Handle easy to operate
By designing a cylindrical handle and a rocker sensor on the control handle of the electric hoist, multiple action signals are generated, solving the problem of complex operation of electric hoists and vehicles in the prior art, and realizing simplified operation of single-handed multi-action control.
Patent Information
- Application Number
- CN202520486559.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-19
- Publication Date
- 2026-02-27
- Estimated Expiration
- 2035-03-19
AI Technical Summary
The existing electric hoist control handle is complicated to operate, making it difficult to achieve multi-action control of the electric hoist and vehicle. In particular, the lifting of the electric hoist and the movement of the vehicle require separate button-type and floating-type operation, which is inconvenient.
Design an easy-to-operate handle by installing a first cylindrical handle and a second cylindrical handle on a connecting rod, each equipped with a first and a second rocker sensor. The sliding and rotating of the handle generates multiple action signals, and the controller generates corresponding control commands based on the signals to achieve multi-action control of the electric hoist and vehicle.
It enables one hand to complete eight operations of the electric hoist, including lifting, moving the trolley and the carriage, simplifying the operation process, saving time and effort, and avoiding button operation.
Smart Images

Figure CN223950623U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to a hoisting equipment, especially to a handle controlled by an electric hoist. BACKGROUND
[0002] The electric hoist is a kind of special hoisting equipment, which is installed on the crown block and the gantry crane. It is divided into steel wire rope electric hoist and ring chain electric hoist. Whether it is a steel wire rope electric hoist or a ring chain electric hoist, it generally uses an independent control handle to realize the lifting of the chain or the steel wire rope by pressing the button, which is relatively inconvenient to control.
[0003] The Chinese utility model patent application with the application number CN111943070A discloses an intelligent electric hoist with a suspension control structure. Its control handle can realize suspension control, which is no longer a simple button control, and the control is relatively simpler.
[0004] This patent application combines button operation and suspension control to control the electric hoist, which changes the traditional pure button control mode of the easy-to-operate handle. Although the operation is a little simpler, it only uses suspension control for the lifting and lowering actions of the electric hoist, and other actions still use button operation.
[0005] The Chinese utility model patent application with the authorization announcement number CN114955910B discloses an electric hoist electric control handle. The worker slides the handle up and down to drive the magnetic block to slide up and down, which causes the change of the magnetic field and the change of the voltage signal. The size change of the voltage signal controls the speed of the motor, and then realizes the control of the electric hoist. The up-and-down sliding handle of this patent application can only control the rotation of the motor to realize the control of the lifting and lowering actions of the electric hoist, and other actions still use button operation. UTILITY MODEL CONTENTS
[0006] In view of the defects in the prior art, the utility model provides an easy-to-operate handle. The worker can not only complete the lifting and lowering actions of the electric hoist with one hand, but also control the movement and other actions of the cart and the trolley. It is simple and convenient to operate, which saves time and effort.
[0007] To solve the above technical problems, the utility model adopts the technical scheme of:
[0008] An easy-to-operate handle comprises a housing, a controller arranged in the housing, and a connecting rod fixed vertically in the housing, the housing is provided with through holes at its upper and lower ends, the connecting rod extends out of the housing through the through holes, characterized in that: a first cylindrical handle and a second cylindrical handle are arranged on the connecting rod, the first cylindrical handle is located above the second cylindrical handle, a first rocker and a second rocker are arranged on the connecting rod, the first cylindrical handle and the second cylindrical handle are provided with rocker holes, the rockers of the first rocker and the second rocker are respectively inserted into the rocker holes of the first cylindrical handle and the second cylindrical handle, the first cylindrical handle can slide up and down and rotate circumferentially around the connecting rod and can return to the initial position after sliding up and down and rotating circumferentially, the second cylindrical handle can slide up and down and rotate circumferentially around the connecting rod and can return to the initial position after sliding up and down and rotating circumferentially, the first rocker sends the detected action signal of the first cylindrical handle to the controller after detecting the action signal of the first cylindrical handle, the second rocker sends the detected action signal of the second cylindrical handle to the controller after detecting the action signal of the second cylindrical handle, the controller generates a control command according to the received action signal and sends the control command through wired or wireless mode to control the corresponding actuator to execute the corresponding control command.
[0009] In order to realize the up-and-down sliding reset of the first cylindrical handle, a first up-and-down reset elastic strip is arranged on the connecting rod, the first up-and-down reset elastic strip penetrates through the connecting rod, and the two ends of the first up-and-down reset elastic strip extending out of the connecting rod are inserted into the first cylindrical handle. Through the elastic force of the first up-and-down reset elastic strip, the up-and-down reset of the first cylindrical handle is realized.
[0010] In order to realize the circumferential rotation reset of the first cylindrical handle, a first rotation reset elastic strip is arranged on the connecting rod, the first rotation reset elastic strip penetrates through the connecting rod, and the two ends of the first rotation reset elastic strip extending out of the connecting rod are inserted into the first cylindrical handle. Through the elastic force of the first rotation reset elastic strip, the circumferential rotation reset of the first cylindrical handle is realized.
[0011] In order to realize the up-and-down sliding reset of the second cylindrical handle, a second up-and-down reset elastic strip is arranged on the connecting rod, the second up-and-down reset elastic strip penetrates through the connecting rod, and the two ends of the second up-and-down reset elastic strip extending out of the connecting rod are inserted into the second cylindrical handle. Through the elastic force of the second up-and-down reset elastic strip, the up-and-down reset of the second cylindrical handle is realized.
[0012] In order to realize the circumferential rotation reset of the second cylindrical handle, a second rotation reset elastic strip is arranged on the connecting rod, the second rotation reset elastic strip penetrates through the connecting rod, and the two ends of the second rotation reset elastic strip extending out of the connecting rod are inserted into the second cylindrical handle. Through the elastic force of the second rotation reset elastic strip, the circumferential rotation reset of the second cylindrical handle is realized.
[0013] The actuator is the driving mechanism of the electric hoist, the cart and the trolley, such as the motor driving the electric hoist to lift, the motor driving the cart to move forward and backward, and the motor driving the trolley to move left and right.
[0014] The first cylindrical handle includes a first cylindrical body, a roller is arranged on the first cylindrical body, the roller is fixed on the first cylindrical body, a rocker hole is arranged at the upper end of the first cylindrical body and extends through the first cylindrical body in the radial direction, a first through hole is arranged at the lower end of the first cylindrical body and extends through the first cylindrical body in the radial direction. The first up-down reset elastic strip is inserted into the first through hole, thereby meeting the requirement of inserting the first up-down reset elastic strip into the first cylindrical handle. Of course, the first rotary reset elastic strip can also be inserted into the first cylindrical handle by arranging a through hole on the first cylindrical handle.
[0015] The second cylindrical handle includes a second cylindrical body, an annular groove is arranged at both the upper end and the lower end of the second cylindrical body, a rocker hole is arranged in the annular groove at the upper end and extends through the second cylindrical body in the radial direction, a second through hole is arranged in the annular groove at the lower end and extends through the second cylindrical body in the radial direction, and a finger groove is arranged at the middle part of the second cylindrical body. The second up-down reset elastic strip is inserted into the second through hole, thereby meeting the requirement of inserting the second up-down reset elastic strip into the second cylindrical handle. Of course, the second rotary reset elastic strip can also be inserted into the second cylindrical handle by arranging a through hole on the second cylindrical handle.
[0016] The rocker hole is a horn hole, the inside of which is large and the outside of which is small.
[0017] The upper end of the first cylindrical handle extends into the shell through the through hole, a dust cover is arranged on the connecting rod between the first cylindrical handle and the second cylindrical handle, the upper end of the dust cover is buckled on the lower end of the first cylindrical body to cover the first through hole, the lower end of the dust cover is buckled on the upper end of the second cylindrical body to cover the rocker hole on the second cylindrical body, and a dust cover is also arranged on the connecting rod below the second cylindrical handle and buckled on the lower end of the second cylindrical body to cover the second through hole. The upper end of the first cylindrical handle extends into the shell through the through hole, and the rocker hole arranged at the upper end of the first cylindrical handle is protected from dust by the shell, so that dust does not enter the rocker hole to affect the sensing sensitivity of the first rocker sensor. The dust cover protects the first through hole, the rocker hole on the second cylindrical handle and the second through hole from dust, so that dust does not enter the rocker hole on the second cylindrical handle to affect the sensing sensitivity of the second rocker sensor, and does not enter the first through hole and the second through hole to affect the reset of the first cylindrical handle and the second cylindrical handle.
[0018] The dust cover is made of silica gel or rubber material.
[0019] The first rocker sensor and the second rocker sensor are both rocker potentiometers.
[0020] Compared with the prior art, the present utility model has the following beneficial effects:
[0021] The first cylindrical handle and the second cylindrical handle are installed on the connecting rod, and the first rocker sensor and the second rocker sensor are installed at the corresponding positions, the rocker arm of the first rocker sensor is inserted into the first cylindrical handle, the rocker arm of the second rocker sensor is inserted into the second cylindrical handle, the first cylindrical handle and the second cylindrical handle can rotate circumferentially around the connecting rod and can also slide up and down, and can further be reset to the initial position. The user holds the second cylindrical handle with one hand, and the thumb is against the first cylindrical handle, and the user can rotate the second cylindrical handle inwards and outwards, slide the second cylindrical handle upwards and downwards by coordinating the palm and the four fingers, and the thumb can rotate the first cylindrical handle inwards and outwards, slide the first cylindrical handle upwards and downwards, so that the user can complete eight operations with one hand, and the rocker arms of the first rocker sensor and the second rocker sensor are inserted into the first cylindrical handle and the second cylindrical handle respectively, the actions of the first cylindrical handle and the second cylindrical handle can be transmitted to the first rocker sensor and the second rocker sensor, the first rocker sensor and the second rocker sensor can generate eight action signals corresponding to the eight actions detected and send them to the controller, and the controller can generate eight control commands according to the action signals after receiving the control signals, so as to realize the control of the electric hoist lifting, the trolley moving forward and backward, the car moving left and right and other actions, and the lifting control, the trolley moving forward and backward and the car moving left and right can be realized by one-hand operation, which is no longer button control, overturns the existing button operation mode, greatly simplifies the operation, and is simple and convenient to operate, saving time and effort. BRIEF DESCRIPTION OF DRAWINGS
[0022] In order to more clearly illustrate the specific embodiments of the present utility model or the technical solutions in the prior art, the drawings needed in the specific embodiments or the prior art description will be briefly introduced below. In all the drawings, similar elements or parts are generally identified by similar reference numerals. In the drawings, the elements or parts are not necessarily drawn according to the actual proportions.
[0023] Figure 1 It is a schematic diagram of the overall external structure of the present utility model;
[0024] Figure 2 It is a schematic diagram of the structure of the first cylindrical handle;
[0025] Figure 3 It is a schematic diagram of the structure of the first cylindrical handle from another view direction;
[0026] Figure 4 It is a schematic diagram of the structure of the second cylindrical handle;
[0027] Figure 5It is a structural schematic view of another view direction of the second cylindrical handle;
[0028] Figure 6 It is a structural schematic view of the dust cover;
[0029] Figure 7 It is a structural schematic view of the shell, the dust cover, the first cylindrical handle and the second cylindrical handle;
[0030] Figure 8 It is Figure 7 It is a structural schematic view of the enlarged A in the middle;
[0031] Figure 9 It is Figure 7 It is a structural schematic view of the enlarged B in the middle;
[0032] Figure 10 It is a structural schematic view of the connecting rod, the first up-down reset elastic strip, the first rotation reset elastic strip, the second up-down reset elastic strip and the second rotation reset elastic strip;
[0033] Figure 11 It is a schematic view of the forward movement state of the cart;
[0034] Figure 12 It is a schematic view of the backward movement state of the cart;
[0035] Figure 13 It is a schematic view of the right movement state of the trolley;
[0036] Figure 14 It is a schematic view of the left movement state of the trolley.
[0037] Reference signs:
[0038] 1, handle body, 10, shell, 11, controller, 12, connecting rod, 13, first cylindrical handle, 130, first cylindrical body, 131, roller, 132, first through hole, 14, second cylindrical handle, 140, second cylindrical body, 141, annular groove, 142, second through hole, 143, finger groove, 15, first rocker, 16, second rocker, 17, rocker hole, 18, rocker, 1001, first up-down reset elastic strip, 1002, first rotation reset elastic strip, 1003, second up-down reset elastic strip, 1004, second rotation reset elastic strip, 1005, dust cover, 1006, weight sensor, 1007, operation panel, 2, joint, 3, chain, 4, lifting hook, 5, cart, 6, trolley, 7, electric hoist, 8, gyroscope sensor. DETAILED DESCRIPTION
[0039] The easy-to-operate handle provided by the utility model is improved and designed from the following three aspects:
[0040] In the first aspect, the user can complete eight operation controls with one hand, and the button operation is no longer used, so the operation is simple and convenient.
[0041] In the second aspect, the suspension handle design is used, and the user can control the lifting action of the electric hoist by applying a force to the weight or the handle, so that the operation of the handle is simplified.
[0042] In the third aspect, the handle is designed to follow the movement, and the user can control the movement of the trolley and the car by pulling the handle, so that the handle moves with the user's operation, and is automatically corrected when the handle is inclined, so that the handle is perpendicular to the ground.
[0043] The above three aspects will be described in detail in combination with the drawings and specific embodiments:
[0044] Embodiment 1
[0045] The technical problem to be solved by the present embodiment is how to realize single-handed operation of the handle by the user and realize eight operation controls.
[0046] In order to solve the above technical problem, the technical scheme adopted by the present embodiment is:
[0047] An easy-to-operate handle includes a handle body 1, the upper end of the handle body 1 is connected to the chain 3 of the electric hoist 7 through a joint 2, and the lower end of the handle body 1 is connected to the hook 4 through a joint. The chain 3 is wound around the electric hoist 7, the electric hoist 7 is installed on the trolley 6, the trolley 6 is installed on the cart 5, the electric hoist 7 moves left and right with the trolley 6, and the trolley 6 moves forward and backward with the cart 5.
[0048] The handle body 1 includes an outer shell 10, a controller 11 arranged in the outer shell 10, and a connecting rod 12 vertically fixed in the outer shell 10, the outer shell 10 is provided with through holes at the upper and lower ends, the connecting rod 12 extends out of the outer shell 10 through the through holes at both ends, the upper end of the connecting rod 12 extending out of the outer shell 10 is connected to the chain 3 through the joint 2, and the lower end of the connecting rod 12 is connected to the hook 4 through the joint 2. An emergency stop button, an operation panel 1007, an air valve switch, a 485 or CN wired control plug, a servo clamp switch control plug, a data port, an external servo control switch signal plug and the like are arranged on the outer shell 10, and these components are connected to the controller. These are existing components and are not the improvement point of the present utility model, so they will not be described again. The improvement point of the present utility model will be described in detail below:
[0049] In order to realize the single-handed operation of the user, two cylindrical handles are arranged, one is operated by hand, and the other is operated by the thumb. The two cylindrical handles are a first cylindrical handle 13 and a second cylindrical handle 14, which are sleeved on the connecting rod 12, the first cylindrical handle 13 is above the second cylindrical handle 14, and the first cylindrical handle 13 and the second cylindrical handle 14 are rotatably sleeved on the connecting rod 12 and can slide up and down on the connecting rod 12. Through such design, the first cylindrical handle 13 and the second cylindrical handle 14 can be operated to rotate inward, rotate outward, slide up and slide down around the connecting rod 12, the user can hold the second cylindrical handle 14 with the palm and four fingers, and operate the second cylindrical handle 14 to rotate inward, rotate outward, slide up and slide down, and operate the first cylindrical handle 13 with the thumb, and the first cylindrical handle 13 can be operated to rotate inward, rotate outward, slide up and slide down. Thus, the operation purpose of eight actions of one hand is realized. The eight actions need to be transmitted to the controller to generate eight control commands to control the corresponding executing mechanism to execute the control action of the handle, so the first rocker 15 and the second rocker 16 are installed on the connecting rod 12, the rocker holes 17 are arranged on the first cylindrical handle 13 and the second cylindrical handle 14, and the rocker arms 18 of the first rocker 15 and the second rocker 16 are inserted into the rocker holes 17 of the first cylindrical handle 13 and the second cylindrical handle 14. When the user controls the first cylindrical handle 13 and the second cylindrical handle 14, the first rocker 15 and the second rocker 16 will execute corresponding actions, and at this time the first rocker 15 and the second rocker 16 will send the corresponding action signals to the controller 11 through wired or wireless mode.
[0050] After receiving the action signal, the controller 11 first confirms whether the action signal is sent by the first rocker 15 or the second rocker 16, and then confirms whether the action signal type is an upslide signal, a downslide signal, an inward rotation signal or an outward rotation signal. After confirming the action signal source and the action signal type, the corresponding control command is selected according to the action signal source, the action signal type and the preset control command, and the control command is sent to the corresponding executing mechanism to execute the corresponding action.
[0051] The control commands preset in the controller can be preset in the following manner, of course, they can also be exchanged with each other or other control commands can be preset, as long as they can correspond to the eight actions generated by operating the first cylindrical handle 13 and the second cylindrical handle 14.
[0052] The control commands preset according to the action signal source and the action signal type are as follows:
[0053]
[0054]
[0055] According to different control commands, the actuator can be various execution structures, mainly the driving mechanism of the electric hoist, the cart and the trolley, such as the motor driving the electric hoist to lift, the motor driving the cart to move forward and backward, and the motor driving the trolley to move left and right. In this way, the lifting command control of the electric hoist, the forward and backward movement command of the cart, and the left and right movement command of the trolley can be executed. The driving structure can also be a switch for suspension operation, so that the opening and closing control command of the handle suspension can be realized. The driving structure can also be a switch for suspension operation, so that the opening and closing control command of the handle suspension can be realized. The driving structure can also be a gear selection switch of the electric hoist, such as slow speed, after the slow speed action is started, the electric hoist is in slow speed gear, and the electric hoist is in slow speed action for accurate installation and alignment.
[0056] In order to realize the up-down sliding reset of the first cylindrical handle 13, a first up-down reset elastic strip 1001 is arranged on the connecting rod 12, the first up-down reset elastic strip 1001 penetrates through the connecting rod 12, and the two ends of the connecting rod 12 are inserted into the first cylindrical handle 13. Through the elastic force of the first up-down reset elastic strip, the up-down reset of the first cylindrical handle is realized.
[0057] In order to realize the circumferential rotation reset of the first cylindrical handle 13, a first rotation reset elastic strip 1002 is arranged on the connecting rod 12, the first rotation reset elastic strip 1002 penetrates through the connecting rod 12, and the two ends of the connecting rod 12 are inserted into the first cylindrical handle 13. Through the elastic force of the first rotation reset elastic strip, the circumferential rotation reset of the first cylindrical handle is realized.
[0058] In order to realize the up-down sliding reset of the second cylindrical handle 14, a second up-down reset elastic strip 1003 is arranged on the connecting rod 12, the second up-down reset elastic strip 1003 penetrates through the connecting rod 12, and the two ends of the connecting rod 12 are inserted into the second cylindrical handle 14. Through the elastic force of the second up-down reset elastic strip, the up-down reset of the second cylindrical handle is realized.
[0059] In order to realize the circumferential rotation reset of the second cylindrical handle 14, a second rotation reset elastic strip 1004 is arranged on the connecting rod 12, the second rotation reset elastic strip 1004 penetrates through the connecting rod 12, and the two ends of the connecting rod 12 are inserted into the second cylindrical handle 14. Through the elastic force of the second rotation reset elastic strip, the circumferential rotation reset of the second cylindrical handle is realized.
[0060] Of course the first up-down reset elastic strip will also provide reset elastic force for the circumferential rotation of the first cylindrical handle, the second up-down reset elastic strip will also provide reset elastic force for the circumferential rotation of the second cylindrical handle, the first rotation reset elastic strip will also provide up-down reset elastic force for the first cylindrical handle, and the second rotation reset elastic strip will also provide up-down reset elastic force for the second cylindrical handle. Through the cooperation of the first up-down reset elastic strip and the first rotation reset elastic strip, it is fully ensured that the first cylindrical handle can be reset up-down and circumferentially rotated, and through the cooperation of the second up-down reset elastic strip and the second rotation reset elastic strip, it is fully ensured that the second cylindrical handle can be reset up-down and circumferentially rotated.
[0061] The specific structure of the first cylindrical handle 13 is:
[0062] The first cylindrical body 130 is provided with a roller 131, the roller 131 is fixed on the first cylindrical body 130, the upper end of the first cylindrical body 130 is provided with a rocker hole 17, the rocker hole 17 penetrates the first cylindrical body 130 radially, and the lower end of the first cylindrical body 130 is provided with a first through hole 132, the first through hole 132 penetrates the first cylindrical body 130 radially. The first through hole 132 is used for inserting the first up-down sliding reset elastic strip 1001.
[0063] The rocker hole 17 of the first cylindrical body 130 is a horn hole, the inside is large and the outside is small, so that the rocker arm 18 of the first rocker sensor is inserted.
[0064] The specific structure of the second cylindrical handle 14 is:
[0065] The second cylindrical body 140 is provided with an annular groove 141 at the upper end and the lower end, the annular groove 141 at the upper end is provided with a rocker hole 17, the rocker hole 17 penetrates the second cylindrical body 140 radially, the annular groove 141 at the lower end is provided with a second through hole 142, the second through hole 142 penetrates the second cylindrical body 140 radially, and the second through hole 142 is used for inserting the second up-down sliding reset elastic strip 1003. The middle part of the second cylindrical body 140 is provided with a finger groove 143. The function of the finger groove is to facilitate the user to hold the second cylindrical body 140 to operate the second cylindrical handle 14.
[0066] The rocker hole 17 of the second cylindrical body 140 is a horn hole, the inside is large and the outside is small, so that the rocker arm 18 of the second rocker sensor is inserted.
[0067] In the embodiment, the first and second cylindrical handles 13 and 14 need corresponding reset mechanisms to reset to the initial position after the operation of the above eight actions, and the specific structure of the reset mechanisms is not limited as long as the reset action can be achieved. The first and second cylindrical handles 13 and 14 are respectively connected with a reset mechanism to reset to the initial position after the up and down sliding and the inward and outward rotation of the first and second cylindrical handles 13 and 14.
[0068] Since the first and second cylindrical handles 13 and 14 are provided with the rocker hole and the first and second through holes, in order to prevent dust from entering from these holes and affecting the operation of the first and second rocker sensors 15 and 16 and the reset mechanisms, dustproof design is needed for these places, specifically:
[0069] The upper end of the first cylindrical handle 13 extends into the shell 10 through the through hole, and the rocker hole 18 provided on the upper end of the first cylindrical handle 13 is protected by the shell 10, which can effectively prevent dust from entering the rocker hole 18 and affecting the sensitivity of the first rocker sensor.
[0070] A dust cover 1005 is provided on the connecting rod 12 between the first and second cylindrical handles 13 and 14, the upper end of the dust cover 1005 is buckled on the lower end of the first cylindrical body 13 to cover the first through hole 132, and the lower end of the dust cover 1005 is buckled on the upper end of the second cylindrical body 14 to cover the rocker hole 18 provided on the second cylindrical body 14. A dust cover 1005 is also provided on the connecting rod 12 below the second cylindrical handle 14, and the dust cover 1005 is buckled on the lower end of the second cylindrical body 14 to cover the second through hole 142. The dust cover protects the rocker hole, the first through hole and the second through hole of the second cylindrical body 14 from dust, prevents dust from entering the rocker hole of the second cylindrical body 14 and affecting the sensing sensitivity of the second rocker sensor, and prevents dust from entering the first and second through holes and affecting the reset of the first and second cylindrical handles.
[0071] The dust cover is made of silica gel or rubber material.
[0072] The controller in the embodiment is the controller of the existing handle, which is a prior art and will not be described here.
[0073] Embodiment 2
[0074] In the embodiment, the user only needs to apply a force to the handle or the weight to control the lifting action of the electric hoist. In order to achieve the suspension control of the easy-to-operate handle, the following structure is designed:
[0075] A weight sensor 1006 is connected to the connecting rod 12 in the housing 10, and is used to detect the weight of the hook-hung heavy object. The weight sensor 1006 is connected to the controller 11, and the controller 11 is connected to the operation panel 1007, which is provided with a zero-reset button.
[0076] The weight sensor 1006 sends the detected heavy object weight information to the controller 11, which sends the weight information to the operation panel 1007 after receiving the weight information. The operation panel 1007 visually displays the weight information, and an alarm is triggered when the weight information of the heavy object exceeds the defined weight. When suspension control is needed, the user operates the zero-reset button of the operation panel. The controller receives the zero-reset operation command and resets the weight information of the heavy object to 0, which is displayed on the operation panel. In combination with Embodiment 1, the user holds the second cylindrical handle, rotates the second cylindrical handle outward, and the second gyro sensor receives the signal of the outward rotation of the second cylindrical handle and sends it to the controller. The controller generates a control command after receiving the signal, and opens the suspension. At this time, the easy-to-operate handle is in a suspended state. The user applies a force to the heavy object, and the weight sensor 1006 detects the force and sends a weight data to the controller 11. The controller determines whether the weight data is positive or negative after receiving the weight data. If it is positive, a control command is sent to control the electric hoist to move downward. If it is negative, the electric hoist is controlled to move upward, realizing the suspension control of the electric hoist. The user only needs to apply a small force to the heavy object to realize the up-down action control of the electric hoist, which is simple and convenient to operate.
[0077] Embodiment 3
[0078] This embodiment needs to realize the follow-up control of the easy-to-operate handle. The user pulls the handle, and the cart and trolley move, so that the easy-to-operate handle does not tilt and is in a vertical state, achieving the purpose of follow-up.
[0079] In order to realize the follow-up function of the electric handle, the following technical scheme is adopted:
[0080] A gyroscope sensor 8 and a controller 11 are installed on the handle body 1. The controller here can be a separate controller, or can share a controller with Embodiments 1 and 2. The gyroscope sensor is used to detect the inclination of the handle body, generate an inclination signal according to the detected inclination, and send the inclination signal to the controller.
[0081] The controller includes a signal receiving module, a signal processing module, and an inclination correction module.
[0082] The signal receiving module is used to receive the inclination signal sent by the gyroscope sensor and send the inclination signal to the signal processing module.
[0083] The signal processing module is configured to process the received tilt signal, analyze the tilt direction and the tilt angle, and send the analyzed tilt direction and the tilt angle to the tilt correction module.
[0084] The tilt correction module generates a control command according to the received tilt direction and the tilt angle, controls the movement of the large carriage and the small carriage in the tilt direction until the tilt angle is the same as the tilt angle of the initial position of the gyroscope sensor.
[0085] The tilt angle of the initial position of the gyroscope sensor refers to the tilt angle of the gyroscope sensor when the handle body is perpendicular to the ground. At this time, the gyroscope sensor is also perpendicular to the ground, and the tilt angle is 90°.
[0086] The controller and the gyroscope sensor are installed in the shell, and the controller and the gyroscope sensor are connected in communication by wired or wireless mode.
[0087] As shown in Figure 11 The initial position of the easy-to-operate handle is perpendicular to the ground, and after the user pulls the easy-to-operate handle forward, the easy-to-operate handle will tilt forward. At this time, the easy-to-operate handle is no longer perpendicular to the ground, but tilts forward on the ground. In the figure, the easy-to-operate handle is in the initial position when it is perpendicular, and the easy-to-operate handle is in the state after being pulled forward after tilting. Since the gyroscope sensor 8 is installed in the easy-to-operate handle, the gyroscope sensor 8 will also tilt with the easy-to-operate handle at this time. Once the gyroscope sensor 8 tilts, a forward tilt signal will be generated and sent to the controller. After the controller receives the tilt signal, a control command is generated according to the tilt signal to control the forward movement of the large carriage until the easy-to-operate handle is no longer tilted, but perpendicular to the ground. At this time, the gyroscope sensor 8 cannot detect the tilt signal, and the controller no longer controls the forward movement of the large carriage.
[0088] As shown in Figure 12 The initial position of the easy-to-operate handle is perpendicular to the ground, and after the user pulls the easy-to-operate handle forward, the easy-to-operate handle will tilt forward. At this time, the easy-to-operate handle is no longer perpendicular to the ground, but tilts forward on the ground. In the figure, the easy-to-operate handle is in the initial position when it is perpendicular, and the easy-to-operate handle is in the state after being pulled forward after tilting. Since the gyroscope sensor 8 is installed in the easy-to-operate handle, the gyroscope sensor 8 will also tilt with the easy-to-operate handle at this time. Once the gyroscope sensor 8 tilts, a forward tilt signal will be generated and sent to the controller. After the controller receives the tilt signal, a control command is generated according to the tilt signal to control the forward movement of the large carriage until the easy-to-operate handle is no longer tilted, but perpendicular to the ground. At this time, the gyroscope sensor 8 cannot detect the tilt signal, and the controller no longer controls the forward movement of the large carriage.
[0089] AsFigure 13 As shown, the easy-to-operate handle is initially perpendicular to the ground. When the user pulls the handle to the right, it tilts to the right, no longer perpendicular to the ground but tilted to the right. The diagram shows the handle in its initial position when it is perpendicular, and the tilted position after being pulled to the right. Since a gyroscope sensor 8 is installed inside the handle, it will also tilt with the handle. Once the gyroscope sensor 8 tilts, it generates a tilt signal to the right and sends it to the controller. Upon receiving the tilt signal, the controller generates a control command to move the cart to the right until the handle is no longer tilted and is perpendicular to the ground. At this point, the gyroscope sensor 8 can no longer detect the tilt signal, and the controller stops controlling the cart's rightward movement.
[0090] like Figure 14 As shown, the easy-to-operate handle is initially perpendicular to the ground. When the user pulls the handle to the left, it tilts to the left, no longer perpendicular to the ground but tilted to the left. The diagram shows the handle in its initial position when it is perpendicular, and the tilted position after being pulled to the left. Since a gyroscope sensor 8 is installed inside the handle, it will also tilt with the handle. Once the gyroscope sensor 8 tilts, it generates a tilt signal to the left and sends it to the controller. Upon receiving the tilt signal, the controller generates a control command to move the cart to the left until the handle is no longer tilted and is perpendicular to the ground. At this point, the gyroscope sensor 8 can no longer detect the tilt signal, and the controller stops controlling the cart to move to the left.
[0091] Of course, users may also pull the electric hoist handle in two directions at the same time, such as the front right, front left, rear right, and rear left. In this case, simply follow the above steps to control the corresponding trolley and carriage to move in the corresponding direction until the gyroscope sensor 8 can no longer detect the tilt signal. At this time, the handle body is perpendicular to the ground.
[0092] The above solution enables the easy-to-operate handle to move in the corresponding direction when tilted, so that the easy-to-operate handle moves in the direction the user pulls.
[0093] The gyroscope sensor 8 can be equipped with a three-dimensional tilt-compensated electronic geological compass module. The specific model is Maike Sensing HCM360B.
[0094] In order to avoid the handle follow-up caused by the user operation, the embodiment is installed on the bottom of the shell laser protection sensor, the laser protection sensor detects the user's hand on the first cylindrical handle and the second cylindrical handle, and then sends the follow-up command to the controller, and the controller receives the follow-up command and the tilt signal to control the movement of the cart and the trolley.
[0095] Finally, it should be noted that: the above embodiments are only used to illustrate the technical solutions of the present application, but not to limit them; although the present application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that: it can still modify the technical solutions recorded in the foregoing embodiments, or make equivalent replacement for part or all of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the scope of the technical solutions of the embodiments of the present application, and they should be covered in the scope of the claims and the specification of the present application.
Claims
1. An easy-to-operate handle, comprising a housing, a controller disposed within the housing, and a connecting rod vertically fixed within the housing, wherein through holes are provided at both the upper and lower ends of the housing, and both ends of the connecting rod extend out of the housing through the through holes, characterized in that: The first cylindrical handle and the second cylindrical handle are sleeved on the connecting rod, the first cylindrical handle is located above the second cylindrical handle, the connecting rod is provided with a first up-down reset elastic strip and a first rotation reset elastic strip, the first up-down reset elastic strip penetrates through the connecting rod, the two ends of the first up-down reset elastic strip extending out of the connecting rod are inserted into the first cylindrical handle, the first rotation reset elastic strip penetrates through the connecting rod, the two ends of the first rotation reset elastic strip extending out of the connecting rod are inserted into the first cylindrical handle; the connecting rod is provided with a second up-down reset elastic strip and a second rotation reset elastic strip, the second up-down reset elastic strip penetrates through the connecting rod, the two ends of the second up-down reset elastic strip extending out of the connecting rod are inserted into the second cylindrical handle, the second rotation reset elastic strip penetrates through the connecting rod, the two ends of the second rotation reset elastic strip extending out of the connecting rod are inserted into the second cylindrical handle, the connecting rod is further provided with a first rocker sensor and a second rocker sensor, the first cylindrical handle and the second cylindrical handle are provided with rocker holes, the rocker of the first rocker sensor is inserted into the rocker hole of the first cylindrical handle, the rocker of the second rocker sensor is inserted into the rocker hole of the second cylindrical handle, the first rocker sensor sends the detected motion signal of the first cylindrical handle to the controller after detecting the motion signal of the first cylindrical handle, the second rocker sensor sends the detected motion signal of the second cylindrical handle to the controller after detecting the motion signal of the second cylindrical handle, the controller generates a control command according to the received motion signal, and sends the control command through wired or wireless mode, and controls the corresponding execution mechanism to execute the corresponding control command.
2. A handle according to claim 1, wherein: The first cylindrical handle comprises a first cylindrical body, the first cylindrical body is provided with a roller, the roller is fixed on the first cylindrical body, the upper end of the first cylindrical body is provided with a rocker hole, the rocker hole penetrates the first cylindrical body in the radial direction, and the lower end of the first cylindrical body is provided with a first through hole, the first through hole penetrates the first cylindrical body in the radial direction, and the first up-down reset elastic strip is inserted into the first through hole.
3. A handle according to claim 2, wherein: The second cylindrical handle comprises a second cylindrical body, the upper end and the lower end of the second cylindrical body are provided with annular grooves, the rocker hole is arranged in the annular groove at the upper end and penetrates the second cylindrical body in the radial direction, the second through hole is arranged in the annular groove at the lower end and penetrates the second cylindrical body in the radial direction, the second up-down reset elastic strip is inserted into the second through hole, and the middle part of the second cylindrical body is provided with a finger groove.
4. A handle according to claim 3, wherein: The upper end of the first cylindrical handle extends into the shell through the through hole, the connecting rod between the first cylindrical handle and the second cylindrical handle is provided with a dust cover, the upper end of the dust cover is buckled on the lower end of the first cylindrical body to cover the first through hole, the lower end of the dust cover is buckled on the upper end of the second cylindrical body to cover the rocker hole on the second cylindrical body, and the connecting rod below the second cylindrical handle is also provided with a dust cover, the dust cover is buckled on the lower end of the second cylindrical body to cover the second through hole.
5. A handle according to claim 1, wherein: The first rocker sensor and the second rocker sensor are both rocker potentiometers.
Citation Information
Patent Citations
Intelligent electric hoist with suspension control structure
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An electric hoist control handle
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