TWI439876B - Communication device for multiple language translation system - Google Patents

Description

Communication device for multilingual translation system

The present invention relates to a communication device, and more particularly to a communication device capable of translating a first language between two users into a multilingual translation system of at least one target language.

According to the fact that there are many languages spoken by human beings all over the world, for most people, if the two sides do not have a common language that they know each other, it will cause communication difficulties. This language barrier is prone to misunderstanding, conflict and estrangement.

In order to achieve better communication, it is usually necessary to translate through a translator so that both languages can be understood, but the amount of hiring translators is expensive, inefficient and not flexible enough.

Another method of translation is to translate through a computer or a translator. Unfortunately, the language rules of many languages are very different, so the results of using machine translation are often incomprehensible. Obviously, this method is not reliable.

Therefore, the present invention proposes a communication device of a multi-language translation system to overcome the above problems, and the specific architecture and its implementation will be described in detail below.

SUMMARY OF THE INVENTION A primary object of the present invention is to provide an electronic communication device for a multi-language translation system that allows users to interact in their respective languages, while the communication device translates the user's language.

The communication device of the multi-language translation system provided by the present invention comprises a plurality of operation switches for implementing various operations of the communication device, and the operation switch can include a state switch, a mode switch, a volume switch, a microphone switch, a detection/selection switch, a language switch, Start/stop switch, recording switch, camera mode switch, camera control switch, and interrupt request switch.

When the operation switch has been selected, the signal indicator can visually indicate the current state of the communication device. For example, the signal indicator is a light-emitting diode (LED) that can emit one color or multiple colors, or is blinking. The mode represents the current state of the communication device.

The communication device 1300 has a main housing that retains the position of the electronic components, modules, and circuits required for the communication device 1300 to operate. The electronic components can include a wireless receiver and a wireless transmitter, and a sound processing module to control reception. To and from the sound, a central processing unit, memory, programmable memory (for firmware, operating system and translation database), a voice synthesizer to simulate spoken language, battery, complex switch, plural Indicators, etc.

The communication device of the present invention includes a wireless transmission receiver for communicating with other users, devices, networks, and the Internet.

The communication device of the present invention can use a headset and a microphone to allow users to communicate with each other while listening to voice conversations or translations; and a display for displaying text, translation, communication, video or video.

The communication device of the present invention further includes a camera for capturing video or image data. In addition, the camera further provides a function of a communication device such as a scanner to capture images, images or text for processing; further, using the camera, A user of the multilingual translation system communication device of the present invention can read text in a language and receive translations of the text in a language of their choice.

The invention further comprises a remote controller, which is provided with a plurality of switches and a plurality of signal indicators, so that the user can easily activate, set or control the operation function on the communication device, and the operation switch on the remote controller can be used for communication by the user. It is easy to perform with a variety of settings, options and operations.

The communication device of the multi-language translation system provided by the present invention receives input from the first user at the original language, and then, the original language input is translated into a basic language in a text form, and then the basic language text is converted into at least one target language. A single-word code that determines the target language word. This target language word is searched on the Internet or server to select the most popular, best-choice or most similar translation and translate it as the target language. Give another user.

Another embodiment of the communication device of the multi-language translation system is applied to a telephone conversation or a conference call. Each conversation member can use its own language, and other users receive and translate into their respective languages through the communication device of the present invention, so the conversation members You can talk in different, familiar languages.

The purpose, technical content, features and effects achieved by the present invention will be more readily understood by the detailed description of the embodiments.

The present invention provides a communication device for a multi-language translation system. Please refer to FIG. 13A, which is a side view of a communication device of the multi-language translation system of the present invention.

As shown in FIG. 13A, the communication device 1300 includes a main housing 1301, a status switch 1304, and a signal indicator 1306.

The status switch 1304 provides a user to switch between multiple states or available modes. In this embodiment, the state switch 1304 is an operational switch that can be used for preset or programmed operation, and the available or status mode is exemplified. Such as available, offline, online, unavailable, busy, interrupted, translation mode, receive mode or connection for all languages. When a user does not want to be disturbed, the communication device 1300 can be set to the unavailable mode by using the status switch 1304; if the user inputs the offline status on the status switch 1304, the communication function of the communication device 1300 is turned off or put into standby, so that The communication device 1300 cannot be connected to other devices.

The signal indicator 1306 can virtually indicate the current state of the communication device 1300 in accordance with the selection of the status switch 1304. The signal indicator is a light emitting diode (LED) that can emit one color or multiple colors, or represents the current state of the communication device 1300 in a blinking mode, for example, if the user is currently in conversation with other users. The signal indicator 1306 will indicate that the status of the user is busy, so other users can easily see the status of the user's communication device 1300.

The signal indicator 1306 displays the status of the communication device 1300 through illumination. For example, the green light represents the communication device 1300 can perform the translation mode in all languages, the red light is the offline mode, and the yellow light represents the communication device 1300 is receiving the mode but not the transmission mode. . The signal indicator 1306 can also indicate the status mode using a flash or pattern. For example, the offline status signal indicator is off, the slow flash is busy, and no flicker is available.

The signal indicator 1306 can provide a function of whether the user or group of users is currently connected.

The signal indicator 1306 also provides information on which user is in a conversation or communication.

The signal indicator 1306 further displays which language the user is using.

The main housing 1301 is the main body of the communication device 1300, and retains the positions of the electronic components, modules, and circuits required for the communication device 1300 to operate. The electronic components may include a wireless receiver and a wireless transmitter, and a sound processing module. To control the received and transmitted sound, a central processing unit, memory, programmable memory (for firmware, operating system and translation database), a voice synthesizer to simulate the spoken language, battery, plural Switches, complex indicators, etc.

The wireless transmission receiver may comprise a Bluetooth transmission device, a WI-FI transmission device, a 3G transmission device, a 4G transmission device or a combination of these transmission devices. The wireless transmission receiver provides a connection between the user, the device, the Internet or the network. For example, the communication device 1300 includes a Bluetooth transmission device to connect with other users' devices and includes a WI- The FI transmission device is connected to the Internet. When a user is communicating with other users through the Bluetooth transmission device, the communication device 1300 of the user can be stored on the Internet through the WI-FI transmission device. take.

Please refer to FIG. 13B, which is a side view of an embodiment of a communication device of the multi-language translation system of the present invention.

In this embodiment, the signal indicator 1306 is disposed on the front side of the communication device 1300. The signal indicator 1306 can increase the visibility of the signal at this position, so that other users can see the signal indicator 1306 from the front. The side of the device 1300 is preferred.

Please refer to FIG. 13C, which is a side view of an embodiment of a communication device of the multi-language translation system of the present invention.

In the embodiment of FIG. 13C, the communication device 1300 includes a plurality of signal indicators 1306. The use of the plurality of signal indicators 1306 can be more flexible in providing information. For example, the signal indicator 1306 can present various status, mode or condition information. The signal indicator 1306 can provide a combination of information. For example, a signal indicator 1306 provides status information, a signal indicator 1306 provides mode information, and a signal indicator 1306 provides operational condition information. For example, a signal indicator 1306 displays whether the user is busy, available or offline, and another signal indicator 1306 displays that the user can only receive mode, receive and transmit mode, or transmit only mode, another signal indicator 1306 Representing the user is connecting or responding for communication.

In an embodiment of the invention, the plurality of signal indicators 1306 are disposed on the front side of the communication device 1300 or both on the front side and the side.

Please refer to FIG. 13D, which is a side view of an embodiment of a communication device of the multi-language translation system of the present invention.

In the embodiment of FIG. 13D, the communication device 1300 further includes a detection selection switch 1305 and a plurality of language switches 1302a, 1302b, and 1302c.

The detection selection switch 1305 can be used by the user to scan or detect available devices, connections, users or networks. The detection selection switch 1305 allows the user to connect with available devices, connections, users or the network. Line or request connection.

In an embodiment of the invention, the communication device 1300 can be configured to automatically scan for available devices and automatically wire to available devices. In one embodiment of the invention, the communication device 1300 uses the proximity detection selection mode, and only available devices adjacent to the user can be connected.

In the embodiment shown in FIG. 13D, the detection selection switch 1305 is used to detect and select an available device. For example, when more than two users want to communicate with each other, press the detection simultaneously. Selecting the switch 1305 for a short period of time, the user can connect to each other; in another example, if the user wants to join the ongoing conversation or discussion, the user presses the detection selection switch 1305 and the communication device 1300 detects In the dialogue device or transfer device (hub), the user's communication device 1300 is connected to the group in the current conversation; in another example, if the user repeatedly presses or continuously presses the detection selection switch 1305, the user A loop selection can be made between available devices to select one or more devices for wiring.

The plural language switches 1302a, 1302b, and 1302c provide different languages for selection. When communicating, generally, words or phrases in different languages are mixed into one original language or a basic language sentence, for example, if the user is speaking in the first language. And it is desirable to merge the words or phrases of the second language, and the user can press the appropriate language switches 1302a, 1302b, 1302c to make the communication device 1300 more easily judge the use of the second language. Regardless of pressing another language switch 1302a, 1302b, 1302c or releasing the language switches 1302a, 1302b, 1302c, the communication device 1300 will return to using the first language, for example, if the user uses English, it is desirable to have the same sentence A single word is expressed in Spanish. When the user uses a Spanish word, the language switch associated with the Spanish language can be used; if the Spanish language switch is pressed during use, the user releases the Spanish language switch. Then return to use English, or press the English language switch to return to use English.

The language and its associated language switches are selective or editorial, increasing the flexibility of use.

Please refer to FIG. 13E, which is a top view of an embodiment of a communication device of the multi-language translation system of the present invention.

In the embodiment of FIG. 13E, the communication device 1300 further includes a microphone 1308 and an earphone 1307 connected to the main casing 1301.

The microphone 1308 is used for the user to speak and capture the user's voice. The circuit inside the main casing 1301 processes the voice input through the microphone 1308. The voice is wirelessly transmitted to the voice signal, the encoded digital voice signal or the encoded code stream. Connected to the communication device.

When the earphone 1307 is placed in the user's ear, the user can hear the voice transmitted from the connected communication device.

Please refer to FIG. 14A, which is a side view of another embodiment of a communication device of the multi-language translation system of the present invention.

In the embodiment illustrated in Figure 14A, the communication device 1300 includes an integrally formed frame such that the communication device 1300 is shaped like a pair of glasses.

The communication device 1300 includes an ear frame 1309a, a display frame 1309c, a side module 1309d, a microphone 1308, a status switch 1304, and a signal indicator 1306.

The state switch 1304 and the signal indicator 1306 operate as shown in FIGS. 13A to 13D, and the side module 1309d is similar to the main casing 1301 in FIGS. 13A to 13D, in which the communication device 1300 is operated. The circuit is disposed inside the side module 1309d or partially exposed to the side module 1309d as a state switch 1304 and a signal indicator 1306.

When the user wears the communication device 1300, the ear frame 1309a surrounds, partially surrounds the user's ear or is located on the user's ear.

Display frame 1309c supports a display, a set of lenses, or clear glass.

The connection frame 1309b is connected to the ear frame 1309a and the display frame 1309c.

A set of ear frames 1309a, a connecting frame 1309b, and a display frame 1309c are provided on the left and right sides of the communication device 1300 to form the shape of the glasses.

Please refer to FIG. 14B, which is a side view of another embodiment of the communication device of the multi-language translation system of the present invention.

In the embodiment shown in FIG. 14B, the communication device 1300 further includes an earphone 1307 and an elastic earphone frame 1309e, wherein the earphone 1307 allows the user to hear the communication content of other connected users.

The flexible earphone frame 1309e connects the earphone 1307 with the ear frame 1309a so that the earphone 1307 can be comfortably placed on the user's ear.

The electrical connections of the circuits in the earphone 1307 and the side module 1309d are located inside the elastic earphone frame 1309e, the ear frame 1309a, and the connection frame 1309b.

Please refer to FIG. 14C, which is a side view of another embodiment of the communication device of the multi-language translation system of the present invention.

In the embodiment shown in FIG. 14C, the communication device 1300 includes a plurality of operational switches 1310.

The operation switch 1310 can perform operations on a variety of communication devices 1300.

The operation switch 1310 includes the following: a status switch that provides switching between multiple states or available modes of the user, such as available, offline, online, unavailable, busy, closed, translation mode for all languages, receiving mode but not transmission mode, or In-line; mode switch for switching between multiple modes, such as general broadcast mode (single user vs. multiple users), two-way mode (communication between individual users and primary users), and omni mode (all users communicate with each other); volume switch to control the volume of the headset; microphone switch to control the volume of the microphone; detection selector switch for the user to scan or detect available devices, connections, users or networks And connect to available devices, connections, users or the Internet or request a connection; language switch to select a different language or switch between different languages; activate the off switch to control the opening of the communication device And off; record switch to record the conversation from start to stop (in the original language, translation or both) and store the record In the memory of the communication device; the camera mode switch to select the operation mode of the camera, for example, when the communication device provides the text or image data of the camera's attention for translation, the scan mode, the image capture mode, and the video capture mode may be selected. , handwriting recognition mode, optical code recognition mode or instant translation mode; camera control switch, after the selected camera mode, select the start or stop operation (such as start video capture); display control switch, control display settings and remote display settings And the interrupt request switch allows the user to respond to the communication rights of the next available opportunity, preventing the user from discussing each other as if they were sending a request for communication, and individually granting the right to speak when no other user is speaking or communicating.

In an embodiment of the present invention, the current state of the operation switch 1310 is provided to the user. For example, the voice content of the state is provided to the user through the earphone, or the virtual content of the state is provided to the user through the display, so The current state or current state of the operational switch 1310 can be readily determined to be available or selectable.

For example, if the operation switch 1310 is a status switch, such as user switching between multiple states or available modes, a voice content or virtual content may be provided as "available", "offline", "online", "Not available", etc.

In one embodiment of the invention, the operational mode of the operational switch 1310 is programmable, and the operational switch 1310 can be programmed to operate any of the above-described switch configurations. For example, the operational switch 1310 is programmed to perform the functions of the switch. . Whenever the user uses the programmed operating switch, the switch operates as a language switch.

The function of the operating switch can be programmed using a remote control device or wirelessly coupled to the communication device using an external device for programming.

In an embodiment of the present invention, the operation mode of the operation switch 1310 is preset, and the operation switch 1310 operates in a preset switch mode. For example, an operation switch 1310 is preset to execute the state switch shown in FIG. 13A. Function, whenever the user uses this preset operation switch, the switch will operate as a status switch function.

Please refer to FIG. 14D, which is a front view of the communication device of the multi-language translation system of the present invention.

In the embodiment shown in FIG. 14D, the communication device 1300 further includes a bridge frame 1309f for connecting the two display frames 1309c. This bridging frame 1309f allows the front side of the communication device 1300 to be comfortably placed on the bridge of the user's nose.

In an embodiment of the present invention, the communication device 1300 further includes a camera 1311 disposed in the bridge frame 1309f. The camera 1311 can capture video or video data. For example, the communication device 1300 captures an object that the user is looking at or Motion image and video material.

The camera 1311 allows the communication device 1300 to operate as a scanner to capture subsequent images, images, and texts that can be processed, for example, to scan text and utilize an optical character recognition optical character recognition (Optical Character Recognition, The OCR) program converts image data into text styles.

In addition, using the camera 1311 and the multi-language translation system of the present invention, the user can view the text in one language, translate the text in the language selected by the user, and receive the translation.

Moreover, the handwriting recognition software matching camera 1311 can be used to enable the communication device 1300 to perform character recognition after the user inputs or handwritten the characters, and then converts the image of the handwritten characters into text data. The handwriting recognition software matching camera 1311 can also recognize hand-drawn pictures or shapes and convert them into image data.

In one embodiment of the invention, display 1312 is supported by display frame 1309c, which provides virtual information such as translations, conversations, or communication materials. When the user wears the communication device 1300, the design and resolution of the display 1312 allows the user to comfortably read the virtual information. The setting of display 1312 also eliminates the need for an external display. Since the user can see the communication content through the display without listening, the display 1312 can prevent the user from hearing damage.

In one embodiment of the invention, only one display 1312 is used, and other display frames 1309c support a lens or glass.

In one embodiment of the invention, the two or two glasses are supported by the two display frames 1309c.

In one embodiment of the present invention, two opaque or translucent materials are supported by the two display frames 1309c to eliminate or reduce the brightness of the light to the user.

Please refer to FIG. 14E, which is a front view of the communication device of the multi-language translation system of the present invention.

In the embodiment shown in FIG. 14E, at least one signal indicator 1306 is provided in the bridge frame 1309f for the communication device 1300 to provide virtual information to other users through the front side of the communication device 1300.

Please refer to FIG. 15A, which is a schematic diagram of a remote controller in a communication device of a multi-language translation system of the present invention.

In an embodiment of the invention, the communication device further includes a remote control 1315 to control the communication device.

The remote control 1315 includes a plurality of operation switches 1310 and a plurality of signal indicators 1306 for the user to easily activate, change settings or control the operation mode.

The user can control various settings, options, and operations that the communication device has or can perform using the operation switch 1310 on the remote control 1315.

Please refer to FIG. 15B, which is a schematic diagram of a remote controller in the communication device of the multi-language translation system of the present invention.

In the embodiment shown in FIG. 15B, the remote controller 1315 includes a remote control display 1320, a camera 1311, a plurality of operation switches 1310, and a plurality of signal indicators 1306.

The camera 1311 can use a remote controller to control scanning a text line by line into a picture or video, and the remote control display 1320 provides a function of a viewfinder and an image or video display.

In one embodiment of the present invention, the camera 1311 is positioned behind the remote control 1315 and is symmetrical with the operation switch 1310 and the remote control display 1320. When the camera is used, the user can obtain a better view of the remote control display 1320.

The remote display 1320 allows the user to view the list and options to set the communication device, viewing options to functionally set or program the communication switch 1310 on the communication device or remote control 1315, control the function of the signal indicator 1306, such as a viewfinder. Use the camera 1311 to view pictures, videos, videos and texts, actions, and view communication content and translations.

In an embodiment of the present invention, the communication device receives a user's voice, text or graphic input, and the input is converted into an encoding or signal system, the encoding system translates word by word, and then the present invention performs calculation by cloud computing. , receive the best answer and re-confirm with the main language input, provide the best answer after confirmation to the user through the voice translation, or provide it through the display in a virtual translation.

In order to better understand the communication device of the present invention, the multilingual translation system used in the communication device will be described in detail below.

Please refer to FIG. 1A, which is a schematic diagram of an embodiment of a code stream of the multi-language translation system of the present invention.

An important component of the multi-language translation system of the present invention is the stream of code for this. As shown in Figure 1A, the code stream 100 contains a string of elements. In this embodiment, the code stream 100 is composed of a language code 101, a first word code 102, a second word code 103, a third word code 104, and a structure. A sentence code (representative code) 105 is composed.

The language code 101 is composed of a code for representing or representing a language used in the single-word codes 102, 103, 104 and the sentence code 105. For example, if the user generates the code stream 100 in English, Then the language code 101 will represent the word codes 102, 103, 104 in English.

These single word codes 102, 103, 104 are a single word representing or representing the language, and the language is represented by language code 101. Each word code represents a specific word.

The construction code 105 is a code representing a sentence structure of its single word code 102, 103, 104 in the code stream 100. In the course of the code stream 100 being translated, the sentence code 105 will arrange the word codes into the correct sentences.

In several embodiments of the invention, different codes in a code stream have different locations. For example, the constructor code will be placed or set in front of several single-word codes in the code stream.

Please refer to FIG. 1B and FIG. 1C, which are schematic diagrams showing the architecture of an embodiment of a single-word code in the multi-language translation system of the present invention.

In the embodiment shown in FIG. 1B and FIG. 1C, each of the single-word codes 102 is composed of a grammar code 102A and a number code 102B. The digital code 102B is a code for Represents the language used by a particular single-word code, while grammar code 102A is a code that indicates its grammatical usage or the grammatical nature of the word. For example, if the language code indicates that the language is English and the numeric code represents the word "rabbit", then the grammar code will be displayed as "noun".

The following is another example: the semaphore code used to indicate "noun" is assumed to be "123", and the numeric code used to indicate "her" is assumed to be "45". The word "he" is used. The grammar code indicating "noun" is assumed to be "123", and the numeric code used to represent "he" is assumed to be "46", and the suffix code used to represent "noun" is assumed to be "123". The numeric code used to indicate "we" is assumed to be "47".

The three single-word codes mentioned in this example have the same grammar code, because these three words are all nouns. However, each digital code represents a unique word, which is due to the fact that the three words are different. Similarly, when a word has multiple grammatical uses, the numeric code will be the same but the grammar code will be different. For example, the word "fly" can be a verb or a noun, and both are pronounced the same. In other words, the numeric code is no different, but the grammar code will be different.

In addition, when some words are spelled in the same way and their grammar usage is the same, the digital code can distinguish the correct word. For example, the word "run" can mean "running", "operation", "pigmentation" and "operating company". And when these are verbs and the spellings are the same, the numeric code will present different numbers to indicate different meanings.

As shown in FIGS. 1B and 1C, in different embodiments, the locations of grammar code 102A and digital code 102B in word code 102 are not the same.

Please refer to FIG. 1D, which is a schematic diagram of an embodiment of a code stream in the multi-language translation system of the present invention.

In the embodiment shown in FIG. 1D, the code stream 100 even includes a user code 106 and a device code 107. In one embodiment of the invention, device code 107 represents or indicates that the device is responsible for transmitting this code stream. In another embodiment of the invention, device code 107 represents or indicates that the device is attempting to receive this code stream. In one embodiment of the invention, user code 106 represents or indicates that the user is responsible for transmitting the code stream. In another embodiment of the invention, user code 106 represents or indicates that the user is attempting to receive the code stream. In some embodiments of the invention, only one of the user code 106 or the device code 107 is used.

In another embodiment, the user code 106 acts as a character attempting to receive the language, in this embodiment, the user code represents the recipient's language, and the language code indicates the use of the code stream. Language.

Please refer to FIG. 1E, which is a schematic diagram of an embodiment of a relationship between single word codes when a multilingual translation system is used in a multilingual translation system.

In the first picture, the example language codes and the single word codes corresponding to the three languages are listed, and the language code for the language 1 is "01", and the language code for the language 2 is "02". The language code representing the language 3 is "03".

The numeric code used to represent language 1 in the single word code is "123". The numeric code used to represent language 2 in the single-word code is also "123", which may be due to the pairing result or both in language 1 or language 2, both of which are a direct associated word. However, the number 3 of the language 3 is "124", because the word of the language 3 is a word that is slightly different from the other two. For example, it may be a sense of language, meaning, usage, grammar or sentence structure. Different reasons.

The grammar code used to represent language 1 and language 3 in the single-word code is "45" because the grammatical usage of the word corresponds to each other or is directly related to the two languages. However, the grammar code for language 2 is "46", because its grammatical usage is different from language 1. For example, this word may be a verb in three languages, but its verb type is different from that of language 2.

Please refer to FIG. 2A, which is a schematic diagram of an embodiment of an architecture in a multi-language translation system of the present invention.

In the embodiment shown in FIG. 2A, the architecture 200 of the multilingual translation system of the present invention is comprised of a user A device 201 and a user B device 202. The user A device 201 and the user B device 202 are, for example, composed of a computer, a mobile phone, a headset, a speaker, or other electronic device that can transmit or receive analog or digital signals. In an embodiment of the present invention, the communication link between the user A device and the user B device is unidirectional, and in another embodiment, the communication link is bidirectional, that is, both users can Communicate with each other.

In the embodiment shown in FIG. 2A, the code stream will be transmitted in the language of the original originator. In this embodiment, the translated content of the code stream will be presented in the device at the receiving end. This process allows a stream of code to be streamed to multiple user devices, and the code stream will be translated into the language desired by the receiving end user.

The following is an example:

In a code stream, user A sends the following encoded sentence, which is "gen wo hwei jia". Among them, the language is Chinese and the language code is “05”. These single-word codes are “22” (with gen), “33” (I wo), “44” (back to hwei), and “55” (home). ), the construction code is "66", that is, its original code stream will be composed of "05+22+33+44+55+66".

User B receives the original code stream and detects that its language code is "05". User B's device then translates the word code from Chinese into the language desired by User B, such as English. These Chinese word codes "22+33+44+55" are converted into the following English word codes "26" (with), "36" (me), "46" (come) and "56" (home). ), obviously, the sentence "with me come home" is not correct. At this point, User B's device will convert the constructive code "66" to the original code screen and rearrange the translated words into the correct grammar sentence "come home with me".

Please refer to FIG. 2B, which is a flowchart of an embodiment of a translation method of a multi-language translation system of the present invention.

Method 205 is an embodiment of the present invention that utilizes the architecture shown in FIG. 2A. The method 205 begins by transmitting a stream of original code created by a user (user A or user B), as in step 230. In step 240, another user receives the original code stream. Then in step 250, the user's device translates the single word code in the code stream into the language desired by the receiving end user. The user's device also translates the sentence code in the code stream, as in step 260. Next, using the translated constructive code, the user's device will rearrange the translated single-word code into the correct grammar sentence, as in step 270. Finally, step 280 provides the translated sentence to the receiving end user. In an embodiment of the invention, the translated sentence is presented in a voiced manner. In another embodiment of the invention, the translated sentences are presented in a single word.

Thus, User A and User B can communicate their respective languages by the multilingual translation system of the present invention.

Please refer to FIG. 2C, which is a flowchart of an embodiment of a translation method of a multi-language translation system of the present invention.

The method 205 of FIG. 2C is similar to the method of FIG. 2B, however, in this embodiment, prior to converting the original code stream in step 230, the method will receive the original user input data as described in step 210 ( Input) (This example is user A). In step 220, user A's device converts or encodes the input data into an original code stream. The next method continues as described in Figure 2B.

In an embodiment of the invention, the user's input data is a sound. In another embodiment, the user's input data is a text file typed using a keyboard.

Please refer to FIG. 3A, which is a schematic structural diagram of an embodiment of a multi-language translation system of the present invention.

The architecture shown in Figure 3A is similar to Figure 2A, but in this embodiment, the code stream is the language of the user that is transmitted to the receiving end. In Figure 3A, the user of the receiving end is user B202. However, if the user B202 is transmitting, the user at the receiving end will be the user A201.

In this embodiment, after the input data is translated into the receiving end language and encoding of the code stream, the result is presented to the transmitted user device. It allows the device performance of the transmitter to be enhanced and allows the device performance at the receiver to remain relatively simple. For example, in a situation like the United Nations, there are many languages that need to be translated into a large group of people, and this device can be provided as a powerful computer system that can handle multiple languages to translate and compile. The code stream, while streaming the correct code to several receivers of the corresponding language. The reason why it allows the receiving device to maintain a relatively simple function is because the device only needs to use its single-word code and sentence code to decode the code stream without translating the single-word code into a code stream.

Please refer to FIG. 3B, which is a flowchart of an embodiment of a translation method of a multi-language translation system of the present invention.

In the embodiment illustrated in Figure 3B, method 300 begins by determining the language desired by the recipient user. And the presentation is by, for example, a preset user preference stored in the transmitting device, the user of the receiving end transmitting the preference, or reading the preference through the receiving device. Next in step 320, the transmitting device receives the original user input data. The transmitting device then creates an original code stream to the original user's language, as described in step 330. In step 340, the original code stream will be transmitted to the user code stream of a receiving end in the language desired by the receiving end user. Finally, the code stream of the receiving end user is transmitted to the receiving end user, as described in step 350.

Please refer to FIG. 4A, which is a schematic structural diagram of an embodiment of a multi-language translation system of the present invention.

In the embodiment illustrated in Figure 4A, architecture 200 approximates Figure 3A. However, in this embodiment, user A does not transmit a code stream, but transmits an audio code to user B in the language of user A.

Please refer to FIG. 4B, which is a flowchart of an embodiment of a translation method of a multi-language translation system of the present invention.

In step 410, method 400 begins with the receiving end user selecting the language used by the transmitting end user. In step 420, the receiving end user receives an audio stream sent by the transmitting end user. The device of the receiving end user converts the sound stream into a single word code of the selected language, as described in step 430. Thereafter, step 440 determines a constructive code consisting of grammar rules using the selected language. At this point, a code stream is created that contains the language code, word code, and sentence code for the selected language, as in step 450. Next, in step 460, the word stream of the code stream is translated into a second word code that conforms to the language of the receiving end user, and in step 470, the original sentence code is converted to the second structure. Sentence code. These second word codes will be used to form a second code stream, as in step 480. Finally, a translated sentence is generated, as described in step 490.

In one embodiment, step 490 is not used and the second code stream is saved. In this embodiment, the second code stream may be passed to other users, for example, a user who uses the same language in the code stream, so that the code stream does not need to be translated. once.

Please refer to FIG. 5A, which is a schematic structural diagram of an embodiment of a multi-language translation system according to the present invention.

In the embodiment shown in Figure 5A, architecture 200 approximates Figure 4A, but in Figure 5A a voice stream will be transmitted to the language of the receiving end user. In this embodiment, User A's code stream will be converted into an audio signal to User A's device.

Please refer to FIG. 5B, which is a flowchart of an embodiment of a translation method of a multi-language translation system of the present invention.

The method 500 as shown in FIG. 5B, in step 510, begins by determining the language preference of the recipient user. The original user input data will then be received, as described in step 520. In step 530, the original user input data will be used to create an original code stream. Then, as in step 540, the original code stream will be converted to a user code stream at the receiving end. The user code stream at the receiving end is then converted to a stream of sounds from the receiving end user, as described in step 550. Finally, in step 560, the voice stream of the receiving end user will be transmitted.

In an embodiment of the invention, the voice stream of the receiving end user is transmitted through a speaker system. For example, a talker can speak to a listener in a first language to all listeners in a second language. This avoids the need for a translator who must interrupt the speaker for translation.

Please refer to FIG. 6, which is a flowchart of an embodiment of a translation method of a multi-language translation system of the present invention.

Method 600, as shown in FIG. 6, begins by detecting a language code for a code stream, as described in step 610. In step 620, a second language code in a target language or a second language will be confirmed at this step. The single word code of the code stream is translated into a second language word code as described in step 630. In step 640, the code stream of the code stream will be translated into a second language construct code. Finally, the second language word code is rearranged into a sentence using the second language construct code, as described in step 650.

Please refer to FIG. 7, which is a flowchart of an embodiment of a translation method of a multi-language translation system of the present invention.

The method 700 begins by creating a code stream consisting of a language code, a sentence code, and at least one word code. As described in step 710, in some cases, sometimes only one word code is needed. This sentence code can be omitted. In step 720, a second language will be determined; then the single word code in the code stream will be translated into a single word code in the second language, as described in step 730. In step 740, the code of the code stream is translated into the sentence code of the second language. Finally, the single word code for the second language is rearranged into a sentence using the second language construct code, as described in step 750.

Please refer to FIG. 8 , which is a flowchart of an embodiment of a translation method of a multi-language translation system of the present invention.

The method 800 begins by receiving input data from a first user, as described in step 810. In step 820, the input data of the first user is converted into a first code stream. This first code stream will be provided to a second user in step 830. In step 840, the first language code in the first code stream will be confirmed, and in step 850 the second language code of the second user is confirmed. The single word code of this first code stream is then translated into a single word code in the second language, as described in step 860. In step 870, the code of the code stream is translated into a second language construct code. These words representing the second single word code are then rearranged into a sentence using the second language constructive code, as described in step 880.

Please refer to FIG. 9A, which is a schematic diagram of an embodiment of a multi-language translation system in the present invention, which shows an application structure of a translation connection and a common degree function.

In the embodiment of FIG. 9A, the multi-language translation system of the present invention further includes a translation connection and common level function 900. When the original user transmits a code stream to other users, the other user receives the code string. The stream contains a list of multiple translations for them to choose a translation that is believed to be correct, and each individual user's choice is then transmitted back to the original user's code stream.

After the original user's device receives the selection from the individual user, the translation selection is placed in the database, and the translation selection is linked to the original user's code stream. The more receiving users provide the translation choices back to the original user, the common level of accuracy for each translation is included in the original code stream, so the most common is based on the degree of commonality of the correct translation selected. The translation will then provide other less commonly used translations. Referring to FIG. 9A, it is assumed that the original user 901 of the code stream uses Chinese, and that the receiving end user 902 uses English, the receiving end user 903 uses German, and the receiving end user 904 uses French.

The original user 901 transmits a code stream to the receiving end users 902, 903, 904, the receiving end user 902 displays possible English translation options, the receiving end user 903 displays possible German translation options, and the receiving end user 904 Show possible French translation options.

Each recipient user 902, 903, 904 browses translation options and selects translations that they believe or know to be correct, and then transmits the selected translations back to the original user 901 in code or code stream. The device of the original user 901 links the selected translation to the original code stream of the original user in the system database, and the common degree ratio is added to each translated sentence, and the common degree of a translation option is followed by The higher or lower the frequency selected by the user is adjusted. When a code stream is transmitted, the translation options are sorted according to their usual degree, so the receiving end user first sees the most correct translation. Then I saw the option to be less like a correct translation.

For example, the original user's Chinese sentence "I Love You" has an 85% chance of receiving a "I Love You" translation in a Chinese-speaking user. The 10% chance is "Love You" and a 5% chance. It is "My Love". Each English translation is linked to the original Chinese sentence in the database. When the original user uses the phrase "I love you", you can select "I Love You" as the English translation, or provide all translation options according to the usual level. The order is displayed to the receiving end user.

In one embodiment of the invention, the selected translations are linked in the original user database and ranked according to the degree of commonality.

In another embodiment of the present invention, the selected translations are simultaneously linked in the original user database and the recipient user database and arranged according to the degree of common use.

Please refer to FIG. 9B, which is a schematic diagram of an embodiment of a multi-language translation system according to the present invention. The figure shows an application structure of translation connection and common degree function.

In the embodiment of FIG. 9B, the translation connection and popularity level function 900 further includes a virtual adapter 905. This embodiment is similar to the embodiment of Figure 9A, however, in the embodiment of Figure 9B, each user 901, 902, 903, 904 receives a translation selected from each of the other users, in this method, Each user's database continuously updates the translation link and the level of commonality, so each user's translation in the multi-language translation system will be improved quickly and continuously.

For example, the original user uses the Chinese sentence "I love you", the receiving user 902 selects the English sentence of "I Love You" as the correct translation, and the receiving user 904 selects "Je t'aime". French sentence. The selected English and French translations are provided to all users 901, 902, 903, 904 via virtual adapter 905, even if the recipient user does not provide any selection (e.g., user 903).

Then link the original Chinese sentence with the translated French and English sentences, or change the link in each user database, so even if the user needs to get the translation of the language, the translation link and its common use in the future. The degree can be universal.

In some embodiments of the present invention, the translation option may provide a user selection on a display device or a speaker or a headset. For example, if the user's hearing is abnormal, the original sentence is not only sounded but also translated. It will also be displayed on the display device; or the user's vision will be abnormal, even if the original sentence is entered, the translation will be output as a speaker or earphone.

In some embodiments of the invention, the code stream is composed of some additional code. For example, a speed code is used to indicate the speed of the user input data, a volume code is used to indicate the volume of the user input data, and a punctuation code is used. Indicates the punctuation position of the sentence, and so on.

Please refer to FIG. 10A, which is a flowchart of an embodiment of a multi-language translation system of the present invention.

The multi-language translation system 1000 first receives the original language input of the first user in step 1010, and translates the original language input of the first user into the basic language text in a basic language in step 1020; then the basic language text in step 1030 Converted into a single-word code in a target language, in step 1040, determine what the word of the single-word code represents in the target language, and then search for the word in the target language in step 1050. When the search is completed, select a basic language from the search results. The word, as described in step 1060, for example, select the most commonly used word, or select the word with the highest similarity, or select the word with the best solution; finally, in step 1070, the selected word is transmitted as the translation result. For a user, such as a second user, the translation result is the language used by the second user.

In this way, the input provided by the first user is the common language of the first user, and the translation received by the second user is the common language of the second user.

Please refer to FIG. 12A, which is an alphabetic code system in an embodiment of the multi-language translation system of the present invention. Each letter in the basic language has a representative number.

The letter code system described in Figs. 10A to 10D is as shown in Fig. 12A.

In these embodiments, a language must be selected as the basic language. For example, English can be selected as the basic language of the alphabetic code system, but other languages can be selected as the basic language.

As shown in Fig. 12A, each English alphabet has a corresponding number, A=1, B=2, C=3...N=14, O=15, P=16...X=24, Y=25, Z =26.

Therefore, a single word in English can be represented by a number, for example, PIG = 16 (P) 9 (I) 7 (G) = 1697.

Please refer to FIG. 12B, which is a schematic diagram of an embodiment of a single word code format in the multi-language translation system of the present invention.

In the embodiment of FIG. 12B, a single word code 1200 includes a language code 1210, a numeric code 1220, and a grammar code 1230, wherein the language code 1210 represents a language used, and the digital code 1220 represents a single word in the basic language, the grammar Code 1230 represents the grammar or pattern of a single word. The language code 1210, the numeric code 1220, and the grammar code 1230 use the letter codes in Fig. 12A, respectively.

Please refer to FIG. 12C, which is a schematic diagram of an embodiment of comparing single word codes of different languages in the multi-language translation system of the present invention.

In the embodiment illustrated in FIG. 12C, the word 1240 in the language 1205 is "Dog" in English, the language code 1210 in English is 514 (E=5 and N=14), and the numeric code 1220 of "Dog". 4157 (D=4, O=15 and G=7), since "Dog" is a noun, its grammar code 1230 is 14152114 (N=14, O=15, U=21 and N=14).

Therefore, the word code of the English word "Dog" is 514 4157 14152114.

In some embodiments of the present invention, symbols or blanks may be inserted between the language code, the numeric code, and the grammar code, for example, 514#4157#14152114 is separated by #, or #514#4157#14152114 is ## Separation number.

In another embodiment of the present invention, each code has a different separator number. For example, # is the separator number of the language code, $ is the separator number of the numeric code, and % is the separator number of the grammar code. Separate or distinct delimiters allow language codes, numeric codes, and grammar codes to be more easily located in different orders or permutations, for example, grammar code, numeric code, language code, or numeric code, language code, grammar Code, or numeric code, grammar code, language code, etc.

In another embodiment of the invention, each code is defined with a length or size, such as a 10-character size space, which is previously filled with zero or other symbols, such as 0000000514 or #######514. Taking the above embodiment as an example, the single word code is #######514######4157##14152114.

Please refer to Figure 12C. The Chinese language code 1210 is 314 (CN), the French language code is 618 (FR), and the Spanish language code is 1916 (SP).

English is chosen as the base language, and the numeric code 1220 and the grammar code 1230 remain unchanged for each language.

For example: the English word code of "Dog" is 514#4157#14152114; the Chinese word code is 314#4157#14152114, which means "dog"; the French word code is 618#4157#14152114, which means "Chien"; and Spain The word code is 1916#4157#14152114, which means "Perro".

Please refer back to Figure 1A. The examples are as follows:

For example, if English is selected as the basic language, the original language used by the first user is Spanish, and the language of the second user is French.

The first user enters the Spanish word "Perro", which can be entered by typing, speaking, scanning the text containing the word, using camera input, browsing the word through the camera viewfinder, and the like.

The Spanish "Perro" is then translated into the basic language, in which the basic language is English, so "Perro" is translated into the English word "Dog".

Then convert the word "Dog" into one word code of the target language, where language code = 618 (target language is "FR"), number code = 4157 (single word is "Dog"), grammar code = 14152114 (noun "Noun" "), so the word "Dog" in the target language is 618#4157#14152114.

Next, it is judged that the target language 618#4157#14152114 indicated by the single-word code has the meaning of "Chien".

Search for the target language word "Chien" through methods such as server, search engine, network, and internet.

When the search is complete, analyze the search results to find the most common, best-choice or most similar usage or meaning.

After selecting one of the search results, the selected word is transmitted as a translation result to the second user. In this embodiment, after the first user inputs the Spanish word "Perro", the second user receives the French word " Chien".

Another embodiment of the present invention further includes a step of converting the basic language text into a single word code of the basic language before forming the single word code of the target language. Therefore, by changing the language code, the same basic language can be used. The word is translated into multiple translation results.

Please refer to FIG. 10B, which is a flowchart of an embodiment of a multi-language translation system of the present invention.

The embodiment described in Figure 10B is similar to Figure 10A, but the embodiment of Figure 10B provides translation of a sentence rather than a single word.

The system 1000 first receives in step 1010 a sentence consisting of a plurality of words entered by the first user in the original language, and in step 1020, the sentence is translated from the original language into the text of the basic language, and then in step 1030 the basic language is entered. Each word is converted into a single word code of the target language, and in step 1040, the reason words of the target languages are determined; step 1050 searches for the target language words, for example, searching for a server, a network, a search engine server, or Internet to find words or phrases that use words in these target languages. Next, step 1060 analyzes and selects one of the search results, and the selection method passes some criteria, such as: the most common person in the target language word, the target language word most like a phrase or phrase usage, or other suitable usage. The best solution and other standards. When an appropriate phrase or phrase is selected from the search results, step 1070 transmits the selected sentence as a translation to the second user.

For example, if the target language sentence is "It is rather hot today", the search results may be replied as follows:

It’s hot!

It’s scorching outside

It’s burning up

It’s hot today and so on.

If the selection criteria is based on the usual level, "It's hot!" is more likely to be selected than "It is rather hot today" because the former is more commonly used. It can be seen that although the phrase is more commonly used, the system of the present invention can provide more appropriate translated sentences. One of the advantages of the present invention is that the correct language application can be updated in accordance with the development of the language.

Please refer to FIG. 10C, which is a flowchart of an embodiment of a multi-language translation system of the present invention.

The embodiment of FIG. 10C further includes a step 1015 of receiving a confirmation message from the first user to confirm that the input of the first user is correct.

In the present embodiment, the system can prevent redundant work from being generated due to an original input error. When entered, the first user observes and confirms whether the input was received or if the input is correct.

Please refer to FIG. 10D, which is a flowchart of an embodiment of a multi-language translation system of the present invention.

The multi-language translation system 1000 in the embodiment of FIG. 10D further includes a reverse translation program as described in step 1070, which confirms whether the translation is correct, and if the translation is correct, transmits the translation to the second user, such as the step. If the translation is erroneous, the system will return to step 1020 or step 1060. For example, if the system returns to step 1060, another sentence is selected from the search results.

Please refer to FIG. 11A, which is an architectural block diagram of an embodiment of a multi-language translation system of the present invention.

In the embodiment of FIG. 11A, the system architecture 1100 includes an original user device 1101, a server 1102, and a receiving end user device 1103.

The original user inputs a word, phrase or phrase using the original user device 1101, and then transmits the input to the server 1102. The server 1102 translates the original language input into the basic language text, and then converts the basic language text into a target language. At least one word code, and determining the target language word, searching for a word, selecting the best word, phrase or phrase from the search results, and finally transmitting the selection to the receiving end user device 1103. Therefore, the original user is translated into the target language in the original language input and provided to the receiving end user device.

Please refer to FIG. 11B, which is an architectural block diagram of an embodiment of a multi-language translation system of the present invention.

The embodiment shown in Fig. 11B is similar to Fig. 11A, but Fig. 11B further includes a search server 1104. The server 1102 translates the original language input into the basic language text, converts the basic language text into at least one single word code of a target language, determines the target language word, and transmits a search request message to the search server 1104. Then, the search server 1104 is The Internet 1105 searches for the use of the target language and provides search results to the server 1102. The server 1102 then selects the best word, phrase or phrase from the search results, and finally transmits the selected message to the receiving end user device 1103. .

Please refer to FIG. 11C, which is an architectural block diagram of an embodiment of a multi-language translation system of the present invention.

In the embodiment shown in FIG. 11C, the server 1102 transmits the translated answer selected from the search results to the original user device 1101 instead of the second user device, so that the original user can see or hear the translation, so the original The user can use this translation directly, which is quite practical for a person who is learning a second foreign language, or who is on the spot and close to the original user but does not have a user device.

In an embodiment of the present invention, the multi-language translation system can be applied to a multi-person telephone chat or a conference call. For example, the first user calls the second user, and when the connection is made, the first user sends out The words or phrases are transmitted to their handheld device in the first user's language by voice or typing, and the words or phrases heard or seen by the second user are translated into the language of the second user. In an embodiment of the present invention, the translation, the chat, the search, and the selection from the search results are all performed by the handheld device of the first user; in another embodiment, the translation, chat, search, and selection programs are performed by Executed independently of the server other than the first user's handheld device. Therefore, the user can communicate with other users in their respective languages and telephone handsets.

The above is only the preferred embodiment of the present invention and is not intended to limit the scope of the present invention. Therefore, any changes or modifications of the features and spirits of the present invention should be included in the scope of the present invention.

100. . . Code stream

101. . . Language code

102. . . First word code

102A. . . Grammar code

102B. . . Numeric code

103. . . Second word code

104. . . Third word code

105. . . Constructive code

106. . . User code

107. . . Device code

200. . . Architecture of multilingual translation system

201. . . User A device

202. . . User B device

901, 902, 903, 904. . . user

905. . . Virtual adapter

1100. . . Architecture of multilingual translation system

1101. . . Original user

1102. . . server

1103. . . Receiver user

1104. . . Search server

1105. . . Internet

1200. . . Single word code

1210. . . Language code

1220. . . Numeric code

1230. . . Grammar code

1205. . . Language

1240. . . Single word

1300. . . Communication device

1301. . . Main housing

1302a, 1302b, 1302c. . . Language switch

1304. . . Status switch

1305. . . Detection selector switch

1306. . . Signal indicator

1307. . . headset

1308. . . microphone

1309a. . . Ear frame

1309b. . . Connection frame

1309c. . . Display frame

1309d. . . Side module

1309e. . . Flexible earphone frame

1309f. . . Bridge frame

1310. . . Operation switch

1311. . . Camera

1312. . . monitor

1315. . . remote control

1320. . . Remote display

FIG. 1A is a schematic diagram of an embodiment of a code stream in a multi-language translation system of the present invention.

1B and 1C are schematic diagrams showing an embodiment of a single word code structure in the multi-language translation system of the present invention.

1D is a schematic diagram of another embodiment of code streaming in a multi-language translation system of the present invention.

Figure 1E is a diagram showing an embodiment of the relationship between single word codes using multiple languages in the multilingual translation system of the present invention.

2A is a schematic diagram of an embodiment of an architecture of a multi-language translation system of the present invention.

2B and 2C are flow charts of a method embodiment of a multi-language translation system of the present invention.

3A is a schematic diagram of an embodiment of an architecture of a multi-language translation system of the present invention.

FIG. 3B is a flow chart of another method embodiment of the multi-language translation system of the present invention.

4A is a schematic diagram of an embodiment of another architecture of the multi-language translation system of the present invention.

4B is a flow chart of another method embodiment of the multi-language translation system of the present invention.

FIG. 5A is a schematic diagram of an embodiment of another architecture of the multi-language translation system of the present invention.

FIG. 5B is a flow chart of another method embodiment of the multi-language translation system of the present invention.

6 to 8 are flow charts of a method embodiment of a multi-language translation system of the present invention.

9A and 9B are block diagrams showing an embodiment of an automatic selection function in the multi-language translation system of the present invention.

10A through 10D are flow charts of an embodiment of a multi-language translation system of the present invention.

11A through 11C are block diagrams showing an embodiment of an embodiment of a multilingual translation system of the present invention.

Fig. 12A is a diagram showing an alphabetic code system in an embodiment of the multilingual translation system of the present invention, each letter of the basic language having a representative number.

12B is a schematic diagram of an embodiment of a single word code format in the multi-language translation system of the present invention.

FIG. 12C is a schematic diagram showing an embodiment of comparing single word codes of different languages in the multi-language translation system of the present invention.

13A to 13D are side views of an embodiment of a communication device of the multilingual translation system of the present invention.

Figure 13E is a top plan view of an embodiment of a communication device of the multi-language translation system of the present invention.

14A through 14C are side views of another embodiment of a communication device of the multilingual translation system of the present invention.

14D to 14E are front views of the communication device of the multilingual translation system of the present invention.

15A and 15B are schematic views of a remote controller in a communication device of the multi-language translation system of the present invention.

1300. . . Communication device

1301. . . Main housing

1304. . . Status switch

1306. . . Signal indicator

Claims (19)

A communication device for a multi-language translation system, comprising: a wireless transmission receiving module for communicating with other communication devices; a headset for providing voice translation; and at least one operation switch for controlling operation settings of the communication device The operation switch includes a detection selection switch for detecting an available user and selecting the detected user; and at least one signal indicator for visually indicating the status of the communication device. The communication device of the multilingual translation system of claim 1, wherein the communication device is a pair of glasses, the wireless transmission receiving module, the earphone, the operation switch and the signal indicator are integrated in the communication device On the frame. The communication device of the multi-language translation system of claim 1, further comprising a camera for capturing video, video and text. The communication device of the multilingual translation system of claim 1, further comprising a display for displaying translation, text and image data. The communication device of the multilingual translation system of claim 1, further comprising a microphone for capturing a voice conversation. The communication device of the multilingual translation system of claim 1, further comprising a remote controller for controlling the communication device. The communication device of the multilingual translation system of claim 1, further comprising a memory for storing a dialogue, a translation, a translation database or a combination of a dialogue, a translation, and a translation database. The communication device of the multilingual translation system of claim 1, wherein the operation switch comprises a language switch for a user to select a language to be used by the communication device. The communication device of the multilingual translation system of claim 1, wherein the operation switch comprises: a status switch to select a status mode; and a mode switch to select an operation mode of the communication device. A communication device for a multi-language translation system, comprising: a wireless transmission receiving module for communicating with other communication devices; a headset for providing voice translation; and at least one operation switch for controlling operation settings of the communication device The operation switch includes a detection selection switch for detecting an available user and selecting the detected user; at least one signal indicator can visually indicate the state of the communication device; a camera To capture video, video and text; a display to display translations, text and image data; and a microphone to capture voice conversations. The communication device of the multilingual translation system of claim 10, wherein the communication device is a pair of glasses, the wireless transmission receiving module, the earphone, the operation switch, the signal indicator, the camera, the display, and the The microphone is integrated into one of the frames of the communication device. The communication device of the multilingual translation system of claim 10 further comprising a memory for storing a conversation, a translation, a translation database or a combination of a dialogue, a translation, and a translation database. The communication device of the multilingual translation system of claim 10 further includes a remote controller for controlling the communication device. The communication device of the multilingual translation system of claim 10, wherein the operation switch comprises a language switch for a user to select a language to be used by the communication device. The communication device of the multilingual translation system of claim 10, wherein the operation switch comprises: a status switch to select a status mode; and a mode switch to select an operation mode of the communication device. A communication device for a multi-language translation system, comprising: a wireless transmission receiving module for communicating with other communication devices; and a headset for providing voice translation; At least one operation switch for controlling an operation setting of the communication device, the operation switch includes a detection selection switch for detecting an available user, and selecting the detected user; at least one signal indicator, The appearance can indicate the state of the communication device; a camera to capture video, image and text; a display to display translation, text and image data; a microphone to capture a voice conversation; a memory to store a dialogue, a translation, a translation database or a dialogue, a translation, a combination of translation databases; and a remote control to control the communication device. The communication device of the multilingual translation system of claim 16, wherein the communication device is a pair of glasses, the wireless transmission receiving module, the earphone, the operation switch, the signal indicator, the camera, the display, the The microphone and the memory system are integrated into one of the frames of the communication device. The communication device of the multilingual translation system of claim 16, wherein the operation switch comprises a language switch for a user to select a language to be used by the communication device. The communication device of the multilingual translation system of claim 16, wherein the operation switch comprises: a status switch to select a status mode; and a mode switch to select an operation mode of the communication device.