A food machinery and chemical inspection and testing equipment

Abstract

The invention discloses a food mechanochemical inspection and testing equipment, which relates to the technical field of mechanochemical inspection equipment, and comprises a mounting base, a rotating adjustment component is mounted on the top of the mounting base, a synchronous adjustment component is mounted on the side end of the rotating adjustment component, and a detection data quantity display screen is mounted on the side end surface of the top wall of the mounting base. By cooperating with the synchronous adjustment component and the pretreatment detection component, it is possible to effectively perform inspections and tests with high precision and high sensitivity when detecting trace components or facing complex matrices, thereby ensuring the reliability of the detection results, realizing the synchronization and integration of material processing and detection, improving the adaptability and accuracy of sample processing, greatly improving the operating efficiency and detection accuracy, and with the cooperation of various detection components, realizing automatic switching and precise positioning of various detection modes, greatly expanding the detection range and depth, and further improving the accuracy of the detection data.

Description

Technical Field

[0001] The invention relates to the technical field of mechanical and chemical testing equipment, in particular to food mechanical and chemical testing equipment. Background Art

[0002] Food safety issues mainly include the following aspects: chemical hazards, biological toxins, microbial hazards, food adulteration and the safety of genetically engineered foods. In order to ensure that people can eat harmless and safe food, food safety testing is required frequently.

[0003] However, in the prior art, during the inspection and testing of food machinery and chemical industry, random sampling is mostly adopted to select individual varieties for testing, and manual sampling is used to achieve food safety testing. However, in the actual testing process, when detecting trace components or facing complex matrices, the accuracy and sensitivity are insufficient, which will affect the reliability of the test results, and the test is time-consuming. Once contamination or variation is introduced during the testing process, it will affect the test results. Therefore, it is necessary to propose a food machinery and chemical testing equipment. Summary of the invention

[0004] The purpose of the present invention is to provide a food machinery and chemical inspection and testing equipment to solve the problem that the above-mentioned background technology proposes that in food machinery and chemical inspection and testing operations, individual varieties are often selected for testing in a random sampling manner, and manual sampling is used to achieve food safety testing. However, in the actual testing process, when detecting trace components or facing complex matrices, the accuracy and sensitivity are insufficient, which will affect the reliability of the test results, and the detection is time-consuming, so that once contamination or variation is introduced during the detection process, it will affect the test results.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a food mechanical and chemical inspection and testing equipment, comprising a mounting base, a rotation adjustment component is mounted on the top of the mounting base, a synchronization adjustment component is mounted on the side end of the rotation adjustment component, a detection data quantity display screen is mounted on the side end surface of the top wall of the mounting base, and a pre-processing detection component is fastened to the side end of the rod body of the detection data quantity display screen;

[0006] The synchronous adjustment component includes a bottom groove plate, which is fastened to the table top of the mounting base, a lifting groove is formed on the surface of the bottom groove plate, and the lifting groove synchronously penetrates the surface of the mounting base, a vertical rail is fastened to the top wall surface of the bottom groove plate, a tooth bar is slidably connected to the inside of the vertical rail, a tooth bar is meshedly connected to the side end of the tooth bar with a tooth synchronous rotating wheel, and a biological quantum detection sensor detection end is installed on the top of the tooth bar;

[0007] The pretreatment detection component includes a transverse side rail, which is installed on the side end of the rod body of the detection data display screen, the side end of the transverse side rail is slidably connected with a displacement positioning adjustment seat, the side end of the displacement positioning adjustment seat is fastened with a connecting wear-resistant mounting piece, the side end of the connecting wear-resistant mounting piece is installed with a processing chamber, the side end of the processing chamber is connected with a feed guide chamber, the top of the feed guide chamber is connected with a micro-extraction pump tube, the side of the processing chamber is connected with a servo motor, the output end of the servo motor is connected with a crushing and stirring piece group, the side end of the processing chamber is internally installed with a dissolving and filtering reaction end, the crushing and stirring piece group and the dissolving and filtering reaction end are connected through a control plate valve, the side end of the dissolving and filtering reaction end is connected with a pumping pipe, and a micro-pneumatic conveying structure is installed outside the side end of the pumping pipe.

[0008] Preferably, the side end of the material extraction pipe passes through the interior of the feed guide chamber and is connected to a material detection chamber, a detection core end is installed at the bottom of the material detection chamber, and a discharge end is installed on the side of the material detection chamber, and the biological quantum detection sensor detection end enters the material detection chamber from the detection core end to perform trace detection on the internal material.

[0009] Preferably, the rotation adjustment component includes a driving intermittent brushless control motor, the output end of the driving intermittent brushless control motor is connected to a split gear set shaft structure, the split gear set shaft structure forms two sets of driving torques, side end output and top end output, and the driving torque output at the side end is connected to a belt structure.

[0010] Preferably, a synchronous rotating shaft is connected to the side end of the wheel belt structure, and a stabilizing hoop is sleeved on the outer circumference of the synchronous rotating shaft. The side end of the stabilizing hoop is fastened to the side supporting leg rod of the transverse side rail, and the gear synchronous rotating wheel sleeve is installed on the outside of the side end of the synchronous rotating shaft.

[0011] Preferably, the driving torque output from the top is connected to a steering placement plate, a dust control structure is installed at the top center end of the steering placement plate, and a plurality of material placement racks are installed in equal parts around the circumference of the steering placement plate.

[0012] Preferably, an adjustable grabbing assembly is rotatably connected to the surface of the mounting base, and a first self-cleaning conveyor belt structure and a second self-cleaning conveyor belt structure are respectively fastened to the sides of the mounting base, the first self-cleaning conveyor belt structure and the second self-cleaning conveyor belt structure are respectively used for conveying materials and outputting materials, and a variety of detection assemblies are fastened to the other side surface of the mounting base.

[0013] Preferably, the adjusting grasping assembly includes a bottom rotation control motor, which is installed in the internal space of the mounting base, and the top output end of the bottom rotation control motor is connected to a rotation adjustment disk, which is located on the surface of the mounting base for rotation adjustment, and the top of the rotation adjustment disk is fastened with a mounting rod frame, and the side end surface of the mounting rod frame is connected with a transverse advance and retreat guide rail, and the side of the transverse advance and retreat guide rail is slidably connected with a vertical groove slide seat.

[0014] Preferably, a progressive cylinder is installed on the top of the side end of the vertical groove slide, and the bottom output end of the progressive cylinder is connected to a grabbing adjustment cylinder. The progressive cylinder drives the grabbing adjustment cylinder to slide and adjust in the side wall groove of the vertical groove slide, and the bottom of the grabbing adjustment cylinder is connected to a bidirectional drive adjustment seat, and a flexible grabbing structure is installed on the bottom of the bidirectional drive adjustment seat.

[0015] Preferably, the various detection components include an installation side frame, the bottom end of the installation side frame is fastenedly connected to a support reinforcement frame, a positioning calibration sensor is installed on the side of the installation side frame, a pneumatic guide rod is installed on the top side end of the support reinforcement frame, a convex and sliding side column is provided on the frame surface of the installation side frame, the top of the convex and sliding side column is slidably connected to an adjustment detection frame, and the side end of the adjustment detection frame is fastened to the side of the pneumatic guide rod.

[0016] Preferably, an output wheel belt structure is installed on the inner side end of the adjustment detection frame, and the top output end of the output wheel belt structure is connected to a side circuit board, and two groups of transverse sliding rails are installed on the top and bottom of the side end of the side circuit board, and the side ends of the two groups of transverse sliding rails are slidably connected with two groups of longitudinal sliding rails, and the top output end of the output wheel belt structure passes through the side circuit board to be connected with a semi-arc regulating plate, and a semi-rotation groove is provided on the surface of the semi-arc regulating plate, and the center end of the semi-arc regulating plate passes through and is connected with a rotation control member, and the rotation control member is connected to the detection mounting frame plate through the output drive of the output wheel belt structure, and three groups of micro-detection lifting and pushing cylinders are installed on the side of the detection mounting frame plate, and the bottom ends of the three groups of micro-detection lifting and pushing cylinders are fastened with side sliders, which slide on the surface of the detection mounting frame plate, and the bottom of the side slider is connected with three groups of detection ends, which are respectively set as a mass spectrometry detection end, a spectrum analysis detection end and a microorganism detection end.

[0017] Compared with the prior art, the present invention has the following beneficial effects:

[0018] 1. In the present invention, by cooperating with the synchronous adjustment component and the pretreatment detection component, when the synchronous shaft rotates, it can drive the gear synchronous wheel to form synchronous rotation, and then utilize the meshing connection between the gear synchronous wheel and the tooth bar to make the tooth bar slide and adjust inside the vertical rail, so that the biological quantum detection sensor detection end installed on the top of the tooth bar forms a rise and fall, and can form a synchronous following operation according to the rotation and pretreatment rate of the material. Secondly, by cooperating with the horizontal side rail and the displacement positioning adjustment seat and the connecting wear-resistant mounting part, the relevant structure carried by the connecting wear-resistant mounting part can form a displacement adjustment, so that each time the material reaches the top of the micro-extraction pump tube, the micro-extraction pump tube performs a partial extraction operation on the material, and transports it to the processing chamber through the feed guide chamber, and starts the servo motor, and uses the servo motor to drive the crushing and stirring plate group to work, and performs preliminary crushing and mixing treatment on the extracted part of the material, and then makes the control plate valve open Start, the crushed and mixed materials enter the dissolution and filtration reaction end, realize the addition and mixing of solvents, and the filtration of impurities, to ensure the purity and preparation state of the test samples, so that the extraction pipe is responsible for extracting the reacted materials in the dissolution and filtration reaction end under the cooperation of the micro-pneumatic conveying structure, and sending it to the material detection chamber inside the feed guide chamber, and then the bottom of the material detection chamber is installed with a detection core end for direct contact and detection of materials, so that the biological quantum detection sensor detection end can pass through the detection core end and go deep into the material detection chamber, and perform trace detection on the materials therein, and feed back the data to the detection data display screen through a direct interface, which is effective in detecting trace components or facing complex matrices. High-precision and high-sensitivity inspection and detection can be carried out to ensure the reliability of the test results, realize the synchronization and integration of material processing and detection, improve the adaptability and accuracy of sample processing, and greatly improve the operating efficiency and detection accuracy;

[0019] 2. In the present invention, the pneumatic guide rod pushes the adjustment detection frame and the related structures it carries to slide and adjust along the convex sliding side column under the cooperation of various detection components and positioning calibration sensors to achieve position adjustment. After reaching the preset position, the output wheel belt structure is used to drive the rotating control member to form an arc track inside the semi-rotation groove opened on the surface of the semi-arc control plate to rotate. When rotating, the detection mounting frame plate is driven to form different sections of detection position adjustment according to the detection sequence of the three groups of detection ends under the joint cooperation and adjustment of the two groups of horizontal sliding rails and the two groups of longitudinal sliding rails. After the position is adjusted, the three groups of micro detection lifting and pushing cylinders are adjusted according to the external controller. Signal regulation enables the side slider to drive and control the three groups of detection ends (mass spectrometry detection end, spectrum analysis detection end and microbial detection end) to slide and rise along the track on the surface of the detection mounting frame, so as to accurately push the three groups of detection ends to the material position in sequence and perform detection and inspection operations on them. After each group of detection ends contacts the material, it uses mass spectrometry, spectrum analysis or microbial identification to collect data, and transmits these data back to the side circuit board for processing. After rapid analysis, the results can be synchronously fed back to the detection data display screen through a direct interface, realizing automatic switching and precise positioning of multiple detection modes, greatly expanding the detection range and depth, and further improving the accuracy of the detection data;

[0020] 3. In the present invention, the bottom rotation control motor is started under the cooperation of the rotation adjustment component and the adjustment grabbing component, and the bottom rotation control motor is used to drive the rotation adjustment disk, the mounting rod frame and the related structures carried by them to adjust the angle to above the first self-cleaning conveyor belt structure, and then the lateral advance and retreat guide rail is used to drive the vertical slot slide seat and the structure carried by it to adjust the lateral displacement, so that it can respond in real time according to the shape of the material. When the sliding is adjusted to the preset position, the grabbing adjustment cylinder is started, and then the grabbing adjustment cylinder is used to drive the two-way driving adjustment seat and the flexible grabbing structure to perform a grabbing operation on the material, which can automatically adjust the grabbing and placement positions according to the shape of the material, improves the flexibility and automation of processing materials of different shapes and sizes, and makes it possible to use the driving force output from the top to make the steering placement disk rotate evenly, drive the materials in the multi-group material placement rack to form adjustment, so as to facilitate subsequent inspection and detection, and the setting of the dust control structure is convenient for preventing dust from entering the surface of the materials placed in the multi-group material placement rack to cause deterioration or pollution, thereby ensuring the accuracy of subsequent detection data. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 This is a schematic diagram of the main structure of a food mechanical and chemical inspection and testing device of the present invention;

[0022] Figure 2 It is a schematic diagram of the structure of a food mechanical and chemical inspection and testing equipment of the present invention from a side view;

[0023] Figure 3 This is a schematic diagram of the installation position structure of a main rotation adjustment component in a food mechanical and chemical inspection and testing device of the present invention;

[0024] Figure 4 This is a structural schematic diagram of a rotary adjustment component in a food mechanical and chemical inspection and testing device of the present invention;

[0025] Figure 5 This is a structural schematic diagram of a synchronous adjustment component in a food mechanical and chemical inspection and testing device of the present invention;

[0026] Figure 6 This is a structural schematic diagram of a pre-treatment detection component in a food mechanical and chemical inspection and detection device of the present invention;

[0027] Figure 7 It is a structural schematic diagram of an adjustment grabbing component in a food mechanical and chemical inspection and testing device of the present invention;

[0028] Figure 8 A food mechanical and chemical inspection and testing device of the present invention Figure 7 A schematic diagram of the enlarged structure at point A;

[0029] Fig. 9 This is a schematic diagram of the structure of various detection components in a food mechanical and chemical inspection and detection device of the present invention;

[0030] Fig.10 It is a schematic diagram of partial structural separation of various detection components in a food mechanical and chemical inspection and detection equipment of the present invention;

[0031] Fig.11 A food mechanical and chemical inspection and testing device of the present invention Fig.10 Schematic diagram of the enlarged structure at B.

[0032] In the figure: 1. Mounting base; 2. First self-cleaning conveyor belt structure; 3. Rotation adjustment component; 31. Drive intermittent brushless control motor; 32. Split gear set shaft structure; 33. Wheel belt structure; 34. Synchronous rotating shaft; 35. Stable hoop; 4. Steering placement plate; 5. Dust control structure; 6. Material placement rack; 7. Various detection components; 71. Installation side frame; 72. Positioning calibration sensor; 73. Support reinforcement frame; 74. Pneumatic guide rod; 75. Convex sliding side column; 76. Adjustment detection frame; 77. Output wheel belt structure; 78. Side circuit board; 79. Horizontal sliding rail; 790. Longitudinal sliding rail; 791. Semi-arc control plate; 792. Rotation control member; 793. Detection mounting frame plate; 794. Semi-rotation slot; 795. Micro detection lifting and pushing cylinder; 796. Detection end; 797. Side slider; 8. Adjustment grabbing component; 81. Bottom rotation control electric machine; 82, rotating adjustment plate; 83, horizontal advance and retreat guide rail; 84, vertical slot slide; 85, progressive cylinder; 86, grab adjustment cylinder; 87, two-way drive adjustment seat; 88, flexible grab structure; 9, detection data display screen; 10, synchronous adjustment component; 101, bottom slot plate; 102, lifting slot; 103, vertical rail; 104, toothed bar; 105, toothed synchronous wheel; 106, bio-quantum detection sensor detection end; 11, pre- Processing and detection components; 111, horizontal edge rail; 112, displacement positioning adjustment seat; 113, connecting wear-resistant mounting parts; 114, servo motor; 115, processing chamber; 116, crushing and stirring plate group; 117, dissolution and filtration reaction end; 118, extraction pipe; 119, micro-pneumatic conveying structure; 1190, micro-extraction pump tube; 1191, feed guide chamber; 1192, material detection chamber; 12, second self-cleaning conveyor belt structure. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] Reference Figure 1 - Fig.11As shown: a food machinery and chemical inspection and testing equipment, including a mounting base 1, a rotating adjustment component 3 is installed on the top of the mounting base 1, a synchronous adjustment component 10 is installed on the side end of the rotating adjustment component 3, a detection data display screen 9 is installed on the side end surface of the top wall of the mounting base 1, and a pre-treatment detection component 11 is fastened to the side end of the rod body of the detection data display screen 9; the synchronous adjustment component 10 includes a bottom groove plate 101, the bottom groove plate 101 is fastened to the table of the mounting base 1, a lifting groove 102 is opened through the surface of the bottom groove plate 101, and the lifting groove 102 synchronously penetrates the surface of the mounting base 1, and a vertical rail 103 is fastened to the top wall surface of the bottom groove plate 101, and a toothed bar 104 is slidably connected inside the vertical rail 103, and a toothed synchronous rotating wheel 105 is meshedly connected to the side end of the toothed bar 104, and a biological quantum detection sensor detection end 106 is installed on the top of the toothed bar 104; the pre-treatment detection component 11 includes a horizontal side rail 111, the transverse side rail 111 is installed on the side end of the rod body of the detection data display screen 9, the side end of the transverse side rail 111 is slidably connected with a displacement positioning adjustment seat 112, the side end of the displacement positioning adjustment seat 112 is fastened with a connecting wear-resistant mounting member 113, and the side end of the connecting wear-resistant mounting member 113 is installed with a processing chamber 115, the side end of the processing chamber 115 is connected with a feed guide chamber 1191, and the top of the feed guide chamber 1191 is connected with a micro-extraction pump pipe 119 0. A servo motor 114 is connected to the side of the processing chamber 115, and the output end of the servo motor 114 is connected to a crushing and stirring plate group 116. A dissolving and filtering reaction end 117 is installed inside the side end of the processing chamber 115. The crushing and stirring plate group 116 and the dissolving and filtering reaction end 117 are connected through a control plate valve. The side end of the dissolving and filtering reaction end 117 is connected to a pumping pipe 118, and a micro-pneumatic conveying structure 119 is installed outside the side end of the pumping pipe 118.

[0035] according to Figure 6 As shown, the side end of the extraction pipe 118 passes through the interior of the feed guide chamber 1191 and is connected to the material detection chamber 1192. A detection core end is installed at the bottom of the material detection chamber 1192, and a discharge end is installed at the side of the material detection chamber 1192. The biological quantum detection sensor detection end 106 enters the material detection chamber 1192 from the detection core end to perform trace detection on the internal material, so that the extraction pipe 118 is responsible for extracting the material and sending it into the material detection chamber 1192 inside the feed guide chamber 1191. Then, a detection core end is installed at the bottom of the material detection chamber 1192 for direct contact and detection of the material, so that the biological quantum detection sensor detection end 106 can pass through the detection core end and penetrate into the material detection chamber 1192 to perform trace detection on the material therein. After each detection, in addition, the discharge end installed on the side of the material detection chamber 1192 is used to facilitate the discharge of materials or waste after detection to avoid affecting the next detection.

[0036] according to Figure 1- Figure 4 As shown, the rotation adjustment component 3 includes a driving intermittent brushless control motor 31, and the output end of the driving intermittent brushless control motor 31 is connected to a split gear set shaft structure 32, and the split gear set shaft structure 32 forms two sets of driving torques of side end output and top end output, and the driving torque of the side end output is connected to a belt structure 33, and the intermittent brushless control motor 31 is used to drive the split gear set shaft structure 32 to form operation, and through the transmission ratio conversion of the gear set in the split gear set shaft structure 32, the power is divided into two outputs of the side end and the top end, and the side end output drives the belt structure 33 to form rotation.

[0037] according to Figure 4 As shown, the side end of the wheel belt structure 33 is connected to the synchronous rotating shaft 34, and the outer circumferential side of the synchronous rotating shaft 34 is sleeved with a stabilizing hoop 35, the side end of the stabilizing hoop 35 is tightly connected to the side support leg rod side of the transverse side rail 111, and the gear synchronous rotating wheel 105 is sleeved and installed on the outside of the side end of the synchronous rotating shaft 34. When the wheel belt structure 33 rotates, the synchronous rotating shaft 34 is synchronously driven to rotate, so that the synchronous adjustment component 10 forms a driving adjustment, and the setting of the stabilizing hoop 35 is convenient for ensuring the stability and stability of the synchronous rotating shaft 34 during rotation.

[0038] according to Figure 1 - Figure 3 As shown, the driving torque output from the top is connected to the steering placement disk 4, and a dust control structure 5 is installed at the top center end of the steering placement disk 4. Multiple material placement racks 6 are evenly installed around the circumference of the steering placement disk 4. The driving force output from the top is used to make the steering placement disk 4 rotate evenly, driving the materials in the multiple material placement racks 6 to be adjusted for subsequent inspection and detection. The setting of the dust control structure 5 makes it easy to prevent dust from entering the surface of the materials placed in the multiple material placement racks 6 to cause deterioration or pollution, thereby ensuring the accuracy of subsequent detection data.

[0039] according to Figure 1 , Figure 2 and Figure 7 As shown, an adjusting grabbing assembly 8 is rotatably connected to the surface of the mounting base 1, and the sides of the mounting base 1 are respectively fastened with a first self-cleaning conveyor belt structure 2 and a second self-cleaning conveyor belt structure 12, which are used for conveying materials and outputting materials, respectively. A variety of detection assemblies 7 are fastened to the other side surface of the mounting base 1, and with the cooperation of the first self-cleaning conveyor belt structure 2, the material is evenly conveyed, and the material is placed and transported to the next process through the second self-cleaning conveyor belt structure 12 by adjusting the grabbing assembly 8.

[0040] according to Figure 7As shown, the adjusting grabbing assembly 8 includes a bottom rotation control motor 81, which is installed in the internal space of the mounting base 1, and the top output end of the bottom rotation control motor 81 is connected to a rotation adjustment disk 82, which is located on the surface of the mounting base 1 for rotation adjustment, and the top of the rotation adjustment disk 82 is fastened with a mounting rod frame, and the side end surface of the mounting rod frame is connected with a transverse advance and retreat guide rail 83, and the side of the transverse advance and retreat guide rail 83 is slidably connected with a vertical groove slide 84. When the material is transported from the surface of the first self-cleaning conveyor belt structure 2, the bottom rotation control motor 81 is started, and the bottom rotation control motor 81 is used to drive the rotation adjustment disk 82, the mounting rod frame and the related structures carried by them to adjust the angle to the top of the first self-cleaning conveyor belt structure 2, and then the transverse advance and retreat guide rail 83 is used to drive the vertical groove slide 84 and the structure carried by it to adjust the lateral displacement, so that it can respond in real time according to the shape of the material.

[0041] according to Figure 7 and Figure 8 As shown, a progressive cylinder 85 is installed at the top of the side end of the vertical slot slide 84, and a grabbing adjustment cylinder 86 is connected to the bottom output end of the progressive cylinder 85. The progressive cylinder 85 drives the grabbing adjustment cylinder 86 to slide and adjust in the side wall slide of the vertical slot slide 84. The bottom of the grabbing adjustment cylinder 86 is connected to a two-way drive adjustment seat 87. A flexible grabbing structure 88 is installed at the bottom of the two-way drive adjustment seat 87. Then the progressive cylinder 85 is synchronously started under the signal control of the external controller to drive the grabbing adjustment cylinder 86. The structure it carries slides in the side wall groove of the vertical groove slide 84. When the slide is adjusted to the preset position, the grabbing adjustment cylinder 86 is started, and then the grabbing adjustment cylinder 86 is used to drive the two-way drive adjustment seat 87 and the flexible grabbing structure 88 to grab the material, and then form an angle turn, so that the grabbed material is placed in the material placement rack 6, and the inspected and tested material is simultaneously placed on the surface of the second self-cleaning conveyor belt structure 12 using the adjustable grabbing assembly 8 to facilitate transportation to the next process.

[0042] according to Figure 1 , Figure 2 , Fig. 9 , Fig.10 and Fig.11As shown, the various detection components 7 include an installation side frame 71, the bottom end of the installation side frame 71 is fastened with a support reinforcement frame 73, a positioning calibration sensor 72 is installed on the side of the installation side frame 71, a pneumatic guide rod 74 is installed on the top side end of the support reinforcement frame 73, a convex sliding side column 75 is provided on the frame surface of the installation side frame 71, and an adjustment detection frame 76 is slidably connected to the top of the convex sliding side column 75, and the side end of the adjustment detection frame 76 is fastened to the side of the pneumatic guide rod 74, so that the installation side frame 71 serves as the main frame, and the bottom end is reinforced by the support reinforcement frame 73 to ensure the stability of the overall structure, and the positioning calibration sensor 72 installed on the side is used to accurately locate the position after displacement, that is, the pneumatic guide rod 74 is used to push the adjustment detection frame 76 and the related structures it carries to slide and adjust along the convex sliding side column 75 to achieve position adjustment.

[0043] according to Fig. 9 - Fig.11As shown, an output wheel belt structure 77 is installed at the inner side end of the adjustment detection frame 76, and the top output end of the output wheel belt structure 77 is connected to a side circuit board 78. Two sets of transverse sliding rails 79 are installed at the top and bottom of the side end of the side circuit board 78. The side ends of the two sets of transverse sliding rails 79 are slidably connected with two sets of longitudinal sliding rails 790. The top output end of the output wheel belt structure 77 passes through the side circuit board 78 to be connected to a semi-arc regulating plate 791. A semi-rotating groove 794 is opened on the surface of the semi-arc regulating plate 791. The center end of the semi-arc regulating plate 791 passes through A rotating control member 792 is connected, and the rotating control member 792 is connected to a detection mounting frame plate 793 through the output drive connection of the output wheel belt structure 77. Three sets of micro detection lifting and pushing cylinders 795 are installed on the side of the detection mounting frame plate 793. The bottom ends of the three sets of micro detection lifting and pushing cylinders 795 are fastened with side sliders 797. The side sliders 797 slide on the surface of the detection mounting frame plate 793. The bottom of the side slider 797 is connected to three sets of detection ends 796. The three sets of detection ends 796 are respectively set as mass spectrometry detection ends and spectrum analysis detection ends. The output wheel belt structure 77 is then used to drive the rotating control member 792 to form an arc track inside the semi-rotating groove 794 opened on the surface of the semi-arc regulating plate 791, and when rotating, the detection mounting frame plate 793 is driven to form different sections of detection position adjustment according to the detection sequence of the three groups of detection ends 796 under the joint adjustment of the two groups of horizontal sliding rails 79 and the two groups of longitudinal sliding rails 790. After the position is adjusted, the three groups of micro-detection lifting and pushing cylinders 795 are adjusted according to the signal of the external controller to respectively make the detection positions of the three groups of detection ends 796 be adjusted. The side slider 797 drives and controls the three groups of detection ends 796 (mass spectrometry detection end, spectral analysis detection end and microbial detection end) to slide and rise and fall along the track on the surface of the detection mounting frame 793, so as to accurately push the three groups of detection ends 796 to the material position in turn and perform detection and inspection operations on them. After each group of detection ends 796 contacts the material, it collects data by means of mass spectrometry, spectral analysis or microbial identification, and transmits this data back to the side circuit board 78 for processing. After rapid analysis, the results can be fed back to the detection data display screen 9 through a direct interface.

[0044] The wiring diagram of the intermittent brushless control motor 31, the positioning calibration sensor 72, the adjustment detection frame 76, the side circuit board 78, the biological quantum detection sensor detection end 106, the bottom rotation control motor 81 and the servo motor 114 in the present invention belongs to the common knowledge in the field, and its working principle is a well-known technology. The model is selected according to the actual use. Therefore, the control method and wiring arrangement of the intermittent brushless control motor 31, the positioning calibration sensor 72, the adjustment detection frame 76, the side circuit board 78, the biological quantum detection sensor detection end 106, the bottom rotation control motor 81 and the servo motor 114 are no longer explained in detail.

[0045] The use method and working principle of the present device are as follows: First, when conducting food machinery and chemical inspection and testing operations, the first self-cleaning conveyor belt structure 2 is used to ensure uniform material transportation. When the material is transported from the surface of the first self-cleaning conveyor belt structure 2, the bottom rotation control motor 81 is started, and the bottom rotation control motor 81 is used to drive the rotating adjustment disk 82, the mounting rod frame and the related structures carried by it to adjust the angle to the top of the first self-cleaning conveyor belt structure 2. Then, the lateral advance and retreat guide rail 83 is used to drive the vertical slot slide 84 and the structure carried by it to perform lateral displacement adjustment, so that it can respond in real time according to the shape of the material. When the slide is adjusted to the preset position, the grabbing adjustment cylinder 86 is started, and then the grabbing adjustment cylinder 86 is used to drive the two-way drive adjustment The joint seat 87 and the flexible grabbing structure 88 perform a grabbing operation on the material, and then form an angle steering so that the grabbed material is placed in the material placement rack 6, and then the intermittent brushless control motor 31 is used to drive the split gear set shaft structure 32 to perform the operation, and the transmission ratio of the gear set in the split gear set shaft structure 32 is converted to divide the power into two outputs, the side end and the top end, and the side end output drives the belt structure 33 to rotate, so that when the belt structure 33 rotates, the synchronous shaft 34 is synchronously driven to rotate, so that the synchronous adjustment component 10 forms a drive adjustment, and the setting of the stabilizing hoop 35 is convenient for ensuring the stability of the synchronous shaft 34 during rotation, and the driving force output from the top end can be used to make the steering placement disk 4 rotate evenly , driving the materials in the multi-group material placement rack 6 to form adjustment, so as to facilitate subsequent inspection and detection, and the setting of the dust control structure 5 is convenient to prevent dust from entering the surface of the materials placed in the multi-group material placement rack 6, causing deterioration or pollution, and ensuring the accuracy of subsequent detection data. Then, when the synchronous shaft 34 rotates, it can drive the gear synchronous wheel 105 to form synchronous rotation, and then use the meshing connection between the gear synchronous wheel 105 and the tooth bar 104 to make the tooth bar 104 slide and adjust inside the vertical rail 103, so that the biological quantum detection sensor detection end 106 installed on the top of the tooth bar 104 is raised and lowered, which can form a synchronous follow-up operation according to the rotation and pretreatment rate of the material. Secondly, through the horizontal side rail 111 and the displacement positioning With the cooperation of the adjustment seat 112 and the connecting wear-resistant mounting piece 113, the related structure carried by the connecting wear-resistant mounting piece 113 can be adjusted in displacement, so that every time when the material reaches the top of the micro-extraction pump tube 1190, the micro-extraction pump tube 1190 extracts part of the material, and conveys it to the processing chamber 115 through the feed guide chamber 1191, and starts the servo motor 114, and uses the servo motor 114 to drive the crushing and stirring plate group 116 to work, and perform preliminary crushing and mixing treatment on the extracted part of the material, and then open the control plate valve, and the crushed and mixed material enters the dissolution and filtration reaction end 117 to realize the addition and mixing of the solvent, as well as the filtration of impurities, to ensure the purity and preparation state of the test sample.The extraction tube 118, in cooperation with the micro-pneumatic conveying structure 119, is responsible for extracting the reacted material in the dissolution and filtration reaction end 117, and sending it into the material detection chamber 1192 inside the feed guide chamber 1191. Then, a detection core end is installed at the bottom of the material detection chamber 1192 for directly contacting and detecting the material, so that the biological quantum detection sensor detection end 106 can pass through the detection core end and penetrate into the material detection chamber 1192, perform trace detection on the material therein, and feed back the data to the detection data display screen 9 through a direct interface. After each detection, in addition, the discharge end installed on the side of the material detection chamber 1192 is used to facilitate the discharge of materials or waste after detection to avoid affecting the next detection. At the same time, with the cooperation of the positioning calibration sensor 72, the pneumatic guide rod 74 pushes the adjustment detection frame 76 and the related structures it carries to slide and adjust along the convex and sliding side column 75 to achieve position adjustment, so that after reaching the preset position, the output wheel belt structure 77 is used to drive the rotating control member 792 to move in a semi-arc. The semi-rotating groove 794 on the surface of the control plate 791 forms an arc track inside to rotate, and then when rotating, it drives the detection mounting frame plate 793 to form different sections of detection position adjustment according to the detection sequence of the three groups of detection ends 796, under the joint adjustment of the two groups of horizontal sliding rails 79 and the two groups of longitudinal sliding rails 790. After the position is adjusted, the three groups of micro-detection lifting and pushing cylinders 795 are regulated according to the signal of the external controller, so that the side slider 797 drives and controls the three groups of detection ends 796 (mass spectrometry detection end, spectrum analysis detection end and microbial detection end) to slide and rise along the track on the surface of the detection mounting frame plate 793, so as to accurately push the three groups of detection ends 796 to the material position in turn, and perform detection and inspection operations on them. After each group of detection ends 796 contacts the material, it uses (such as mass spectrometry, spectrum analysis or microbial identification) to collect data, and transmits these data back to the side circuit board 78 for processing. After rapid analysis, the results can be synchronously fed back to the detection data display screen 9 through a direct interface.

[0046] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A food machinery and chemical inspection and testing equipment, characterized by: The invention comprises a mounting base (1), a rotation adjustment component (3) is mounted on the top of the mounting base (1), a synchronization adjustment component (10) is mounted on the side end of the rotation adjustment component (3), a detection data quantity display screen (9) is mounted on the side end surface of the top wall of the mounting base (1), and a pre-processing detection component (11) is fastened to the side end of the rod body of the detection data quantity display screen (9); The synchronous adjustment component (10) comprises a bottom groove plate (101), the bottom groove plate (101) is fastened to the table surface of the mounting base (1), a lifting groove (102) is formed through the surface of the bottom groove plate (101), the lifting groove (102) synchronously penetrates the surface of the mounting base (1), a vertical rail (103) is fastened to the top wall surface of the bottom groove plate (101), a toothed bar (104) is slidably connected inside the vertical rail (103), a side end of the toothed bar (104) is meshingly connected to a toothed synchronous rotating wheel (105), and a biological quantum detection sensor detection end (106) is installed on the top of the toothed bar (104); The pre-treatment detection component (11) comprises a transverse side rail (111), the transverse side rail (111) being mounted on the side end of a rod body of a detection data display screen (9), the side end of the transverse side rail (111) being slidably connected to a displacement positioning adjustment seat (112), the side end of the displacement positioning adjustment seat (112) being fastened to a connecting wear-resistant mounting member (113), the side end of the connecting wear-resistant mounting member (113) being mounted with a processing chamber (115), the side end of the processing chamber (115) being connected to a feed guide chamber (1191), the top of the feed guide chamber (1191) being connected to a A micro-extraction pump tube (1190) is provided on the side of the processing chamber (115) and is connected to a servo motor (114); the output end of the servo motor (114) is connected to a crushing and stirring plate group (116); a dissolving and filtering reaction end (117) is installed inside the side end of the processing chamber (115); the crushing and stirring plate group (116) and the dissolving and filtering reaction end (117) are connected via a control plate valve; the side end of the dissolving and filtering reaction end (117) is connected to a pumping tube (118); and a micro-pneumatic conveying structure (119) is installed outside the side end of the pumping tube (118).

2. The food mechanical and chemical inspection and testing equipment according to claim 1 is characterized by: The side end of the material extraction tube (118) passes through the interior of the feed guide chamber (1191) and is connected to the material detection chamber (1192). A detection core end is installed at the bottom of the material detection chamber (1192), and a discharge end is installed at the side of the material detection chamber (1192). The biological quantum detection sensor detection end (106) enters the material detection chamber (1192) from the detection core end to perform trace detection of the internal material.

3. The food mechanical and chemical inspection and testing equipment according to claim 1 is characterized by: The rotation adjustment component (3) comprises a driving intermittent brushless control motor (31), the output end of the driving intermittent brushless control motor (31) being connected to a split gear set shaft structure (32), the split gear set shaft structure (32) forming two sets of driving torques, a side end output and a top end output, the driving torque output at the side end being connected to a belt structure (33).

4. The food mechanical and chemical inspection and testing equipment according to claim 3 is characterized by: The side end of the wheel belt structure (33) is connected to a synchronous rotating shaft (34), and the outer circumferential side of the synchronous rotating shaft (34) is sleeved with a stabilizing hoop (35), and the side end of the stabilizing hoop (35) is tightly connected to the side support leg rod side of the transverse side rail (111), and the gear synchronous rotating wheel (105) is sleeved and installed on the outside of the side end of the synchronous rotating shaft (34).

5. The food mechanical and chemical inspection and testing equipment according to claim 3 is characterized by: The driving torque output from the top end is connected to a steering placement plate (4), a dust control structure (5) is installed at the top center end of the steering placement plate (4), and a plurality of material placement racks (6) are installed in equal parts around the circumference of the steering placement plate (4).

6. The food mechanical and chemical inspection and testing equipment according to claim 1 is characterized in that: An adjustable grabbing assembly (8) is rotatably connected to the surface of the mounting base (1), and a first self-cleaning conveyor belt structure (2) and a second self-cleaning conveyor belt structure (12) are respectively fastened to the sides of the mounting base (1), wherein the first self-cleaning conveyor belt structure (2) and the second self-cleaning conveyor belt structure (12) are respectively used for conveying materials and outputting materials, and a multi-detection assembly (7) is fastened to the other side surface of the mounting base (1).

7. The food mechanical and chemical inspection and testing equipment according to claim 6, characterized in that: The adjusting grab assembly (8) comprises a bottom rotation control motor (81), the bottom rotation control motor (81) being mounted in the internal space of the mounting base (1), the top output end of the bottom rotation control motor (81) being connected to a rotation adjustment disk (82), the rotation adjustment disk (82) being located on the surface of the mounting base (1) for rotation adjustment, the top of the rotation adjustment disk (82) being fastened to a mounting rod frame, the side end surface of the mounting rod frame being mounted to a transverse advance and retreat guide rail (83), and the side of the transverse advance and retreat guide rail (83) being slidably connected to a vertical groove slide seat (84).

8. The food mechanical and chemical inspection and testing equipment according to claim 7 is characterized by: A progressive cylinder (85) is installed at the top of the side end of the vertical slot slide (84), and a grabbing adjustment cylinder (86) is connected to the bottom output end of the progressive cylinder (85). The progressive cylinder (85) drives the grabbing adjustment cylinder (86) to slide and adjust in the side wall slide groove of the vertical slot slide (84). The bottom of the grabbing adjustment cylinder (86) is connected to a bidirectional drive adjustment seat (87), and a flexible grabbing structure (88) is installed at the bottom of the bidirectional drive adjustment seat (87).

9. The food mechanical and chemical inspection and testing equipment according to claim 6, characterized in that: The multi-detection assembly (7) comprises a mounting side frame (71), the bottom end of the mounting side frame (71) is fastenedly connected to a support reinforcement frame (73), a positioning calibration sensor (72) is mounted on the side of the mounting side frame (71), a pneumatic guide rod (74) is mounted on the top side end of the support reinforcement frame (73), a convex sliding side column (75) is arranged on the frame surface of the mounting side frame (71), the top of the convex sliding side column (75) is slidably connected to an adjustment detection frame (76), and the side end of the adjustment detection frame (76) is fastenedly connected to the side of the pneumatic guide rod (74).

10. The food mechanical and chemical inspection and testing equipment according to claim 9, characterized in that: An output wheel belt structure (77) is installed at the inner side end of the adjustment detection frame (76); the top output end of the output wheel belt structure (77) is connected to a side circuit board (78); two groups of transverse sliding rails (79) are installed at the top and bottom of the side end of the side circuit board (78); the side ends of the two groups of transverse sliding rails (79) are slidably connected to two groups of longitudinal sliding rails (790); the top output end of the output wheel belt structure (77) passes through the side circuit board (78) to be connected to a semi-arc regulating plate (791); a semi-rotating groove (794) is provided on the surface of the semi-arc regulating plate (791); and the center end of the semi-arc regulating plate (791) passes through a A rotation control member (792) is connected to a detection mounting frame (793) through the output drive of an output wheel structure (77); three groups of micro-detection lifting and pushing cylinders (795) are installed on the side of the detection mounting frame (793); the bottom ends of the three groups of micro-detection lifting and pushing cylinders (795) are fastened with side sliders (797); the side sliders (797) slide on the surface of the detection mounting frame (793); the bottom of the side sliders (797) are connected to three groups of detection ends (796); the three groups of detection ends (796) are respectively set as a mass spectrometry detection end, a spectrum analysis detection end and a microbial detection end.

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