment. The utility model discloses the host computer and vice machine of translation stick's fuselage size whole symmetry, through the magnetic suction of face to face's pasting together mode, need not the host computer fuselage of bigger to open a bigger containing groove and contain vice machine, greatly reduce the process complexity and cost, be convenient for carrying and using.

Description

Technical Field

[0001] This utility model relates to the technical field of translation machines, and in particular to a portable translation stick that combines a main and a secondary unit. Background Technology

[0002] Compared to integrated translators that require frequent data transfer and are inconvenient to use, split-type translators, by combining a main translator and a secondary translator, offer the advantages of being detachable for independent use and reassembled when not in use, making them easy to carry. Currently, split-type translators are mainly secondary-unit embedded translators. For example, existing technology includes a split-type translator comprising a main unit with signal input / output and translation functions, and a secondary unit electrically connected to the main unit with signal input / output functions. One end of the main unit has a slot to accommodate the embedded secondary unit, and the main unit and secondary unit are integrated into one unit through a detachable mechanism. Another example is a split-type intelligent translator, which includes a main unit and a secondary unit. The main unit has a large receiving slot on its panel to accommodate the secondary unit, and magnetic attachments are provided on the surfaces of the housings of both the main and secondary units to achieve connection between them. Such translators require a large slot on the main unit to accommodate the secondary unit. This not only involves complex manufacturing processes and high production costs, but also requires a larger main unit to accommodate the slot, resulting in a larger and wider translator with reduced portability.

[0003] In summary, existing split-type translators have technical problems such as complex slotting process, high production cost, large and wide overall body, and need to improve portability. Utility Model Content

[0004] To address the shortcomings of the existing technology, this utility model provides a portable translation stick that combines a main unit and a secondary unit. The main unit and the secondary unit of the translation stick are symmetrical in size and are magnetically attached face-to-face. This eliminates the need for a large main unit to accommodate the secondary unit, greatly reducing manufacturing complexity and cost, and making it easy to carry and use.

[0005] This utility model provides a portable translation stick that combines a main unit and a secondary unit, comprising: A translation host includes a host magnetic block and a host housing, wherein the host magnetic block is disposed inside the host housing; A translation sub-unit includes a sub-unit magnetic block and a sub-unit housing. The sub-unit magnetic block is disposed inside the sub-unit housing. The sub-unit housing attracts the main unit magnetic block inside the main unit housing through the sub-unit magnetic block inside, so as to detachably connect with the main unit housing. In the connected state, the periphery of the sub-unit housing is aligned with the periphery of the main unit housing.

[0006] Compared with the prior art, the advantages of this utility model are as follows: This invention provides a portable translation stick combining a main unit and a secondary unit. The translation device includes: a main unit, comprising a main unit magnetic block and a main unit housing, the main unit magnetic block being disposed inside the main unit housing; and a secondary unit, comprising a secondary unit magnetic block and a secondary unit housing, the secondary unit magnetic block being disposed inside the secondary unit housing. The secondary unit housing is attracted to the main unit magnetic block inside the main unit housing via the secondary unit magnetic block inside it, thereby detachably connecting to the main unit housing. In the connected state, the periphery of the secondary unit housing remains aligned with the periphery of the main unit housing. In this invention, the main unit and secondary unit of the translation stick are symmetrical in size and magnetically attached face-to-face, eliminating the need for a large main unit body to create a large receiving slot for the secondary unit, greatly reducing manufacturing complexity and cost, and facilitating portability and use. Attached Figure Description

[0007] The accompanying drawings, which are included to provide a further understanding of the present invention and constitute a part of this invention, illustrate exemplary embodiments of the present invention and are used to explain the present invention, but do not constitute an undue limitation of the present invention. Some specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings in an exemplary and non-limiting manner. The same reference numerals in the drawings designate the same or similar parts or components. It should be understood by those skilled in the art that these drawings are not necessarily drawn to scale. In the drawings: Figure 1 This is a cross-sectional structural diagram of a magnetically charged translation stick combining a main and auxiliary unit according to an embodiment of the present invention; Figure 2 This is a schematic diagram of another cross-sectional structure of the magnetic charging translation stick combining the main and auxiliary units in an embodiment of the present invention; Figure 3 This is a schematic diagram of the overall assembly structure of a magnetic charging translation stick combining a main unit and a secondary unit according to an embodiment of the present invention; Figure 4 This is a schematic diagram of another overall assembly structure of the magnetic charging translation stick combining the main and auxiliary units in an embodiment of the present invention.

[0008] Explanation of reference numerals in the attached figures: 1. Translation host; 10. Host housing; 100. Host bottom shell; 101. Host outer shell; 1010. Host button mounting holes; 11. Host magnetic block; 110. First host magnetic block; 111. Second host magnetic block; 12. Host motherboard; 13. Host battery; 14. Host speaker; 15. Host button module; 2. Sub-translator; 20. Sub-translator housing; 200. Sub-translator bottom shell; 201. Sub-translator outer shell; 2010. Sub-translator button mounting holes; 21. Sub-translator magnetic block; 210. First sub-translator magnetic block; 211. Second sub-translator magnetic block; 22. Sub-translator mainboard; 23. Sub-translator battery; 24. Sub-translator speaker; 25. Sub-translator button module; 3. Translation stick handle. Detailed Implementation

[0009] To enable those skilled in the art to better understand the present invention, the technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are merely some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort should fall within the scope of protection of the present invention.

[0010] See Figures 1-4 This utility model embodiment provides a portable translation stick combining a main and a secondary unit, comprising: Translation host 1 includes host magnetic block 11 and host housing 10, wherein the host magnetic block 11 is disposed inside the host housing 10; The translation sub-unit 2 includes a sub-unit magnetic block 21 and a sub-unit housing 20. The sub-unit magnetic block 21 is disposed inside the sub-unit housing 20. The sub-unit housing 20 is attracted to the main unit magnetic block 11 inside the main unit housing 10 by the sub-unit magnetic block 21 inside it, so as to be detachably connected to the main unit housing 10. In the connected state, the periphery of the sub-unit housing 20 is aligned with the periphery of the main unit housing 10.

[0011] In this embodiment, the main translation unit 1 and the secondary translation unit 2 are respectively equipped with a main unit magnetic block 11 and a secondary unit magnetic block 21, and are detachably connected by magnetic attraction. In the connected state, the periphery of the secondary unit housing 20 remains aligned with the periphery of the main unit housing 10. This effectively solves the technical problems of complex slotting processes, high production costs, and large and wide overall size of existing split-type translation machines. Specifically, existing technologies require a large slot to be opened on the main unit to embed the secondary unit, which necessitates a sufficiently large main unit body to accommodate the secondary unit, thus increasing the overall size and weight. Furthermore, the complex slotting process increases production costs. This embodiment, however, uses a face-to-face magnetic attachment method, eliminating the need for any slots on the main unit, simplifying the structural design, and reducing processing difficulty and material costs. In addition, because the main and secondary units are symmetrical in size and aligned, the overall size is compact after combination, avoiding wasted space and greatly improving portability, making it easy for users to carry and use. The magnetic connection also provides a stable bonding force, ensuring that the main and secondary units are not easily separated during transport, while also facilitating disassembly and meeting the needs of separate use.

[0012] It is also important to note that by embedding the main unit magnetic block 11 and the auxiliary unit magnetic block 21 inside the main unit housing 10 and the auxiliary unit housing 20 respectively, a series of technical problems caused by external magnetic attraction methods, such as uneven structure, easy damage, poor aesthetics, and low alignment accuracy, can be solved. If the magnetic blocks are externally placed (such as by designing raised magnets or metal sheets on the surface of the housing), gaps or steps will inevitably be generated at the joint, compromising the overall flatness of the translation stick. The built-in magnetic blocks allow the magnetic attraction force to act indirectly through the housing material (such as a plastic housing). During production, the wall thickness of the housing and the installation position of the magnetic blocks can be precisely controlled to ensure that when the main and auxiliary units are attracted, their housings can make seamless contact, forming a complete whole in terms of both appearance and feel, enhancing the product's premium feel and aesthetics. Preferably, the built-in magnetic blocks can be firmly fixed inside the housing by means of snaps, slots, etc., making the connection more reliable and ensuring the connection stability of the product during long-term use.

[0013] Preferably, the auxiliary housing 20 includes an auxiliary bottom housing 200 and an auxiliary outer housing 201; the auxiliary bottom housing 200 is connected to the auxiliary outer housing 201 to form a first inner space and a second inner space, the height of the first inner space being less than the height of the second inner space, so that the auxiliary housing 20 forms a spatially partitioned auxiliary housing 20 with different overall heights.

[0014] In this embodiment, the secondary housing 20 adopts a spatial partitioning design, with the secondary housing bottom shell 200 and the secondary housing outer shell 201 connected to form a first and a second internal space of different heights. This achieves the technical effects of optimizing the internal space layout and reducing the size of the secondary housing. The spatial partitioning housing divides the internal space into areas of different heights, allowing for flexible allocation of space according to component dimensions. The first internal space is shorter, suitable for accommodating flat components such as the motherboard; the second internal space is taller, suitable for accommodating thicker components such as batteries and speakers. This design avoids the space waste caused by a single-height space, making the secondary housing thinner and more compact, thereby reducing the overall volume and weight of the translation stick. Simultaneously, the spatial partitioning structure enhances the structural strength of the housing, facilitates assembly and maintenance, and reduces production complexity.

[0015] Preferably, the auxiliary unit bottom shell 200 is provided with an auxiliary unit main board 22, an auxiliary unit battery 23, and an auxiliary unit speaker 24; the auxiliary unit main board 22 is located in the first shell space, the auxiliary unit battery 23 and the auxiliary unit speaker 24 are located in the second shell space, and the auxiliary unit main board 22 is electrically connected to the auxiliary unit battery 23 and the auxiliary unit speaker 24 respectively.

[0016] In this embodiment, by placing the secondary unit motherboard 22, secondary unit battery 23, and secondary unit speaker 24 respectively in the first and second shell spaces of the secondary unit's bottom shell 200 and electrically connecting them, a highly efficient internal component layout and improved secondary unit performance can be achieved. In existing translators, components are often concentrated, leading to localized space congestion, affecting heat dissipation and signal stability, and potentially increasing the overall size of the device. This embodiment utilizes the spatial characteristics of a partitioned shell, placing the motherboard in the lower first shell space, while the battery and speaker are placed in the higher second shell space. This rationally allocates the positions of components of different sizes, avoids spatial conflicts, and optimizes the utilization of internal space. This not only makes the secondary unit thinner but also reduces electromagnetic interference and improves translation quality and reliability. Furthermore, the partitioned layout of the secondary unit motherboard 22, secondary unit battery 23, and secondary unit speaker 24 in this embodiment facilitates modular production and maintenance, reducing maintenance costs.

[0017] Preferably, the secondary unit housing 201 has a secondary unit button mounting hole 2010, and a secondary unit button module 25 is disposed in the secondary unit button mounting hole 2010. The secondary unit button module 25 is connected to the space inside the first housing and electrically connected to the secondary unit motherboard 22.

[0018] In this embodiment, by creating a secondary button mounting hole 2010 on the secondary unit housing 201 and installing a secondary button module 25, which is electrically connected to the secondary unit motherboard 22, the technical effects of enhanced user interaction convenience and optimized external design can be achieved. This embodiment integrates the button module within the mounting hole and connects it to the motherboard, providing an intuitive user interface, such as translation startup or language switching, thus improving usability. The mounting hole design ensures the buttons are secure and not easily damaged, while maintaining the flatness of the housing and avoiding the inconvenience caused by protrusions.

[0019] Preferably, the auxiliary unit magnetic block 21 is also installed on the auxiliary unit bottom shell 200. The auxiliary unit magnetic block 21 includes a first auxiliary unit magnetic block 210 and a second auxiliary unit magnetic block 211. The first auxiliary unit magnetic block 210 and the second auxiliary unit magnetic block 211 are respectively disposed at two ends of the auxiliary unit bottom shell 200. The auxiliary unit main board 22, the auxiliary unit battery 23 and the auxiliary unit speaker 24 are located between the first auxiliary unit magnetic block 210 and the second auxiliary unit magnetic block 211. The first auxiliary unit magnetic block 210 is located in the space inside the first shell, and the second auxiliary unit magnetic block 211 is located in the space inside the second shell.

[0020] In this embodiment, by setting a first magnetic block 210 and a second magnetic block 211 at the two ends of the secondary unit's bottom shell 200, and placing the secondary unit's mainboard 22, battery, and speaker between the magnetic blocks, a stable magnetic connection and optimized internal space allocation can be achieved. This embodiment employs a dual magnetic block layout, ensuring even magnetic force distribution at the ends. When connected to the main unit, it provides a balanced attraction force, preventing the secondary unit from shaking or falling off and ensuring a stable connection. Simultaneously, placing the main components such as the secondary unit's mainboard 22 and battery between the magnetic blocks fully utilizes the shell space, avoiding the magnetic blocks occupying key component positions, thereby reducing the body thickness. The first magnetic block is located within the first shell space, and the second magnetic block is located within the second shell space, further optimizing space utilization in conjunction with the space-partitioned shell design.

[0021] Preferably, the host housing 10 includes a host bottom shell 100 and a host outer shell 101; the host bottom shell 100 is connected to the host outer shell 101, and a third inner shell space and a fourth inner shell space are formed inside the host housing 10. The height of the third inner shell space is less than the height of the fourth inner shell space, so that the host housing 10 forms a spatially partitioned host housing 10 with different overall heights.

[0022] In this embodiment, the main unit housing 10 adopts a spatial partitioning design, with the main unit bottom shell 100 and the main unit outer shell 101 connected to form a third and fourth inner shell space of different heights. This achieves the technical effect of a compact main unit body and optimized internal layout. This embodiment, through the spatial partitioning of the main unit housing 10, divides the inner space into regions of different heights, similar to a secondary unit design, making the main unit body thinner and more symmetrical. The third inner shell space is relatively short, suitable for accommodating flat components such as the motherboard; the fourth inner shell space is relatively long, suitable for accommodating thicker components such as the battery and speaker. This design avoids wasting internal space, reduces the overall size, and makes the overall translation stick more coordinated and portable when combined with the secondary unit. At the same time, the spatial partitioning structure simplifies the assembly process, improves production efficiency, reduces costs, and also improves heat dissipation and structural strength, extending the device's lifespan.

[0023] Preferably, the main unit bottom shell 100 is provided with a main unit motherboard 12, a main unit battery 13 and a main unit speaker 14; the main unit motherboard 12 is located in the third shell space, the main unit battery 13 and the main unit speaker 14 are located in the fourth shell space, and the main unit motherboard 12 is electrically connected to the main unit battery 13 and the main unit speaker 14 respectively.

[0024] In this embodiment, by placing the main unit motherboard 12, main unit battery 13, and main unit speaker 14 in the third and fourth shell spaces of the main unit bottom shell 100 respectively and electrically connecting them, the technical effect of efficient layout and performance improvement of the internal components of the main unit can be achieved. This embodiment utilizes a space-partitioned shell allocation, placing the motherboard in the lower third shell space, while placing the battery and speaker in the higher fourth shell space, ensuring sufficient space for each component without increasing the overall size of the device. This layout reduces interference between components and improves translation accuracy and stability. Furthermore, this design facilitates upgrades to the battery and speaker, such as using a larger capacity battery or a higher quality speaker, improving battery life and sound quality.

[0025] Preferably, the host casing 101 has a host button mounting hole 1010, and a host button module 15 is disposed in the host button mounting hole 1010. The host button module 15 is connected to the third casing space and electrically connected to the host motherboard 12.

[0026] In this embodiment, by creating a button mounting hole 1010 on the main unit casing 101 and installing a main unit button module 15, which is electrically connected to the main unit motherboard 12, the technical effects of convenient operation and a clean appearance of the main unit can be achieved. This embodiment integrates the button module within the mounting hole and connects it to the motherboard, providing a direct user control interface, such as power on / off or mode switching, thus improving operational efficiency. The mounting hole design ensures the buttons are secure and prevents accidental touches, while maintaining the smooth lines of the casing and avoiding an obtrusive appearance. By connecting to the third shell space, the button module does not require additional space.

[0027] Preferably, the host magnetic block 11 is also installed on the host bottom shell 100. The host magnetic block 11 includes a first host magnetic block 110 and a second host magnetic block 111. The first host magnetic block 110 and the second host magnetic block 111 are respectively disposed at two ends of the host bottom shell 100. The host motherboard 12, the host battery 13, and the host speaker 14 are located between the first host magnetic block 110 and the second host magnetic block 111. The first host magnetic block 110 is located in the third shell space, and the second host magnetic block 111 is located in the fourth shell space. When the translation auxiliary unit 2 and the translation host 1 are in face-to-face contact, the first host magnetic block 110 and the first auxiliary unit magnetic block 210 attract each other, and the second host magnetic block 111 and the second auxiliary unit magnetic block 211 attract each other.

[0028] In this embodiment, by setting a first main unit magnetic block 110 and a second main unit magnetic block 111 at each of the two ends of the main unit bottom shell 100, and having them correspondingly adsorbed with the secondary unit magnetic block 21, a firm connection and precise alignment between the main and secondary units can be achieved. This embodiment employs a dual magnetic block corresponding design. When the main and secondary units are face-to-face, the first main unit magnetic block 110 and the first secondary unit magnetic block 210, and the second main unit magnetic block 111 and the second secondary unit magnetic block 211, attract each other, forming a multi-point magnetic balance, ensuring a tight connection that is not easily separated. This layout in this embodiment allows the main and secondary units to automatically align their peripheries during connection, maintaining overall aesthetic consistency. Simultaneously, the magnetic blocks are located within the shell space, protecting the magnets from external damage and extending their service life. Components such as the motherboard and battery are located between the magnetic blocks, optimizing space utilization and avoiding structural interference.

[0029] Preferably, the end of the main unit bottom shell 100 extends out of the end of the main unit outer shell 101, and a translation rod handle 3 is formed on the outside of the end of the main unit outer shell 101, the translation rod handle 3 being integrally formed with the end of the main unit bottom shell 100.

[0030] In this embodiment, the end of the main unit's bottom shell 100 extends into the end of the main unit's outer shell 101, forming an integrally molded translation stick handle 3. This achieves the technical effects of convenient carrying and structural reinforcement. The integrally molded handle provides a natural grip point, allowing users to easily carry or hang the translation stick, thus solving the problem of insufficient portability. The integrally molded design of the handle avoids additional accessories, simplifies the structure, reduces the number of parts and production costs, and also improves the strength and durability of the handle, preventing breakage or deformation.

[0031] It should be noted that the above embodiments are only preferred embodiments of the present utility model, and the protection scope of the present utility model is not limited thereto. Any changes or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in the present utility model should be included within the protection scope of the present utility model. The protection scope of the present utility model should be determined by the protection scope of the claims.

Claims

1. A portable translation stick combining a main unit and a secondary unit, characterized in that, include: A translation host includes a host magnetic block and a host housing, wherein the host magnetic block is disposed inside the host housing; A translation sub-unit includes a sub-unit magnetic block and a sub-unit housing. The sub-unit magnetic block is disposed inside the sub-unit housing. The sub-unit housing attracts the main unit magnetic block inside the main unit housing through the sub-unit magnetic block inside, so as to detachably connect with the main unit housing. In the connected state, the periphery of the sub-unit housing is aligned with the periphery of the main unit housing.

2. The portable translation stick combining a main and auxiliary unit according to claim 1, characterized in that, The auxiliary housing includes a base shell and an outer shell; the base shell is connected to the outer shell to form a first inner space and a second inner space, the height of the first inner space being less than the height of the second inner space, so that the auxiliary housing forms a spatially partitioned auxiliary housing with different overall heights.

3. The portable translation stick combining a main unit and a secondary unit according to claim 2, characterized in that, The auxiliary unit's bottom shell is provided with an auxiliary unit main board, an auxiliary unit battery, and an auxiliary unit speaker; the auxiliary unit main board is located in the first shell space, the auxiliary unit battery and the auxiliary unit speaker are located in the second shell space, and the auxiliary unit main board is electrically connected to the auxiliary unit battery and the auxiliary unit speaker respectively.

4. The portable translation stick combining a main and auxiliary unit according to claim 3, characterized in that, The secondary unit housing has a secondary unit button mounting hole, and a secondary unit button module is installed in the secondary unit button mounting hole. The secondary unit button module is connected to the internal space of the first housing and is electrically connected to the secondary unit motherboard.

5. The portable translation stick combining a main and auxiliary unit according to claim 3, characterized in that, The auxiliary unit's bottom shell is also equipped with the auxiliary unit's magnetic block, which includes a first auxiliary unit magnetic block and a second auxiliary unit magnetic block. The first auxiliary unit magnetic block and the second auxiliary unit magnetic block are respectively disposed at two ends of the auxiliary unit's bottom shell. The auxiliary unit's main board, the auxiliary unit's battery, and the auxiliary unit's speaker are located between the first auxiliary unit magnetic block and the second auxiliary unit magnetic block. The first auxiliary unit magnetic block is located in the space inside the first shell, and the second auxiliary unit magnetic block is located in the space inside the second shell.

6. The portable translation stick combining a main unit and a secondary unit according to claim 5, characterized in that, The main unit housing includes a main unit bottom shell and a main unit outer shell; the main unit bottom shell is connected to the main unit outer shell, forming a third inner shell space and a fourth inner shell space inside the main unit housing, the height of the third inner shell space being less than the height of the fourth inner shell space, so that the main unit housing forms a spatially partitioned main unit housing with different overall heights.

7. The portable translation stick combining a main and auxiliary unit according to claim 6, characterized in that, The main unit's bottom casing is equipped with a main unit motherboard, a main unit battery, and a main unit speaker; the main unit motherboard is located in the third casing space, and the main unit battery and the main unit speaker are located in the fourth casing space, with the main unit motherboard electrically connected to the main unit battery and the main unit speaker respectively.

8. The portable translation stick combining a main unit and a secondary unit according to claim 7, characterized in that, The host casing has a host button mounting hole, and a host button module is installed in the host button mounting hole. The host button module is connected to the internal space of the third casing and electrically connected to the host motherboard.

9. The portable translation stick combining a main unit and a secondary unit according to claim 7, characterized in that, The host magnetic block is also installed on the bottom shell of the host. The host magnetic block includes a first host magnetic block and a second host magnetic block. The first host magnetic block and the second host magnetic block are respectively disposed at two ends of the bottom shell of the host. The host motherboard, the host battery and the host speaker are located between the first host magnetic block and the second host magnetic block. The first host magnetic block is located in the inner space of the third shell and the second host magnetic block is located in the inner space of the fourth shell. When the translation sub-unit and the translation host are placed face to face, the first host magnetic block and the first sub-unit magnetic block attract each other, and the second host magnetic block and the second sub-unit magnetic block attract each other.

10. The portable translation stick combining a main and auxiliary unit according to claim 6, characterized in that, The end of the bottom shell of the main unit extends out of the end of the outer shell of the main unit, and a translation stick handle is formed on the outside of the end of the outer shell of the main unit. The translation stick handle is integrally formed with the end of the bottom shell of the main unit.

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