Processing equipment and preparation method of freeze-dried candies
Through the processing equipment and preparation methods of freeze-dried candy, the problems of additive residues, sugarcane active substance loss and material output in the preparation of freeze-dried candy are solved, and the quality and efficacy of candy molding are improved, as well as the improvement of production efficiency and automation are improved.
Patent Information
- Application Number
- CN202411994285.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-31
- Publication Date
- 2025-03-25
AI Technical Summary
There are problems in the existing lyophilized candy preparation process such as additive residues, loss of sugarcane active substances and unstable material output, which affects the quality and production efficiency of candy.
A processing equipment and preparation method for freeze-dried candy is adopted, including raw material preparation, mixing and mixing, ultra-low temperature and high-pressure ice extraction, ice drop molding and vacuum lyophilization steps, and the convenient output of materials and efficient molding of candy is achieved through the drip molding equipment.
It improves the quality and effectiveness of candy molding, reduces material waste and production costs, and improves the stability and automation of the work process.
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Figure CN119679033A_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the technical field of candy preparation, and in particular relates to processing equipment and a preparation method of freeze-dried candy. Background Art
[0002] Freeze-dried candy is a kind of candy made by freeze-drying technology, which is done by quickly freezing the candy at low temperature and then removing the moisture in a vacuum environment so that the candy maintains a crisp taste and original nutritional ingredients.
[0003] In the prior art, the manufacturing process of freeze-dried candy mainly includes two steps: pre-freezing and vacuum drying. First, the candy is frozen to below the freezing point, and then dried in a vacuum environment, so that the water is directly sublimated from the solid state to the gaseous state, thereby removing the water in the candy and achieving the purpose of drying. This process not only retains the nutrition and flavor of the candy, but also gives it a unique crisp taste. In the preparation process of candy, it is often necessary to add white sugar to make the candy first, and the preparation of white sugar mostly adopts the existing conventional two-step method, but the above-mentioned processing technology cannot produce brown sugar, so domestic sugar production enterprises usually use a one-step production method, and no raw sugar is produced during the production process. Instead, the squeezed cane juice is processed through multiple processes such as sulfite purification (or purification by other methods), pre-ashing and heating processes, sulfur fumigation neutralization of cane juice, sedimentation of cane juice, and filtration of cane juice. After the purification process, the cane juice is concentrated and crystallized to become white sugar, and then white sugar or other raw materials are used to add ingredients with certain effects to prepare candy with certain effects.
[0004] When using the above-mentioned white sugar to prepare candies, there are certain disadvantages: for example, there will be residual additives in the traditional sugar-making process, which will affect the molding of white sugar, resulting in poor quality of the candies prepared later, and when using sugarcane to prepare white sugar, certain active substances in the sugarcane will be destroyed due to high temperature or certain additives, affecting the efficacy of the candies. In addition, for the production and preparation process of freeze-dried candies, when the material is transformed from liquid to solid candy, it is necessary to shape the ice drops. In this process, after the material is placed in the mold, the conveyor belt will be used to output the mold and the material to the outside. The placement of the mold and the injection of the material will be affected by the conveying speed of the conveyor belt, which may cause the material and the mold to be unstable, resulting in material waste, affecting the work progress, and failing to meet the production and processing needs. Summary of the invention
[0005] In view of the technical problems existing in the above-mentioned candy preparation process, the present invention proposes a freeze-dried candy processing equipment and preparation method with reasonable design, simple structure, convenient processing, and the ability to realize convenient preparation of candies, ensure the quality of candy molding, and improve its efficacy. At the same time, it completes the convenient output of materials into the mold, improves the work progress, and reduces the possibility of waste, effectively meeting the use requirements.
[0006] In order to achieve the above object, the technical solution adopted by the present invention is a processing device and a preparation method of freeze-dried candy, comprising the following preparation steps:
[0007] S1: Raw material preparation step: freshly squeezed sugarcane juice or concentrated sugarcane juice and (or) pears and apples are used as main raw materials, and freeze-dried powder of one or more extracts of monk fruit, mint, licorice, Sterculia lychnophora, honeysuckle, chrysanthemum, tangerine peel, and honey is added;
[0008] S1.1: Mix the raw materials such as mint, licorice, Sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel in a ratio of 1:4-10, boil for 2-5 hours, and then pass through an 80-mesh sieve to obtain the sieve residue①;
[0009] S1.2: The material on the sieve in S1.1 is mixed in a ratio of material to water of 1:3-7, boiled for 2-3 hours, and then passed through an 80-mesh sieve to obtain the material under the sieve②;
[0010] S1.3: Mix the sieve undersize ① and the sieve undersize ②, place them at a temperature of 80° C. and concentrate them to a concentrated solution with a mass fraction of 25%, and then freeze-dry the concentrated solution and honey at an environment not higher than 40° C. to prepare a concentrated powder;
[0011] S1.4: Wash the fruits such as apples or pears, and then steam and cook them to make pulp for later use;
[0012] S1.5: Peel the sugarcane and squeeze the juice, then pass it through a 100-mesh sieve for later use;
[0013] S2: blending step: mixing the slurry in step S1.4, the sugarcane juice in step S1.5, and one or more freeze-dried concentrated juices of mint, licorice, Sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel, and honey in proportion to obtain a blended material;
[0014] S3: Ultra-low temperature and high pressure ice extraction step: placing the prepared material into an ultra-low temperature and high pressure device for ice extraction to obtain ice-extracted material;
[0015] S4: ice drop forming step: putting the ice extract material into the drop forming equipment while keeping it in an icy state for forming;
[0016] S5: Vacuum freeze-drying step: the candy material prepared by the drip molding equipment is placed in the freeze-drying chamber to sublimate and dry under vacuum to form freeze-dried candy.
[0017] Preferably, in step S1.5: the sugarcane juice after juicing and screening is concentrated to a concentrated liquid with a mass fraction of 25-40% at 80°C.
[0018] Preferably, the drop molding equipment comprises two support frames arranged side by side, a lifting and adjusting assembly is arranged in the support frames, a material outlet driving mechanism is arranged above the lifting and adjusting assembly on one side, a feeding assembly is arranged between the lifting and adjusting assembly and the material outlet driving mechanism on the other side, the feeding assembly comprises a material storage bin, a material unloading mechanism and an on-off mechanism arranged in sequence from top to bottom, a loading frame which rotates with the operation of the lifting and adjusting assembly is arranged between the two support frames, a key-shaped mold carrier is arranged on the loading frame, a plurality of mold frames are evenly arranged in the mold carrier, a T-shaped rod is arranged on the mold carrier, three T-shaped rods form a group and are set between the mold frames, a freezing assembly is arranged on the support frame outside the loading frame, the freezing assembly comprises a refrigeration plate designed in an arc shape, and a pick-up and placement mechanism which integrates the functions of picking up and placing the mold carrier and the mold carrier and material outlet is arranged below the loading frame.
[0019] Preferably, the lifting and adjusting assembly includes an I-shaped frame, lifting rods are arranged on both sides of the I-shaped frame, a lifting plate is arranged above the lifting rods, a vertical rod is arranged above the lifting plate and is connected to the bottom of the material discharge driving mechanism, triangular plates are arranged on both sides of the lifting plate, shafts are arranged in the two triangular plates, and a connecting frame with an 8-shaped design is arranged outside the shaft, an eccentric wheel for rotating relative to the connecting frame is arranged below, a rotating rod is arranged in the eccentric wheel, and a transmission rod is arranged between the rotating rods in the two lifting and adjusting assemblies.
[0020] Preferably, the material export drive mechanism includes a shell, an active rod is arranged in the shell, a driving motor is arranged on the outside of the active rod, a driven rod is arranged on one side of the active rod, a driving gear is arranged on the active rod, a driven gear is arranged on the driven rod, a driving rod is arranged below the shell, a driving gear is arranged on the driving rod, a telescopic cylinder is arranged on one side of the shell, a driving rack is arranged at the output end of the telescopic cylinder, a placement rack designed in a concave shape is arranged above the driving rack, a pulley is arranged in the placement rack, and it abuts against the top of the driving slide.
[0021] Preferably, the unloading mechanism comprises a containing cover connected to the bottom of the material storage bin and designed in a key shape, a mounting frame designed in a key shape is arranged in the containing cover, a connecting rod is arranged in the mounting frame and is respectively connected to the active rod and the driven rod, a stirring rod is arranged on the connecting rod located between two adjacent mounting frames, and the on-off mechanism comprises a connecting shell connected to the containing cover and designed in a T-shaped cross section, a through groove designed in a prism shape is opened at the geometric center of the connecting shell, and its opening is closed from top to bottom, a on-off rod is arranged in the connecting shell and is connected to the driving rod, a circular hole is opened in the on-off rod corresponding to the through groove, a guide cover designed in a conical table shape is arranged below the connecting shell, a conduit corresponding to the circular hole is arranged in the guide cover, and a feeding plate designed in a three-pointed star shape is arranged in the conduit.
[0022] Preferably, the material carrier comprises a turntable connected to the transmission rod, a plurality of support rods are evenly distributed on the outer side of the turntable, a rotating rod is arranged on the support rod between two of the turntables, and a support plate for supporting the mold carrier is arranged under the two rotating rods.
[0023] Preferably, the pick-and-place mechanism includes a placement plate, a longitudinal moving component is arranged above the placement plate, the longitudinal moving component includes two longitudinal slides arranged side by side, a longitudinal moving plate is arranged on the longitudinal slide, a concave plate designed in a concave shape is arranged above the longitudinal moving plate, a transverse slide is arranged inside the concave plate, a transverse moving plate is arranged on the transverse slide, a vertical driving cylinder is arranged on one side of the transverse moving plate, a pick-and-place component is arranged at the output end of the vertical driving cylinder, and a lifting mechanism is arranged on the placement plate located between the two groups of the pick-and-place components.
[0024] Preferably, the picking and placing assembly includes a concave frame designed in a concave shape, a sliding rod is provided on the concave frame, a slider is provided on the sliding rod, a rod carrier frame is provided on one side of the slider, a finger cylinder is provided on the rod carrier frame, a splint is provided at the output end of the finger cylinder, a sliding assembly is provided on the upper rear side of the concave frame, a movable trapezoidal plate is provided on the sliding assembly located on the lower side of the sliding rod, a longitudinal driving cylinder is provided on the movable trapezoidal plate, a longitudinal sliding groove is provided in the movable trapezoidal plate, a Z-shaped groove is provided in the movable trapezoidal plates located on both sides of the longitudinal sliding groove, and a limiting rod is provided on the slider corresponding to the longitudinal sliding groove and the Z-shaped groove.
[0025] Preferably, the ejection mechanism includes a vertical frame, a limiting wheel is arranged in the vertical frame, a longitudinal rack is arranged on one side of the limiting wheel, an extension rod is arranged on one side of the longitudinal rack and is connected to the longitudinal movement plate, an L-shaped plate is arranged above the vertical frame, an extension frame with an L-shaped design is arranged on the L-shaped plate, a screw is arranged in the extension frame, and the lower end of the screw is passed through the L-shaped plate, a mating gear is arranged below the screw, a top plate with an F-shaped design is arranged on the upper side of the screw, and a ejection wheel is arranged in the top plate.
[0026] Compared with the prior art, the advantages and positive effects of the present invention are:
[0027] 1. The processing equipment and preparation method of freeze-dried candy provided by the present invention optimize the preparation process of candy, realize convenient preparation thereof, ensure the molding quality of candy, and improve its efficacy. At the same time, the established drop molding equipment is used, which integrates the functions of temporary storage of materials, quantitative export, sequential acceptance and convenient output, completes the delivery of materials into the mold, improves the working process, reduces the possibility of waste, and effectively meets the use requirements. BRIEF DESCRIPTION OF THE DRAWINGS
[0028] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for use in the description of the embodiments. Obviously, the drawings described below are some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.
[0029] Figure 1 It is a structural schematic diagram of a freeze-dried candy processing equipment;
[0030] Figure 2 The present invention is a structural front view of a freeze-dried candy processing equipment;
[0031] Figure 3 The present invention is a structural side view of a freeze-dried candy processing equipment;
[0032] Figure 4 It is a partial structural schematic diagram of a freeze-dried candy processing equipment;
[0033] Figure 5 It is a schematic diagram of part of the internal structure of the feeding component;
[0034] Figure 6 It is a schematic diagram of the internal structure of the material export drive mechanism;
[0035] Figure 7 It is a structural schematic diagram of the pick-and-place mechanism;
[0036] Figure 8 It is a schematic diagram of the structure of the pick-and-place assembly;
[0037] Fig. 9 A structural schematic diagram of another perspective of the pick-and-place component;
[0038] Fig.10 It is a structural schematic diagram of the ejection mechanism;
[0039] In the above figures, 1, support frame; 2, lifting adjustment assembly; 21, I-beam frame; 22, lifting rod; 23, lifting plate; 24, vertical rod; 25, triangular plate; 26, shaft; 27, connecting frame; 28, eccentric wheel; 29, rotating rod; 210, transmission rod; 3, material discharge drive mechanism; 31, housing; 32, active rod; 33, driven rod; 34, active gear; 35, driven gear; 36, driving rod; 37, driving rack ; 38, placement rack; 39, pulley; 310, driving gear; 311, telescopic cylinder; 4, feed bin; 5, unloading mechanism; 51, containing cover; 52, placement rack; 53, connecting rod; 54, stirring rod; 6, on-off mechanism; 61, connecting shell; 611, through groove; 62, on-off rod; 621, round hole; 63, guide cover; 64, guide tube; 65, feeding plate; 7, loading rack; 71, turntable; 72, support rod; 73, turning rod; 74, support plate; 8, mold carrier plate; 81, mold frame; 82, T-bar; 9, cooling plate; 10, pick-and-place mechanism; 11, placement plate; 12, longitudinal moving assembly; 121, longitudinal slide bar; 122, longitudinal moving plate; 123, concave plate; 124, transverse slide bar; 125, transverse moving plate; 13, vertical drive cylinder; 14, pick-and-place assembly; 141, concave frame; 142, slide bar; 143, slider; 144, rod carrier frame; 145, finger air Cylinder; 146, clamping plate; 147, sliding assembly; 148, movable trapezoidal plate; 1481, longitudinal slide groove; 1482, Z-shaped groove; 149, limiting rod; 1410, longitudinal driving cylinder; 15, ejecting mechanism; 151, vertical frame; 152, limiting wheel; 153, longitudinal rack; 154, extension rod; 155, L-shaped plate; 156, extension frame; 157, screw; 158, matching gear; 159, ejector plate; 1510, ejector wheel. DETAILED DESCRIPTION
[0040] In order to more clearly understand the above-mentioned purpose, features and advantages of the present invention, the present invention is further described below in conjunction with the accompanying drawings and embodiments. It should be noted that the embodiments of the present application and the features in the embodiments can be combined with each other without conflict.
[0041] In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways than those described herein. Therefore, the present invention is not limited to the specific embodiments of the following disclosure.
[0042] Embodiment 1, a method for preparing freeze-dried candy, comprising the following preparation steps:
[0043] S1: Raw material preparation step: freshly squeezed sugarcane juice or concentrated sugarcane juice and (or) pears and apples are used as main raw materials, and freeze-dried powder of one or more extracts of monk fruit, mint, licorice, Sterculia lychnophora, honeysuckle, chrysanthemum, tangerine peel, and honey is added;
[0044] S1.1: Mix the raw materials such as mint, licorice, Sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel in a ratio of 1:4-10, boil for 2-5 hours, and then pass through an 80-mesh sieve to obtain the sieve residue①;
[0045] S1.2: The material on the sieve in S1.1 is mixed in a ratio of material to water of 1:3-7, boiled for 2-3 hours, and then passed through an 80-mesh sieve to obtain the material under the sieve②;
[0046] S1.3: Mix the sieve undersize ① and the sieve undersize ②, place them at a temperature of 80° C. and concentrate them to a concentrated solution with a mass fraction of 25%, and then freeze-dry the concentrated solution and honey at an environment not higher than 40° C. to prepare a concentrated powder;
[0047] S1.4: Wash the fruits such as apples or pears, and then steam and cook them to make pulp for later use;
[0048] S1.5: Peel the sugarcane and squeeze the juice, then pass it through a 100-mesh sieve for later use;
[0049] S2: blending step: mixing the slurry in step S1.4, the sugarcane juice in step S1.5, and one or more freeze-dried concentrated juices of mint, licorice, Sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel, and honey in proportion to obtain a blended material;
[0050] In step S2, a percentage table of the addition ratio of each material is provided, as shown in Tables 1 and 2 below:
[0051]
[0052] Table 1
[0053]
[0054] Table 2
[0055] S3: Ultra-low temperature and high pressure ice extraction step: placing the prepared material into an ultra-low temperature and high pressure device for ice extraction to obtain ice-extracted material;
[0056] S4: ice drop forming step: putting the ice extract material into the drop forming equipment while keeping it in an icy state for forming;
[0057] S5: vacuum freeze-drying step: placing the candy material formed by the drip molding equipment into a freeze-drying chamber, sublimating and drying it under vacuum to form freeze-dried candy;
[0058] In order to ensure the material mixing effect, in step S1.5, the sugarcane juice after juicing and screening is concentrated to a concentrate with a mass fraction of 25-40% at 80°C. The material addition amount of the concentrate is equal to that of the sugarcane juice and can be freely selected according to different processing environments.
[0059] Embodiment 2:
[0060] S1: Take 40 parts of apples, 20 parts of pears, 33.5 parts of freshly squeezed sugarcane juice, 1 part of mint concentrate freeze-dried powder, 2 parts of sterculia lychnophora concentrate freeze-dried powder, 2 parts of licorice concentrate freeze-dried powder, and 1.5 parts of honeysuckle concentrate freeze-dried powder.
[0061] S1.1: Add 5 times water to mint, Sterculia lychnophora, Licorice and Honeysuckle respectively, decoct for 3 hours, pass through 80 mesh sieve, and obtain the sieve residue①;
[0062] S1.2: Add 3 times the amount of water to the sieve material and boil for 2 hours, then pass through an 80-mesh sieve to obtain the sieve material②;
[0063] S1.3: Mix the undersize ① and the undersize ②, concentrate at 80℃ to a mass fraction of about 25%, and rapidly freeze the concentrate at -30℃ for 3h, so that the concentrate and honey are freeze-dried into concentrated powder at no higher than 40℃;
[0064] S1.4: Wash apples and pears, cut into 1 / 4 pieces, and steam at 105°C for 10 min to make pulp;
[0065] S1.5: Wash the sugarcane, peel it, squeeze the juice, pass it through a 100-mesh sieve, remove the material on the sieve, and obtain freshly squeezed sugarcane juice;
[0066] S2: Mix 40 parts of apples, 20 parts of pears, 33.5 parts of freshly squeezed sugarcane juice, 1 part of mint concentrate freeze-dried powder, 2 parts of Sterculia lychnophora concentrate freeze-dried powder, 2 parts of liquorice concentrate freeze-dried powder, and 1.5 parts of honeysuckle concentrate freeze-dried powder, and homogenize for 20 minutes to obtain a mixed slurry;
[0067] S2: placing the prepared materials into an ultra-low temperature and high pressure device for ice extraction;
[0068] S3: The material after ice extraction is put into a drip molding device for molding while being kept in an icy state;
[0069] S4: The formed candies are sublimated and dried under vacuum to become freeze-dried candies.
[0070] Embodiment 3:
[0071] S1: Take 25 parts of apples, 30 parts of pears, 27 parts of freshly squeezed sugarcane juice, 2 parts of mint concentrate freeze-dried powder, 3 parts of sterculia lychnophora concentrate freeze-dried powder, 2 parts of licorice concentrate freeze-dried powder, 3 parts of honeysuckle concentrate freeze-dried powder, 3 parts of chrysanthemum concentrate freeze-dried powder, 2 parts of tangerine peel concentrate freeze-dried powder, and 3 parts of monk fruit concentrate freeze-dried powder.
[0072] S1.1: Add 7 times water to mint, licorice, Sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel respectively, decoct for 4 hours, pass through 80 mesh sieve, and obtain the sieve residue①;
[0073] S1.2: Add 4 times the amount of water to the sieve material and boil for 3 hours, then pass through an 80-mesh sieve to obtain the sieve material②;
[0074] S1.3: Mix the undersize ① and the undersize ②, concentrate at 80℃ to a mass fraction of about 30%, and rapidly freeze the concentrate at -30℃ for 3h, so that the concentrate and honey are freeze-dried into concentrated powder at no higher than 40℃;
[0075] S1.4: Wash apples and pears, cut into 1 / 4 pieces, and steam at 105℃ for 10 minutes to make pulp;
[0076] S1.5: Wash the sugarcane, peel it, squeeze the juice, pass it through a 100-mesh sieve, remove the material on the sieve, and obtain freshly squeezed sugarcane juice;
[0077] S2: Mix 25 parts of apples, 30 parts of pears, 27 parts of freshly squeezed sugarcane juice, 2 parts of mint concentrate freeze-dried powder, 3 parts of Sterculia lychnophora concentrate freeze-dried powder, 2 parts of licorice concentrate freeze-dried powder, 3 parts of honeysuckle concentrate freeze-dried powder, 3 parts of chrysanthemum concentrate freeze-dried powder, 2 parts of tangerine peel concentrate freeze-dried powder, and 3 parts of monk fruit concentrate freeze-dried powder, and homogenize for 20 minutes to obtain a mixed slurry;
[0078] S3: placing the prepared materials into an ultra-low temperature and high pressure device for ice extraction;
[0079] S4: the material after ice extraction is put into a drip molding device for molding while being kept in an ice state;
[0080] S5: The formed candies are sublimated and dried under vacuum to become freeze-dried candies.
[0081] Embodiment 4:
[0082] S1: Take 30 parts of apples, 23 parts of pears, 30 parts of freshly squeezed sugarcane juice, 2 parts of mint concentrate freeze-dried powder, 2 parts of sterculia lychnophora concentrate freeze-dried powder, 2 parts of licorice concentrate freeze-dried powder, 1.5 parts of honeysuckle concentrate freeze-dried powder, 3 parts of chrysanthemum concentrate freeze-dried powder, 2 parts of tangerine peel concentrate freeze-dried powder, 3.5 parts of monk fruit concentrate freeze-dried powder, and 2 parts of honey freeze-dried powder.
[0083] S1.1: Add 7 times water to mint, licorice, Sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel respectively, decoct for 4 hours, pass through 80 mesh sieve, and obtain the sieve residue①;
[0084] S1.2: Add 4 times the amount of water to the sieve material and boil for 3 hours, then pass through an 80-mesh sieve to obtain the sieve material②;
[0085] S1.3: Mix the undersize ① and the undersize ②, concentrate at 80℃ to a mass fraction of about 30%, and rapidly freeze the concentrate at -30℃ for 3h, so that the concentrate and honey are freeze-dried into concentrated powder at no higher than 40℃;
[0086] S1.4: Wash apples and pears, cut into 1 / 4 pieces, and steam at 105℃ for 10 minutes to make pulp;
[0087] S1.5: Wash the sugarcane, peel it, squeeze the juice, pass it through a 100-mesh sieve, remove the material on the sieve, and obtain freshly squeezed sugarcane juice;
[0088] S2: Mix 30 parts of apples, 23 parts of pears, 30 parts of freshly squeezed sugarcane juice, 2 parts of mint concentrate freeze-dried powder, 2 parts of Sterculia lychnophora concentrate freeze-dried powder, 2 parts of liquorice concentrate freeze-dried powder, 1.5 parts of honeysuckle concentrate freeze-dried powder, 3 parts of chrysanthemum concentrate freeze-dried powder, 2 parts of tangerine peel concentrate freeze-dried powder, 3.5 parts of monk fruit concentrate freeze-dried powder, and 2 parts of honey freeze-dried powder, and homogenize for 20 minutes to obtain a mixed slurry;
[0089] S3: placing the prepared materials into an ultra-low temperature and high pressure device for ice extraction;
[0090] S4: the material after ice extraction is put into a drip molding device for molding while being kept in an ice state;
[0091] S5: The formed candies are sublimated and dried under vacuum to become freeze-dried candies;
[0092] The candy prepared by the process of freeze-dried candy provided by the present invention has the effect of clearing the throat and moistening the throat. The processing technology abandons the traditional sugar-making process, eliminates the residual additives in the sugar-making process, retains the nutritional components of the original flavor of sugarcane juice, and adds one or more freeze-dried concentrated powders of apple, pear and mint, honey, licorice, sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel. The freeze-dried candy is prepared by low-temperature freeze-drying technology. The candy is delicious and does not cause internal heat, melts in the mouth, and has the effects of clearing away heat, promoting body fluid, and clearing heat and relieving throat.
[0093] Sugarcane has the effect of curing lung heat and cough, clearing away heat and detoxifying, but the raw sugar no longer has this effect. This may be related to the destruction of certain active substances in sugarcane by high temperature or certain additives. Freeze-drying technology can well retain this effect of sugarcane. At the same time, apples and pears have good effects of clearing heat and promoting salivation. Honey, mint, licorice, sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel all have the effect of clearing the throat and moisturizing the throat. Freeze-dried candy can be prepared through reasonable proportions.
[0094] The candy prepared as described above can make the candy melt in the mouth, clear the throat more quickly and effectively, ensure the throat is refreshed, delicious and not irritating, and when preparing the freeze-dried candy, apples and pears are also used as main ingredients, which reduces the intake of sugar and prevents obesity caused by excessive sugar intake.
[0095] In order to realize the dripping processing and molding preparation of materials, Figures 1 to 10As shown, a freeze-dried candy processing device is provided. Based on the above-mentioned candy preparation process, the candy drip molding process is matched with the processing device provided in this embodiment, especially to ensure the candy production and processing process. Of course, this processing device needs to be placed in a sterile and low-temperature production environment for use. The specific description is as follows: the drip molding device includes two support frames 1 arranged side by side to ensure the stability of the device and equipment and to ensure the smooth development of production and processing work. A lifting and adjusting component 2 is arranged in the support frame 1. The lifting and adjusting component 2 is set to drive the feeding component to be adjusted in the vertical direction, so as to conveniently control the gap distance between the feeding component and the mold carrier plate 8 to ensure the smooth output of the material. In order to further improve the rationality of the device, a material outlet drive mechanism 3 is arranged above the lifting and adjusting component 2 on one side, which mainly provides driving power for some mechanisms to ensure the smooth development of the corresponding processing work. A feeding component is arranged between the lifting and adjusting component 2 on the other side and the material outlet drive mechanism 3. Further, the feeding component includes a material storage bin, a material discharge mechanism 5 and a switch machine arranged in sequence from top to bottom. The material storage bin is set up in a cone shape to receive the material after cold extraction. Of course, the material storage bin can also be set up with a freezing function according to actual use requirements to ensure that the material is maintained in its state. The material discharge mechanism 5 can stir the material and improve its falling process. The on-off mechanism 6 is mainly used to control the on-off situation of the material falling process, which brings convenient conditions for material output or truncation. A loading rack 7 that rotates with the operation of the lifting and adjusting component 2 is arranged between the two support frames 1. A mold carrier plate 8 designed in a key shape is arranged on the loading rack 7. The mold carrier plate 8 has a A plurality of mold frames 81 are evenly arranged, and a plurality of holes and grooves matching the mold frames 81 are provided in the mold carrier plate 8, so that the mold frames 81 can be placed therein conveniently, and convenience is provided for subsequent demoulding. A T-shaped rod 82 is arranged on the mold carrier plate 8, and three T-shaped rods 82 form a group and are arranged between the mold frames 81, wherein the function of the T-shaped rod 82 is to facilitate the clamping of the pick-and-place assembly 14, and the three T-shaped rods 82 are arranged between adjacent mold frames 81, and correspond to the position of the clamping plate 146 in the pick-and-place assembly 14 after it is fully opened, so as to ensure the effective completion of the clamping action and improve the working process;A freezing assembly is arranged on the support frame 1 located outside the material carrier 7, and the freezing assembly includes a refrigeration plate 9 designed in an arc shape, wherein the refrigeration plate 9 is arranged on both sides of the support frame 1, and plays an auxiliary refrigeration role with the area of the material carrier 7. For the empty mold carrier 8, it can be pre-refrigerated to prevent the subsequent materials from being incompatible when being put in. For the mold frame 81 carrying materials, the refrigeration plate 9 can keep the put-in materials in an icy state to a certain extent, which brings prerequisites for the subsequent freeze-drying process. Of course, the specific working principle of the refrigeration plate 9 is In theory, it is an existing mature and conventional technical means, and the details are not repeated. In this embodiment, it actually plays a role of auxiliary refrigeration. A pick-up and placement mechanism 10 is set below the carrier 7, which integrates the functions of taking and placing the mold carrier 8 and exporting the mold carrier 8 and materials. The establishment of this mechanism integrates the functions of external clamping of the empty mold carrier 8 and placing it on the carrier 7 and taking out the mold carrier 8 loaded with materials from the carrier 7 and exporting it to the outside, which greatly improves the functionality of the device and equipment, improves the degree of automation during use, and meets the use requirements. ;
[0096] In order to realize the convenient adjustment of the vertical position of the feeding assembly, and at the same time make the mold carrier plate 8 close to the feeding assembly when it descends to the lowest position, so as to complete the material access and ensure the working process, the lifting and adjusting assembly 2 includes an I-shaped frame 21, and lifting rods 22 are arranged on both sides of the I-shaped frame 21. A lifting plate 23 is arranged above the lifting rod 22, and a vertical rod 24 is arranged above the lifting plate 23, and is connected to the bottom of the material outlet driving mechanism 3. The plate 23 is provided with triangular plates 25 on both sides, and shafts 26 are provided in the two triangular plates 25. A connecting frame 27 with an 8-shaped design is provided on the outside of the shaft 26, wherein the upper diameter of the connecting frame 27 is larger than the lower diameter, and the upper part is sleeved on the outer side of the shaft 26, and the two can rotate relative to each other. An eccentric wheel 28 is provided below the connecting frame 27 to rotate relative to it, and a rotating rod 29 is provided inside the eccentric wheel 28. The rotating rod 29 is detachably fixedly connected with the eccentric wheel 28 by a pin key, and the established The eccentric wheel 28 can rotate relative to the lower part of the connecting frame 27. In this way, when the rotating rod 29 receives the driving force, it will drive the eccentric wheel 28 to move and rotate. Under the cooperation of the connecting frame 27 and the eccentric wheel 28, when the big head of the eccentric wheel 28 rotates from bottom to top, the lower part of the connecting frame 27 rotates with it, and at the same time, it can move upward with the eccentric wheel 28 in the vertical direction to complete the lifting action, until the big head of the eccentric wheel 28 is at the top, the lifting distance reaches the maximum, and when the eccentric wheel 28 rotates again, that is, the top When the big end of the square rotates downward, the connecting frame 27 will fall and drive the feeding assembly to move downward to ensure the effective reception of the material. The operation is simple and convenient, and the use functionality is strong. A transmission rod 210 is arranged between the rotating rods 29 in the two lifting and adjusting components 2. The transmission rod 210 mainly receives the driving power on the rotating rod 29 and acts on the loading frame 7 to make it rotate, thereby completing the displacement adjustment of the mold carrier plate 8 at different positions, which greatly improves the rationality of the establishment of the device and meets the use requirements.
[0097] In order to ensure the effective input of driving power, the material export driving mechanism 3 is set up to provide driving power for the unloading mechanism 5 and the on-off mechanism 6, and the two sets of driving power can be set up separately and operate without interfering with each other to ensure the smooth operation of a single mechanism. Specifically, the material export driving mechanism 3 includes a shell 31, an active rod 32 is arranged in the shell 31, a driving motor is arranged on the outer side of the active rod 32, a driven rod 33 is arranged on one side of the active rod 32, a driving gear 34 is arranged on the active rod 32, and a driven gear 35 is arranged on the driven rod 33. By the operation of the driving motor, the driving power acts on the active rod 32, and then by the meshing between the gears, the active rod 32 and the driven rod 33 can rotate synchronously in opposite directions and act on the unloading mechanism 5, providing convenient conditions for the mixing and output of the material; a driving rod 36 is arranged at the bottom of the shell 31, a driving gear 310 is arranged on the driving rod 36, and a driving gear 310 is arranged on one side of the shell 31 There is a telescopic cylinder 311, and a driving rack 37 is arranged at the output end of the telescopic cylinder 311. A placement frame 38 with a concave shape is arranged above the driving rack 37. A pulley 39 is arranged in the placement frame 38, and it abuts against the top of the driving slide. Specifically, the pulley 39 is stably set up in the placement frame 38, the purpose is to ensure the smoothness of the driving slide during movement. When in use, the telescopic cylinder 311 is controlled to operate. When the telescopic cylinder 311 contracts, the driving rack 37 engages with the driving gear 310, thereby driving the driving rod 36 to rotate, thereby acting on the on-off rod 62, making it in a conducting or disconnected state. The telescopic cylinder 311 is controlled to operate again to extend it, and the driving rod 36 will drive the on-off rod 62 to rotate in the opposite direction and change to another state, that is, disconnection or conduction. The specific operation can be freely set up according to different usage requirements to ensure the smooth opening and closing of the on-off mechanism 6 and improve the working process.
[0098] In order to conveniently discharge the material in the material storage bin and realize quantitative unloading to a certain extent, the unloading mechanism 5 includes a key-shaped accommodating cover 51 connected to the bottom of the material storage bin, a key-shaped mounting frame 52 is arranged in the accommodating cover 51, a connecting rod 53 is arranged in the mounting frame 52, and the connecting rod 53 between two adjacent mounting frames 52 is provided with a stirring rod 54, wherein the connecting rod 53 receives the driving power transmitted by the active rod 32 and the driven rod 33, and drives the corresponding stirring rod 54 to move. The stirring rod 54 rotates in the opposite direction of movement, so as to stir the material in the material bin and make it fall, thereby ensuring the fluidity of the material and facilitating its smooth falling. In order to ensure that the material can be easily conducted, the on-off mechanism 6 includes a connecting shell 61 connected to the containing cover 51 and having a T-shaped cross section. A through groove 611 with a prism-shaped design is provided at the geometric center of the connecting shell 61, and its opening is closed from top to bottom. A on-off rod 62 is provided in the connecting shell 61 and is connected to the driving rod 36. A circular hole 62 is provided in the on-off rod 62 corresponding to the through groove 611. 1. A guide cover 63 with a conical table design is arranged below the connecting shell 61. A guide hood 63 is arranged inside the guide cover 63, and a guide tube 64 corresponding to the circular hole 621 is arranged inside the guide tube 64. A feeding plate 65 with a three-pointed star design is arranged inside the guide tube 64. The specific description is as follows: when the mold carrier plate 8 is placed below the feeding assembly, the telescopic cylinder 311 in the material outlet drive mechanism 3 is operated, and the on-off rod 62 will rotate together with the driving rod 36, so that the circular hole 621 is connected with the through groove 611. At this time, the material can be discharged downward from the guide tube 64. When the material feeding needs to be disconnected, the telescopic cylinder 311 is operated again. It will drive the driving rod 36 and the on-off rod 62 to rotate, so that the circular hole 621 and the through groove 611 are arranged vertically, and the material will not fall, and wait for the next feeding process. At the same time, for the established conduit 64, the feeding plates 65 established therein are established in three groups, which can buffer the falling process of the material, prevent it from falling too fast and splashing, and reduce the possibility of waste. In addition, the shape of the feeding plate 65 can be changed according to different usage requirements, so that the candy structure has a certain shape, increase the diversification of candy preparation, and have strong functionality.
[0099] In order to realize the convenient rotation of the mold carrier 8 and ensure the effective material receiving work, the carrier 7 includes a turntable 71 connected to the transmission rod 210, and its geometric center is connected to the outer periphery of the transmission rod 210 so that it can rotate with the rotation of the transmission rod 210. That is to say: when the lifting and adjusting assembly 2 is in operation, the rotating rod 29 rotates and acts on the driving power on the transmission rod 210, so that it drives the turntable 71 to rotate in the circumferential direction. Furthermore, a plurality of support rods 72 are evenly arranged on the outer side of the turntable 71, and a rotating rod 73 is arranged on the support rod 72 between the two turntables 71. A support plate 74 that supports the mold carrier 8 is arranged below the two rotating rods 73. The lower end of the rotating rod 73 is fixedly connected to the support plate 74, and the upper part thereof can rotate relative to the support rod 72. In this way, when the turntable 71 rotates, it can ensure that each No matter where the support plate 74 is in the vertical direction, it is in a vertical state to ensure stability. It needs to be further explained that when the big head of the eccentric wheel 28 rotates from the bottom to the top, it will drive the feeding assembly to rise. When and only when the big head of the eccentric wheel 28 rotates from the top to the bottom, the feeding assembly drops to the lowest position, and a support plate 74 is just below the feeding assembly. After the material is put in, the lifting and adjusting assembly 2 continues to operate. When the big head of the eccentric wheel 28 reaches the top, the gap between the two adjacent support plates 74 of the loading rack 7 corresponds to the bottom of the feeding assembly, and then continues to operate. The next support plate 74 and the mold carrier plate 8 can be transported to the bottom of the feeding assembly. This reciprocating process can not only realize the convenient placement of materials, but also ensure the continuous operation of production and processing work, improve the work progress, and meet the use requirements.
[0100] In order to facilitate the convenient placement of the mold carrier 8, it is necessary to further explain that: there are two pick-up and placement components 14 on the same side, which are mainly used to adapt to mold carriers 8 of different lengths. The two pick-up and placement components 14 on the same side are a group and two groups are set up. The pick-up and placement components 14 connected to the drive of the ejection mechanism 15 are mainly used to take and place the mold carrier 8 carrying materials, that is, after clamping the mold carrier 8 located at the bottom of the material carrier 7, it is transported outward to the next processing step to ensure the effective progress of the production and processing work. The other group of pick-up and placement components 14 is mainly used to clamp the mold carrier 8 on the outside, and then move toward the position close to the bottom of the material carrier 7 while the previous group of pick-up and placement components 14 is led outward, and the empty mold carrier 8 is placed on the loading rack. The material rack 7 is placed on the material rack 7 to make it rotate to the subsequent material receiving. Further, the pick-up and placement mechanism 10 includes a placement plate 11, a longitudinal moving component 12 is arranged above the placement plate 11, and the longitudinal moving component 12 includes two longitudinal slides 121 arranged side by side, a longitudinal moving plate 122 is arranged on the longitudinal slide 121, and a concave plate 123 designed in a concave shape is arranged above the longitudinal moving plate 122, a transverse slide 124 is arranged in the concave plate 123, and a transverse moving plate 125 is arranged on the transverse slide 124. A vertical driving cylinder 13 is arranged on one side of the transverse moving plate 125, and a pick-up and placement component 14 is arranged on the output end of the vertical driving cylinder 13. A material lifting mechanism 15 is arranged on the placement plate 11 between the two groups of pick-up and placement components 14. The specific description is: a material lifting mechanism 15 is also arranged on the placement plate 11 for The cylinder driving the pick-and-place assembly 14 to realize movement and adjustment on the longitudinal moving assembly 12, two cylinders are set as a group at the geometric center of the placement plate 11, and the output ends are respectively connected to the longitudinal moving plates 122 in the two longitudinal moving assemblies 12 to ensure the effective input of the driving power. When in use, the expansion and contraction of the cylinder is used to drive the longitudinal moving assembly 12 to move forward or backward in the longitudinal direction, especially to provide convenient conditions for the pick-and-place assembly 14 to approach the carrier 7 to take the mold carrier 8 and to transport the mold carrier 8 to the outside away from the carrier 7. Of course, the use functions of the two groups of pick-and-place assemblies 14 are different. The difference lies in the order of picking up and placing the mold carrier 8. For the transverse moving plate 125 and the transverse sliding bar 124, they can be moved and adjusted in the transverse direction to drive the vertical The lateral adjustment of the driving cylinder 13 and the pick-and-place assembly 14 when they are in the outer position is used to take out the empty mold carrier 8 or place the mold carrier 8 loaded with materials. As for the vertical driving cylinder 13, the purpose is to adjust the vertical position of the pick-and-place assembly 14 to ensure the effective implementation of the clamping action. Further, under the action of the longitudinal moving assembly 12, the pick-and-place assembly 14 is driven to move. When taking materials, the pick-and-place assembly 14 approaches and uses its movement to act on the ejecting mechanism 15 to eject the mold carrier 8, and then the clamping work is carried out. Subsequently, the pick-and-place assembly 14 is led out to the outside. At the same time, another set of pick-and-place assemblies 14 take the empty mold carrier 8 at the external process and move it to the carrier 7.After the workpiece is released, it is placed on the carrier 7, and this reciprocating process is carried out to realize the corresponding processing steps, improve the work progress, and meet the use requirements.
[0101] In order to improve the rationality of the device, especially to realize the convenient clamping of the mold carrier 8, the pick-and-place component 14 includes a concave frame 141 designed in a concave shape, a slide bar 142 is arranged on the concave frame 141, a slider 143 is arranged on the slider 142, a rod carrier frame 144 is arranged on one side of the slider 143, a finger cylinder 145 is arranged on the rod carrier frame 144, a clamping plate 146 is arranged at the output end of the finger cylinder 145, and a sliding component 147 is arranged on the upper rear side of the concave frame 141, which generally includes a slide bar and a slider 143. If the slide bar is set on the concave frame 141, the slider 143 is set on the movable trapezoidal plate 148 to ensure its smoothness during the movement and adjustment process. The sliding assembly 147 located at the lower side of the slide bar 142 is provided with a movable trapezoidal plate 148, and the movable trapezoidal plate 148 is provided with a longitudinal driving cylinder 1410. A longitudinal sliding groove 1481 is opened in the movable trapezoidal plate 148, and a Z-shaped groove 1482 is opened in the movable trapezoidal plate 148 on both sides of the longitudinal sliding groove 1481. A limit rod 149 is set on the slider 143 corresponding to the longitudinal sliding groove 1481 and the Z-shaped groove 1482. The specific description is as follows: for the established taking For the placing assembly 14, its output end can realize variable-length telescopic movement, that is to say: in order to realize the clamping of the mold carrier plate 8 at multiple points to ensure its stability during the clamping process, the longitudinal moving assembly 12 and the vertical driving cylinder 13 are first used to adjust the position of the placing assembly 14. During the adjustment process, the longitudinal driving cylinder 1410 is controlled to operate to move the movable trapezoidal plate 148 outward, and the finger cylinder 145 is restricted by the sliding rod 142 and the sliding block 143. At the same time, it will also be restricted by the limiting rod 149 and the longitudinal sliding groove 1481 and the Z-shaped groove 1482 while moving horizontally. The limit of time moves in the longitudinal direction until it reaches the farthest position. At this time, the driving of the longitudinal moving component 12 is still in progress, and the clamping plate 146 is brought close to the T-shaped rod 82, which provides convenient conditions for the subsequent clamping of the mold carrier 8 and meets the use requirements. When the mold carrier 8 is clamped and output outward, the position of each finger cylinder 145 is maintained. After the mold carrier 8 and the material are exported, the pick-and-place component 14 can be retracted to prevent the occurrence of limitation during the operation and movement, and then repeat the above process. This reciprocating process improves the functionality of the device and meets the use requirements.
[0102] In order to realize the convenient export of the mold carrier plate 8 containing the material, that is, to provide convenience for the pick-and-place component 14 to clamp it and ensure the working process, the ejection mechanism 15 includes a stand 151, and a limit wheel 152 is arranged in the stand 151 to improve the smoothness of the longitudinal rack 153 during the movement and adjustment process. A longitudinal rack 153 is arranged on one side of the limit wheel 152, and an extension rod 154 is arranged on one side of the longitudinal rack 153 and connected to the longitudinal moving plate 122. An L is arranged on the top of the stand 151. The L-shaped plate 155 is provided with an L-shaped extension frame 156, a screw rod 157 is provided in the extension frame 156, and the lower end thereof penetrates the L-shaped plate 155, a matching gear 158 is provided below the screw rod 157, and a top plate 159 designed in an F shape is provided on the upper side of the screw rod 157, and a top wheel 1510 is provided in the top plate 159. Specifically, the extension rod 154 is connected to the longitudinal rack 153, and the other end of the extension rod 154 can move with the longitudinal displacement plate 122. Movement, that is to say, the driving power of the ejecting mechanism 15 comes from the longitudinal movement of the pick-and-place assembly 14, and it runs together with the pick-and-place assembly 14 used to take out the mold carrier 8. The main purpose is: when the above-mentioned pick-and-place assembly 14 moves toward the mold carrier 8 located at the lowermost side, at the same time, the longitudinal rack 153 also moves to the rear side, and cooperates with the matching gear 158 to drive the screw 157 to rotate, and the ejector plate 159 set on the screw 157 will move up at this time, and drive the ejector wheel 1510 to move upward. When the pick-and-place assembly 14 moves to the maximum movement position, the mold carrier 8 will also be ejected to the maximum vertical position by the ejecting mechanism 15, and the clamping plate 146 is just located on the outside of the T-shaped rod 82, and then the pick-and-place assembly 14 is controlled to run to complete the clamping and removal of the material. When the pick-and-place assembly 14 runs in the reverse direction, the ejector plate 159 and the ejector wheel 1510 in the ejecting mechanism 15 will also drop to achieve reset, waiting for the next processing step to be carried out, and the functionality is strong.
[0103] The above description is only a preferred embodiment of the present invention and does not limit the present invention in other forms. Any technician familiar with the profession may use the technical content disclosed above to change or modify it into an equivalent embodiment with equivalent changes and apply it to other fields. However, any simple modification, equivalent change and modification made to the above embodiment based on the technical essence of the present invention without departing from the content of the technical solution of the present invention still falls within the protection scope of the technical solution of the present invention.
Claims
1. A method for preparing freeze-dried candy, characterized in that: The method comprises the following preparation steps: S1: Raw material preparation step: freshly squeezed sugarcane juice or concentrated sugarcane juice and (or) pears and apples are used as main raw materials, and freeze-dried powder of one or more extracts of monk fruit, mint, licorice, Sterculia lychnophora, honeysuckle, chrysanthemum, tangerine peel, and honey is added; S1.1: Mix the raw materials such as mint, licorice, Sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel in a ratio of 1:4-10, boil for 2-5 hours, and then pass through an 80-mesh sieve to obtain the sieve residue①; S1.2: The material on the sieve in S1.1 is mixed in a ratio of material to water of 1:3-7, boiled for 2-3 hours, and then passed through an 80-mesh sieve to obtain the material under the sieve②; S1.3: Mix the sieve undersize ① and the sieve undersize ②, place them at a temperature of 80° C. and concentrate them to a concentrated solution with a mass fraction of 25%, and then freeze-dry the concentrated solution and honey at an environment not higher than 40° C. to prepare a concentrated powder; S1.4: Wash the fruits such as apples or pears, and then steam and cook them to make pulp for later use; S1.5: Peel the sugarcane and squeeze the juice, then pass it through a 100-mesh sieve for later use; S2: blending step: mixing the slurry in step S1.4, the sugarcane juice in step S1.5, and one or more freeze-dried concentrated juices of mint, licorice, Sterculia lychnophora, honeysuckle, monk fruit, chrysanthemum and tangerine peel, and honey in proportion to obtain a blended material; S3: Ultra-low temperature and high pressure ice extraction step: placing the prepared material into an ultra-low temperature and high pressure device for ice extraction to obtain ice-extracted material; S4: ice drop forming step: putting the ice extract material into the drop forming equipment while keeping it in an icy state for forming; S5: Vacuum freeze-drying step: the candy material prepared by the drip molding equipment is placed in the freeze-drying chamber to sublimate and dry under vacuum to form freeze-dried candy.
2. The method for preparing freeze-dried candy according to claim 1, characterized in that: In step S1.5: the sugarcane juice after juicing and screening is concentrated to a concentrated liquid with a mass fraction of 25-40% at 80°C.
3. The method for preparing freeze-dried candy according to claim 2, characterized in that: The drop injection molding equipment includes two support frames arranged side by side, a lifting and adjusting component is arranged in the support frame, a material outlet driving mechanism is arranged above the lifting and adjusting component on one side, and a feeding component is arranged between the lifting and adjusting component and the material outlet driving mechanism on the other side, the feeding component includes a material storage bin, a material unloading mechanism and an on-off mechanism arranged in sequence from top to bottom, a loading frame which rotates with the operation of the lifting and adjusting component is arranged between the two support frames, a mold carrier plate designed in a key shape is arranged on the loading frame, a plurality of mold frames are evenly arranged in the mold carrier plate, a T-shaped rod is arranged on the mold carrier plate, three T-shaped rods form a group and are set between the mold frames, a freezing component is arranged on the support frame outside the loading frame, the freezing component includes a refrigeration plate designed in an arc shape, and a picking and placing mechanism which integrates the functions of picking and placing the mold carrier plate and the mold carrier plate and material outlet is arranged below the loading frame.
4. The method for preparing freeze-dried candy according to claim 3, characterized in that: The lifting and adjusting assembly includes an I-shaped frame, lifting rods are arranged on both sides of the I-shaped frame, a lifting plate is arranged above the lifting rods, a vertical rod is arranged above the lifting plate and is connected to the bottom of the material discharge driving mechanism, triangular plates are arranged on both sides of the lifting plate, shafts are arranged in the two triangular plates, and a connecting frame with an 8-shaped design is arranged outside the shaft, an eccentric wheel for rotating relative to the connecting frame is arranged below, a rotating rod is arranged in the eccentric wheel, and a transmission rod is arranged between the rotating rods in the two lifting and adjusting assemblies.
5. The method for preparing freeze-dried candy according to claim 4, characterized in that: The material export driving mechanism includes a shell, an active rod is arranged in the shell, a driving motor is arranged on the outside of the active rod, a driven rod is arranged on one side of the active rod, a driving gear is arranged on the active rod, a driven gear is arranged on the driven rod, a driving rod is arranged below the shell, a driving gear is arranged on the driving rod, a telescopic cylinder is arranged on one side of the shell, a driving rack is arranged at the output end of the telescopic cylinder, a placement rack designed in a concave shape is arranged above the driving rack, a pulley is arranged in the placement rack, and it abuts against the top of the driving slide bar.
6. The method for preparing freeze-dried candy according to claim 5, characterized in that: The unloading mechanism includes a containing cover connected to the bottom of the material storage bin and designed in a key shape, a key-shaped mounting frame is arranged in the containing cover, a connecting rod is arranged in the mounting frame, and is respectively connected to the active rod and the driven rod, and a stirring rod is arranged on the connecting rod located between two adjacent mounting frames, and the on-off mechanism includes a connecting shell connected to the containing cover and designed in a T-shaped cross section, a prism-shaped through groove is opened at the geometric center of the connecting shell, and its opening is closed from top to bottom, an on-off rod is arranged in the connecting shell and is connected to the driving rod, a circular hole is opened in the on-off rod corresponding to the through groove, a guide cover designed in a conical table shape is arranged below the connecting shell, a conduit corresponding to the circular hole is arranged in the guide cover, and a feeding plate designed in a three-pointed star shape is arranged in the conduit.
7. The method for preparing freeze-dried candy according to claim 6, characterized in that: The material carrier comprises a turntable connected to a transmission rod, a plurality of support rods are evenly arranged on the outer side of the turntable, a rotating rod is arranged on the support rod between two turntables, and a support plate for supporting the mold carrier is arranged under the two rotating rods.
8. The method for preparing freeze-dried candy according to claim 7, characterized in that: The pick-and-place mechanism includes a placement plate, a longitudinal moving component is arranged above the placement plate, the longitudinal moving component includes two longitudinal slides arranged side by side, a longitudinal moving plate is arranged on the longitudinal slide, a concave plate designed in a concave shape is arranged above the longitudinal moving plate, a transverse slide is arranged inside the concave plate, a transverse moving plate is arranged on the transverse slide, a vertical driving cylinder is arranged on one side of the transverse moving plate, a pick-and-place component is arranged at the output end of the vertical driving cylinder, and a lifting mechanism is arranged on the placement plate between the two groups of the pick-and-place components.
9. The method for preparing freeze-dried candy according to claim 8, characterized in that: The pick-and-place assembly includes a concave frame designed in a concave shape, a sliding rod is provided on the concave frame, a slider is provided on the sliding rod, a rod carrier frame is provided on one side of the slider, a finger cylinder is provided on the rod carrier frame, a clamping plate is provided at the output end of the finger cylinder, a sliding assembly is provided on the upper rear side of the concave frame, a movable trapezoidal plate is provided on the sliding assembly located on the lower side of the sliding rod, a longitudinal driving cylinder is provided on the movable trapezoidal plate, a longitudinal sliding groove is provided in the movable trapezoidal plate, a Z-shaped groove is provided in the movable trapezoidal plates located on both sides of the longitudinal sliding groove, and a limiting rod is provided on the slider corresponding to the longitudinal sliding groove and the Z-shaped groove.
10. The method for preparing freeze-dried candy according to claim 9, characterized in that: The ejection mechanism includes a vertical frame, a limiting wheel is arranged in the vertical frame, a longitudinal rack is arranged on one side of the limiting wheel, an extension rod is arranged on one side of the longitudinal rack and is connected to the longitudinal movement plate, an L-shaped plate is arranged above the vertical frame, an extension frame designed in an L shape is arranged on the L-shaped plate, a screw is arranged in the extension frame, and the lower end of the screw is passed through the L-shaped plate, a matching gear is arranged below the screw, a top plate designed in an F shape is arranged on the upper side of the screw, and a ejection wheel is arranged in the top plate.