Input device for international freight agency information management

Abstract

The invention discloses an international freight agency information management input device which structurally comprises a supporting bottom plate, a clamping mechanism, a transfer mechanism and a scanning mechanism, the clamping mechanism is installed at the upper end of the supporting bottom plate, a micro negative pressure pump is started to work, a suction cup generates negative pressure suction force to suck paper information stacked on the uppermost layer, and the paper information is transferred to the transfer mechanism through the scanning mechanism. A worm is driven by a micro servo motor to drive a sliding block to slide, information of a piece of paper stacked on the uppermost layer after shooting, scanning and inputting is adsorbed and moved out through two adsorption mechanisms, then information of the next piece of paper is shot, scanned and input, and the continuous inputting effect of the paper information is improved; the sliding supporting rods on the two sliding sides are guided by the guide sliding grooves, so that the wiping strip can stably move on the bottom face of the machine shell, the mirror face of the camera is movably wiped, and the accuracy of the camera for converting international freight agency paper information shooting and scanning into electronic text information is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of information management and input, and more specifically, to an input device for international freight forwarding information management. Background Art

[0002] International freight forwarding, also known as "international freight forwarding", refers to an industry in which international freight forwarding organizations accept the entrustment of consignees and consignors of imported and exported goods, handle international freight transportation and related businesses for the entrustors in the name of the entrustors or themselves, and collect labor remuneration. International freight forwarding requires the use of an input device to photograph and scan the freight forwarding information, convert the paper information into electronic text information, and enter the electronic text information into a computer system for storage; However, the existing input device has the following deficiencies when photographing, scanning and inputting international freight forwarding information: there is a lot of paper international freight forwarding information, which is neatly stacked and placed under the camera of the input device. When photographing and scanning is performed by the camera of the input device, it is necessary to manually remove the paper information stacked on the top layer after the photographing, scanning and input are completed before the next paper information can be photographed, scanned and input. The manual removal speed is slow, which reduces the effect of continuous input of the international freight forwarding information. At the same time, the camera of the input device is exposed to the air for a long time to work, so that dust in the air is easily adsorbed on the mirror surface of the camera, which reduces the accuracy of the camera photographing and scanning the paper international freight forwarding information and converting it into electronic text information. Summary of the invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: an input device for international freight forwarding information management, whose structure includes a supporting base plate, a clamping mechanism, a transfer mechanism, and a scanning mechanism. The upper end of the supporting base plate is equipped with a clamping mechanism, and the transfer mechanism is installed at the front end of the supporting base plate. The lower end of the scanning mechanism is installed on the rear side of the upper end surface of the supporting base plate. The clamping mechanism includes a connecting shaft, a rotating plate, a telescopic hose, and a contact ball. One end of the rotating plate is installed on the upper end surface of the supporting base plate through a connecting shaft, and the bottom of the other end of the rotating plate is fixed to the upper end of the telescopic hose. The lower end of the telescopic hose is equipped with a contact ball by clearance fit. The contact ball is located on the upper end surface of the supporting base plate. The connecting shaft, rotating plate, telescopic hose and contact ball are each provided with two, and are symmetrically installed on the rear side of the upper end surface of the supporting base plate, located behind the placement groove set on the upper end surface of the supporting base plate. The telescopic hose has a pleated structure and is made of rubber material with good resilience. At the same time, the contact ball is installed at the bottom of the telescopic hose by clearance fit, and is axially connected by a transverse shaft rod, so that the contact ball can rotate at the bottom of the telescopic hose.

[0004] As a further improvement of the present invention, the transfer mechanism includes a support frame, a micro servo motor, a worm, a sliding block, a guide column, an adsorption mechanism, and a stacking mechanism. The support frame is fixedly installed on the outside of the stacking mechanism, and the support frame and the stacking mechanism are both installed on the front end of the support base plate. The micro servo motor is installed on the front end of the support frame, and the output end of the micro servo motor is welded to the front end of the worm and rotates synchronously. The worm is installed inside the support frame, and the worm is passed through the middle end of the sliding block with a clearance fit and is threadedly connected. The sliding block is slidably installed inside the support frame, and the upper end face of the sliding block is fixed to the bottom of one end of the adsorption mechanism, and the other end of the stacking mechanism is located above the support base plate and the stacking mechanism. The guide column is passed through the lower end of the sliding block with a clearance fit. The support frame, micro servo motor, worm, sliding block, guide column and adsorption mechanism are each provided with two, and are symmetrically installed on both sides of the stacking mechanism.

[0005] As a further improvement of the present invention, the adsorption mechanism includes a support block, an adjustment mechanism, a micro negative pressure pump, an exhaust pipe, and a suction cup. The support block is fixedly installed on the upper end of the sliding block, the side surface of the support block is fixed to one end of the adjustment mechanism, and the other end of the adjustment mechanism is provided with a micro negative pressure pump. The lower end of the micro negative pressure pump is through-connected with the suction cup through the exhaust pipe, and the suction cup is installed on the bottom surface of the other end of the adjustment mechanism. The suction cup is located above the supporting bottom plate and the stacking mechanism. The micro negative pressure pump is a micro air pump that can generate negative pressure, and the suction cup generates negative pressure suction through the through connection of the exhaust pipe.

[0006] As a further improvement of the present invention, the adjustment mechanism includes a first hinge block, a first connecting plate, a telescopic plate, a second connecting plate, and a second hinge block. The first hinge block is fixedly mounted on the side of the support block, and the first hinge block is hinged to the left end of the first connecting plate. The head and tail ends of the telescopic plate are respectively installed between the first connecting plate and the second connecting plate with a clearance fit. The right end of the second connecting plate is provided with a second hinge block. The exhaust pipe is installed inside the second hinge block, and the exhaust pipe is passed through the right end of the second connecting plate with a clearance fit. Cavities are provided inside the first connecting plate and the second connecting plate, and the size of the cavity matches the size of the telescopic plate, so that the telescopic plate can be telescopically adjusted inside the first connecting plate and the second connecting plate, thereby extending or shortening the length between the first connecting plate and the second connecting plate.

[0007] As a further improvement of the present invention, the stacking mechanism includes a stacking frame, a support plate, an adjusting block, a sleeve, and a pressure roller. Support frames are installed on both sides of the stacking frame, and the front end of the stacking frame is fixed to the lower end of the support plate. An adjusting block is slidably installed inside the support plate, and the adjusting block is fixedly installed in the middle of the outer end of the sleeve. The end of the pressure roller is installed inside the sleeve with a clearance fit. A rectangular groove structure is provided at the upper end of the stacking frame, and a support plate is provided on both sides of the front end of the stacking frame. At the same time, an adjusting block is slidably installed inside the support plates on both sides, so that the sleeves on both sides are sleeved and connected to the two ends of the pressure roller, thereby installing the pressure roller horizontally at the front end of the stacking frame.

[0008] As a further improvement of the present invention, the scanning mechanism includes a supporting upright plate, an adjusting upright plate, an elastic locking rod, a bracket, and a camera mechanism. The lower end of the supporting upright plate is fixedly mounted behind the upper end surface of the supporting base plate, and the lower end of the adjusting upright plate is mounted inside the upper end of the supporting upright plate by a clearance fit. The elastic locking rod is mounted on the rear end surface of the supporting upright plate, and the front end of the elastic locking rod is engaged with the rear end of the adjusting upright plate. The upper end of the adjusting upright plate is welded to the rear bottom surface of the bracket. A camera mechanism is provided on the front bottom surface of the bracket. The camera mechanism is located directly above the supporting base plate. The elastic locking rod consists of a spring and a rod body. The elastic force is applied by the spring, so that the elastic locking rod can be elastically pulled at the rear end of the supporting upright plate, thereby elastically engaging with the inside of the card slot at the rear end of the adjusting upright plate.

[0009] As a further improvement of the present invention, the camera mechanism includes a casing, a camera, a guide slide, a sliding support rod, and a wiping strip. The casing is fixedly mounted on the bottom surface of the front end of the bracket, and the camera is mounted on the lower end inside the casing, the guide slide is embedded in the side end of the casing, the upper end of the sliding support rod is slidably mounted inside the guide slide, the lower end of the sliding support rod is connected with a wiping strip, the upper end surface of the wiping strip is in conflict with the bottom of the casing, the camera is mounted on the lower end inside the casing, and the mirror surface of the camera and the bottom surface of the casing are on the same plane, so that the mirror surface of the camera and the casing are connected to form a flat bottom surface, and eight fill lights are arranged around the outer circle of the camera, two of the guide slide and two of the sliding support rods are each provided, and are symmetrically mounted at both ends of the casing, and two sliding support rods are connected to the two ends of the wiping strip to support the wiping strip flatly on the bottom surface of the casing.

[0010] The beneficial effects of the present invention are: 1. Stack neatly stacked international freight forwarding paper information inside the placement groove of the supporting bottom plate, and then, under the connection of the connecting shaft, rotate the rotating plate to drive the telescopic hose and the contact ball to move to the upper end of the paper information, and elastically extend and retract the telescopic hose, so that the contact ball at the bottom of the telescopic hose can contact and fix the stacked paper international freight forwarding information of different thicknesses, thereby improving the stability of shooting, scanning and entering the paper international freight forwarding information; 2. After the scanning mechanism performs photographing, scanning and converting into electronic text information for input, the micro-negative pressure pump is started, and the suction cup generates negative pressure suction to absorb a piece of paper information stacked on the top layer, and then the micro-servo motor is started to drive the worm to rotate, and the worm drives the sliding block to slide, and the support block moves forward on the upper end surface of the support frame. The photographing, scanning and inputting of the paper information stacked on the top layer is absorbed and removed through two adsorption mechanisms, and the scanning mechanism can then photograph, scan and input the next piece of paper information, thereby improving the effect of continuous input of paper information; 3. The front end of the paper information is inserted from the gap between the bottom of the pressing roller and the upper end surface of the stacking frame, so that the pressing roller can resist and press the paper information. The support plate and the adjustment block are combined for vertical adjustment, so that the height of the pressing roller can be automatically adjusted during the resistance and pressing process, so as to resist the paper information that is constantly moved to the stacking frame and stacked, and improve the effect of neatly stacking the paper information after entering the international freight forwarding; 4. When the camera is shooting and scanning for a long time, the dust in the air is easily adsorbed and covered on the mirror surface of the camera. At this time, it is necessary to slide the sliding rods on both sides under the guidance of the guide groove so that the wiping strip can move smoothly on the bottom surface of the casing, thereby moving and wiping the mirror surface of the camera to keep the camera mirror clean and improve the accuracy of the camera in converting the international freight forwarding paper information into electronic text information. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 The present invention is a schematic diagram of the structure of an input device for international freight forwarding information management.

[0012] Figure 2 It is a schematic diagram of the three-dimensional structure of the clamping mechanism of the present invention.

[0013] Figure 3 It is a three-dimensional and partially disassembled structural schematic diagram of the transfer mechanism of the present invention.

[0014] Figure 4 It is a three-dimensional and partially disassembled structural schematic diagram of the adsorption mechanism of the present invention.

[0015] Figure 5 It is a schematic diagram of the structure of the adjusting mechanism of the present invention in the top view of the adjusting state.

[0016] Figure 6 It is a three-dimensional and partially disassembled structural schematic diagram of the stacking mechanism of the present invention.

[0017] Figure 7 It is a schematic diagram of the three-dimensional adjustment state structure of the scanning mechanism of the present invention.

[0018] Figure 8 It is a schematic diagram of the three-dimensional working state structure of the camera mechanism of the present invention.

[0019] In the figure: supporting base plate-Z, clamping mechanism-J, transfer mechanism-Y, scanning mechanism-V, connecting shaft-j3, rotating plate-j5, telescopic hose-j9, contact ball-j1, supporting frame-y5, micro servo motor-y6, worm-y2, sliding block-y4, guide column-y9, adsorption mechanism-y1, stacking mechanism-y8, supporting block-y14, adjusting mechanism-y11, micro negative pressure pump-y18, suction pipe-y16, suction cup-y13, the first A hinge block-1z, a first connecting plate-1g, a telescopic plate-1u, a second connecting plate-1n, a second hinge block-1m, a stacking frame-y83, a support plate-y86, an adjustment block-y89, a sleeve-y84, a pressure roller-y81, a supporting vertical plate-v7, an adjustment vertical plate-v4, an elastic locking rod-v1, a bracket-v9, a camera mechanism-v6, a housing-v64, a camera-v61, a guide slide groove-v66, a sliding support rod-v63, and a wiping strip-v68. DETAILED DESCRIPTION

[0020] The present invention is further described below in conjunction with the accompanying drawings: Example

[0021] As attached Figure 1 To Attachment Figure 6 As shown: The present invention discloses an input device for international freight forwarding information management, which structure includes a supporting base plate Z, a clamping mechanism J, a transfer mechanism Y, and a scanning mechanism V. The upper end of the supporting base plate Z is installed with the clamping mechanism J, and the transfer mechanism Y is installed at the front end of the supporting base plate Z. The lower end of the scanning mechanism V is installed at the rear side of the upper end surface of the supporting base plate Z. The clamping mechanism J includes a connecting shaft j3, a rotating plate j5, a telescopic hose j9, and a contact ball j1. One end of the rotating plate j5 is installed on the upper end surface of the supporting base plate Z through the connecting shaft j3, and the bottom of the other end of the rotating plate j5 is fixed to the upper end of the telescopic hose j9. The lower end of the telescopic hose j9 is installed with a contact ball j1 by using a clearance fit. The contact ball j1 is located on the upper end surface of the support base plate Z. The connecting shaft j3, the rotating plate j5, the telescopic hose j9 and the contact ball j1 are each provided with two, and are symmetrically installed on the rear side of the upper end surface of the support base plate Z, and are located behind the placement groove set on the upper end surface of the support base plate Z. The rotating plate j5 can be used to rotate and adjust the positions of the telescopic hose j9 and the contact ball j1 on the placement groove on the upper end surface of the support base plate Z, so that the telescopic hose j9 and the contact ball j1 can be fixed on the upper end surface of the paper international freight forwarding information placed in the placement groove of the support base plate Z, thereby improving the shooting of the paper international freight forwarding information. In order to improve the stability of scanning and recording, the telescopic hose j9 is of a pleated structure and is made of rubber material with good resilience. At the same time, the resistance ball j1 is installed at the bottom of the telescopic hose j9 in a clearance fit manner and is axially connected through a transverse shaft rod, so that the resistance ball j1 can rotate at the bottom of the telescopic hose j9. The telescopic hose j9 is elastically extended and retracted, so that the resistance ball j1 at the bottom of the telescopic hose j9 can resist and fix the stacked paper international freight forwarding information of different thicknesses. At the same time, the auxiliary sliding of the resistance ball j1 can improve the smoothness of the removal of the top layer of international freight forwarding paper information.

[0022] Wherein, the transfer mechanism Y includes a support frame y5, a micro servo motor y6, a worm y2, a sliding block y4, a guide column y9, an adsorption mechanism y1, and a stacking mechanism y8. The support frame y5 is fixedly installed on the outside of the stacking mechanism y8, and the support frame y5 and the stacking mechanism y8 are both installed on the front end of the support base plate Z. The micro servo motor y6 is installed on the front end of the support frame y5. The output end of the micro servo motor y6 is welded to the front end of the worm y2 and rotates synchronously. The worm y2 is installed inside the support frame y5. The worm y2 is passed through the middle end of the sliding block y4 with a clearance fit and is threadedly connected. The sliding block y4 is slidably installed inside the support frame y5. The upper end surface of the sliding block y4 is fixed to the bottom of one end of the adsorption mechanism y1, and the other end of the stacking mechanism y8 is located above the support base plate Z and the stacking mechanism y8. The guide column y9 is passed through the lower end of the sliding block y4 with a clearance fit. The support frame y5, micro servo motor y6, worm y2, sliding block y4, guide column y9 and adsorption mechanism y1 are each provided with two, and are symmetrically installed on both sides of the stacking mechanism y8. The micro servo motors y6 on both sides operate synchronously, driving the two worm y2 to rotate synchronously, and under the sliding guidance of the sliding block y4 and the guide column y9, the two adsorption mechanisms y1 can move back and forth on the two support frames y5. Through the two adsorption mechanisms y1, a piece of paper information stacked on the top layer that has been photographed, scanned and recorded can be adsorbed and removed, thereby improving the effect of continuous recording of paper information.

[0023] Wherein, the adsorption mechanism y1 includes a support block y14, an adjustment mechanism y11, a micro negative pressure pump y18, an air suction pipe y16, and a suction cup y13. The support block y14 is fixedly installed on the upper end of the sliding block y4. The side of the support block y14 is fixed to one end of the adjustment mechanism y11, and the other end of the adjustment mechanism y11 is provided with a micro negative pressure pump y18. The lower end of the micro negative pressure pump y18 is connected to the suction cup y13 through the air suction pipe y16, and the suction cup y13 is installed on the bottom surface of the other end of the adjustment mechanism y11. The suction cup y13 is located above the support bottom plate Z and the stacking mechanism y8. The micro negative pressure pump y18 is a micro air pump that can generate negative pressure. Through the through connection of the exhaust pipe y16, the suction cup y13 generates negative pressure suction, so that a piece of paper information stacked on the top layer can be adsorbed, thereby improving the stability of removing the piece of paper information stacked on the top layer and preventing the paper information from falling during the removal process.

[0024] The adjusting mechanism y11 includes a first hinge block 1z, a first connecting plate 1g, a telescopic plate 1u, a second connecting plate 1n, and a second hinge block 1m. The first hinge block 1z is fixedly mounted on the side of the supporting block y14, and the first hinge block 1z is hinged to the left end of the first connecting plate 1g. The head and tail ends of the telescopic plate 1u are respectively mounted between the first connecting plate 1g and the second connecting plate 1n by using clearance fit. The right end of the second connecting plate 1n is mounted with a second hinge block 1m. The exhaust pipe y16 is mounted inside the second hinge block 1m, and the exhaust pipe y16 runs through the right end of the second connecting plate 1n by using clearance fit. The first connecting plate 1g and the second connecting plate 1n are both provided with cavities inside, and the size of the cavity matches the size of the telescopic plate 1u, so that the telescopic plate 1u can be telescopically adjusted inside the first connecting plate 1g and the second connecting plate 1n, thereby extending or shortening the length between the first connecting plate 1g and the second connecting plate 1n, thereby adjusting the position of the micro negative pressure pump y18, the exhaust pipe y16 and the suction cup y13 connected to the second hinge block 1m, ensuring that the suction cup y13 can contact and adsorb international freight forwarding paper information of different sizes.

[0025] The stacking mechanism y8 comprises a stacking frame y83, a support plate y86, an adjustment block y89, a sleeve y84, and a pressure roller y81. Support frames y5 are installed on both sides of the stacking frame y83, and the front end of the stacking frame y83 is fixed to the lower end of the support plate y86. An adjustment block y89 is slidably installed inside the support plate y86. The adjustment block y89 is fixedly installed in the middle of the outer end of the sleeve y84. The end of the pressure roller y81 is installed inside the sleeve y84 with a clearance fit. The stacking frame y83 has a rectangular groove structure at the upper end, and a support plate y86 is provided on both sides of the front end of the stacking frame y83, and an adjusting block y89 is slidably installed inside the support plates y86 on both sides, so that the sleeves y84 on both sides are sleeved and connected to the two ends of the pressure roller y81, so that the pressure roller y81 is horizontally installed at the front end of the stacking frame y83, and when the international freight forwarding paper information is moved to the stacking frame y83 by the suction cup y13, the front end of the paper information is inserted from the gap between the bottom of the pressure roller y81 and the upper end surface of the stacking frame y83, so that the pressure roller y81 can resist and press the paper information, and the support plate y86 and the adjusting block y89 are combined for vertical adjustment, so that the height of the pressure roller y81 can be automatically adjusted during the resistance and pressing process, so as to resist the paper information that is continuously moved to the stacking frame y83 for stacking, and improve the effect of neatly stacking the international freight forwarding paper information after entry. The specific usage and function of this embodiment are as follows: In the present invention, neatly stacked international freight forwarding paper information is placed inside the placement groove of the supporting bottom plate Z, and then, under the connection of the connecting shaft j3, the rotating plate j5 is rotated to drive the telescopic hose j9 and the contact ball j1 to move to the upper end of the paper information, and the telescopic hose j9 is elastically extended and retracted, so that the contact ball j1 at the bottom of the telescopic hose j9 can contact and fix the stacked paper international freight forwarding information of different thicknesses, thereby improving the stability of photographing, scanning and entering the paper international freight forwarding information. At the same time, the contact ball j1 is installed at the bottom of the telescopic hose j9 in a clearance fit manner, and is axially connected through a transverse shaft rod. The contact ball j1 is connected so that it can rotate at the bottom of the telescopic hose j9. The auxiliary sliding of the contact ball j1 can improve the smoothness of the removal of the top international freight forwarding paper information. After the international freight forwarding paper information is placed on the supporting bottom plate Z, the first connecting plate 1g, the telescopic plate 1u and the second connecting plate 1n are telescopically adjusted so that the suction cup y13 is located at the corner end of the paper information. When the scanning mechanism V performs the shooting and scanning and converts it into electronic text information input, the micro negative pressure pump y18 is started to work, and the suction cup y13 generates negative pressure suction through the through connection of the exhaust pipe y16, so that the stacked A piece of paper information on the top layer is adsorbed to improve the stability of removing the piece of paper information stacked on the top layer and prevent the paper information from falling during the removal process. Then, the micro servo motor y6 is started to drive the worm y2 to rotate, and the worm y2 drives the sliding block y4 to slide. Under the sliding guidance of the guide column y9, the support block y14 moves forward on the upper end surface of the support frame y5. With the support of the adjustment mechanism y11, the two adsorption mechanisms y1 can adsorb and remove the piece of paper information stacked on the top layer after shooting, scanning and recording. The scanning mechanism V can then The next piece of paper information is photographed, scanned and entered, which improves the effect of continuous entry of paper information. When the paper information is moved out, the front end of the paper information is inserted into the gap between the bottom of the pressure roller y81 and the upper end surface of the stacking frame y83, so that the paper information can be pressed by the pressure roller y81. Combined with the support plate y86 and the adjustment block y89, vertical adjustment is performed so that the height of the pressure roller y81 can be automatically adjusted during the process of contact and pressing, thereby resisting the paper information that is continuously moved into the stacking frame y83 for stacking, thereby improving the effect of neatly stacking the paper information after entry of the international freight forwarding. Example

[0026] As attached Figure 7 To Attachment Figure 8 As shown: Wherein, the scanning mechanism V comprises a supporting upright plate v7, an adjusting upright plate v4, an elastic locking rod v1, a bracket v9, and a camera mechanism v6. The lower end of the supporting upright plate v7 is fixedly mounted behind the upper end surface of the supporting bottom plate Z, and the lower end of the adjusting upright plate v4 is mounted inside the upper end of the supporting upright plate v7 by a clearance fit. The elastic locking rod v1 is mounted on the rear side end surface of the supporting upright plate v7, and the front end of the elastic locking rod v1 is engaged and connected with the rear end of the adjusting upright plate v4. The upper end of the adjusting upright plate v4 is welded to the rear bottom surface of the bracket v9. The front bottom surface of the bracket v9 is provided with a camera mechanism v6, and the camera mechanism v6 is located directly above the supporting bottom plate Z. The elastic locking rod v1 consists of a spring and a rod body. The elastic force applied by the spring allows the elastic locking rod v1 to be elastically pulled at the rear end of the supporting vertical plate v7, thereby elastically engaging in the slot at the rear end of the adjusting vertical plate v4. Through the multiple engaging holes provided at the rear end of the adjusting vertical plate v4, the adjusting vertical plate v4 can be height-adjusted inside the upper end of the supporting vertical plate v7 and elastically engaged and fixed by the elastic locking rod v1, thereby adjusting the height of the camera mechanism v6 on the bracket v9, ensuring that the camera mechanism v6 can comprehensively shoot, scan and enter the international freight forwarding paper information placed on the supporting base plate Z.

[0027] The camera mechanism v6 comprises a housing v64, a camera v61, a guide slot v66, a sliding support rod v63, and a wiping strip v68. The housing v64 is fixedly mounted on the bottom surface of the front end of the bracket v9, and the camera v61 is mounted on the lower end of the housing v64. The guide slot v66 is embedded in the side end of the housing v64. The upper end of the sliding support rod v63 is slidably mounted in the guide slot v66. The lower end of the sliding support rod v63 is connected to a wiping strip v68, and the upper end surface of the wiping strip v68 is in conflict with the bottom of the housing v64. The camera v61 is installed at the lower end of the housing v64, and the mirror surface of the camera v61 is on the same plane as the bottom surface of the housing v64, so that the mirror surface of the camera v61 and the housing v64 are connected to form a flat bottom surface. At the same time, eight fill-in lights are arranged around the outer ring of the camera v61 to prevent the camera v61 from protruding from the bottom of the housing v64, which can protect the camera v61. At the same time, the fill-in lights can be used to fill in the light when the camera v61 is shooting and scanning, thereby improving the camera v61 to clearly shoot and scan the international freight forwarding paper information below. The guide slide slot v66 and the slide There are two support rods v63, which are symmetrically installed at both ends of the casing v64. At the same time, two sliding support rods v63 are connected to the two ends of the wiping strip v68, and the wiping strip v68 is supported flatly on the bottom surface of the casing v64. The sliding support rods v63 on both sides are guided and slid inside the guide groove v66, so that the wiping strip v68 can move smoothly on the bottom surface of the casing v64, thereby moving and wiping the mirror surface of the camera v61, so that the mirror surface of the camera v61 remains clean, thereby improving the accuracy of the camera v61 in converting the international freight forwarding paper information into electronic text information. The specific usage and function of this embodiment are as follows: In the present invention, when the scanning mechanism V is photographing and scanning the international freight forwarding paper information below, the elastic locking rod v1 spring applies elastic force, so that the elastic locking rod v1 can be elastically pulled at the rear end of the supporting plate v7, so as to be elastically engaged in the card slot at the rear end of the adjusting plate v4, and the plurality of engaging holes provided at the rear end of the adjusting plate v4 are used to adjust the height of the adjusting plate v4 inside the upper end of the supporting plate v7 and to be elastically engaged and fixed by the elastic locking rod v1, so as to adjust the height of the camera mechanism v6 on the bracket v9, so as to ensure that the camera mechanism v6 can comprehensively photograph, scan and input the international freight forwarding paper information placed on the supporting bottom plate Z, and the international freight forwarding paper information can be photographed, scanned and input by the camera v61. The paper information of the agent is photographed and scanned and converted into electronic text information. At the same time, the fill light can be used to fill in the light when the camera v61 is photographed and scanned, so that the camera v61 can clearly photograph and scan the international freight forwarding paper information below. At the same time, when the camera v61 is photographing and scanning for a long time, the dust in the air is easily adsorbed and covered on the mirror surface of the camera v61. At this time, it is necessary to slide the sliding support rods v63 on both sides under the guidance of the guide groove v66, so that the wiping strip v68 can move smoothly on the bottom surface of the casing v64, thereby moving and wiping the mirror surface of the camera v61, so that the mirror surface of the camera v61 remains clean, and the accuracy of the camera v61 in converting the paper information of the international freight forwarding into electronic text information is improved. Utilizing the technical solution of the present invention, or those skilled in the art designing similar technical solutions inspired by the technical solution of the present invention to achieve the above-mentioned technical effects, all fall within the protection scope of the present invention.

Claims

1. An input device for international freight forwarding information management, comprising a supporting base plate (Z), a clamping mechanism (J), a transfer mechanism (Y), and a scanning mechanism (V), wherein the upper end of the supporting base plate (Z) is provided with the clamping mechanism (J), the transfer mechanism (Y) is provided at the front end of the supporting base plate (Z), and the lower end of the scanning mechanism (V) is provided at the rear side of the upper end surface of the supporting base plate (Z), characterized in that: The clamping mechanism (J) comprises a connecting shaft (j3), a rotating plate (j5), a telescopic hose (j9), and a contact ball (j1); one end of the rotating plate (j5) is mounted on the upper end surface of the supporting base plate (Z) via the connecting shaft (j3); the bottom of the other end of the rotating plate (j5) is fixed to the upper end of the telescopic hose (j9); the lower end of the telescopic hose (j9) is mounted with a contact ball (j1) by means of a clearance fit; the contact ball (j1) is located on the upper end surface of the supporting base plate (Z).

2. The device for inputting information for international freight forwarding management according to claim 1, characterized in that: The transfer mechanism (Y) comprises a support frame (y5), a micro servo motor (y6), a worm (y2), a sliding block (y4), a guide column (y9), an adsorption mechanism (y1), and a stacking mechanism (y8); the support frame (y5) is fixedly mounted on the outside of the stacking mechanism (y8), and the support frame (y5) and the stacking mechanism (y8) are both mounted on the front end of a support base plate (Z); the micro servo motor (y6) is mounted on the front end of the support frame (y5); and the output end of the micro servo motor (y6) is welded to the front end of the worm (y2). The worm (y2) is installed inside the support frame (y5), the worm (y2) is inserted into the middle end of the sliding block (y4) by means of clearance fit and is threadedly connected, the sliding block (y4) is slidably installed inside the support frame (y5), the upper end surface of the sliding block (y4) is fixed to the bottom of one end of the adsorption mechanism (y1), and the other end of the stacking mechanism (y8) is located above the support bottom plate (Z) and the stacking mechanism (y8), and the guide column (y9) is inserted into the lower end of the sliding block (y4) by means of clearance fit.

3. The device for inputting information for international freight forwarding management according to claim 2, characterized in that: The adsorption mechanism (y1) comprises a support block (y14), an adjustment mechanism (y11), a micro negative pressure pump (y18), an air suction pipe (y16), and a suction cup (y13); the support block (y14) is fixedly mounted on the upper end of the sliding block (y4); the side surface of the support block (y14) is fixed to one end of the adjustment mechanism (y11); the other end of the adjustment mechanism (y11) is provided with a micro negative pressure pump (y18); the lower end of the micro negative pressure pump (y18) is connected to the suction cup (y13) via the air suction pipe (y16); the suction cup (y13) is mounted on the bottom surface of the other end of the adjustment mechanism (y11); and the suction cup (y13) is located above the support bottom plate (Z) and the stacking mechanism (y8).

4. The device for inputting information for international freight forwarding management according to claim 3, characterized in that: The adjustment mechanism (y11) comprises a first hinge block (1z), a first connecting plate (1g), a telescopic plate (1u), a second connecting plate (1n), and a second hinge block (1m); the first hinge block (1z) is fixedly mounted on the side of the support block (y14), and the first hinge block (1z) is hinged to the left end of the first connecting plate (1g); the head and tail ends of the telescopic plate (1u) are respectively mounted between the first connecting plate (1g) and the second connecting plate (1n) by means of a clearance fit; the right end of the second connecting plate (1n) is mounted with a second hinge block (1m); the exhaust pipe (y16) is mounted inside the second hinge block (1m), and the exhaust pipe (y16) is passed through the right end of the second connecting plate (1n) by means of a clearance fit.

5. The device for inputting information for international freight forwarding management according to claim 3, characterized in that: The stacking mechanism (y8) comprises a stacking frame (y83), a support plate (y86), an adjustment block (y89), a sleeve (y84), and a pressure roller (y81); support frames (y5) are installed on both sides of the stacking frame (y83); the front end of the stacking frame (y83) is fixed to the lower end of the support plate (y86); an adjustment block (y89) is slidably installed inside the support plate (y86); the adjustment block (y89) is fixedly installed at the middle part of the outer end of the sleeve (y84); and the end of the pressure roller (y81) is installed inside the sleeve (y84) by using a clearance fit.

6. The device for inputting information for international freight forwarding management according to claim 1, characterized in that: The scanning mechanism (V) comprises a supporting upright plate (v7), an adjusting upright plate (v4), an elastic locking rod (v1), a bracket (v9), and a camera mechanism (v6); the lower end of the supporting upright plate (v7) is fixedly mounted behind the upper end surface of the supporting base plate (Z), and the lower end of the adjusting upright plate (v4) is mounted inside the upper end of the supporting upright plate (v7) by means of clearance fit; the elastic locking rod (v1) is mounted on the rear end surface of the supporting upright plate (v7), and the front end of the elastic locking rod (v1) is snap-connected with the rear end of the adjusting upright plate (v4); the upper end of the adjusting upright plate (v4) is welded to the rear bottom surface of the bracket (v9); the front bottom surface of the bracket (v9) is provided with a camera mechanism (v6), and the camera mechanism (v6) is located directly above the supporting base plate (Z).

7. The device for inputting information for international freight forwarding management according to claim 6, characterized in that: The camera mechanism (v6) comprises a housing (v64), a camera (v61), a guide groove (v66), a sliding support rod (v63), and a wiping strip (v68); the housing (v64) is fixedly mounted on the bottom surface of the front end of the bracket (v9), and the camera (v61) is mounted at the lower end inside the housing (v64); the guide groove (v66) is embedded inside the side end of the housing (v64); the upper end of the sliding support rod (v63) is slidably mounted inside the guide groove (v66); the lower end of the sliding support rod (v63) is connected to a wiping strip (v68), and the upper end surface of the wiping strip (v68) is in contact with the bottom of the housing (v64).

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