Tweezers lamp matched with wireless pedal

Abstract

The tweezers lamp comprises a tweezers body, a collar clamping controller and a wireless control pedal, the tweezers body comprises a main body support, a silicon rubber sleeve, a pressure sensor, an LED lamp bead, a main body lower cover, a lamp control line and tweezers, and the pressure sensor is installed on the upper end face of the front portion of the main body support; the pressure sensor is covered with a silicon rubber case, a lamp control line is installed on one side of the pressure sensor, an LED lamp bead is arranged on the side, away from the lamp control line, of the main body support and fixed to the main body support through a main body lower cover, tweezers are installed on the lower end face of the main body support, and the lamp control line is connected with a collar clamping controller. A receiving module is arranged in the collar clamping controller, a switching signal of the wireless control pedal is received through the receiving module, four gears of control sensitivity are arranged on the collar clamping controller, and when the tweezers are operated, the LED lamp beads are turned on under different forces after pressure data collected by the pressure sensor is matched with the control sensitivity.

Description

Technical Field

[0001] This invention belongs to the field of tweezers lighting, and specifically relates to a tweezers lamp adapted to a wireless foot pedal. Background Technology

[0002] Currently, in the field of precision operations, especially in scenarios requiring precise tasks involving both hands, tweezers combined with auxiliary lighting are a common and critical need. Traditional solutions typically employ tweezers tools with integrated miniature light sources or fixed lighting equipment on the worktable. However, existing technologies have significant limitations and struggle to meet the requirements of efficient, flexible, and ergonomic operation.

[0003] First, most common integrated tweezers lights rely on physical switches or knobs on the tweezers themselves to control the light source. When the operator is holding the tweezers for delicate grasping or manipulation, they must free one hand or change their grip to trigger the switch. This not only disrupts the continuity and smoothness of the operation and increases operation time, but may also introduce interference or even error risks in critical steps requiring high concentration and stability, seriously affecting work efficiency and operational accuracy. Second, some tweezers light solutions that attempt to incorporate pressure sensing can only achieve a simple on / off function, lacking a more refined and adjustable mapping relationship between the operating force and lighting needs. For example, they cannot automatically adjust the light intensity level according to different pressure values ​​applied to the tweezers, or they lack a sensitivity adjustment mechanism that can adapt to different operator habits or different task requirements. This results in either an overly sluggish lighting response that fails to light up in time, or an overly sensitive response that causes unnecessary frequent on / off switching or glare, leading to a poor user experience and failing to effectively assist in precise operation.

[0004] While external foot switches theoretically offer advantages as a hands-free control method, existing foot switches generally use wired connections. The presence of cables easily creates entanglement and tripping risks in the operating area, limiting the operator's freedom of movement and working range. This is particularly inconvenient in work environments with limited space or where frequent position adjustments are required. At the same time, the sealing, durability, and ergonomic design of such wired foot switches are often insufficient. Long-term use can easily lead to damage to internal components or connection failure, and the lack of effective protection makes it difficult to cope with common work environment challenges such as liquid splashes and dust intrusion.

[0005] Existing tweezers light systems with foot pedal control often suffer from neglected integration, protection levels, and signal transmission reliability between the controller and foot switch. The controller housing is often rudimentary, prone to dust and moisture ingress. The foot pedal lacks effective anti-displacement and cushioning designs, affecting pedaling accuracy and comfort. Wireless transmission solutions, if available, may suffer from weak interference resistance, complex pairing, or response delays, failing to provide a stable, immediate, and seamless control experience. Finally, at the overall human-machine interface level, current technology fails to seamlessly integrate pressure sensing at the tweezers end, intelligent controller processing, and wireless foot pedal commands to form a closed-loop system that intelligently adjusts the lighting status (such as on / off timing and brightness level) based on the operator's actual force application. The operator still needs to focus on lighting control rather than the core operational task itself.

[0006] In summary, the current market lacks a tweezers lighting solution that truly achieves hands-free operation, intelligently adjustable lighting response, stable and reliable wireless connectivity, adequate device protection, and ergonomic design. These shortcomings limit the efficiency improvement and application expansion of tweezers tools in precision operations. Therefore, an innovative technological solution is urgently needed to overcome these deficiencies. Summary of the Invention

[0007] This invention proposes a tweezers lamp adapted to a wireless foot pedal. This solution solves the problem of process interruption caused by manual switching of lighting in precision operations. It overcomes the shortcomings of traditional tweezers lamps, such as rough pressure sensing and inability to intelligently dim, the need for wired connection for foot pedal control, and insufficient system protection and operational adaptability. It achieves integrated operation support with hands-free operation, adaptive lighting response based on force, reliable wireless control, and durable equipment protection.

[0008] The technical solution of this invention is implemented as follows: A tweezers lamp adapted to a wireless foot pedal includes a tweezers body, a collar clamp controller, and a wireless control pedal. The tweezers body includes a main support, a silicone sleeve, a pressure sensor, an LED bead, a lower cover, a lamp control line, and tweezers. A pressure sensor is installed on the upper front surface of the main support, and the pressure sensor is covered by the silicone sleeve. A lamp control line is installed on one side of the pressure sensor. An LED bead is located on the side of the main support away from the lamp control line. The LED bead is fixed to the main support by the lower cover. Tweezers are installed on the lower surface of the main support. The lamp control line is connected to the collar clamp controller. The collar clamp controller has a built-in receiving module that receives the switch signal from the wireless control pedal. The collar clamp controller has four control sensitivity levels. When operating the tweezers, the LED bead is turned on at different pressure levels by matching the pressure data collected by the pressure sensor with the control sensitivity.

[0009] Existing tweezers with illumination functions suffer from four main defects: First, illumination control relies on a physical switch or knob on the tweezers themselves, requiring the user to free their hand to trigger it, disrupting operational continuity and increasing the risk of error. Second, even with pressure sensing, only basic on / off functions are supported, unable to dynamically adjust brightness based on applied force, and lacking a sensitivity grading mechanism, making it difficult to adapt to different operating habits or delicate work requirements (such as microscopic repair and jewelry setting), resulting in delayed illumination response or oversensitivity. Third, external foot switches are mostly wired designs, with cables prone to tangling and restricting the operator's movement, making them impractical in narrow spaces or scenarios requiring frequent relocation. Fourth, existing foot pedals and controllers have rudimentary structures, lacking effective sealing (such as dust and water resistance) and ergonomic optimization, making them susceptible to component damage from prolonged use due to impacts, liquid intrusion, or dust accumulation, and exhibiting poor signal transmission stability (especially wireless solutions suffer from latency, interference, or cumbersome pairing issues).

[0010] The intelligent coupling of pressure sensing and lighting control described in this application requires: a pressure sensor to be precisely integrated into a tiny main support, with uniform force transmission and protection achieved through a silicone sleeve; a multi-level sensitivity algorithm to dynamically match the pressure threshold with the LED light bead activation logic, ensuring that the expected lighting response is triggered across different force ranges from light touch to heavy pressure, while avoiding false triggering or response delay; and the reliability and human-machine interaction optimization of the wireless foot pedal: the foot pedal must use a wireless control pedal to completely eliminate cable constraints, and the internal wireless control board of the foot pedal and the foot pedal cover must be connected by a ring-shaped silicone sleeve. The waistband provides a cushioning seal, ensuring pedaling comfort and resistance to displacement. Meanwhile, the foot pedal cover must be precisely designed with raised pressing posts to reliably trigger the switch and ensure low latency and interference resistance in signal transmission. System-level protection and integration: the collar clamp controller must be dustproof and waterproof through snap-fit ​​and screw locking of the upper and lower covers of the control box and sealing rings, protecting the internal wireless receiving module. The LED beads in the tweezers body must be securely encapsulated by the lower cover of the main body to resist operational vibrations. The entire system must maintain stable signal in a wireless environment, ensuring that the collar clamp controller can analyze pressure data and foot pedal commands in real time and coordinate lighting status switching.

[0011] In a preferred embodiment, the pressure sensor is tightly fitted into a specific groove on the upper front surface of the main support, and the silicone sleeve completely covers the pressure sensor and the upper surface of the main support in the adjacent area. The silicone sleeve has the functions of physical protection, uniform pressure transmission, and anti-slip operation.

[0012] As a preferred embodiment, the collar clamp controller has four levels of control sensitivity built in, which are achieved by an adjustable resistor circuit on its wireless control motherboard or by software preset thresholds. Different levels correspond to different pressure threshold ranges collected by the pressure sensor, and the operator switches between levels by means of a physical switch on the collar clamp controller.

[0013] In a preferred embodiment, the footrest of the wireless control pedal is an annular silicone or rubber component with predetermined elasticity and deformation recovery capability. Its inner edge is tightly fitted onto the edge of the foot pedal wireless control plate, and its outer edge is tightly clamped in the annular groove formed between the base plate and the foot pedal cover, forming a seal and preventing the internal foot pedal wireless control plate from shifting when stepped on.

[0014] In a preferred embodiment, the collar clip controller includes a control box upper cover, a control box lower cover, and a wireless control motherboard. The control box upper cover and the control box lower cover are tightly locked together by circumferentially distributed buckles and screw holes. The cavity formed inside the control box accommodates the wireless control motherboard, and an annular elastic sealing ring is provided at the joint between the two to ensure the overall dustproof and waterproof performance of the collar clip controller.

[0015] In a preferred embodiment, the LED bead's activation and brightness adjustment have at least two levels of associated logic: First, when the pressure detected by the pressure sensor reaches the lowest threshold of the currently set sensitivity level, the LED bead lights up at the basic brightness; Second, when the pressure detected by the pressure sensor exceeds a preset higher threshold, the LED bead automatically switches to a higher brightness level.

[0016] The beneficial effects of this invention after adopting the above technical solution are as follows: This solution brings significant benefits by innovatively integrating pressure sensing, wireless control, and a graded sensitivity mechanism: the operator does not need to be distracted by manually switching the lighting on and off, and can focus on holding the tweezers during the entire process. The LED beads are triggered to turn on or off or dim by natural pressure, greatly improving the smoothness and efficiency of operation, especially suitable for scenarios requiring high precision and high concentration; secondly, the four-level sensitivity design provides strong adaptability, and users can flexibly adjust the pressure threshold according to their operating habits or task requirements, avoiding the problems of false lighting or lag caused by fixed sensitivity in traditional solutions. At the same time, the pressure graded triggering mechanism provides more realistic light feedback and enhances visual assistance. Furthermore, the wireless control pedal completely eliminates cables, removing the risk of tangling and expanding the operating radius. Its silicone cushioning layer around the foot pedal and the anti-slip design of the top cover significantly improve pedaling comfort and accuracy, while the sealed structure of the collar controller effectively resists dust and moisture corrosion, extending the equipment's lifespan. In addition, the system uses a reliable wireless transmission protocol to ensure real-time synchronization of foot pedal commands and pressure signals, avoiding signal loss or delays that could interfere with the operating rhythm. Finally, the silicone sleeve in the tweezers body fully covers the pressure sensor, providing anti-slip, anti-scratch, and even force distribution functions, improving the grip while protecting the core sensing components. The robust encapsulation of the LED beads in the lower cover ensures stable and unwavering illumination direction. The overall solution achieves a comprehensive breakthrough in operational freedom, lighting intelligence, environmental adaptability, and equipment durability, providing efficient, reliable, and user-friendly lighting support for precision operations. Attached Figure Description

[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a schematic diagram of the tweezers body structure of the present invention;

[0019] Figure 2 This is a schematic diagram of the explosion of the tweezers body of the present invention;

[0020] Figure 3 This is an isometric view of the collar clamp controller of the present invention;

[0021] Figure 4 This is an exploded view of the collar clamp controller of the present invention;

[0022] Figure 5 This is an axonometric view of the wireless control pedal of the present invention.

[0023] In the diagram, 1-tweezers body; 11-main support; 12-silicone sleeve; 13-pressure sensor; 14-LED lamp bead; 15-main body lower cover; 16-lamp control wire; 17-tweezers; 2-clamping controller; 21-control box upper cover; 22-control box lower cover; 23-wireless control motherboard; 3-wireless control pedal. Detailed Implementation

[0024] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0025] Example:

[0026] like Figures 1-5As shown, a tweezers lamp adapted to a wireless foot pedal includes a tweezers body 1, a collar controller 2, and a wireless control pedal 3. The tweezers body 1 includes a main support 11, a silicone sleeve 12, a pressure sensor 13, an LED bead 14, a lower cover 15, a lamp control wire 16, and tweezers 17. The pressure sensor 13 is mounted on the upper front surface of the main support 11, and the pressure sensor 13 is covered by the silicone sleeve 12. The lamp control wire 16 is mounted on one side of the pressure sensor 13, and the side of the main support 11 away from the lamp control wire 16 is... An LED light bead 14 is provided, which is fixed to the main body bracket 11 by the main body lower cover 15. Tweezers are installed on the lower end face of the main body bracket 11. The light control line 16 is connected to the collar clamp controller 2. The collar clamp controller 2 has a built-in receiving module, which receives the switch signal of the wireless control pedal 3. The collar clamp controller 2 is set with 4 control sensitivity levels. When the tweezers 17 are operated, the LED light bead 14 is turned on under different pressures after the pressure data collected by the pressure sensor 13 is matched with the control sensitivity.

[0027] In the repair of precision electronic components, the operator places the wireless control pedal 3 under the workbench, within easy reach of their feet. The internal wireless control board is cushioned and sealed by a ring-shaped silicone footplate between the base plate and the top cover, ensuring no displacement of internal components and isolating them from external dust during stepping. The collar clamp controller 2 is secured to the operator's waist via snap-fit ​​screws and a sealing ring on the top and bottom covers of the control box, with its built-in wireless receiver module in a pairing-ready state. The tweezers body 1 is connected to the corresponding interface of the collar clamp controller 2 via the light control line 16. During system initialization, the operator briefly presses the top cover of the wireless control pedal 3. The raised pressing post on the lower surface of the top cover precisely triggers the pairing button on the wireless control board, generating a wireless switch signal that is captured in real-time by the receiver module of the collar clamp controller 2, completing two-way authentication and establishing a communication link. According to personal operating habits, such as fine welding or conventional plug-in repair, the operator can rotate the physical gear knob on the outside of the collar clamp controller 2 and select the appropriate gear from the four control sensitivity levels. For example, gear 1 corresponds to light touch triggering, while gear 4 requires gravity triggering. At this time, the wireless control motherboard inside the collar clamp controller 2 automatically loads the preset pressure threshold parameters for that gear level.

[0028] At the start of the operation, the operator holds the tweezers body 1, with their thumb naturally covering the front area of ​​the main support 11 above the silicone sleeve 12. When the tweezers 17 grasp the micro-capacitor component, the operator's thumb applies an initial slight force. This pressure is evenly transmitted through the silicone sleeve 12 to the pressure sensor 13 below. The sensor generates an analog electrical signal in real time and transmits it to the collar controller 2 via the lamp control line 16. The wireless control motherboard of the collar controller 2 performs AD conversion and digital filtering on the input signal and compares it with the threshold of the currently activated sensitivity level. If the pressure value reaches the lower limit set for level 1, a low-level drive command is generated and transmitted back to the LED bead 14 circuit via the lamp control line 16, causing the LED bead 14 to light up instantaneously at its basic brightness, accurately illuminating the component pad position. As welding progresses, when increased lighting is needed to observe the molten state of the weld, the operator increases the pressure of their thumb. The pressure sensor 13 continuously rises, and when it exceeds the preset secondary brightness switching threshold, the collar controller 2 automatically outputs a PWM dimming signal, instructing the LED beads 14 to switch to a higher brightness level, providing sufficient illumination without manual intervention. If the lighting needs to be temporarily turned off during operation, such as to observe surrounding circuits, the operator lightly taps the wireless control pedal 3. The foot pedal wireless control board generates a coverage command and wirelessly transmits it to the collar controller 2, forcibly interrupting the pressure sensing signal processing link, causing the LED beads 14 to immediately turn off. Stepping on the pedal again restores the pressure sensing control.

[0029] When the working environment changes, such as moving to a dusty area, the sealed housing structure of the collar controller 2 effectively prevents dust from entering the wireless control motherboard, while the silicone waistband and sealed cavity design of the wireless control pedal 3 prevent debris from entering and affecting button triggering. During maintenance breaks, the system automatically enters a low-power standby state; when the tweezers are gripped again and pressure is applied, the wake-up signal of the pressure sensor 13 instantly restarts the lighting control logic through the collar controller 2. After the work is completed, if no pressure signal is detected and the foot pedal command exceeds the set time, the collar controller 2 cuts off the power supply to the LED bead 14 and enters deep sleep mode. Throughout the process, the silicone sleeve 12 not only protects the pressure sensor 13 from sweat corrosion and mechanical scratches, but its surface texture also enhances the grip and anti-slip properties; the rigid fixation of the main body cover 15 to the LED bead 14 ensures a stable beam focusing direction, unaffected by operational vibrations; the wireless signal transmission adopts a frequency hopping anti-interference protocol to ensure reliable synchronization of foot pedal commands and pressure data in complex electronic equipment environments, preventing lighting malfunctions caused by signal delays or loss. As a result, the operator can keep both hands focused on the work at all times, dynamically adjust the lighting status by applying natural pressure, and achieve real-time coverage control via wireless foot pedal, realizing efficient, stable, and ergonomic integrated light operation in precision maintenance scenarios.

[0030] The pressure sensor 13 is tightly fitted into a specific groove on the upper front surface of the main support 11, and the silicone sleeve 12 completely covers the pressure sensor 13 and the upper surface of the main support 11 in the adjacent area. The silicone sleeve 12 has the functions of physical protection, uniform pressure transmission, and anti-slip operation. The four-level control sensitivity built into the collar controller 2 is realized through the adjustable resistor circuit on its wireless control motherboard or the software preset threshold. Different levels correspond to different pressure threshold ranges collected by the pressure sensor 13. The operator switches between levels through the physical switch on the collar controller 2. The footrest of the wireless control pedal 3 is a ring-shaped silicone or rubber component with predetermined elasticity and deformation recovery capability. Its inner edge is tightly fitted into the edge of the foot pedal wireless control plate, and its outer edge is tightly clamped in the annular groove formed between the bottom plate and the foot pedal cover, forming a seal and preventing the internal foot pedal wireless control plate from shifting when stepped on. The collar clamp controller 2 includes a control box upper cover 21, a control box lower cover 22, and a wireless control motherboard 23. The control box upper cover 21 and control box lower cover 22 are tightly locked together by circumferentially distributed buckles and screw holes. The cavity formed inside them accommodates the wireless control motherboard 23, and an annular elastic sealing ring is provided at the joint between the two to ensure the overall dustproof and waterproof performance of the collar clamp controller 2. The LED beads 14 have at least two levels of correlation logic for turning on and adjusting brightness: the first level is that when the pressure detected by the pressure sensor 13 reaches the minimum threshold of the currently set sensitivity level, the LED beads 14 are lit at the basic brightness; the second level is that when the pressure detected by the pressure sensor 13 exceeds the preset higher threshold, the LED beads 14 automatically switch to a higher brightness level.

[0031] In microsurgical neurovascular anastomosis, the operator wears sterile gloves to hold the forceps. A pressure sensor is tightly embedded in a custom-designed groove on the upper front surface of the main support. A silicone sleeve completely covers the sensor and adjacent area; its micro-convex surface evenly transmits pressure to the sensor when pressed with the thumb, and the frosted texture ensures stable grip even when contaminated with tissue fluid. The biocompatibility and fully enclosed design of the silicone sleeve prevent the penetration of bodily fluids and withstand high-temperature sterilization procedures.

[0032] The collar controller is fixed to the operator's waist, and its four sensitivity levels are preset via an adjustable resistor circuit on the wireless control motherboard: Level 1 is suitable for light touch triggering for delicate suturing, and Level 4 is used for gravity response during ligation operations. Doctors can switch between the levels in real time using a physical switch on the side of the controller. For example, a low sensitivity is selected when separating fine nerves to avoid accidental triggering, and a high sensitivity is switched when anastomosing blood vessels to ensure reliable illumination.

[0033] The wireless control pedal is located beneath the operating table. The inner edge of the ring-shaped silicone foot pedal's waistband tightly engages with the edge of the internal circuit board, while the outer edge is sealed and fitted into the annular groove between the base plate and the top cover. During surgery, when the toes lightly touch the pedal, the silicone waistband absorbs the impact and disperses pressure, preventing internal components from shifting. Simultaneously, it forms a labyrinthine sealing barrier to prevent blood splatter contamination. Even after multiple steps, it accurately resets, ensuring the immediacy of lighting control.

[0034] The collar controller's housing is secured with a double-locking mechanism of circumferential buckles and screws. The annular sealing ring at the joint effectively prevents moisture intrusion in the disinfectant spray environment of the operating room, meeting the requirements for aseptic operation. The internal wireless control motherboard continuously analyzes pressure signals and foot pedal commands, coordinating the lighting logic.

[0035] When the forceps tip lightly touches the blood vessel wall and reaches the current sensitivity threshold, the LED light illuminates the surgical field at basic brightness. When deeper suturing requires greater gripping force, pressure exceeding a preset higher threshold automatically triggers a secondary brightness level, enhancing light penetration into the blood reflection area to observe anastomotic details. The brightness switching is smooth and natural, avoiding visual adaptation interference.

[0036] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A tweezers lamp adapted to a wireless foot pedal, characterized in that, The device includes a tweezers body (1), a collar controller (2), and a wireless control pedal (3). The tweezers body (1) includes a main support (11), a silicone sleeve (12), a pressure sensor (13), an LED bead (14), a lower cover (15), a light control wire (16), and tweezers (17). The pressure sensor (13) is mounted on the upper front surface of the main support (11), and the pressure sensor (13) is covered by the silicone sleeve (12). The light control wire (16) is mounted on one side of the pressure sensor (13), and a wireless control pedal is provided on the side of the main support (11) away from the light control wire (16). LED lamp beads (14) are fixed on the main body bracket (11) by the main body lower cover (15). Tweezers are installed on the lower end face of the main body bracket (11). The lamp control line (16) is connected to the collar controller (2). The collar controller (2) has a built-in receiving module. The receiving module receives the switch signal of the wireless control pedal (3). The collar controller (2) is set with 4 levels of control sensitivity. When operating the tweezers (17), the LED lamp beads (14) are turned on under different forces after matching the pressure data collected by the pressure sensor (13) with the control sensitivity.

2. The tweezers lamp adapted to a wireless foot pedal as described in claim 1, characterized in that: The pressure sensor (13) is tightly fitted into a specific groove on the upper front surface of the main support (11), and the silicone sleeve (12) completely covers the pressure sensor (13) and the upper surface of the main support (11) in its adjacent area. The silicone sleeve (12) has the functions of physical protection, uniform pressure transmission and anti-slip operation.

3. The tweezers lamp adapted to a wireless foot pedal as described in claim 1, characterized in that: The four-level control sensitivity built into the collar clamp controller (2) is achieved through the adjustable resistor circuit on its wireless control motherboard or the software preset threshold. Different levels correspond to different pressure threshold ranges collected by the pressure sensor (13). The operator switches the levels through the physical switch on the collar clamp controller (2).

4. The tweezers lamp adapted to a wireless foot pedal as described in claim 1, characterized in that: The footrest of the wireless control pedal (3) is an annular silicone or rubber component with predetermined elasticity and deformation recovery capability. Its inner edge is tightly fitted onto the edge of the foot wireless control plate, and its outer edge is tightly clamped in the annular groove formed between the bottom plate and the foot cover, forming a seal and preventing the internal foot wireless control plate from shifting when stepped on.

5. The tweezers lamp adapted to a wireless foot pedal as described in claim 1, characterized in that: The collar clamp controller (2) includes a control box upper cover (21), a control box lower cover (22), and a wireless control motherboard (23). The control box upper cover (21) and the control box lower cover (22) are tightly locked together by circumferentially distributed buckles and screw holes. The cavity formed inside them accommodates the wireless control motherboard (23), and an annular elastic sealing ring is provided at the joint of the two to ensure the overall dustproof and waterproof performance of the collar clamp controller (2).

6. The tweezers lamp adapted to a wireless foot pedal as described in claim 1, characterized in that: The LED bead (14) has at least two levels of associated logic for its activation and brightness adjustment: First level, when the pressure detected by the pressure sensor (13) reaches the lowest threshold of the current set sensitivity level, the LED bead (14) is lit at the basic brightness; Second level, when the pressure detected by the pressure sensor (13) exceeds the preset higher threshold, the LED bead (14) automatically switches to a higher brightness level.

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