A device and method for analyzing elemental components of rutile ore

Abstract

The present invention relates to the technical field of ore component detection, and discloses a rutile ore element component analysis device and method thereof, including an ore element detector and a protection unit, a handrail folding unit and an arm folding unit installed on the ore element detector. The positioning block of the present invention slides along the card slot, and after moving to the specified position, the card block and the card slot are mutually engaged and positioned, and the positioning block pulls the arch bracket and the insertion rod to slide, the insertion rod drives the limit slider to slide, and the swing arm on the limit slider drives the swing arm to rotate, and the swing arm drives the protective cover to rotate, and the protective operation of the protective cover on the ore element detector probe is released, and the protective cover is always located on the equipment, which is convenient for re-protection later. When the arch bracket slides, the arch bracket pushes the side rod to move, and the side rod pushes the strip plate to rotate. At this time, the strip plate rotates around the rotation center, and the handrail stored in the ore element detector is rotated to the working state, achieving the purpose of automatic installation.

Description

Technical Field

[0001] The invention belongs to the technical field of ore component detection, and in particular relates to an element component analysis device and a method for rutile ore. Background Art

[0002] Rutile is a mineral composed mainly of titanium dioxide. Rutile has one of the highest refractive indices of any known crystal at visible wavelengths, and it also exhibits particularly large birefringence and high dispersion. Due to these properties, rutile is useful in making certain optical components, especially polarizing optical components, but natural rutile may contain up to 10% iron and large amounts of niobium and tantalum, so it is very important to detect the elements contained in rutile ore.

[0003] Before using the existing elemental component analysis equipment, the equipment needs to be taken out of the packaging box. In order to reduce the size of the equipment, part of the handle and the support frame are disassembled, so it needs to be installed before each use, and after the installation, the protective cover of the protective probe needs to be removed. The operation is relatively complicated and is not conducive to improving the detection efficiency.

[0004] In view of this, the present invention is proposed. Summary of the invention

[0005] In order to solve the above technical problems, the basic concept of the technical solution adopted by the present invention is:

[0006] A device for analyzing the element components of rutile ore comprises an ore element detector and a protection unit, a handrail folding unit and an arm folding unit which are installed on the ore element detector.

[0007] The protection unit includes a pair of protection covers, which are rotatably installed on the ore element detector and cover the probe of the ore element detector. A support block is installed on the protection cover, a rocker arm is installed at the rotation center of the protection cover, a swing arm is rotatably provided at the end of the rocker arm, a limit slider is installed at the end of the swing arm, and the limit slider is slidably provided on the side wall of the ore element detector, a plug rod is installed on the limit slider, an arch bracket is installed at the end of the plug rod, a positioning block is installed on the arch bracket, a card block is movably inserted inside the positioning block, and an oblique angle is provided at the bottom of the card block, and the bottom of the card block corresponds to the card slot opened on the surface of the ore element detector.

[0008] The handle folding unit comprises a handle, which is rotatably mounted on the side wall of the ore element detector, a strip plate is mounted at the rotation center of the handle, a side rod is slidably mounted on the strip plate, and the side rod and the arch bracket are connected to each other.

[0009] The arm folding unit includes a turntable, a guide protrusion is installed at an eccentric position of the turntable, a push plate is installed on the guide protrusion, the push plate and the arch bracket are connected to each other, the turntable is rotatably installed at the bottom of the ore element detector, and an arm is installed at the rotation center of the turntable, a support plate is installed on the arm, and the arm is horizontally placed at the bottom of the ore element detector.

[0010] As a preferred embodiment of the present invention, a pair of sealing gaskets are arranged on the outer side of the protective covers, the sealing gaskets are in contact with the detection end face of the ore element detector, a connecting plate is installed on the protective cover, a rotating shaft is installed on the connecting plate, fixing seats are installed at both ends of the rotating shaft, and the fixing seats are welded to the side wall of the ore element detector.

[0011] As a preferred embodiment of the present invention, a rocker arm is installed on the rotating shaft, the rocker arm and the protective cover form an angle of ninety degrees, a protective cover is installed on the side wall of the ore element detector, the protective cover covers the outside of the rocker arm, and the side wall of the protective cover is movably connected to the insertion rod.

[0012] As a preferred embodiment of the present invention, a side plate is installed at the end of the insertion rod, the side plate is welded to the side wall of the limit slider, a limit slide rail is slidably arranged inside the limit slider, and the limit slide rail is welded to the side wall of the ore element detector.

[0013] As a preferred embodiment of the present invention, a positioning plate is installed on the top of the ore element detector, the positioning plate is L-shaped, reinforcing ribs are installed on the positioning plate, the reinforcing ribs are triangular, the side walls of the positioning plate are in contact with the side walls of the arched bracket, and the side walls of the arched bracket are installed with pull rings.

[0014] As a preferred embodiment of the present invention, a baffle is slidably arranged inside the positioning block, the bottom of the baffle and the clamping block are connected to each other, the top of the baffle is connected to a synchronization rod, the synchronization rod movably passes through the positioning block, an extrusion spring is sleeved on the synchronization rod, one end of the extrusion spring is clamped in the inner cavity of the positioning block, the other end of the extrusion spring is clamped in the side wall of the baffle, and a pull plate is installed on the top of the synchronization rod.

[0015] As a preferred embodiment of the present invention, a reset rod is installed on the side wall of the arch bracket, a reset cover is inserted on the reset rod, a mounting plate is welded on the side wall of the reset cover, the mounting plate and the ore element detector are screwed together by bolts, a partition is slidably arranged inside the reset cover, one end of the partition and the reset rod are connected to each other, a reset spring is arranged between the other end of the partition and the side wall of the reset cover, and the compression direction of the reset spring and the moving direction of the reset rod are on the same straight line.

[0016] As a preferred embodiment of the present invention, a storage cover is installed on the side wall of the ore element detector, a notch is opened on the side wall of the storage cover, a positioning shaft is installed on the notch, a mounting protrusion is installed on the positioning shaft, the mounting protrusion and the handle are connected to each other, and the surface of the handle is knurled, the handle is placed on the inner side of the notch, a strip plate is installed on the side wall of the mounting protrusion, a strip groove is installed on the strip plate, a slide rod is slidably arranged on the strip groove, and the slide rod and the side rod are connected to each other.

[0017] As a preferred embodiment of the present invention, a through groove is provided on the push plate, and the through groove is located on both sides of the guide protrusion, a connecting block is installed on the push plate, the connecting block and the arch bracket are connected to each other, a synchronous shaft is installed at the rotation center of the turntable, and a mounting seat is provided on the synchronous shaft, and the mounting seat is welded to the bottom of the ore element detector, and a torsion spring is clamped between the mounting seat and the synchronous shaft.

[0018] As a preferred embodiment of the present invention, the analysis method for rutile ore element component analysis equipment comprises the following steps:

[0019] Step 1: First, move the device into the rutile mine and align the detection probe with the position to be detected;

[0020] Step 2: Then pull the positioning block, the positioning block slides along the card slot, and after moving to the specified position, the card block and the card slot are engaged with each other to complete the positioning operation, and the positioning block pulls the arch bracket and the plug rod to slide, the plug rod drives the limit slider to slide, and the swing arm on the limit slider drives the rocker arm to rotate, and the rocker arm drives the protective cover to rotate, thereby releasing the protective cover from protecting the probe of the ore element detector;

[0021] Step 3: Then the arch bracket pushes the side rod to move, and the side rod pushes the strip plate to rotate. At this time, the strip plate rotates around the rotation center, and the handle at the rotation center rotates, rotating the handle stored in the ore element detector to the working state;

[0022] Step 4: Finally, the arch bracket pushes the push plate to slide, the push plate pushes the guide protrusion to move, the guide protrusion drives the turntable to rotate as a whole, the central axis of the turntable drives the support arm to rotate, and the support arm rotates in a vertical state, which plays a supporting effect;

[0023] Step 5: The support arm is used to complete the supporting function, and the handle is used to push the ore element detector to the detection position, wherein the protective cover is attached to the surface of the ore to prevent the probe of the ore element detector from contacting the ore, thereby protecting the probe. The handle ensures that the distance between the probe of the ore element detector and the ore remains unchanged, thereby improving the detection accuracy. Finally, the ore element detector is started to complete the detection operation.

[0024] Compared with the prior art, the present invention has the following beneficial effects:

[0025] By providing a protection unit, a handrail folding unit and an arm folding unit, the positioning block can be manually pushed to move, and the positioning block slides along the card slot. After moving to the specified position, the card block and the card slot are engaged with each other to complete the positioning operation, and the positioning block pulls the arch bracket and the insertion rod to slide, the insertion rod drives the limit slider to slide, and the swing arm on the limit slider drives the swing arm to rotate, the swing arm drives the protective cover to rotate, and the protective operation of the protective cover on the ore element detector probe is released, and the protective cover is always located on the equipment, which is convenient for later re-protection. When the arch bracket slides, the arch bracket pushes the side rod to move, and the side rod pushes the strip plate to rotate. At this time, the strip plate rotates around the rotation center, and the handrail at the rotation center rotates, and the handrail stored in the ore element detector is rotated to the working state, which achieves the purpose of automatic assembly. The arch bracket pushes the push plate to slide, and the push plate pushes the guide protrusion to move, and the guide protrusion drives the turntable to rotate as a whole, and the central axis of the turntable drives the support arm to rotate, and the support arm rotates in a vertical state, which has a supporting effect, making the installation simple, and no separate assembly is required, thereby improving efficiency. In general, the support arm of the present invention completes the supporting function, and pushes the ore element detector to the detection position through the handle, wherein the protective cover is attached to the surface of the ore to prevent the probe of the ore element detector from contacting the ore, thereby achieving the purpose of protecting the probe, and the handle ensures that the distance between the probe of the ore element detector and the ore remains unchanged, thereby improving the detection accuracy.

[0026] The specific implementation modes of the present invention are further described in detail below in conjunction with the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] In the attached picture:

[0028] Figure 1 It is a schematic diagram of the three-dimensional structure of a device for analyzing the elemental composition of rutile ore;

[0029] Figure 2 This is a schematic diagram of the front structure of a device for analyzing the elemental composition of rutile ore (I);

[0030] Figure 3 A schematic diagram of the front structure of a device for analyzing the elemental composition of rutile ore (II);

[0031] Figure 4 A device for analyzing the elemental composition of rutile ore Figure 3 Enlarged view of point A in the middle;

[0032] Figure 5 This is a schematic diagram of the structure of a rutile ore element component analysis device after the protective cover is removed;

[0033] Figure 6 A device for analyzing the elemental composition of rutile ore Figure 5 Bottom view;

[0034] Figure 7 It is a partial structural schematic diagram of a device for analyzing the elemental composition of rutile ore;

[0035] Figure 8 The present invention is a cross-sectional view of a positioning block used in an elemental component analysis device for rutile ore.

[0036] In the figure:

[0037] 101. Ore element detector;

[0038] 200, protection unit; 201, protection cover; 2011, support block; 2012, sealing pad; 2013, connecting plate; 202, rotating shaft; 2021, fixing seat; 2022, rocker arm; 203, swing arm; 2031, limiting slider; 2032, limiting slide rail; 2033, side plate; 204, plug rod; 2041, arch bracket; 2042, positioning plate; 2043, reinforcing rib; 2044, pull ring; 205, positioning block; 2051, card block; 2052, bevel; 2053, card slot; 206, synchronization rod; 2061, baffle; 2062, pull plate; 2063, extrusion spring; 207, reset cover; 2071, mounting plate; 2072, reset rod; 2073, partition; 2074, reset spring; 208, protection cover;

[0039] 300, handle folding unit; 301, storage cover; 3011, notch; 3012, positioning shaft; 302, mounting protrusion; 3021, handle; 303, strip plate; 3031, strip groove; 304, side rod; 3041, slide rod;

[0040] 400, support arm folding unit; 401, turntable; 4011, guide protrusion; 402, push plate; 4021, through groove; 4022, connecting block; 403, synchronization shaft; 4031, mounting seat; 4032, torsion spring; 404, support arm; 4041, support plate. DETAILED DESCRIPTION

[0041] In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. The following embodiments are used to illustrate the present invention.

[0042] Embodiment 1:

[0043] like Figures 1 to 8 As shown, a device for analyzing the element components of rutile ore includes an ore element detector 101 and a protection unit 200 , a handrail folding unit 300 , and an arm folding unit 400 installed on the ore element detector 101 .

[0044] The protection unit 200 includes a pair of protection covers 201, which are rotatably mounted on the ore element detector 101, and the protection covers 201 cover the probe of the ore element detector 101, and a support block 2011 is installed on the protection cover 201, a rocker arm 2022 is installed at the rotation center of the protection cover 201, and a swing arm 203 is rotatably arranged at the end of the rocker arm 2022, and a limit slider 2031 is installed at the end of the swing arm 203, and the limit slider 2031 is slidably arranged on the side wall of the ore element detector 101, and a plunger 204 is installed on the limit slider 2031, and an arch bracket 2041 is installed at the end of the plunger 204, and a The positioning block 205 has a block 2051 that is movably inserted inside the positioning block 205, and the bottom of the block 2051 is provided with an angle 2052, and the bottom of the block 2051 corresponds to the slot 2053 provided on the surface of the ore element detector 101; the positioning block is pushed to slide along the slot, and after moving to the specified position, the block and the slot are engaged with each other to complete the positioning operation, and the positioning block pulls the arch bracket and the plug rod to slide, the plug rod drives the limit slider to slide, and the swing arm on the limit slider drives the rocker arm to rotate, and the rocker arm drives the protective cover to rotate, releasing the protective cover from the ore element detector probe, and the protective cover is always on the equipment, which is convenient for re-protection later. And during the detection, the protective cover at this time can prevent the ore element detector probe from directly touching the rock, causing damage to the probe, and further plays a protective effect.

[0045] The handle folding unit 300 includes a handle 3021, which is rotatably installed on the side wall of the ore element detector 101. A strip plate 303 is installed at the rotation center of the handle 3021, and a side rod 304 is slidably arranged on the strip plate 303, and the side rod 304 and the arch bracket 2041 are connected to each other; when the arch bracket pushes the side rod to move, the side rod pushes the strip plate to rotate, and at this time the strip plate rotates around the rotation center, and the handle at the rotation center rotates, rotating the handle stored in the ore element detector to a working state, thereby achieving the purpose of automatic assembly.

[0046] The arm folding unit 400 includes a turntable 401, a guide protrusion 4011 is installed at an eccentric position of the turntable 401, a push plate 402 is installed on the guide protrusion 4011, the push plate 402 and the arch bracket 2041 are connected to each other, the turntable 401 is rotatably installed at the bottom of the ore element detector 101, and an arm 404 is installed at the rotation center of the turntable 401, and a support plate 4041 is installed on the arm 404, and the arm 404 is horizontally placed at the bottom of the ore element detector 101. When the arch bracket pushes the push plate to slide, the push plate pushes the guide protrusion to move, the guide protrusion drives the turntable to rotate as a whole, the central axis of the turntable drives the arm to rotate, and the arm rotates in a vertical state, which plays a supporting effect, making the installation simple, and no separate assembly is required, thereby improving efficiency.

[0047] like Figure 1 , Figure 2 , Figure 3 and Figure 4 As shown, in a specific embodiment, a pair of protective covers 201 are provided with sealing gaskets 2012 on the outside, and the sealing gaskets 2012 are fitted with the detection end surface of the ore element detector 101. A connecting plate 2013 is installed on the protective cover 201, and a rotating shaft 202 is installed on the connecting plate 2013. A fixing seat 2021 is installed at both ends of the rotating shaft 202, and the fixing seat 2021 is welded to the side wall of the ore element detector 101. A rocker arm 2022 is installed on the rotating shaft 202, and the rocker arm 2022 and the protective cover 201 are at a 90-degree angle. A protective cover 208 is installed on the side wall of the ore element detector 101, and the protective cover 208 covers the outside of the rocker arm 2022. The side wall of the protective cover 208 and the plug 204 are movably connected. A limiting slide rail 2032 is slidably arranged inside the limiting slider 2031, and the limiting slide rail 2032 is welded and arranged on the side wall of the ore element detector 101. The protective cover 208 mainly plays a protective effect. During the sliding of the limit slider 2031, the swing arm 203 on the limit slider 2031 drives the swing arm 2022 to rotate. At this time, the swing arm 202 drives the rotating shaft 202 to rotate on the fixed seat 2021, and then the connecting plate 2013 of the rotating shaft 202 drives the protective cover 201 to rotate, thereby releasing the protective operation of the protective cover 201 on the probe of the ore element detector 101, wherein the sealing gasket 2012 can improve the sealing of the equipment.

[0048] Embodiment 2:

[0049] The difference between the above embodiment and this embodiment is that: Figure 3 and Figure 4 As shown, a side plate 2033 is installed at the end of the insertion rod 204, and the side plate 2033 is welded and set on the side wall of the limiting slider 2031. The side plate 2033 mainly serves the purpose of installation.

[0050] like Figure 2 , Figure 3 and Figure 5As shown, in a specific embodiment, a positioning plate 2042 is installed on the top of the ore element detector 101. The positioning plate 2042 is L-shaped. The positioning plate 2042 serves the purpose of positioning to ensure that the arch bracket 2041 does not slide all the time. A reinforcing rib 2043 is installed on the positioning plate 2042. The reinforcing rib 2043 is triangular. The reinforcing rib 2043 enhances stability. The side wall of the positioning plate 2042 fits with the side wall of the arch bracket 2041. The side wall of the arch bracket 2041 is installed with a pull ring 2044, and the pull ring 2044 can drive the arch bracket 2041 to slide.

[0051] like Figure 6 , Figure 7 and Figure 8 As shown, further, a baffle 2061 is slidably provided inside the positioning block 205, the bottom of the baffle 2061 and the clamping block 2051 are connected to each other, the top of the baffle 2061 is connected to a synchronization rod 206, the synchronization rod 206 movably passes through the positioning block 205, and an extrusion spring 2063 is sleeved on the synchronization rod 206, one end of the extrusion spring 2063 is clamped in the inner cavity of the positioning block 205, and the other end of the extrusion spring 2063 is clamped in the side wall of the baffle 2061, and a pull plate 2062 is installed on the top of the synchronization rod 206. When the positioning block 205 slides, the bevel 2052 of the block 2051 at the bottom of the positioning block 205 can contact the outside of the slot 2053, and then the slot 2053 will lift the block 2051 to slide inward, and the baffle 2061 and the synchronization rod 206 on the block 2051 will move up synchronously to squeeze the extrusion spring 2063. When the block 2051 moves to the designated slot 2053 position, the extrusion spring 2063 squeezes the block 2051 to reset, completing the card locking operation.

[0052] Embodiment 3:

[0053] The difference between the above embodiment and this embodiment is that: Figure 5 and Figure 8As shown, a reset rod 2072 is installed on the side wall of the arch bracket 2041, and a reset cover 207 is inserted on the reset rod 2072. A mounting plate 2071 is welded to the side wall of the reset cover 207. The mounting plate 2071 and the ore element detector 101 are screwed together by bolts. A partition 2073 is slidably arranged inside the reset cover 207. One end of the partition 2073 and the reset rod 2072 are connected to each other. A reset spring 2074 is arranged between the other end of the partition 2073 and the side wall of the reset cover 207. The compression direction of the reset spring 2074 and the moving direction of the reset rod 2072 are located on the same straight line. During the sliding process of the arch bracket 2041, the reset rod 2072 on the side wall of the arch bracket 2041 slides inside the reset cover 207, and the reset rod 2072 drives the partition 2073 to move, thereby stretching the reset spring 2074. Therefore, when the block 2051 is unlocked, the reset operation can be automatically completed through the reset spring 2074.

[0054] like Figure 3 , Figure 5 and Figure 6 As shown, in a specific embodiment, a storage cover 301 is installed on the side wall of the ore element detector 101, a notch 3011 is opened on the side wall of the storage cover 301, a positioning shaft 3012 is installed on the notch 3011, a mounting protrusion 302 is installed on the positioning shaft 3012, the mounting protrusion 302 and the handle 3021 are connected to each other, and the surface of the handle 3021 is knurled, the handle 3021 is placed on the inner side of the notch 3011, a strip plate 303 is installed on the side wall of the mounting protrusion 302, a strip groove 3031 is installed on the strip plate 303, and a slide rod 3041 is slidably arranged on the strip groove 3031, and the slide rod 3041 and the side rod 304 are connected to each other. When the arch bracket 2041 pushes the side rod 304 to move, the sliding rod 3041 on the side rod 304 slides in the strip groove 3031 inside the strip plate 303, and then the strip plate 303 with the strip groove 3031 rotates on the positioning shaft 3012, and the handle 3021 is driven to rotate through the installation protrusion 302, so that the handle 3021 stored in the ore element detector 101 is rotated to the working state, and the knurling on the surface of the handle 3021 increases the friction, which is convenient for the operator to use later.

[0055] like Figure 3 , Figure 5 and Figure 6As shown, further, a through slot 4021 is opened on the push plate 402, and the through slot 4021 is located on both sides of the guide protrusion 4011, a connecting block 4022 is installed on the push plate 402, the connecting block 4022 and the arch bracket 2041 are connected to each other, a synchronous shaft 403 is installed at the rotation center of the turntable 401, and a mounting seat 4031 is arranged on the synchronous shaft 403, and the mounting seat 4031 is welded to the bottom of the ore element detector 101, and a torsion spring 4032 is clamped between the mounting seat 4031 and the synchronous shaft 403. When the arched bracket 2041 pushes the push plate 402 to slide, the through groove 4021 of the push plate 402 slides on the guide protrusion 4011, and the guide protrusion 4011 drives the turntable 401 and the synchronization shaft 403 to rotate around the mounting seat 4031, so that the internal torsion spring 4032 can be twisted, and the torsion spring 4032 is used to facilitate later service operations. After the synchronization shaft 403 of the turntable 401 rotates, the synchronization shaft 403 drives the support arm 404 to rotate, and the support arm 404 rotates to a vertical state, and the support plate 4041 at the bottom increases the support area and enhances the support effect.

[0056] The present invention also discloses an analysis method for rutile ore element component analysis equipment, the steps are as follows:

[0057] Step 1: First, move the device into the rutile mine and align the detection probe with the position to be detected;

[0058] Step 2: Then pull the positioning block 205, the positioning block 205 slides along the card slot 2053, and after moving to the specified position, the card block 2051 and the card slot 2053 are engaged with each other to complete the positioning operation, and the positioning block 205 pulls the arch bracket 2041 and the insertion rod 204 to slide, the insertion rod 204 drives the limit slider 2031 to slide, and the swing arm 203 on the limit slider 2031 drives the swing arm 2022 to rotate, and the swing arm 2022 drives the protective cover 201 to rotate, and the protective operation of the protective cover 201 on the ore element detector 101 probe is released;

[0059] Step 3: Then the arch support 2041 pushes the side rod 304 to move, and the side rod 304 pushes the strip plate 303 to rotate. At this time, the strip plate 303 rotates around the rotation center, and the handle 3021 at the rotation center rotates, and the handle 3021 stored in the ore element detector 101 is rotated to the working state;

[0060] Step 4: Finally, the arch support 2041 pushes the push plate 402 to slide, and the push plate 402 pushes the guide protrusion 4011 to move, and the guide protrusion 4011 drives the turntable 401 to rotate as a whole, and the central axis of the turntable 401 drives the support arm 404 to rotate, and the support arm 404 rotates to a vertical state, which plays a supporting effect;

[0061] Step 5: The support arm 404 is used to support and the handle 3021 is used to push the ore element detector 101 to the detection position, wherein the protective cover 201 is attached to the surface of the ore to prevent the probe of the ore element detector 101 from contacting the ore, thereby protecting the probe. The handle 3021 ensures that the distance between the probe of the ore element detector 101 and the ore remains unchanged, thereby improving the detection accuracy. Finally, the ore element detector 101 is started to complete the detection operation.

[0062] The implementation principle of a device and method for analyzing the elemental composition of rutile ore in this embodiment is as follows:

[0063] The detection position of this equipment is in the rutile mine cave, and it detects the walls of the rutile mine cave.

[0064] During the inspection, the operator needs to move the device into the rutile mine cave, and then take the device out of the protective box.

[0065] Then, the arch bracket 2041 is driven to slide away from the protective cover 201 through the pull ring 2044, and the arch bracket 2041 drives the positioning block 205 to slide, wherein the positioning block 205 slides along the card slot 2053. When the positioning block 205 slides, the bevel 2052 of the card block 2051 at the bottom of the positioning block 205 can contact the outer side of the card slot 2053, and then the card slot 2053 will lift the card block 2051 to slide inward, and the baffle 2061 on the card block 2051 and the synchronization rod 206 move up synchronously, pressing the extrusion spring 2063. When the card block 2051 moves to the designated card slot 2053 position, the extrusion spring 2063 squeezes the card block 2051 to reset, completing the card locking operation. When reset is needed in the later stage, during the sliding process of the arch bracket 2041, the reset rod 2072 on the side wall of the arch bracket 2041 slides inside the reset cover 207, and the reset rod 2072 drives the partition 2073 to move, thereby stretching the reset spring 2074. Therefore, when the card block 2051 is unlocked, the reset operation can be automatically completed by the reset spring 2074.

[0066] When the arch support 2041 slides, the arch support 2041 can drive the insertion rod 204, the side rod 304 and the push plate 402 to move synchronously.

[0067] When the insertion rod 204 slides, the insertion rod 204 drives the limiting slider 2031 to slide along the limiting slide rail 2032, and the swing arm 203 on the limiting slider 2031 drives the swing arm 2022 to rotate. At this time, the swing arm 2022 drives the rotating shaft 202 to rotate on the fixed seat 2021, and then the rotating shaft 202 connecting plate 2013 drives the protective cover 201 to rotate, thereby releasing the protective operation of the protective cover 201 on the probe of the ore element detector 101, wherein the sealing gasket 2012 can improve the sealing of the equipment.

[0068] When the arch bracket 2041 pushes the side rod 304 to move, the sliding rod 3041 on the side rod 304 slides in the strip groove 3031 inside the strip plate 303, and then the strip plate 303 with the strip groove 3031 rotates on the positioning shaft 3012, and the handle 3021 is driven to rotate through the installation protrusion 302, so that the handle 3021 stored in the ore element detector 101 is rotated to the working state, and the knurling on the surface of the handle 3021 increases the friction, which is convenient for the operator to use later.

[0069] When the arched bracket 2041 pushes the push plate 402 to slide, the through groove 4021 of the push plate 402 slides on the guide protrusion 4011, and the guide protrusion 4011 drives the turntable 401 and the synchronization shaft 403 to rotate around the mounting seat 4031, so that the internal torsion spring 4032 can be twisted. The torsion spring 4032 is used to facilitate later service operations. After the synchronization shaft 403 of the turntable 401 rotates, the synchronization shaft 403 drives the support arm 404 to rotate. The support arm 404 rotates to a vertical state, and the support plate 4041 at the bottom increases the support area and enhances the support effect.

[0070] Then, the whole device is supported by the support arm 404 and the support plate 4041, and the operator holds the handle 3021 with both hands and moves the ore element detector 101 toward the ore surface through the handle 3021, wherein the protective cover 201 is rotated to fit the ore surface to avoid contact between the probe of the ore element detector 101 and the ore, thereby protecting the probe, and by applying force to the handle 3021, it is ensured that the ore element detector 101 always has an inward squeezing force, thereby ensuring that the distance between the detection probe and the ore remains unchanged, thereby improving the detection accuracy. After the above operations are completed, the ore element detector 101 is started to complete the detection operation.

Claims

1. A device for analyzing the elemental composition of rutile ore, comprising an ore element detector (101) and a protection unit (200), a handle folding unit (300) and an arm folding unit (400) installed on the ore element detector (101), characterized in that: The protection unit (200) comprises a pair of protection covers (201), the pair of protection covers (201) are rotatably mounted on the ore element detector (101), and the protection covers (201) cover the probe of the ore element detector (101), a support block (2011) is mounted on the protection cover (201), a rocker arm (2022) is mounted at the rotation center of the protection cover (201), a rocker arm (203) is rotatably mounted at the end of the rocker arm (2022), a limit slider (2031) is mounted at the end of the rocker arm (203), and the limit slider (2031) is mounted on the end of the rocker arm (203). 31) is slidably arranged on the side wall of the ore element detector (101), the limit slider (2031) is installed with an insertion rod (204), the end of the insertion rod (204) is installed with an arch bracket (2041), a positioning block (205) is installed on the arch bracket (2041), a card block (2051) is movably inserted inside the positioning block (205), and the bottom of the card block (2051) is provided with an oblique angle (2052), and the bottom of the card block (2051) corresponds to a card slot (2053) provided on the surface of the ore element detector (101); The handle folding unit (300) comprises a handle (3021), the handle (3021) is rotatably mounted on the side wall of the ore element detector (101), a strip plate (303) is mounted at the rotation center of the handle (3021), a side rod (304) is slidably arranged on the strip plate (303), and the side rod (304) and the arch bracket (2041) are connected to each other; The support arm folding unit (400) comprises a turntable (401), a guide protrusion (4011) is installed at an eccentric position of the turntable (401), a push plate (402) is installed on the guide protrusion (4011), the push plate (402) and the arch support (2041) are connected to each other, the turntable (401) is rotatably installed at the bottom of the ore element detector (101), and a support arm (404) is installed at the rotation center of the turntable (401), a support plate (4041) is installed on the support arm (404), and the support arm (404) is horizontally placed at the bottom of the ore element detector (101).

2. The elemental component analysis device for rutile ore according to claim 1, characterized in that: A sealing gasket (2012) is arranged on the outside of a pair of protective covers (201), the sealing gasket (2012) is fitted with a detection end surface of the ore element detector (101), a connecting plate (213) is installed on the protective cover (201), a rotating shaft (202) is installed on the connecting plate (2013), fixing seats (2021) are installed at both ends of the rotating shaft (202), and the fixing seats (221) are welded to the side wall of the ore element detector (101).

3. The element component analysis device for rutile ore according to claim 2, characterized in that: A rocker arm (2022) is mounted on the rotating shaft (202), the rocker arm (2022) and the protective cover (201) form an angle of ninety degrees, a protective cover (208) is mounted on the side wall of the ore element detector (101), the protective cover (208) covers the outside of the rocker arm (2022), and the side wall of the protective cover (208) and the insertion rod (204) are movably plugged.

4. The device for analyzing the elemental composition of rutile ore according to claim 1, characterized in that: A side plate (2033) is installed at the end of the insertion rod (204); the side plate (2033) is welded to the side wall of the limit slider (2031); a limit slide rail (2032) is slidably arranged inside the limit slider (2031); and the limit slide rail (2032) is welded to the side wall of the ore element detector (101).

5. The device for analyzing the elemental composition of rutile ore according to claim 1, characterized in that: A positioning plate (2042) is installed on the top of the ore element detector (101), the positioning plate (2042) is L-shaped, a reinforcing rib (2043) is installed on the positioning plate (2042), the reinforcing rib (2043) is triangular, the side wall of the positioning plate (2042) and the side wall of the arch support (2041) are in contact with each other, and a pull ring (2044) is installed on the side wall of the arch support (2041).

6. The element component analysis device for rutile ore according to claim 1, characterized in that: A baffle (2061) is slidably arranged inside the positioning block (205), the bottom of the baffle (2061) and the clamping block (2051) are connected to each other, the top of the baffle (2061) is connected to a synchronization rod (206), the synchronization rod (206) movably passes through the positioning block (205), an extrusion spring (2063) is sleeved on the synchronization rod (206), one end of the extrusion spring (2063) is clamped in the inner cavity of the positioning block (205), and the other end of the extrusion spring (2063) is clamped in the side wall of the baffle (2061), and a pull plate (2062) is installed on the top of the synchronization rod (206).

7. The device for analyzing the elemental composition of rutile ore according to claim 1, characterized in that: A reset rod (2072) is installed on the side wall of the arch support (2041), a reset cover (207) is inserted on the reset rod (2072), a mounting plate (2071) is welded to the side wall of the reset cover (207), the mounting plate (2071) and the ore element detector (101) are screwed together by bolts, a partition (2073) is slidably arranged inside the reset cover (207), one end of the partition (2073) and the reset rod (2072) are connected to each other, a reset spring (2074) is arranged between the other end of the partition (2073) and the side wall of the reset cover (207), and the compression direction of the reset spring (2074) and the moving direction of the reset rod (2072) are located on the same straight line.

8. The device for analyzing the elemental composition of rutile ore according to claim 1, characterized in that: The side wall of the ore element detector (101) is provided with a storage cover (301), the side wall of the storage cover (301) is provided with a notch (3011), a positioning shaft (3012) is provided on the notch (3011), a mounting protrusion (302) is provided on the positioning shaft (3012), the mounting protrusion (302) and a handle (3021) are connected to each other, and a surface of the handle (3021) is knurled, the handle (3021) is placed inside the notch (3011), a strip plate (303) is provided on the side wall of the mounting protrusion (302), a strip groove (3031) is provided on the strip plate (303), a slide bar (3041) is slidably provided on the strip groove (3031), and the slide bar (3041) and the side bar (304) are connected to each other.

9. The element component analysis device for rutile ore according to claim 1, characterized in that: The push plate (402) is provided with a through slot (4021), and the through slot (4021) is located on both sides of the guide protrusion (4011). A connecting block (4022) is installed on the push plate (402), and the connecting block (4022) and the arch bracket (2041) are connected to each other. A synchronous shaft (403) is installed at the rotation center of the turntable (401), and a mounting seat (4031) is provided on the synchronous shaft (403), and the mounting seat (4031) is welded to the bottom of the ore element detector (101), and a torsion spring (4032) is provided between the mounting seat (4031) and the synchronous shaft (403).

10. A method for analyzing the elemental composition of rutile ore, characterized in that: The device for analyzing the elemental components of rutile ore according to any one of claims 1 to 9, wherein the analysis method for the device for analyzing the elemental components of rutile ore comprises the following steps: Step 1: First, move the device into the rutile mine and align the detection probe with the location to be detected; Step 2: Then pull the positioning block (205), the positioning block (205) slides along the slot (2053), and after moving to the specified position, the locking block (2051) and the slot (2053) are engaged with each other, completing the positioning operation, and the positioning block (205) pulls the arch support (2041) and the insertion rod (204) to slide, the insertion rod (204) drives the limit slider (2031) to slide, and the swing arm (203) on the limit slider (2031) drives the swing arm (222) to rotate, and the swing arm (222) drives the protective cover (201) to rotate, thereby releasing the protective operation of the protective cover (201) on the probe of the ore element detector (101); Step 3: Then the arch support (2041) pushes the side rod (304) to move, and the side rod (304) pushes the strip plate (303) to rotate. At this time, the strip plate (303) rotates around the rotation center, and the handle (3021) at the rotation center rotates, and the handle (3021) stored in the ore element detector (101) is rotated to a working state; Step 4: Finally, the arch support (2041) pushes the push plate (402) to slide, the push plate (402) pushes the guide protrusion (4011) to move, the guide protrusion (4011) drives the turntable (401) to rotate as a whole, the central axis of the turntable (401) drives the support arm (404) to rotate, and the support arm (404) rotates to a vertical state, thereby achieving a supporting effect; Step 5: The support arm (404) is used to support the ore element detector (101), and the handle (3021) is used to push the ore element detector (101) to move to the detection position, wherein the protective cover (201) is attached to the surface of the ore to prevent the probe of the ore element detector (101) from contacting the ore, thereby protecting the probe. The handle (3021) ensures that the distance between the probe of the ore element detector (101) and the ore remains unchanged, thereby improving the detection accuracy. Finally, the ore element detector (101) is started to complete the detection operation.

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