Cement consistency sample preparation device

Abstract

The application discloses a cement consistency sample preparation equipment, and relates to the technical field of cement detection. The cement consistency sample preparation equipment comprises a sample preparation assembly, a mold moving assembly and a mold assembling assembly. The sample preparation assembly is used for automatically stirring cement of a specified mass and mixing water into cement paste, and then automatically filling the cement paste into a conical mold. The sample preparation assembly comprises a stirring part, a stirring pot and a material digging plate. The mold moving assembly is arranged at the left front of the sample preparation assembly and is used for transferring the conical mold filled with the cement paste from the lower part of the sample preparation assembly to the lower part of the mold assembling assembly. The mold moving assembly comprises a moving mold assembly and the conical mold. The mold assembling assembly is arranged at the right front of the sample preparation assembly and is used for automatically distributing the cement paste in the conical mold uniformly, automatically lightly pressing the cement paste in the conical mold, and automatically scraping the excess cement paste in the conical mold. The mold assembling assembly comprises a tamping rod, a flattening frame and a scraping rod. The cement consistency sample preparation equipment has the characteristics of reasonable scheme, ingenious structure, convenient use, time and labor saving, and the like.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of cement detection, and particularly relates to a cement consistency sample preparation equipment. BACKGROUND

[0002] In order to detect the water quantity of cement standard consistency, the existing cement plant material detection laboratory needs to transfer the mixed cement paste to a test mold, and make the paste exceed the upper end of the test mold, then remove the air in the paste by tapping, and finally remove the excess paste outside the test mold by using a tool.

[0003] The existing cement plant material detection laboratory basically completes the above mold loading work manually, which has high repetition, high labor intensity and needs to be operated on time. SUMMARY

[0004] The present application aims to provide a cement consistency sample preparation equipment to solve the above defects in the prior art.

[0005] A cement consistency sample preparation equipment, comprising a sample preparation assembly, a mold moving assembly and a mold finishing assembly, wherein,

[0006] The sample preparation assembly is used for automatically mixing cement and mixing water into cement paste with a specified mass, and then automatically filling the excess cement paste in a conical mold;

[0007] The mold moving assembly is arranged at the left front of the sample preparation assembly and is used for transferring the conical mold filled with the cement paste from the lower side of the sample preparation assembly to the lower side of the mold finishing assembly;

[0008] The mold finishing assembly is arranged at the right front of the sample preparation assembly and is used for automatically distributing the cement paste in the conical mold uniformly, then automatically tapping the cement paste in the conical mold, and finally automatically scraping the excess cement paste in the conical mold.

[0009] Preferably, the sample preparation assembly comprises a support frame one, a support plate one, a motor one, a cylinder one, a cylinder two, a rotary cylinder one, a cylinder three, a cylinder four, a rotary cylinder two, a motor two and a cylinder five, the support plate one is horizontally connected to the top of the support frame one, the motor one is horizontally arranged and connected to the upper side of the support plate one through a motor bracket one, and a vertical stirring piece is connected to the output end of the motor one through an L-shaped speed reducer, a pair of side plates one is symmetrically connected to the left and right sides of the support frame one, a pair of guide rails one is vertically connected to the inner wall of the side plate one, a sliding plate one is slidably connected to the pair of guide rails one, the cylinder one is vertically connected between the sliding plate one and the side plate one and drives the sliding plate one to move up and down, a pair of guide rails two is horizontally connected to the inner wall of the sliding plate one, a sliding plate two is slidably connected to the pair of guide rails two, the cylinder two is horizontally connected between the sliding plate two and the sliding plate one and drives the sliding plate two to move back and forth, the rotary cylinder one is installed on the inner wall of the sliding plate two and has a “n” shaped rotary frame connected to the output end thereof, the cylinder three is provided in pairs and symmetrically connected to the lower side of the rotary frame, the clamping plates are connected to the piston rod ends of the cylinder three, the guide tubes are slidably connected to the outer side of the clamping plates and installed on the lower side of the rotary frame, the vertical stirring pot is clamped between the two clamping plates, a plurality of overhead columns are vertically connected to the lower side of the support plate one, an overhead plate is horizontally connected to the lower ends of all the overhead columns, the cylinder four is vertically connected downward to the upper side of the overhead plate, the “L” shaped connecting plate is connected to the piston rod end of the cylinder four, the rotary cylinder two is installed on the side wall of the connecting plate and has an “L” shaped motor bracket two connected to the output end thereof, the motor two is vertically connected to the top of the motor bracket two, the material digging plate is connected to the output end of the motor two, the material digging plate is located in front of the stirring pot, the motor bracket two is vertically welded with the side plate two beside the motor two, and the “Z” shaped pushing plate is connected to the output end of the cylinder five.

[0010] Preferably, the mold moving assembly comprises a support frame two, a support plate two, a moving mold group one and a rodless cylinder, the support frame two is connected to the left front of the support frame one, the support plate two is provided in pairs and symmetrically connected to the upper side of the support frame two, the moving mold group one is horizontally connected to the upper sides of the two support plates two and has a moving plate one horizontally connected to the sliding table thereof, the rodless cylinder is arranged left and right and connected to the upper side of the moving plate one, and has a cantilever plate horizontally connected to the pneumatic part thereof, the cantilever end of the cantilever plate is detachably connected with a circular bottom supporting plate, and the “L” shaped side lifting plate is welded beside the bottom supporting plate, and the conical mold is coaxially arranged on the upper side of the bottom supporting plate.

[0011] Preferably, the whole mold assembly comprises a support frame three, a support plate three, a cylinder six, a moving mold group two and a motor three, the support frame three is connected to the right front of the support frame one, the support plate three is vertically connected to the inner side of the support frame three, and a side mounting plate three is parallelly connected to the side of the support plate three, a pair of horizontal guide rails three are connected to the inner wall of the side mounting plate three, and a sliding plate three is slidingly connected to the pair of guide rails three, the cylinder six is horizontally connected between the sliding plate three and the side mounting plate three and drives the sliding plate three to move forward and backward, the moving mold group two is vertically connected to the inner wall of the sliding plate three and a moving plate two is horizontally connected to the sliding table of the moving mold group two, a lifting plate is horizontally connected to the side of the moving plate two, and a conical material guide hopper is connected to the overhanging end of the lifting plate, an expansion plate is horizontally connected to the outer wall of the material guide hopper, and a plurality of inserting and tamping bars are vertically connected to the lower side of the expansion plate, a rectangular flattening frame is vertically connected to the lower side of the moving plate two, the motor three is vertically downwardly arranged and connected to the upper side of the moving plate two through a motor bracket three, a cam block is connected to the output end of the motor three, a pair of linear bearing seats are connected to the front side of the moving plate two, sliding mounting columns are slidingly connected to the linear bearing seats, a T-shaped contact plate is commonly connected to the rear ends of the two sliding mounting columns, compression springs are sleeved between the linear bearing seats and the contact plate of the sliding mounting columns, and a flattening scraping bar is vertically connected to the lower end of the contact plate.

[0012] Preferably, the rotating frame is symmetrically connected to a pair of side supporting strips on the front side of the stirring pot.

[0013] Compared with the prior art, the present application has the following advantages:

[0014] 1. The cement can be automatically mixed. The cement and mixing water of a specified quality are put into the stirring pot, then the stirring pot is clamped on the rotating frame by a pair of cylinders three, then the stirring pot is lifted by the cylinder one and the stirring part is in the stirring pot, then the stirring part is rotated by the motor one through the L-shaped speed reducer, and the cement and mixing water in the stirring pot are stirred into cement slurry, then the stirring pot is lowered by the cylinder one and the stirring part is away from the stirring pot, then the stirring pot is rotated forward by the rotating cylinder one, then the material digging plate is rotated backward by the rotating cylinder two, then the stirring pot is moved forward by the cylinder two and the material digging plate is in the stirring pot, then the material digging plate is rotated by the motor two, and the cement slurry in the stirring pot is transferred to the material digging plate, then the stirring pot is moved backward by the cylinder two and the material digging plate is away from the stirring pot, and then the stirring pot is rotated backward by the rotating cylinder one.

[0015] 2. The mold can be automatically filled. The conical mold is moved backward to the lower side of the material digging plate by the moving mold group one, then the material guide hopper is moved backward to the space between the material digging plate and the conical mold by the cylinder six, then the material digging plate is rotated backward by the rotating cylinder two, then the pushing plate is moved downward by the cylinder five and the cement slurry on the material digging plate is pushed into the material guide hopper, and then the cement slurry slides into the conical mold under the action of its own gravity.

[0016] 3. The mold can be automatically arranged. The conical mold is moved forward to the front of the inserting and tamping strip by moving the moving module 1, and the inserting and tamping strip is inserted into the cement paste in the conical mold for several times by moving the moving module 2, so that the cement paste in the conical mold is automatically distributed uniformly by the inserting and tamping strip; the conical mold is moved to the front of the beating frame by the rodless cylinder, and the beating frame is lightly pressed to the top of the cement paste in the conical mold for several times by moving the moving module 2, so that the beating frame is used to automatically lightly press the cement paste in the conical mold; the conical mold is moved to the front of the scraping strip by the rodless cylinder, and the scraping strip is contacted to the top of the conical mold by moving the moving module 2, and then the conical mold is moved forward and backward for several times by moving the moving module 1, and the hanging strip is moved laterally for several times by the motor 3, so that the excess cement paste in the conical mold is automatically scraped off by the scraping strip. BRIEF DESCRIPTION OF DRAWINGS

[0017] Figures 1-2 It is a schematic diagram of the overall three-dimensional structure of the application.

[0018] Figures 3-6 It is a schematic diagram of the sample preparation assembly in the application.

[0019] Figures 7-8 It is a schematic diagram of the mold moving assembly in the application.

[0020] Figures 9-10 It is a schematic diagram of the mold arranging assembly in the application.

[0021] Among them:

[0022] 10 - sample preparation assembly; 101 - support frame one; 102 - support plate one; 103 - motor frame one; 104 - motor one; 105 - L-shaped speed reducer; 106 - stirring part; 107 - side plate one; 108 - guide rail one; 109 - sliding plate one; 110 - cylinder one; 111 - guide rail two; 112 - sliding plate two; 113 - cylinder two; 114 - rotary cylinder one; 115 - rotary frame; 116 - cylinder three; 117 - clamping plate; 118 - guide pipe; 119 - stirring pot; 120 - side supporting strip; 121 - overhead column; 122 - overhead plate; 123 - cylinder four; 124 - connecting plate; 125 - rotary cylinder two; 126 - motor frame two; 127 - motor two; 128 - material digging plate; 129 - side plate two; 130 - cylinder five; 131 - material pushing plate;

[0023] 20 - mold moving assembly; 201 - support frame two; 202 - support plate two; 203 - moving module one; 204 - moving plate one; 205 - rodless cylinder; 206 - overhanging plate; 207 - bottom supporting plate; 208 - side lifting plate; 209 - conical mold;

[0024] 30 - whole mold assembly; 301 - support frame three; 302 - support plate three; 303 - side plate three; 304 - guide rail three; 305 - slide plate three; 306 - air cylinder six; 307 - moving mold assembly two; 308 - moving plate two; 309 - lifting plate; 310 - material guide hopper; 311 - expansion plate; 312 - inserting and tamping bar; 313 - flattening frame; 314 - motor frame three; 315 - motor three; 316 - cam block; 317 - linear bearing seat; 318 - slide mounting column; 319 - contact plate; 320 - flattening bar. DETAILED DESCRIPTION

[0025] In order to make the technical means, creative features, purposes and effects of the present application easy to understand, the present application is further described below in conjunction with specific embodiments.

[0026] As shown in Figures 1-10 a cement consistency sample preparation device, comprising a sample preparation assembly 10, a mold moving assembly 20 and a whole mold assembly 30, wherein,

[0027] The sample preparation assembly 10 is used to automatically stir the cement and mixing water of a specified mass into cement paste, and then automatically fill the excess cement paste into a conical mold 209;

[0028] The mold moving assembly 20 is arranged at the left front of the sample preparation assembly 10 and is used to transfer the conical mold 209 filled with cement paste from the lower side of the sample preparation assembly 10 to the lower side of the whole mold assembly 30;

[0029] The whole mold assembly 30 is arranged at the right front of the sample preparation assembly 10 and is used to automatically distribute the cement paste in the conical mold 209 evenly, then automatically lightly press the cement paste in the conical mold 209, and finally automatically scrape off the excess cement paste in the conical mold 209.

[0030] In the embodiment, the sample preparation assembly 10 comprises a support frame 101, a support plate 102, a motor 104, a cylinder 110, a cylinder 113, a rotary cylinder 114, a cylinder 116, a cylinder 123, a rotary cylinder 125, a motor 127 and a cylinder 130. The support plate 102 is horizontally connected to the top of the support frame 101. The motor 104 is horizontally arranged and connected to the upper side of the support plate 102 through a motor bracket 103. A vertical stirring piece 106 is connected to the output end of the motor 104 through an L-shaped speed reducer 105. A pair of side plates 107 is symmetrically connected to the left and right sides of the support frame 101. A pair of guide rails 108 is vertically connected to the inner wall of the side plate 107. A sliding plate 109 is slidably connected to the guide rails 108. The cylinder 110 is vertically connected between the sliding plate 109 and the side plate 107 and drives the sliding plate 109 to move up and down. A pair of guide rails 111 is horizontally connected to the inner wall of the sliding plate 109. A sliding plate 112 is slidably connected to the guide rails 111. The cylinder 113 is horizontally connected between the sliding plate 112 and the sliding plate 109 and drives the sliding plate 112 to move forward and backward. The rotary cylinder 114 is installed on the inner wall of the sliding plate 112 and has a “N” shaped rotary frame 115 connected to the output end. A pair of cylinders 116 is symmetrically connected to the lower side of the rotary frame 115. Clamping plates 117 are connected to the piston rod ends of the cylinders 116. Guide tubes 118 are slidably connected to the outer sides of the clamping plates 117. The guide tubes 118 are installed on the lower side of the rotary frame 115. A vertical stirring pot 119 is clamped between the two clamping plates 117. A plurality of overhead columns 121 are vertically connected to the lower side of the support plate 102. An overhead plate 122 is horizontally connected to the lower ends of the overhead columns 121. The cylinder 123 is vertically connected downward to the upper side of the overhead plate 122. An “L” shaped connecting plate 124 is connected to the piston rod end of the cylinder 123. The rotary cylinder 125 is installed on the side wall of the connecting plate 124 and has an “L” shaped motor bracket 126 connected to the output end. The motor 127 is vertically connected to the top of the motor bracket 126. A material digging plate 128 is connected to the output end of the motor 127. The material digging plate 128 is located in front of the stirring pot 119. The motor bracket 126 is vertically welded with a side plate 129 beside the motor 127. The cylinder 130 is vertically connected to the side wall of the side plate 129 and has a “Z” shaped material pushing plate 131 connected to the output end.

[0031] In the embodiment, the mold moving assembly 20 comprises a support frame 201 connected to the front left of the support frame 101, a support plate 202 provided with a pair of and symmetrically connected to the upper side of the support frame 201, a moving mold group 203 horizontally connected to the upper side of the two support plates 202 and having a moving plate 204 horizontally connected to the sliding table thereof, and a rodless air cylinder 205 provided left and right and connected to the upper side of the moving plate 204 and having a cantilever plate 206 horizontally connected to the pneumatic component thereof, wherein the cantilever end of the cantilever plate 206 is detachably connected with a circular bottom supporting plate 207, and a "L"-shaped side lifting plate 208 is welded beside the bottom supporting plate 207, and a circular conical mold 209 is coaxially arranged on the upper side of the bottom supporting plate 207. The conical mold 209 is transferred from below the sample preparation assembly 10 to below the mold assembling assembly 30 through the moving mold group 203.

[0032] In the embodiment, the whole mold assembly 30 comprises a support frame three 301, a support plate three 302, a cylinder six 306, a moving mold group two 307 and a motor three 315. The support frame three 301 is connected to the front right of the support frame one 101. The support plate three 302 is vertically connected to the inner side of the support frame three 301, and a side mounting plate three 303 is connected in parallel to the side of the support plate three 302. A pair of horizontal guide rails three 304 are connected to the inner wall of the side mounting plate three 303. A sliding plate three 305 is slidably connected to the pair of guide rails three 304. The cylinder six 306 is horizontally connected between the sliding plate three 305 and the side mounting plate three 303 and drives the sliding plate three 305 to move forward and backward. The moving mold group two 307 is vertically connected to the inner wall of the sliding plate three 305 and a moving plate two 308 is horizontally connected to the sliding table of the moving mold group two 307. A lifting plate 309 is horizontally connected to the side of the moving plate two 308. A conical material guide hopper 310 is connected to the overhanging end of the lifting plate 309. An expansion plate 311 is horizontally connected to the outer wall of the material guide hopper 310. A plurality of tamping bars 312 are vertically connected to the lower side of the expansion plate 311. A rectangular flattening frame 313 is vertically connected to the lower side of the moving plate two 308. The motor three 315 is vertically downwardly arranged and connected to the upper side of the moving plate two 308 through a motor bracket three 314. A cam block 316 is connected to the output end of the motor three 315. A pair of linear bearing seats 317 are connected to the front side of the moving plate two 308. Sliding mounting columns 318 are slidably connected to the linear bearing seats 317. A “T”-shaped contact plate 319 is commonly connected to the rear ends of the two sliding mounting columns 318. Compression springs are sleeved between the linear bearing seats 317 and the contact plate 319 of the sliding mounting columns 318. A scraping bar 320 is vertically connected to the lower end of the contact plate 319. The tamping bars 312 can automatically distribute the cement paste in the conical mold 209 uniformly. The flattening frame 313 can automatically lightly press the cement paste in the conical mold 209. The scraping bar 320 can automatically scrape off the excess cement paste in the conical mold 209.

[0033] In the embodiment, a pair of side supporting strips 120 are symmetrically connected to the front side of the stirring pot 119. When the stirring pot 119 is rotated to a horizontal position, the side supporting strips 120 can laterally support the stirring pot 119, so that the cylinder three 116 can clamp the stirring pot 119 in the horizontal position.

[0034] In practical application, the cement consistency sample preparation device comprises the following operation steps:

[0035] Step 1: Put the cement and mixing water of a certain mass into the stirring pot 119, clamp the stirring pot 119 on the rotating frame 115 through a pair of air cylinders three 116, lift the stirring pot 119 through the air cylinder one 110 and let the stirring part 106 be in the stirring pot 119, rotate the stirring part 106 through the motor one 104 through the L-shaped speed reducer 105, and stir the cement and mixing water in the stirring pot 119 into cement slurry, then lower the stirring pot 119 through the air cylinder one 110 and let the stirring part 106 away from the stirring pot 119;

[0036] Step 2: Rotate the stirring pot 119 forward by 90 degrees through the rotating air cylinder one 114, rotate the material digging plate 128 backward by 90 degrees through the rotating air cylinder two 125, move the stirring pot 119 forward through the air cylinder two 113 and let the material digging plate 128 be in the stirring pot 119, rotate the material digging plate 128 through the motor two 127, and transfer the cement slurry in the stirring pot 119 to the material digging plate 128, then move the stirring pot 119 backward through the air cylinder two 113 and let the material digging plate 128 away from the stirring pot 119, rotate the stirring pot 119 backward by 90 degrees through the rotating air cylinder one 114;

[0037] Step 3: Move the conical die 209 backward through the moving module one 203 to the lower side of the material digging plate 128, move the material guide hopper 310 through the air cylinder six 306 to the position between the material digging plate 128 and the conical die 209, rotate the material digging plate 128 backward by 90 degrees through the rotating air cylinder two 125, and move the material pushing plate 131 downward through the air cylinder five 130 to push the cement slurry on the material digging plate 128 into the material guide hopper 310, and the cement slurry slides into the conical die 209 under the action of its own gravity;

[0038] Step 4: ① Move the conical die 209 forward through the moving module one 203 to the position directly below the inserting tamping bar 312, insert the inserting tamping bar 312 into the cement slurry in the conical die 209 for several times through the moving module two 307, and use the inserting tamping bar 312 to automatically distribute the cement slurry in the conical die 209 evenly; ② Move the conical die 209 to the position directly below the flattening frame 313 through the air cylinder without rod 205, and lightly press the flattening frame 313 to the top of the cement slurry in the conical die 209 for several times through the moving module two 307, and use the flattening frame 313 to automatically lightly press the cement slurry in the conical die 209; ③ Move the conical die 209 to the position directly below the scraping bar 320 through the air cylinder without rod 205, and make the scraping bar 320 contact the top of the conical die 209 through the moving module two 307, then move the conical die 209 forward and backward through the moving module one 203, and move the scraping bar 320 laterally through the motor three 315 for several times, and use the scraping bar 320 to automatically scrape off the excess cement slurry in the conical die 209;

[0039] Step 5: The screed bar 320 is moved upward by the moving module two 307 and away from the cone mold 209, and then the cone mold 209 is moved forward to the extreme position by the moving module one 203, and the cone mold 209 filled with the cement slurry is removed.

[0040] Therefore, the above disclosed embodiments are only examples in all aspects, and are not the only ones. All changes within the scope of the present application or within the scope equivalent to the present application are included in the present application.

Claims

1. A cement consistency sample preparation apparatus, characterized by: It comprises a sample preparation assembly (10), a mold moving assembly (20) and a mold finishing assembly (30), wherein, The sample preparation assembly (10) is used for automatically stirring cement and mixing water into cement paste with a specified mass, and then automatically filling the excess cement paste into a conical mold (209), and the sample preparation assembly (10) comprises a motor (104), a stirring part (106), a motor (127) and a material digging plate (128); The mold moving assembly (20) is arranged at the left front of the sample preparation assembly (10) and is used for transferring the conical mold (209) filled with the cement paste from the lower side of the sample preparation assembly (10) to the lower side of the mold finishing assembly (30), and the mold moving assembly (20) comprises a moving mold group (203) and a rodless air cylinder (205); The mold finishing assembly (30) is arranged at the right front of the sample preparation assembly (10) and is used for automatically distributing the cement paste in the conical mold (209) uniformly, automatically lightly pressing the cement paste in the conical mold (209), and automatically scraping the excess cement paste in the conical mold (209), and the mold finishing assembly (30) comprises an air cylinder (306), a moving mold group (307), a tamping rod (312), a flattening frame (313) and a flattening strip (320).

2. A cement consistency sample preparation apparatus according to claim 1, characterised in that: The sample preparation assembly (10) further comprises a support frame one (101), a support plate one (102), a cylinder one (110), a cylinder two (113), a rotary cylinder one (114), a cylinder three (116), a cylinder four (123), a rotary cylinder two (125) and a cylinder five (130), the support plate one (102) is horizontally connected to the top of the support frame one (101), the motor one (104) is horizontally arranged and connected to the upper side of the support plate one (102) through the motor rack one (103), and a vertical stirring part (106) is connected to the output end of the motor one (104) through an L-shaped speed reducer (105), a pair of side plates one (107) are symmetrically connected to the left and right sides of the support frame one (101), a pair of guide rails one (108) are vertically connected to the inner wall of the side plate one (107), and a sliding plate one (109) is slidably connected to the pair of guide rails one (108), the cylinder one (110) is vertically connected between the sliding plate one (109) and the side plate one (107) and drives the sliding plate one (109) to move up and down, a pair of guide rails two (111) are horizontally connected to the inner wall of the sliding plate one (109), and a sliding plate two (112) is slidably connected to the pair of guide rails two (111), the cylinder two (113) is horizontally connected between the sliding plate two (112) and the sliding plate one (109) and drives the sliding plate two (112) to move back and forth, the rotary cylinder one (114) is installed on the inner wall of the sliding plate two (112) and has a rotary frame (115) connected to the output end thereof, the cylinder three (116) is provided in a pair and symmetrically connected to the lower side of the rotary frame (115), and a clamping plate (117) is connected to the piston rod end of the cylinder three (116), a guide pipe (118) is slidably connected to the outer side of the clamping plate (117) and installed on the lower side of the rotary frame (115), and a vertical stirring pot (119) is clamped between the two clamping plates (117), a plurality of overhead columns (121) are vertically connected to the lower side of the support plate one (102), and an overhead plate (122) is horizontally connected to the lower ends of all the overhead columns (121), the cylinder four (123) is vertically and downwardly connected to the upper side of the overhead plate (122), and a connecting plate (124) is connected to the piston rod end of the cylinder four (123), the rotary cylinder two (125) is installed on the side wall of the connecting plate (124) and has a motor rack two (126) connected to the output end thereof, the motor two (127) is vertically and downwardly connected to the top of the motor rack two (126) and has a material digging plate (128) connected to the output end thereof, the material digging plate (128) is located in front of the stirring pot (119), the motor rack two (126) is vertically welded with a side plate two (129) beside the motor two (127), and the cylinder five (130) is vertically and downwardly connected to the side wall of the side plate two (129) and has a material pushing plate (131) connected to the output end thereof.

3. A cement consistency sample preparation apparatus according to claim 2, characterised in that: The mold moving assembly (20) further comprises a support frame two (201) connected to the left front of the support frame one (101), and a support plate two (202) provided with a pair of and symmetrically connected to the upper side of the support frame two (201), a moving mold one (203) horizontally connected to the upper side of the two support plate two (202) and having a moving plate one (204) horizontally connected on the sliding table thereof, a rodless cylinder (205) provided left and right and connected to the upper side of the moving plate one (204) and having a cantilever plate (206) horizontally connected on the pneumatic component thereof, the cantilever end of the cantilever plate (206) detachably connected with a circular bottom supporting plate (207), and a side lifting plate (208) welded on the side of the bottom supporting plate (207), and a conical mold (209) coaxially arranged on the upper side of the bottom supporting plate (207).

4. A cement consistency sample preparation apparatus according to claim 2, wherein: The mold moving assembly (20) further comprises a support frame two (201) connected to the left front of the support frame one (101), and a support plate two (202) provided with a pair of and symmetrically connected to the upper side of the support frame two (201), a moving mold one (203) horizontally connected to the upper side of the two support plate two (202) and having a moving plate one (204) horizontally connected on the sliding table thereof, a rodless cylinder (205) provided left and right and connected to the upper side of the moving plate one (204) and having a cantilever plate (206) horizontally connected on the pneumatic component thereof, the cantilever end of the cantilever plate (206) detachably connected with a circular bottom supporting plate (207), and a side lifting plate (208) welded on the side of the bottom supporting plate (207), and a conical mold (209) coaxially arranged on the upper side of the bottom supporting plate (207).

5. A cement consistency sample preparation apparatus according to claim 2, wherein: The rotating frame (115) is symmetrically connected with a pair of side supporting strips (120) on the front side of the stirring pot (119).

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