Colloid batching system and batching method

Abstract

The invention relates to the technical field of colloid batching, and provides a colloid batching system and a batching method.The colloid batching system comprises a batching tank, a colloid mill and an electromagnetic heating barrel; a feeding port of the colloid mill is of a funnel-shaped structure, a splash-proof component is arranged at the bottom of the feeding port, and the splash-proof component is of a spherical structure and is rotatably connected with a rack of the colloid mill through a rotating shaft. The electromagnetic heating barrel comprises an electromagnetic heater at the bottom and a heat preservation barrel arranged above the electromagnetic heater. The soft capsule preparation device has the beneficial effects that on the basis of the preparation tank, solid jelly and the like are subjected to melting and heat preservation through the electromagnetic heating barrel, then powder particles, oils and the like are ground and mixed through the colloid mill, and finally the mixture of the powder particles and the oils and the like is added into the preparation tank for total mixing, so that soft capsule contents which are uniformly mixed and free of precipitates are obtained.

Description

Technical Field

[0001] The invention relates to the technical field of colloid batching, and in particular to a colloid batching system and a batching method. Background Art

[0002] Soft capsules are a common drug dosage form with rich shapes, bright colors and a wide range of applications. They can be prepared by dripping or compression, in which the soft capsule material is usually made of gelatin, glycerin or other pharmaceutical excipients. The production process of soft capsules involves multiple steps, including preparation of fillers, sol, pelleting, shaping and drying. In addition, the formulation composition of soft capsules includes capsule shells and filler excipients, in which the capsule shell is mainly composed of gelatin, plasticizers, and water, while the filler excipients can include diluents, cosolvents, wetting agents and suspending agents. The advantage of soft capsules is that they can improve the solubility and bioavailability of drugs, especially for drugs with poor water solubility. However, the stability of soft capsules during the shelf life faces challenges, and multiple measures are needed to ensure their quality.

[0003] In the production of soft capsules, it is generally necessary to mix the contents inside the capsules evenly through a mixing step, that is, the ingredient mixing step. In the mixing process, a batching tank is often used to mix the contents evenly. However, the contents of general capsules are composed of oil substances and some added solid powders. Although the batching tank can mix evenly as a whole, there is still a certain lack of uniformity for the powder particles. Generally, powder particles are not soluble in oil, which causes precipitation of the contents and uneven ingredients, thus affecting the final quality of the product. Summary of the invention

[0004] The present invention provides a colloid batching system and a batching method. On the basis of a batching tank, solid colloids are first melted and kept warm by an electromagnetic heating barrel, and then powder particles and oils are ground and mixed by a colloid mill. Finally, the mixture of the two is added to the batching tank for total mixing, so as to obtain soft capsule contents that are evenly mixed and free of precipitation.

[0005] To this end, the technical solutions adopted are as follows: A colloid batching system and a batching method, comprising a batching tank, a colloid mill and an electromagnetic heating barrel; the feed port of the colloid mill is a funnel-shaped structure, the bottom of the feed port is provided with a splash-proof component, the splash-proof component is a spherical structure and is rotatably connected to the frame of the colloid mill through a rotating shaft; the electromagnetic heating barrel comprises an electromagnetic heater at the bottom and a heat preservation barrel placed above the electromagnetic heater.

[0006] A further technical solution is that the colloid mill also includes a grinding assembly and a transmission assembly, the grinding assembly includes a grinding rotating tooth in the middle and a grinding fixed tooth surrounding the grinding rotating tooth and matching with the grinding rotating tooth, the grinding rotating tooth is driven to rotate by the transmission assembly, and an adjustment assembly for adjusting the gap between the grinding rotating tooth and the grinding fixed tooth is connected to the outer side of the grinding fixed tooth, the splash-proof component is located above the grinding rotating tooth, and there is a certain distance between the two to form a buffer space.

[0007] A further technical solution is that the splash-proof component is a hollow structure.

[0008] A further technical solution is that a splash guard is fixed on the side wall of the colloid mill feed port, and the splash guard is a spiral structure with a radius gradually decreasing from top to bottom along the funnel-shaped side wall of the feed port.

[0009] A further technical solution is that the splash guard is arranged horizontally and tilted downward.

[0010] A further technical solution is that the barrel wall of the thermal insulation barrel is a double-layer structure with an inner interlayer, the inner interlayer has a plurality of heat-conducting strips, the heat-conducting strips include an outer silicone layer and an inner heat-conducting metal filler, and the plurality of heat-conducting strips are evenly distributed in an array around the barrel wall.

[0011] A further technical solution is that the heat-conducting strip consists of a heat-absorbing part and a heat-conducting part, the heat-absorbing part is located at the bottom of the interlayer and contacts the bottom surface of the thermos barrel, the diameter of the heat-conducting part is smaller than the diameter of the heat-absorbing part and fits with the inner wall of the thermos barrel, and each heat-absorbing part is connected to multiple heat-conducting parts.

[0012] A colloid batching method, which can be prepared by any of the above-mentioned colloid batching systems, comprises the following steps: S1: grinding powdered granular substances and oily substances together into ingredient 1 by using a colloid mill; S2: heating and mixing the solid colloidal substance into ingredient 2 through an electromagnetic heating barrel; S3: Add ingredient 1 and ingredient 2 into a mixing tank and mix them evenly.

[0013] A further technical solution is that the powdered particle material and the oily material are fed into the colloid mill (1) from the feed port 11, flow through the spherical anti-splash component 10 to be evenly dispersed, reduce the rebound force, and then enter the grinding component 12 to be ground together into ingredient 1.

[0014] The working principle and beneficial effects of this application are: 1. The colloid batching system is used to uniformly batch the ingredients by grinding and mixing the powder particles with oils, etc. through a colloid mill to make the powder particles finer, melting and keeping the solid colloids, etc. warm through an electromagnetic heating barrel to increase the viscosity, and finally adding the mixture of the two into the batching tank for total mixing, thereby obtaining a more uniformly mixed soft capsule content to prevent precipitation during production, storage, transportation, etc., which affects the quality of the product.

[0015] 2. There is a splash-proof component at the bottom of the feed port of the colloid mill. After the material is added to the feed port, the splash-proof component will adaptively rotate with the impact of the material's own gravity, thereby having a certain buffering effect on the incoming material and evenly dispersing the material to reduce its rebound and splashing force. In particular, the buffering and dispersion effect of oily substances will be better due to their own viscosity, thereby preventing splashing when the material is fed in, and a certain degree of pre-mixing can be performed while evenly dispersing the material.

[0016] The splash-proof component is a sphere, and most of the material will fall around the sphere, matching the grinding position of the grinding component below, achieving the effect of uniform material distribution and improving work efficiency. The most important thing is that during grinding, due to the high-speed vibration of the grinding component, material splashing is inevitable. The splash-proof component will also block the material splashing upward during grinding to prevent it from splashing out from the feed port, avoiding pollution of the surrounding environment and loss of materials, and also preventing the splashed material from entering the gaps in the equipment and affecting the normal operation of the colloid mill.

[0017] 3. The electromagnetic heating barrel melts and keeps the solid colloids warm by heating. Heating can increase the viscosity of the capsule contents, promote uniform mixing of the contents, reduce precipitation and stratification, and thus improve the stability of the overall quality of the contents.

[0018] 4. The insulation barrel is surrounded by heat-conducting strips to avoid the situation where the temperature around is lower than the temperature in the middle during electromagnetic heating. The heat-conducting strips quickly transfer the temperature at the bottom of the insulation barrel to the side wall of the insulation barrel, so that the entire insulation barrel is heated evenly, and the internal materials are heated more evenly, thereby preventing certain substances contained in the materials from changing their characteristics due to uneven temperature, further ensuring product quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The present application is further described in detail below in conjunction with the accompanying drawings and specific implementation methods.

[0020] Figure 1 This is a schematic diagram of the structure of the colloid mill described in this application; Figure 2 for Figure 1 The cross-sectional structure diagram of the middle A part; Figure 3 This is a schematic diagram of the structure of the splash-proof component described in this application; Figure 4 This is a schematic diagram of the structure of the electromagnetic heating barrel described in this application; Figure 5 This is a schematic diagram of the structure of the interlayer of the insulation barrel described in this application; Figure 6 for Figure 5 A schematic diagram of the enlarged structure of the middle B part; Figure 7 This is a schematic diagram of the top view of the interlayer of the insulation barrel described in this application; Figure 8 It is a schematic cross-sectional view of the thermally conductive strip described in this application.

[0021] In the figure: 1. colloid mill; 10. splash-proof component; 101. rotating shaft; 11. feed inlet; 111. splash-proof baffle; 12. grinding assembly; 121. grinding rotating teeth; 122. grinding fixed teeth; 13. transmission assembly; 14. adjustment assembly; 15. buffer space; 2. electromagnetic heating barrel; 21. electromagnetic heater; 22. insulation barrel; 23. interlayer; 24. thermal conductive strip; 241. silicone layer; 242. thermal conductive metal filler; 243. heat absorbing part; 244. thermal conductive part. DETAILED DESCRIPTION

[0022] The following will be combined with the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments 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.

[0023] like Figure 1-Figure 8 As shown, a colloid batching system includes a batching tank, a colloid mill 1 and an electromagnetic heating barrel 2; the feed port 11 of the colloid mill 1 is a funnel-shaped structure, and the bottom of the feed port 11 has a splash-proof component 10, and the splash-proof component 10 is a spherical structure and is rotatably connected to the frame of the colloid mill 1 through a rotating shaft 101; the electromagnetic heating barrel 2 includes an electromagnetic heater 21 at the bottom and a heat preservation barrel 22 placed above the electromagnetic heater 21.

[0024] A colloid batching method using the batching system comprises the following steps: S1: grinding powdered granular substances and oily substances together into ingredient 1 by colloid mill 1; The colloid mill 1 can mix the powder particles and oil substances of the soft capsule content into a colloidal solution with a certain particle size in a very short time, significantly improving the crushing efficiency, and can crush the particles into extremely small particles through mechanical force, which are evenly dispersed to achieve a better dispersion effect.

[0025] Powdered particles and oily substances are fed from the feed port 11 of the colloid mill 1, and first flow through the splash-proof component 10 and then enter the grinding assembly 12 to be ground together into ingredient 1.

[0026] S2: The solid colloidal substance is heated and mixed into ingredient 2 by electromagnetic heating barrel 2; The electromagnetic heater 21 heats and melts the solid colloid and the like to keep it warm. After heating, the viscosity of the capsule contents can be increased, the uniform mixing of the contents can be promoted, and precipitation and stratification can be reduced, thereby improving the stability of the overall quality of the contents.

[0027] S3: Add ingredient 1 and ingredient 2 into a mixing tank and mix them evenly.

[0028] The material 1 and the material 2 which have been processed by the colloid mill 1 and the electromagnetic heating barrel 2 are mixed again, so that the final mixed product can be mixed more evenly without precipitation.

[0029] The present application is mainly used for preparing the contents of soft capsules. When preparing the ingredients, on the basis of the ingredient tank, the solid colloid and the like are first melted and kept warm by the electromagnetic heating barrel 2 to increase their viscosity, and the powder particles and the oil and the like are ground and mixed by the colloid mill 1 to make the powder particles ground finer, and finally the mixture of the two is added to the ingredient tank for total mixing, so as to obtain a more uniformly mixed soft capsule content, thereby preventing precipitation during the production, storage, transportation and the like, which affects the quality of the product.

[0030] The electromagnetic heater 21 heats and melts the solid colloid and the like to keep it warm. After heating, the viscosity of the capsule contents can be increased, the uniform mixing of the contents can be promoted, and precipitation and stratification can be reduced, thereby improving the stability of the overall quality of the contents.

[0031] One embodiment of the batching tank is that the side wall adopts a three-layer structure of an inner tank, a jacket layer and an insulation layer, the inner tank head adopts a fully sealed welding, the tank jacket adopts a water bath heating, and the insulation layer is insulated by polyurethane foam. The internal stirring device adopts a one-way anchor-type multi-layer stirring paddle for stirring, and is matched with a helical gear hardened surface reducer. The stirring shaft is positioned by a hollow reducer and a reinforced positioning shaft in the tank. It also includes an upper head pure water inlet, a cleaning port, a vacuum port, a pressure port, a suction port, an exhaust port, a thermometer, a lamp hole, a brushed sight glass, a manhole, a spare port, a side hot water outlet, an overflow port, a bottom discharge port, a temperature probe port, a hot water inlet, a homogenizer, etc. for the final mixing and discharging.

[0032] like Figure 1-Figure 3As shown, the colloid mill 1 also includes a grinding component 12 and a transmission component 13, wherein the grinding component 12 includes a grinding rotating tooth 121 in the middle and a grinding fixed tooth 122 surrounding the grinding rotating tooth 121 and matching with the grinding rotating tooth 121, wherein the grinding rotating tooth 121 is driven to rotate by the transmission component 13, and an adjusting component 14 for adjusting the gap between the grinding rotating tooth 121 and the grinding fixed tooth 122 is connected to the outer side of the grinding fixed tooth 122, and the splash-proof component 10 is located above the grinding rotating tooth 121, and a certain distance is provided between the two to form a buffer space 15.

[0033] When using the colloid mill 1, first ensure that it is firmly installed, and then connect the power cord and the feed and discharge pipes. If circulating cooling water is required, the cooling water pipe and the drain pipe should also be connected at this time. Check whether all fastening bolts are tightened, and pay special attention to the bolts of the grinding rotating teeth 121. Without turning on the machine, adjust the gap between the grinding rotating teeth 121 and the grinding fixed teeth 122 through the adjustment component 14. According to the fineness and output requirements of the processed material, determine the final use gap and lock the adjustment component 14. Then turn on the cooling water, inject an appropriate amount of liquid material or related liquid, and keep the wet material in a reflux state. Start the colloid mill 1, and immediately put in the corresponding material for processing after it is running normally.

[0034] During the operation of the colloid mill 1, the grinding teeth 121 rotate at high speed, which inevitably generates vibrations, thus causing the material to splash out from the feed port 11. The splashing may cause partial material loss and increase production costs. Especially for harmful or toxic materials, the splashing may pollute the environment and affect the health and safety of operators. In particular, the colloid mill 1 in this application will add oily substances during grinding, so it is extremely difficult to clean up after the splashing, and the leaked materials flowing into the interior of the equipment will also cause blockage and damage to the equipment. Moreover, the splashing of materials will also cause inaccurate batching, which will ultimately affect the quality and safety of the product.

[0035] Therefore, the bottom of the feed port 11 of the colloid mill 1 is provided with a splash-proof component 10. After the material is added to the feed port 11, the splash-proof component 10 will adaptively rotate with the impact of the material's own gravity, thereby having a certain buffering effect on the incoming material and evenly dispersing the material to reduce its rebound and splashing force. In particular, due to its own viscosity, the buffering and dispersion effect of oily substances will be better, thereby preventing splashing when the material is fed in, and a certain degree of pre-mixing can be performed while evenly dispersing the material.

[0036] In addition, the splash-proof component 10 is a sphere, and most of the material will fall around the sphere, which just matches the grinding position of the grinding component 12 below, achieving the effect of uniform material distribution and improving work efficiency. Most importantly, during grinding, due to the high-speed vibration of the grinding component 12, material splashing is inevitable. The splash-proof component 10 will also block the material splashing upward during grinding to prevent it from splashing out from the feed port 11, thereby avoiding pollution of the surrounding environment and loss of materials, and also preventing the splashed material from entering the gaps in the equipment to affect the normal operation of the colloid mill 1.

[0037] like Figure 3 As shown, the splash-proof component 10 is a hollow structure, which reduces the tension on its surface, reduces the resistance to material feeding, prevents the material from splashing on the surface of the splash-proof component 10, and increases the space for the material to fall. At the same time, the splash-proof component 10 is subjected to a greater force from the material, and its own rotation amplitude is larger, which will also enhance the pre-mixing effect on the input material. In addition, the hollowed-out splash-proof component 10 will not affect its effect of blocking the splashing of materials during grinding in practice due to the irregularity of its hollowed-out position. In addition, the buffer space 15 between the splash-proof component 10 and the grinding assembly 12 can further play a buffering role after the material falls. After falling, it is not directly ground, but temporarily stored in the buffer space 15, thereby reducing the grinding pressure and ensuring the continuity of the operation of the colloid mill 1.

[0038] One embodiment that can be considered is to drive the splash-proof component 10 to rotate by a suitable type of driving motor, thereby enhancing the speed of the splash-proof component 10 to introduce materials and the effect of premixing materials. However, in this embodiment, the material mixed with oil and solid particles configured by the applicant will splash more materials under the action of the high-speed rotating splash-proof component 10, thereby losing the buffering and splash-proof effect during feeding. However, other types of mixed materials are not excluded, and the possibility of this embodiment being applicable can be achieved by changing the speed of the driving motor.

[0039] like Figure 2 As shown, a splash shield 111 is fixed on the side wall of the feed port 11 of the colloid mill 1. The splash shield 111 is a spiral structure with a radius that gradually decreases from top to bottom along the funnel-shaped side wall of the feed port 11. The splash shield 111 extends downward in a spiral shape, which can assist in feeding materials. At the same time, when materials splash outward, the bottom of the splash shield 111 will block them. In order to avoid the accumulation of materials on the splash shield 111, it is set to a horizontal downward tilted direction so that the materials above it can fall under the action of gravity. In conjunction with the use of the splash shield 10, the splash shield 10 can mainly block the materials splashing from the middle of the feed port 11, while the splash shield 111 mainly blocks the materials splashing along the side walls of the feed port 11.

[0040] The splash guard 111 is a metal plate with a certain elasticity. A slot can be set at the feed port 11, and the splash guard 111 and the funnel-shaped side wall of the feed port 11 are set as a snap-fit ​​structure. In this way, when the material particles fed into the colloid mill 1 are large or it is inconvenient to feed, the splash guard 111 can be removed to prevent interference when feeding.

[0041] like Figure 5-Figure 8 As shown, the barrel wall of the thermal insulation barrel 22 is a double-layer structure with an inner interlayer 23, wherein the inner interlayer 23 has a plurality of heat-conducting strips 24, wherein the heat-conducting strips 24 include an outer silicone layer 241 and an inner heat-conducting metal filler 242, and the plurality of heat-conducting strips 24 are evenly distributed in an array around the barrel wall.

[0042] Since the electromagnetic heater 21 will produce a temperature difference between the middle and the surroundings when heating, causing uneven heating of the materials inside the insulation barrel 22, a heat-conducting strip 24 is provided around the barrel wall, and the inner layer of the heat-conducting strip 24 is a heat-conducting metal filler 242, which can quickly absorb the heat at the bottom of the insulation barrel 22 into itself, and at the same time conduct it to the barrel wall to heat the barrel wall synchronously, thereby comprehensively improving the problem of uneven heating of the materials inside the insulation barrel 22, and also increasing the heating temperature of the materials around the barrel wall to make it consistent with the heating temperature of the materials in the middle. In addition, in order to prevent heat from being lost to the outside of the insulation barrel 22, the outside of the heat-conducting strip 24 has a silicone layer 241, which can lock the temperature in time, so that the heat first fills the entire heat-conducting strip 24, and then evenly conducts to the inner wall of the insulation barrel 22.

[0043] like Figure 3 As shown, the heat-conducting strip 24 is composed of a heat-absorbing part 243 and a heat-conducting part 244. The heat-absorbing part 243 is located at the bottom of the interlayer 23 and contacts the bottom surface of the heat-insulating barrel 22. The diameter of the heat-conducting part 244 is smaller than the diameter of the heat-absorbing part 243 and fits the inner wall of the heat-insulating barrel 22, and each heat-absorbing part 243 is connected to multiple heat-conducting parts 244. This embodiment is designed to use a large diameter heat absorbing part 243. The large diameter means a large heat absorbing area and more heat-conducting metal filled inside, so that the heat at the bottom of the interlayer 23 can be absorbed quickly. However, the larger the diameter of the heat-conducting strip 24, the easier it is for the heat to be concentrated, and it is not easy to supply heat to the inner wall of the insulation barrel 22. Therefore, after the large diameter heat absorbing part 243 absorbs heat, it is dispersed into multiple small diameter heat-conducting parts 244 to transfer the heat to the inner wall of the barrel. At the same time, the heat-conducting part 244 fits the inner wall of the barrel to supply heat faster. Preferably, the silicone layer 241 of the fitting part can also be removed to make the internal heat-conducting metal filler 242 directly contact the inner wall of the barrel to heat the inner wall of the barrel.

[0044] This avoids the situation where the surrounding temperature is lower than the middle temperature during electromagnetic heating. The heat conducting strip 24 quickly conducts the temperature at the bottom of the interlayer 23 of the heat preservation barrel 22 to the side wall of the heat preservation barrel 22, so that the entire heat preservation barrel 22 is heated evenly, and the material inside is heated more evenly, thereby preventing certain substances contained in the material from changing their properties due to uneven temperature, thereby ensuring product quality. Similarly, a stirring device can be added inside the heat preservation barrel 22 to further ensure that the materials are mixed evenly. The above are only preferred embodiments of the present invention and are not intended to limit the present invention. 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 colloid batching system, comprising a batching tank, characterized in that: Also includes: Colloid mill (1) and electromagnetic heating barrel (2); The feed inlet (11) of the colloid mill (1) is a funnel-shaped structure, and the bottom of the feed inlet (11) is provided with a splash-proof component (10), and the splash-proof component (10) is a spherical structure and is rotatably connected to the frame of the colloid mill (1) via a rotating shaft (101); The electromagnetic heating barrel (2) comprises an electromagnetic heater (21) at the bottom and a heat preservation barrel (22) disposed above the electromagnetic heater (21).

2. A colloid batching system according to claim 1, characterized in that: The colloid mill (1) further comprises a grinding assembly (12) and a transmission assembly (13); the grinding assembly (12) comprises a grinding rotating tooth (121) in the middle and a grinding fixed tooth (122) surrounding the grinding rotating tooth (121) and matching with the grinding rotating tooth (121); the grinding rotating tooth (121) is driven to rotate by the transmission assembly (13); an adjusting assembly (14) for adjusting the gap between the grinding rotating tooth (121) and the grinding fixed tooth (122) is connected to the outside of the grinding fixed tooth (122); the splash-proof component (10) is located above the grinding rotating tooth (121), and a certain distance is provided between the two to form a buffer space (15).

3. A colloid batching system according to claim 1, characterized in that: The splash-proof component (10) is a hollow structure.

4. A colloid batching system according to claim 1, characterized in that: A splash guard (111) is fixed on the side wall of the feed inlet (11) of the colloid mill (1), and the splash guard (111) is a spiral structure with a radius that gradually decreases from top to bottom along the funnel-shaped side wall of the feed inlet (11).

5. A colloid batching system according to claim 4, characterized in that: The splash guard plate (111) is arranged horizontally and tilted downward.

6. A colloid batching system according to claim 1, characterized in that: The barrel wall of the heat-insulating barrel (22) is a double-layer structure having an inner interlayer (23), wherein the inner interlayer (23) has a plurality of heat-conducting strips (24), wherein the heat-conducting strips (24) include an outer silicone layer (241) and an inner heat-conducting metal filler (242), and the plurality of heat-conducting strips (24) are evenly distributed in an array around the barrel wall.

7. A colloid batching system according to claim 6, characterized in that: The heat-conducting strip (24) is composed of a heat-absorbing portion (243) and a heat-conducting portion (244); the heat-absorbing portion (243) is located at the bottom of the interlayer (23) and contacts the bottom surface of the heat-insulating barrel (22); the diameter of the heat-conducting portion (244) is smaller than the diameter of the heat-absorbing portion (243) and fits the inner wall of the heat-insulating barrel (22); and each heat-absorbing portion (243) is connected to a plurality of heat-conducting portions (244).

8. A colloid batching method, characterized in that: The method of using any one of the colloid batching systems described in claims 1 to 7 to batch the ingredients comprises the following steps: S1: grinding the powdered granular substance and the oily substance together into ingredient 1 by a colloid mill (1); S2: heating and mixing the solid colloidal substance into ingredient 2 by using an electromagnetic heating barrel (2); S3: Add ingredient 1 and ingredient 2 into a mixing tank and mix them evenly.

9. A colloid batching method according to claim 8, characterized in that: The powdered particle material and the oily material are fed into the colloid mill (1) from the feed port (11), flow through the spherical anti-splash component (10) to be evenly dispersed, and after the rebound force is reduced, enter the grinding component (12) to be ground together into ingredient 1.

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