Integrated intelligent microscope

Abstract

The integrated intelligent microscope comprises a light source module, a voice control module, a human body sensor, a mainboard, a coding switch, a knob and a micro display, the light source module comprises an upper light source and a lower light source, and the upper light source, the lower light source, the voice control module, the human body sensor, the coding switch and the micro display are all electrically connected with the mainboard. The knob is connected with the coding switch to adjust the coding switch, and the micro display is used for displaying the working state of the integrated intelligent microscope. The microscope is more convenient to operate and wider in application range.

Description

Technical Field

[0001] This utility model belongs to the field of microscope technology, specifically relating to an integrated intelligent microscope. Background Technology

[0002] Microscopes, as important scientific observation tools, are widely used in scientific research, education, medicine, and many other fields. Traditional microscopes typically consist of multiple components, including eyepieces, objective lenses, a stage, a light source, and control devices. These components work together to magnify and observe microscopic objects.

[0003] However, existing microscopes still have the following drawbacks: 1) Users often need to operate the light source, image acquisition and display via different interfaces or buttons, increasing operational complexity, reducing work efficiency, and resulting in low integration. 2) They cannot automatically sense the user's operating intentions, such as automatically turning the microscope on or off based on the user's proximity, nor can they allow users to operate the microscope more conveniently via voice commands, limiting the microscope's ease of use and applicability. 3) They rely on only a single power supply method, such as a power cord, which can cause inconvenience in some special scenarios, such as field research or mobile use, thus limiting the microscope's application range. Therefore, an integrated intelligent microscope is proposed. Utility Model Content

[0004] The purpose of this invention is to address the above-mentioned problems by proposing an integrated intelligent microscope that is more convenient to operate and has a wider range of applications.

[0005] To achieve the above objectives, the technical solution adopted by this utility model is as follows:

[0006] This utility model proposes an integrated intelligent microscope, which includes a light source module, a voice control module, a human body sensor, a motherboard, an coded switch, a knob, and a micro display. The light source module includes an upper light source and a lower light source. The upper light source, the lower light source, the voice control module, the human body sensor, the coded switch, and the micro display are all electrically connected to the motherboard. The knob is connected to the coded switch to adjust the coded switch. The micro display is used to display the working status of the integrated intelligent microscope.

[0007] Preferably, the integrated smart microscope also includes an image sensor and a display screen. The image sensor is used to receive the imaging light of the sample under test and is electrically connected to the motherboard. The display screen is electrically connected to the motherboard and is used to display the image formed by the imaging light of the sample under test.

[0008] Preferably, the motherboard also includes an HDMI port, a DC socket port, a Type-C port, a WLAN port, and a USB port.

[0009] Preferably, the integrated intelligent microscope further includes a microscope body, which includes a support, a base, and a base plate. The support is vertically connected to the base and located above the base, and the base plate is connected to the lower wall of the base to form a first cavity.

[0010] Preferably, the integrated intelligent microscope also includes a power supply module, which includes a battery electrically connected to the motherboard.

[0011] Preferably, the power supply module further includes a pressure plate, and the battery is clamped between the pressure plate and the base and located in the first cavity.

[0012] Preferably, the integrated intelligent microscope further includes an objective lens switching module, which includes an objective lens position detection module, a converter, and several objectives. Each objective lens is connected to the converter, and the converter is connected to the microscope body and used to switch objectives for observing the sample to be tested. The objective lens position detection module is used to detect the objective lens currently in use.

[0013] Preferably, the microscope body also includes a front cover, which is disposed on the front side of the support, and the light source module also includes an upper light source holder, which is mounted on the front cover, and the upper light source is connected to the upper light source holder and passes through the front side of the front cover.

[0014] Preferably, the motherboard includes an information acquisition board and a control board that are electrically connected. The upper light source, lower light source, voice control module, human body sensor, encoder switch, and micro display are all electrically connected to the information acquisition board. The micro display is tilted and set on the front wall of the base, and the knob is located on the top of the base.

[0015] Preferably, the microscope body also includes a shell plate, which is installed on the upper wall of the base. The integrated intelligent microscope also includes a light-collecting module, which includes a light-collecting lens mount and a light-collecting lens. The light-collecting lens is built into the light-collecting lens mount. The light source module also includes a lower light source mount, which is built into the lower light source mount. The lower light source mount is threadedly connected to the light-collecting lens mount and simultaneously clamps the shell plate to the upper wall of the base. The base is also provided with several limiting grooves. The lower light source mount is rotated and limited by the limiting grooves. The light emitted by the lower light source shines on the sample to be tested through the light-collecting lens.

[0016] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0017] This intelligent microscope boasts a high degree of integration, enabling unified operation of all its functional modules. This includes coordinated management of the upper and lower light sources, image sensor, display screen, objective lens conversion module, and micro-display via coded switches and knobs in conjunction with the motherboard. This avoids the operational complexity caused by the fragmented operation of existing technologies, improving work efficiency. Furthermore, it features automatic wake-up via a human body sensor and voice control module, allowing users to operate the microscope with voice commands, enhancing ease of use and intelligence, and better meeting the needs of diverse users. In addition, it offers multiple power supply options, increasing the microscope's flexibility compared to the single power supply method of existing microscopes, making it suitable for various scenarios and broadening its applicability. Attached Figure Description

[0018] Figure 1 This is a circuit diagram of the integrated intelligent microscope of this utility model;

[0019] Figure 2 This is a schematic diagram of the integrated intelligent microscope of this utility model;

[0020] Figure 3 This is a schematic diagram of the assembly structure of the base, shell plate, and bottom plate of this utility model;

[0021] Figure 4 This is a schematic diagram of the internal structure of the base of this utility model.

[0022] Figure labeling: 1. Microscope body; 2. Light source module; 3. Voice control module; 4. Human body sensor; 5. Main board; 6. Light collection module; 7. Display screen; 8. Objective lens conversion module; 9. Power supply module; 11. Stand; 12. Base; 13. Shell plate; 14. Front cover; 15. Base plate; 121. Encoder switch; 122. Knob; 123. Miniature display; 21. Upper light source; 22. Lower light source; 51. Information acquisition board; 52. Control board; 53. HDMI interface; 54. DC socket interface; 55. Type-C interface; 56. WLAN interface; 57. USB interface; 61. Light collection lens mount; 62. Light collection lens; 81. Converter; 82. Objective lens; 91. Battery; 92. Pressure plate. Detailed Implementation

[0023] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0024] It should be noted that when a component is referred to as being "connected" to another component, it can be directly connected to the other component or there may be an intervening component. Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art. The terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the scope of the application.

[0025] like Figure 1-4 As shown, an integrated intelligent microscope includes a light source module 2, a voice control module 3, a human body sensor 4, a main board 5, an coded switch 121, a knob 122, and a micro display 123. The light source module 2 includes an upper light source 21 and a lower light source 22. The upper light source 21, the lower light source 22, the voice control module 3, the human body sensor 4, the coded switch 121, and the micro display 123 are all electrically connected to the main board 5. The knob 122 is connected to the coded switch 121 to adjust the coded switch 121. The micro display 123 is used to display the working status of the integrated intelligent microscope.

[0026] The voice control module 3, the human body sensor 4, and the encoder switch 121 can be independently or integrated onto the motherboard 5. The motherboard 5 can be a separate or integrated board, capable of controlling related components to perform corresponding operations through programming. The encoder switch 121 is connected to the motherboard 5 via a signal transmission line and fixed to the base 12. The knob 122 is connected to the encoder switch 121 via screws, allowing the user to operate the microscope.

[0027] The operation of the encoder switch 121 can be adjusted according to actual needs. In this embodiment, the encoder switch 121 operates as follows: Pressing the knob 122 on the encoder switch 121 once switches the on / off mode of the upper light source 21 and the lower light source 22, so that only one is lit. Rotating the knob 122 on the encoder switch 121 adjusts the brightness of the upper light source 21 or the lower light source 22. Pressing the knob 122 on the encoder switch 121 twice enters the color temperature adjustment mode. In this mode, rotating the knob 122 on the encoder switch 121 adjusts the color temperature of the upper light source 21 and the lower light source 22. Pressing and holding the knob 122 on the encoder switch 121 for a preset time (e.g., three seconds) enters the ECO energy-saving mode. Rotating the knob 122 on the encoder switch 121 sets different durations. After successful setting, the microscope enters the standby energy-saving mode after the corresponding time has elapsed. Press and hold the knob 122 on the encoder switch 121 for the preset time to immediately switch the microscope's overall power mode. If it is initially off, press it once to turn it on; if it is initially on, press and hold for five seconds to turn it off. Alternatively, you can set it arbitrarily according to your actual needs.

[0028] The human body sensor 4 can be directly integrated onto the motherboard 5 to automatically detect whether an operator is using the microscope. If an operator is detected, the microscope will power on normally; if no operator is detected, the microscope will enter standby power-saving mode after a preset time (e.g., 5 minutes).

[0029] The operation mode of the voice control module 3 can be adjusted according to actual needs. In this embodiment, the voice control module 3 is directly integrated on the motherboard 5, and its operation mode is as follows: When the voice control module 3 receives a pre-set message, it will make corresponding settings. For example, when it receives the "power on" message, the motherboard 5 issues an instruction based on the current working status of the microscope, transmitting the power-on information to the relevant modules, so that the microscope enters the working mode from the standby power-saving mode. When it receives the "turn on the upper light source" message, the motherboard 5 issues an instruction based on whether the upper light source 21 is powered on and its brightness percentage status, and turns on the upper light source 21. When it receives the "brightness adjusted to 10%" message, the motherboard 5 issues an instruction based on the current working status of the microscope, such as adjusting the brightness of the working light source to 10% based on the working status of the upper light source 21 or the lower light source 22. When it receives the "brighten a little" message, the motherboard 5 issues an instruction based on the current working status of the microscope, increasing the brightness of the working light source by 5% until the brightness reaches 100%, at which point the function is disabled. It is easy to understand that the numbers involved in the above voice control module 3 only represent one state instruction, and can actually be any number.

[0030] The miniature display 123 is used to display the microscope's current status information, including the operating status of the upper light source 21 and the lower light source 22 (e.g., on / off status), the operating brightness and color temperature of the upper and lower light sources 21 and 22, and the overall operating status of the microscope (e.g., power-on mode, power-off mode, standby power-saving mode). It is easy to understand that, depending on the configuration, it can also be adjusted according to actual needs. For example, when a battery or power cord is configured, it can also display the battery level, power supply method (e.g., battery-powered or power cord-powered), and the objective lens currently being switched.

[0031] In one embodiment, the integrated smart microscope further includes an image sensor and a display screen 7. The image sensor is used to receive the imaging light from the sample under test and is electrically connected to the mainboard 5. The display screen 7 is electrically connected to the mainboard 5 and is used to display the image formed by the imaging light from the sample under test. The image sensor is a high-sensitivity image sensor, responsible for receiving the imaging light from the sample under test, converting the imaging light into an electrical signal and transmitting it to the mainboard 5. The mainboard 5 then transmits the electrical signal to the display screen 7 so that the operator can directly observe the sample under test.

[0032] In one embodiment, the motherboard 5 is also provided with an HDMI interface 53, a DC socket interface 54, a Type-C interface 55, a WLAN interface 56, and a USB interface 57.

[0033] In one embodiment, the integrated intelligent microscope further includes a microscope body 1, which includes a support 11, a base 12, and a base plate 15. The support 11 is vertically connected to the base 12 and located above the base 12. The base plate 15 is connected to the lower wall of the base 12 and forms a first cavity. The base 12 is fixed to the lower part of the support 11 by screws, and the base plate 15 is fixed to the lower part of the base 12 by screws.

[0034] In one embodiment, the integrated intelligent microscope further includes a power supply module 9, which includes a battery 91 electrically connected to the motherboard 5. The integrated intelligent microscope can be directly connected to an external power source via a power cord, such as by plugging into a DC socket interface 54 or a Type-C interface 55. Alternatively, it can be directly powered by the battery 91. When a power cord is connected, power is supplied to the integrated intelligent microscope for operation and to charge the partially charged battery 91. When no power cord is connected, power is supplied by the battery 91, making it convenient to use. The battery level can also be displayed on the micro-display 123.

[0035] In one embodiment, the power supply module 9 further includes a pressure plate 92, and the battery 91 is clamped between the pressure plate 92 and the base 12 and located in the first cavity. The pressure plate 92 is fixed in the base 12 by screws to clamp and fix the battery 91, which facilitates battery replacement, or other methods can be used to fix the battery 91.

[0036] In one embodiment, the integrated intelligent microscope further includes an objective lens switching module 8. The objective lens switching module 8 includes an objective lens position detection module, a converter 81, and several objectives 82. Each objective lens 82 is connected to the converter 81. The converter 81 is connected to the microscope body 1 and is used to switch between objectives 82 for observation of the sample. The objective lens position detection module is used to detect the currently used objective lens 82. The objective lens 82 is screwed onto the converter 81, and the converter 81 is screwed onto the support 11. The objective lens position detection module is a technology well-known to those skilled in the art, such as using the encoding of sensing signals from multiple sets of sensors to achieve objective lens positioning and memorization. The current usage status of the objective lens 113 can also be displayed on the micro-display 123.

[0037] In one embodiment, the microscope body 1 further includes a front cover 14, which is disposed on the front side of the support 11. The light source module 2 further includes an upper light source holder, which is mounted on the front cover 14. The upper light source 21 is connected to the upper light source holder and passes through the front side of the front cover 14. The upper light source 21 is fixed to the upper light source holder with screws, and the upper light source holder is then fixed to the front cover 14 with screws. The front cover 14 is fixed to the support 11 with screws, thereby fixing the upper light source 21.

[0038] In one embodiment, the mainboard 5 includes an information acquisition board 51 and a control board 52 electrically connected. The upper light source 21, lower light source 22, voice control module 3, human body sensor 4, coded switch 121, and micro-display 123 are all electrically connected to the information acquisition board 51. The micro-display 123 is tilted and mounted on the front wall of the base 12, and the knob 122 is located above the base 12. The placement of the micro-display 123 and the knob 122 facilitates observation and operation. The information acquisition board 51 collects the status information of the upper light source 21 and lower light source 22 and transmits it to the control board 52. Simultaneously, it collects information from the coded switch 121 and transmits it to the control board 52. After receiving voice information, the voice control module 3 forwards it to the control board 52 via the information acquisition board 51, allowing the control board 52 to perform corresponding operations upon receiving voice commands and then send commands back to the information acquisition board 51. The detection signal from the human body sensor 4 is collected by the information acquisition board 51 and forwarded to the control board 52 for corresponding operations. The information acquisition board 51 also integrates a miniature display 123 to display the current status information of the microscope.

[0039] In one embodiment, the microscope body 1 further includes a shell plate 13, which is mounted on the upper wall of the base 12. The integrated intelligent microscope also includes a light-collecting module 6, which includes a light-collecting lens mount 61 and a light-collecting lens 62. The light-collecting lens 62 is built into the light-collecting lens mount 61. The light source module 2 also includes a lower light source mount, in which a lower light source 22 is built. The lower light source mount is threadedly connected to the light-collecting lens mount 61, and the shell plate 13 is clamped to the upper wall of the base 12 simultaneously. The base 12 is also provided with several limiting grooves, through which the lower light source mount is rotated and limited. The light emitted by the lower light source 22 passes through the light-collecting lens 62 and illuminates the sample to be tested. The lower light source 22 is attached to the lower light source mount using a heat dissipation sticker. The lower light source mount is screwed onto the light-collecting lens mount 61 by threads. The shell plate 13 is clamped between the support 11 and the base 12. By rotating the light-collecting lens mount 61, the base 12 and the shell plate 13 can be pressed together, thereby fixing the lower light source 22. The base 12 is also designed with two limiting grooves to limit the degree of freedom of the lower light source holder in the rotation direction. Installation can be completed quickly by rotating the light-collecting lens holder 61.

[0040] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0041] The embodiments described above are merely specific and detailed examples of the embodiments described in this application, and should not be construed as limiting the scope of the application. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this application, and these modifications and improvements all fall within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the appended claims.

Claims

1. An integrated smart microscope, characterized by: The integrated intelligent microscope comprises a light source module (2), a voice control module (3), a human body sensor (4), a mainboard (5), a coded switch (121), a knob (122) and a micro display (123), the light source module (2) comprises an upper light source (21) and a lower light source (22), the upper light source (21), the lower light source (22), the voice control module (3), the human body sensor (4), the coded switch (121) and the micro display (123) are electrically connected with the mainboard (5), the knob (122) is connected with the coded switch (121) to adjust the coded switch (121), and the micro display (123) is used for displaying the working state of the integrated intelligent microscope.

2. The integrated smart microscope of claim 1, wherein: The integrated intelligent microscope further comprises an image sensor and a display screen (7), the image sensor is used for receiving imaging light of a sample to be measured and is electrically connected with the mainboard (5), and the display screen (7) is electrically connected with the mainboard (5) and is used for displaying an image formed by the imaging light of the sample to be measured.

3. The integrated smart microscope of claim 1, wherein: The mainboard (5) is further provided with an HDMI interface (53), a DC socket interface (54), a Type-C interface (55), a WLAN interface (56) and a USB interface (57).

4. The integrated smart microscope of any one of claims 1 to 3, wherein: The integrated intelligent microscope further comprises a microscope main body (1), the microscope main body (1) comprises a support (11), a base (12) and a bottom plate (15), the support (11) is connected with the base (12) perpendicularly and is located above the base (12), and the bottom plate (15) is connected with the lower wall of the base (12) and forms a first cavity.

5. The integrated intelligent microscope of claim 4, wherein: The integrated intelligent microscope further comprises a power supply module (9), the power supply module (9) comprises a battery (91) electrically connected with the mainboard (5).

6. The integrated intelligent microscope of claim 5, wherein: The power supply module (9) further comprises a pressing plate (92), the battery (91) is clamped between the pressing plate (92) and the base (12) and is located in the first cavity.

7. The integrated intelligent microscope of claim 4, wherein: The integrated intelligent microscope further comprises an objective lens conversion module (8), the objective lens conversion module (8) comprises an objective lens position detection module, a converter (81) and a plurality of objective lenses (82), each objective lens (82) is connected with the converter (81), the converter (81) is connected with the microscope main body (1) and is used for switching the objective lens (82) to observe a sample to be measured, and the objective lens position detection module is used for detecting the currently used objective lens (82).

8. The integrated intelligent microscope of claim 4, wherein: The microscope main body (1) further comprises a front cover (14), the front cover (14) is arranged on the front side of the support (11), the light source module (2) further comprises an upper light source seat, the upper light source seat is mounted on the front cover (14), the upper light source (21) is connected with the upper light source seat and penetrates through the front side of the front cover (14).

9. The integrated intelligent microscope of claim 4, wherein: The main board (5) comprises an electrically connected information acquisition board (51) and a control board (52), the upper light source (21), the lower light source (22), the voice control module (3), the human body sensor (4), the coded switch (121) and the micro display (123) are electrically connected with the information acquisition board (51), the micro display (123) is obliquely arranged on the front wall of the base (12), and the knob (122) is located above the base (12).

10. The integrated intelligent microscope of claim 4, wherein: The microscope body (1) further comprises a shell plate (13) installed on the upper wall of the base (12), and the integrated intelligent microscope further comprises a light collecting module (6) comprising a light collecting lens seat (61) and a light collecting lens (62), the light collecting lens (62) is built-in in the light collecting lens seat (61), the light source module (2) further comprises a lower light source seat, the lower light source (22) is built-in in the lower light source seat, the lower light source seat is threadedly connected with the light collecting lens seat (61) and simultaneously realizes clamping of the shell plate (13) and the upper wall of the base (12), a plurality of limiting grooves are formed in the base (12), the lower light source seat is rotationally limited through the limiting grooves, and the light emitted by the lower light source (22) is irradiated to the sample to be measured through the light collecting lens (62).

Images