Formula and preparation method of edible activated carbon for losing weight, expelling toxins and beautifying

Abstract

The invention relates to the technical field of medicine, health care and food, and discloses a formula and a preparation method of edible activated carbon capable of losing weight, expelling toxins and beautifying the face, and the formula comprises the following raw materials in parts by mass: 55-75 parts of corncob activated carbon; 10 to 20 parts of pumpkin powder; 8 to 15 parts of jerusalem artichoke powder; the particle size of the corncob activated carbon is 200 meshes, the drying rate of the corncob activated carbon is lower than 10%, the particle size of the pumpkin powder is 80-150 meshes, the drying rate of the pumpkin powder is 5-8%, the particle size of the jerusalem artichoke powder is 20-80 meshes, and the drying rate of the jerusalem artichoke powder is 12%. The corncob activated carbon is adopted as a main component, the adsorption efficiency is improved by accurately controlling the particle size, the inulin, the jerusalem artichoke powder and other prebiotics are introduced to enhance the flora regulation function, and the tabletting strength and taste of the tablet are improved. And through a steam humidifying and stirring process, the particle uniformity and the tablet stability are ensured, multiple effects of losing weight, expelling toxins and beautifying are realized, the functions are comprehensive, and the application is wide.

Description

Technical Field

[0001] The invention relates to the technical fields of medicine, health care and food, and in particular to a formula of edible activated carbon for weight loss, detoxification and beauty care and a preparation method thereof. Background Art

[0002] The proportion of high-fat, high-calorie foods in the modern diet continues to increase. At the same time, the accelerated pace of life leads to irregular work and rest, which easily damages the body's metabolic function. The long-term accumulation of this diet and lifestyle will make it difficult for toxins in the body to be excreted, increase fat accumulation, cause obesity, high blood lipids and other problems, and further affect the balance of intestinal flora, causing digestive dysfunction and poor excretion, which seriously threatens physical health. As a metabolic disorder, obesity has become an important health threat after cardiovascular disease and cancer.

[0003] In the development of existing health products, edible activated carbon can effectively absorb excess fat, cholesterol and some heavy metals in the body due to its porous structure and excellent adsorption performance. However, when the activated carbon particles used are coarse or the degree of activation is insufficient, its specific surface area will be significantly reduced, and its adsorption capacity will be difficult to fully exert, affecting its effect on removing fat and toxins in the stomach and intestines. At the same time, the single activated carbon structure is prone to cause greater physical stimulation to the gastrointestinal tract, resulting in a poor user experience.

[0004] For the regulation of intestinal flora, prebiotic ingredients can improve the intestinal microecological environment by promoting the proliferation of beneficial bacteria. However, the addition of prebiotics alone cannot work well with activated carbon. The role of prebiotics in the product is limited to the basic intestinal regulation function, and lacks effective enhancement of the adsorption performance and health care effects of activated carbon. In addition, some tablet products do not fully consider the binding and uniformity of particles in the production process, resulting in low mechanical strength of the tablets, which are fragile during transportation and use, affecting the actual use effect.

[0005] Currently, health care tablets with excellent comprehensive performance are relatively scarce in the market. How to improve the adsorption performance by rationally designing the activated carbon particle size, enhance the functionality of the tablets by combining the synergistic effect of prebiotics, and improve the physical properties and stability of the tablets through process improvement have become technical problems that need to be solved in related fields. This technical direction not only has practical market value, but also has important significance for the development of efficient and multifunctional health care products. Summary of the invention

[0006] In view of the deficiencies in the prior art, the present invention provides an edible activated carbon formula for weight loss, detoxification and beauty care and a preparation method thereof, which solves the problems of insufficient adsorption performance, greater intestinal irritation, single function, and poor tablet stability and uniformity of the existing edible activated carbon formula.

[0007] To achieve the above objectives, the present invention is implemented by the following technical scheme: A formula of edible activated carbon for weight loss, detoxification and beauty, comprising the following raw materials in parts by mass: Corn cob activated carbon: 55 to 75 parts; Pumpkin powder: 10-20 parts; Jerusalem artichoke powder: 8 to 15 portions; Inulin: 8 to 15 parts.

[0008] Preferably, the corn cob activated carbon has a particle size of 200 mesh and a drying rate of less than 10%.

[0009] Preferably, the pumpkin powder has a particle size of 80-150 mesh and a drying rate of 5%-8%.

[0010] Preferably, the particle size of the Jerusalem artichoke powder is 20 mesh to 80 mesh, and the drying rate is 12%.

[0011] Preferably, the particle size of the inulin is 200-300 mesh, and the drying rate is 4.5%-8%.

[0012] A method for preparing edible activated carbon for weight loss, detoxification and beauty care, comprising the following steps: S1. Crush the corn cob activated carbon into 200 mesh, control the drying rate below 10%, take 55 to 75 parts of corn cob activated carbon and add them into the stirring device; S2. Add 10 to 20 parts of pumpkin powder and stir thoroughly with corn cob activated carbon; S3. Add 8 to 15 parts of Jerusalem artichoke powder and continue stirring until well mixed; S4. Add 8 to 15 parts of inulin, stir evenly, and continue stirring in a steam atomization environment for 10 minutes; S5. The mixed raw materials are sent to a tabletting machine for tableting, and then dried and packaged.

[0013] Preferably, the steam atomization stirring time is 10 minutes.

[0014] Preferably, the drying temperature after tableting is controlled at 50° C. to 60° C., and the drying time is 30 minutes to 60 minutes.

[0015] Preferably, the pressure of the tableting machine is controlled at 150N-200N.

[0016] Preferably, the diameter of the finished particles after the uniformly mixed raw materials are flaked is 4 mm.

[0017] The present invention provides a formula of edible activated carbon for weight loss, detoxification and beauty care and a preparation method thereof. It has the following beneficial effects: 1. The present invention uses corn cob activated carbon as the main adsorption component, and by precisely controlling the particle size to 200 meshes, ensures that its pore structure and specific surface area are fully utilized, achieving the effect of efficient adsorption of fat, cholesterol and heavy metals. Compared with the technical solution in the prior art that does not optimize the particle size and adsorption performance of activated carbon, it solves the problems of low adsorption efficiency and insignificant detoxification effect.

[0018] 2. The present invention enhances the ability of tablets to regulate intestinal flora by introducing prebiotic ingredients such as inulin and Jerusalem artichoke powder, and at the same time improves the tableting strength and particle uniformity of the finished product. Compared with the formula of the prior art that only uses activated carbon and lacks functional excipients, the shortcomings of poor tablet mechanical strength, weak flora regulation effect and poor taste of the finished product are solved.

[0019] 3. The present invention uses a steam humidification and stirring process to ensure the binding force and uniformity between the raw material particles, thereby improving the stability and release performance of the tablets. Compared with the process in the prior art that omits the humidification treatment and causes the tablets to be fragile or have uneven functions, the problem of unstable mechanical properties of the product and unsustainable effect of taking the product is solved.

[0020] 4. The present invention achieves multiple effects of weight loss, detoxification and beauty care by accurately adjusting the ratio of corn cob activated carbon and a variety of functional auxiliary materials. Compared with the single-function tablets in the prior art, it solves the shortcomings of traditional products with single functions and unsatisfactory comprehensive health care effects, and is more in line with market demand. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 The figure is a schematic flow chart of the steps of the method for preparing edible activated carbon in the present invention. DETAILED DESCRIPTION

[0022] The following will be combined with the drawings in the specification 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] Example: The embodiment of the present invention provides an edible activated carbon formula for weight loss, detoxification and beauty, comprising the following raw materials in parts by mass: Corn cob activated carbon: 55 to 75 parts; Pumpkin powder: 10-20 parts; Jerusalem artichoke powder: 8 to 15 portions; Inulin: 8 to 15 parts.

[0024] Corn cob activated carbon is the main adsorption component of this formula. It has a well-developed pore structure and extremely strong adsorption capacity. By preparing corn cobs into activated carbon with a particle size of 200 mesh, it has a larger specific surface area (i.e. more adsorption sites), which can efficiently adsorb oils and sugars in food as well as heavy metals and organic pollutants in the human body. In addition, the chemical properties of activated carbon are stable and will not be digested and absorbed by the human body, which enables it to expel the adsorbed harmful substances and heat from the body, thereby achieving the effect of purifying the internal environment, losing weight and detoxification.

[0025] As an auxiliary ingredient, pumpkin powder has large particles (80-150 mesh), which can support the skeleton of corn cob activated carbon during tableting and reduce the risk of damaging the pore structure. At the same time, pumpkin powder is rich in cobalt, dietary fiber and β-carotene, which can supplement the human body's trace elements, support metabolism, and enhance the nutritional value of the product.

[0026] Jerusalem artichoke powder has a large particle diameter (20-80 mesh) and appropriate viscosity. It plays the role of skeleton material in the formula, enhancing the mechanical strength after tableting and preventing particles from breaking due to transportation and external forces. In addition, the dietary fiber and oligosaccharides in Jerusalem artichoke powder help promote intestinal peristalsis and further assist detoxification.

[0027] Inulin is a natural oligofructose with fine particles (200-300 mesh) and high viscosity. Its role is not only to enhance the tableting formability of the formula and the smoothness of the particle surface, but also to promote the reproduction of beneficial bacteria in the intestine as a prebiotic, improve the intestinal microecological environment, and thus synergistically enhance the detoxification and weight loss effects.

[0028] Please refer to the attached Figure 1 , a method for preparing an edible activated carbon formula for weight loss, detoxification and beauty: S1. Treatment of corn cob activated carbon: Crush corn cob activated carbon to 200 mesh, control the drying rate below 10%. Add 55 to 75 parts into the stirring device.

[0029] Mechanism explanation: Crushing to 200 mesh is to optimize the specific surface area of ​​activated carbon so that it can expand and adsorb more efficiently in the gastrointestinal tract. If the particles are too coarse, the adsorption effect will be reduced; if they are too fine, powder agglomeration may occur, resulting in a decrease in adsorption rate. In addition, a drying rate of less than 10% can avoid the phenomenon of liquid bridges between particles due to excessive moisture, thereby affecting the subsequent mixing uniformity.

[0030] S2. Adding and mixing pumpkin powder: Add 10 to 20 parts of pumpkin powder and stir thoroughly with corn cob activated carbon to make the mixture uniform.

[0031] Mechanism description: The average diameter of pumpkin powder particles is 80-150 mesh, which is larger than corn cob activated carbon particles. Microscopically, pumpkin powder particles can provide buffering and support during tableting, reducing the damage to the activated carbon skeleton structure. At the same time, its yellow color makes it easier to judge the mixing uniformity, which helps control product quality.

[0032] S3. Adding and mixing Jerusalem artichoke powder: Add 8 to 15 parts of Jerusalem artichoke powder and continue stirring until well mixed.

[0033] Mechanism description: The particle diameter of Jerusalem artichoke powder is between 20 mesh and 80 mesh, and it has high mechanical strength. As a skeleton component, Jerusalem artichoke powder enhances the mechanical stability of the overall particles during tableting and reduces the possibility of finished product breakage. In addition, the natural viscosity of Jerusalem artichoke powder helps to improve the binding force during tableting and further improve the physical properties of the product.

[0034] S4. Adding and mixing inulin: Add inulin, accounting for 8 to 15 parts of the total weight, and mix evenly until the black activated carbon particles and the white inulin are evenly distributed when observed with the naked eye.

[0035] Inulin particles are small (200-300 mesh) and have strong viscosity. Its functions are mainly reflected in two aspects: first, it enhances the adhesion between particles, making the surface of the tablet smoother and smoother to eat; second, it acts as a prebiotic to regulate the intestinal flora environment, forming a synergistic effect with the adsorption and detoxification effect of activated carbon.

[0036] S5. Steam atomization stirring: Stir in a steam atomization environment for 10 minutes to make the surface of the particles evenly moistened for easy tableting.

[0037] Water vapor increases the humidity on the particle surface, improves the bonding state between the components, and is conducive to improving the formability during tableting. At the same time, the moist particle surface can reduce the generation of micro cracks during tableting and ensure the strength of the finished particle.

[0038] S6. Tabletting, drying and packaging: The stirred material is fed into a tabletting machine for tabletting, and the finished particle diameter is 4 mm. After tabletting, it is dried at 50°C to 60°C for 30 minutes to 60 minutes, and then packaged.

[0039] The pressure during tableting is controlled at 150N-200N, which can ensure the structural stability of the particles and avoid breakage caused by external forces. Reasonable control of drying temperature and time ensures that the moisture content of the product meets the standard and prevents deterioration or decreased adsorption capacity due to excessive humidity during long-term storage.

[0040] The core mechanism of this formula and its preparation method is to give full play to the adsorption characteristics of corn cob activated carbon, and through the synergistic effect with pumpkin powder, Jerusalem artichoke powder and inulin, it can not only achieve efficient adsorption and detoxification functions, but also have good tableting properties, particle mechanical strength and taste comfort. In addition, reasonable process design ensures that the product reaches the best state in terms of adsorption function, physical properties and storage stability.

[0041] In order to fully reflect the technical solution and its beneficial effects of the present invention, it is necessary to describe the formula composition and preparation method of the present invention in detail through specific examples. The examples not only cover the key component ratios and preparation process parameters of the present invention, but also fully demonstrate how the synergistic effect of each functional ingredient can achieve the comprehensive health care effects of weight loss, detoxification and beauty. By accurately describing the various process steps of the examples, the innovation and practicality of the present invention can be intuitively reflected, providing guidance for subsequent technical applications.

[0042] Example 1 Raw material ratio: Corn cob activated carbon: 65 parts; Pumpkin powder: 15 portions; Jerusalem artichoke powder: 10 portions; Inulin: 10 parts.

[0043] Specific steps: (1) Crush corn cob activated carbon to 200 mesh size and control the drying rate to 8%. Weigh 65 parts of corn cob activated carbon and put it into the stirring device.

[0044] (2) Add 15 parts of pumpkin powder. The particle size of the pumpkin powder is controlled at 120 mesh and the moisture content is 6%. Stir evenly until the color gradually mixes to light gray.

[0045] (3) After the mixture is evenly mixed, add 10 parts of Jerusalem artichoke powder, with a particle size of 50 mesh and a moisture content of 12%. Continue stirring and observe that the surface of the mixed powder gradually becomes fine and the particles are tightly packed.

[0046] (4) Finally, add 10 parts of inulin. The particle size is 250 mesh and the humidity is controlled at 7%. After thorough stirring, the surface of the mixture presents a delicate luster.

[0047] (5) In a steam atomization environment, humidify and stir for 10 minutes to make the raw materials evenly moistened. Then send the evenly stirred materials into a tablet press. The diameter of the formed particles is 4 mm and the pressure is controlled at 180N.

[0048] (6) After tableting, the tablets are sent to a drying oven at 55°C for 40 minutes. The finished products are packaged.

[0049] Effect description: This embodiment significantly improves the mechanical strength and tableting properties of the product by reasonably controlling the ratio of activated carbon and the binding component, while maintaining the efficient adsorption performance of the activated carbon, solving the problem of fragile tablets in the prior art.

[0050] Example 2 Raw material ratio: Corn cob activated carbon: 70 parts; Pumpkin powder: 10 portions; Jerusalem artichoke powder: 8 portions; Inulin: 12 parts.

[0051] Specific steps: (1) Crush corn cob activated carbon to a particle size of 200 mesh and dry it to a moisture content of less than 10%. Weigh 70 parts of activated carbon and put it into a stirring device, stirring at a low speed for 1 minute.

[0052] (2) Add 10 parts of pumpkin powder, with a particle size of 100 mesh and a drying rate of 7%. After mixing, observe that the powder is uniformly grayish yellow.

[0053] (3) Then add 8 parts of Jerusalem artichoke powder. Its particle size is 40 mesh and its moisture content is 12%. Stir for 5 minutes to coat the surface of the activated carbon particles with the Jerusalem artichoke powder.

[0054] (4) Finally, add 12 parts of inulin with a particle size of 250 mesh and control the humidity at 5%. The mixture gradually becomes slightly sticky and not sticky to the touch but with a noticeable granular feel.

[0055] (5) The mixture is humidified and stirred in a water vapor atomization environment for 12 minutes until the raw material absorbs moisture evenly. It is then fed into a tablet press with a tablet diameter of 4 mm and a pressure of 200 N.

[0056] (6) The drying temperature is set to 50°C and the drying time is controlled at 50 minutes. The surface of the finished product is smooth and uniform.

[0057] Effect description: This embodiment increases the proportion of inulin, making the product more cohesive during molding, smooth after tableting, and easy to carry. A higher proportion of activated carbon ensures the adsorption capacity for weight loss and detoxification, and is suitable for people with higher health needs.

[0058] Example 3 Raw material ratio: Corn cob activated carbon: 60 parts; Pumpkin powder: 20 portions; Jerusalem artichoke powder: 10 portions; Inulin: 10 parts.

[0059] Specific steps: (1) Crush corn cob activated carbon to 200 mesh and control the moisture content to 9%. Take 60 parts of activated carbon and add it to the blender and stir for 30 seconds.

[0060] (2) Add 20 parts pumpkin powder with a particle size of 110 mesh and a moisture content of 6.5%. Stir at medium speed for 3 minutes to ensure that the mixture has a uniform color.

[0061] (3) Add 10 parts of Jerusalem artichoke powder. The particle size is controlled at 60 mesh and the moisture content is 11%. The mixed powder is slightly fine and has a moderate particle size.

[0062] (4) Add 10 parts of inulin. Particle size: 200 mesh, humidity: 6%. When stirring, pay attention to adjusting the speed to prevent the inulin from agglomerating.

[0063] (5) Under the condition of water vapor atomization, the particles were stirred at a low speed for 8 minutes to ensure that a thin wet film was formed on the surface of the particles. The particles were then fed into a tablet press and formed into tablets with a diameter of 4 mm and a pressure of 170 N.

[0064] (6) Dry immediately after tableting at 60°C for 45 minutes. After cooling, packaging is complete.

[0065] Effect description: This embodiment appropriately increases the proportion of pumpkin powder, significantly improving the taste and appearance of the finished product, making the particles smooth and comfortable to eat. At the same time, the humidification and stirring steps in the tableting process further reduce the breakage rate of the finished product.

[0066] Example 4 Raw material ratio: Corn cob activated carbon: 55 parts; Pumpkin powder: 15 portions; Jerusalem artichoke powder: 15 portions; Inulin: 15 parts.

[0067] Specific steps: (1) Crush corn cob activated carbon to 200 mesh and dry to 8% moisture content. Take 55 parts of activated carbon and add it to the stirring device and stir for 2 minutes.

[0068] (2) Add 15 parts of pumpkin powder. Its particle size is 100 mesh and its drying rate is 7%. Stir at medium speed and observe that the particles are gradually evenly distributed.

[0069] (3) Add 15 parts of Jerusalem artichoke powder, with a particle size of 50 mesh and a moisture content of 11%. The mixed powder gradually shows a state of uniform distribution of particles and powder.

[0070] (4) Finally, add 15 parts of inulin, 250 mesh, 5% moisture. Stir for 5 minutes to ensure even mixing.

[0071] (5) Humidify and stir for 10 minutes under steam atomization environment to make the surface moderately moist. Send to tablet press for molding, tablet diameter 4mm, pressure controlled at 190N.

[0072] (6) After tableting, the tablets are placed in a drying oven at 55°C for 45 minutes. After cooling, they are packaged.

[0073] Effect description: This embodiment improves the overall strength and surface smoothness of the particles through a balanced ratio, and is suitable for people who need to improve the prebiotic function. The synergistic effect of each component ensures the comprehensive effect of the product in weight loss, detoxification and regulating intestinal function.

[0074] In order to verify the technical advantages and functional effects of the embodiments of the present invention, it is necessary to introduce several comparative examples as references. The comparative examples can clearly reflect the innovations and optimization logic of the embodiments by adjusting key parameters, partially omitting functional ingredients or optimizing processes. The comparative examples not only reveal the deficiencies of the prior art, but also intuitively reflect the significant improvements of the present invention in terms of adsorption performance, prebiotic synergy, tablet stability, etc. through experimental data, providing sufficient basis for the technical superiority of the present invention.

[0075] Comparative Example 1 (corresponding to Example 1) Raw material ratio: Corn cob activated carbon: 65 parts; Pumpkin powder: 15 portions; Jerusalem artichoke powder: 10 portions; Inulin: Omit.

[0076] Specific steps: (1) Crush corn cob activated carbon to 200 mesh and control the drying rate to 8%. Take 65 parts of activated carbon and put it into the stirring device.

[0077] (2) Add 15 parts pumpkin powder, particle size 120 mesh, humidity 6%, and mix with activated carbon until uniform.

[0078] (3) Then add 10 parts of Jerusalem artichoke powder (50 mesh, 12% moisture) and stir for 5 minutes until the powder is uniform in color.

[0079] (4) Directly feed into the tablet press, the tablet diameter is 4 mm, and the pressure is controlled at 180N.

[0080] (5) After tableting, the tablets are dried at 55°C for 40 minutes and packaged.

[0081] Difference: Inulin was not added in Comparative Example 1, which reduced the prebiotic component in the formula. Inulin did not contribute to the viscosity and particle surface smoothness during the stirring process.

[0082] Comparative Example 2 (corresponding to Example 2) Raw material ratio: Corn cob activated carbon: 70 parts; Pumpkin powder: 10 portions; Jerusalem artichoke powder: omit; Inulin: 20 parts.

[0083] Specific steps: (1) Crush corn cob activated carbon to 200 mesh and control the drying rate to less than 10%. Take 70 parts of activated carbon and put it into the mixer.

[0084] (2) Add 10 parts pumpkin powder (100 mesh size, 7% moisture) and stir until uniform.

[0085] (3) Add 20 parts of inulin, particle size 250 mesh, and 5% moisture. Continue stirring until the mixture particles become more cohesive.

[0086] (4) The tablets are fed into the tablet press and the diameter of the tablets is 4 mm. The pressure is 200 N.

[0087] (5) After tableting, dry the tablets at 50°C for 50 minutes and then package them.

[0088] Difference: In Comparative Example 2, Jerusalem artichoke powder was not added, and the proportion of inulin was greatly increased, which affected the strength of the overall skeleton structure.

[0089] Comparative Example 3 (corresponding to Example 3) Raw material ratio: Corn cob activated carbon: 60 parts; Pumpkin powder: 20 portions; Jerusalem artichoke powder: 10 portions; Inulin: 10 parts.

[0090] Specific steps: (1) Crush corn cob activated carbon to 100 mesh and control the drying rate to 10%. Take 60 parts of activated carbon and add it into the stirring device.

[0091] (2) Add 20 parts pumpkin powder (110 mesh in size, 6.5% in humidity) and stir until the color is uniform.

[0092] (3) Add 10 parts of Jerusalem artichoke powder, with a particle size of 60 mesh and a humidity of 11%. After mixing, the surface of the powder particles is relatively rough.

[0093] (4) Add 10 parts of inulin, with a particle size of 200 mesh and a humidity of 6%. Stir evenly and then feed into a tablet press. The pressure is controlled at 170N and the diameter of the tablets is 4mm.

[0094] (5) The drying temperature is controlled at 60°C, the drying time is 45 minutes, and the packaging is completed.

[0095] Difference explanation: the corn cob activated carbon in comparative example 3 was crushed to 100 mesh, which is coarser than the 200 mesh in example 3, which changed the adsorption performance and mixing uniformity.

[0096] Comparative Example 4 (corresponding to Example 4) Raw material ratio: Corn cob activated carbon: 55 parts; Pumpkin powder: 15 portions; Jerusalem artichoke powder: 15 portions; Inulin: 15 parts.

[0097] Specific steps: (1) Crush corn cob activated carbon to 200 mesh and control the drying rate to 8%. Take 55 parts of activated carbon and add it to the stirring equipment.

[0098] (2) Add 15 parts pumpkin powder, particle size 100 mesh, humidity 7%, and mix until uniform.

[0099] (3) Add 15 parts Jerusalem artichoke powder, particle size 50 mesh, humidity 11%. Stir well.

[0100] (4) Add 15 parts of inulin, with a particle size of 250 mesh and a humidity of 5%. After stirring, the mixture is directly fed into a tablet press without being subjected to atomization treatment with steam. The tablet diameter is 4 mm and the pressure is controlled at 190 N.

[0101] (5) After tableting, dry at 55°C for 45 minutes and then package.

[0102] Differences: Comparative Example 4 omitted the steam atomization and stirring step, did not perform humidification treatment, and directly pressed the tablets, which may affect the binding force between the particles.

[0103] Comparative Example 5 (comprehensive comparison, based on existing technology) Raw material ratio: Corn cob activated carbon: 70 parts; Pumpkin powder: 20 portions; Jerusalem artichoke powder: 10 portions.

[0104] Specific steps: (1) Crush corn cob activated carbon to 100 mesh and control the drying rate to 10%. Take 70 parts of activated carbon and add it into the blender.

[0105] (2) Add 20 parts pumpkin powder, particle size 120 mesh, humidity 7%, and stir with activated carbon to mix evenly.

[0106] (3) Add 10 parts Jerusalem artichoke powder, particle size 60 mesh, humidity 11%. Continue stirring until the powder is uniform.

[0107] (4) Directly feed into the tablet press, the diameter of the formed tablets is 4 mm, and the pressure is controlled at 150N.

[0108] (5) After tableting, dry at 50°C for 60 minutes.

[0109] Difference: Inulin was omitted in this comparative example, prebiotic ingredients were not considered, and the activated carbon particle size and tableting pressure were not optimized, which may result in insufficient adsorption performance and poor stability of the finished product. Each comparative example reflects the creative protection scope of the technical solution of the present invention by reducing certain key steps, adjusting process parameters or omitting specific components. The design of the comparative examples is based on the invention point, with clear logic, which can fully highlight the innovative advantages of the examples in adsorption performance, tablet quality and processing technology.

[0110] In order to comprehensively evaluate the comprehensive performance of the embodiments of the present invention and verify its ability to solve the problems raised in the background technology, a test scheme covering animal experiments and in vitro experiments was designed. Through the test experiments, the technical effects of the embodiments in multiple dimensions such as weight loss, detoxification, regulation of flora, and blood lipid control can be systematically analyzed. At the same time, combined with the experimental results of the comparative examples, the overall improved performance and practical application value of the technical solution of the present invention are quantified. The comprehensiveness and scientificity of the experiment can fully support the creativity and practical benefits of the technical solution of the present invention.

[0111] Through comprehensive testing of the embodiments and comparative examples, the comprehensive advantages of the present invention in weight loss, detoxification and stool removal, improvement of gastrointestinal function and blood lipid regulation are verified, reflecting its improvement effect on the existing technology and the rationality of the technical solution.

[0112] Experimental methods: This experiment uses a combination of animal models and in vitro experiments to evaluate the comprehensive technical effects of the embodiments (such as embodiments 1 to 4) and comparative examples (such as comparative examples 1 to 5). The test indicators cover multiple application directions, and the experimental results can comprehensively reflect the overall advantages of the technical solution.

[0113] 1. Animal experiments: comprehensive effect verification Experimental design: Animal selection: Healthy male SD rats (weight 180 g-200 g) were selected and randomly divided into 8 groups, with 10 rats in each group.

[0114] Example groups: Examples 1 to 4 are experimental groups 1 to 4, respectively.

[0115] Comparative example group: Comparative examples 1 to 4 are control groups 1 to 4 respectively.

[0116] Blank group: No intervention, used to control basic metabolism and health indicators.

[0117] Experimental period: 4 weeks.

[0118] Feeding method: The mice were fed with a standardized high-fat diet, and each group was given a tablet orally every day, with a dose of 1g / kg body weight. The blank group was only fed with a high-fat diet, without medication.

[0119] Test indicators and methods: Body weight changes: The rats in each group were weighed every week before and after the experiment to observe the changes in their body weight.

[0120] Fat excretion in feces: Feces of each group of rats were collected at the end of the fourth week, and the total fat content in feces was detected by Soxhlet extraction to analyze fat excretion.

[0121] Blood lipid test: After the experiment, blood was collected to test total cholesterol (TC), triglycerides (TG), low-density lipoprotein (LDL-C) and high-density lipoprotein (HDL-C).

[0122] Liver toxin burden: Rats were dissected and their livers were taken to determine the residual amounts of heavy metals (lead and cadmium) in the liver, which were analyzed by atomic absorption spectrometry.

[0123] Analysis of intestinal microbial communities: bacterial DNA was extracted from feces, and the composition and diversity changes of intestinal flora were analyzed by 16S rRNA sequencing.

[0124] Gastrointestinal function assessment: The effects of each group on gastrointestinal motility were evaluated by analyzing the gastric contents and small intestinal propulsion rate of rats.

[0125] 2. In vitro experiments: adsorption and detoxification performance test Experimental design: Adsorption performance test: In a simulated gastrointestinal environment, the adsorption of each group of tablets on cholesterol, fat, heavy metal ions (such as Pb 2+ 、Cd 2+ )’s adsorption capacity.

[0126] Methods: Tablets (1 g) were added to simulated gastric fluid (pH 2.0) and intestinal fluid (pH 7.4) at 37°C, and the concentrations of residual cholesterol, fat and metal ions in the solution were detected 2 hours later. High performance liquid chromatography (HPLC) and atomic absorption spectrometry were used for analysis.

[0127] Prebiotic function test: In an in vitro culture system, the proliferation-promoting effect of each group of tablets on intestinal probiotics (such as bifidobacteria and lactic acid bacteria) was determined.

[0128] Method: The tablet soaking liquid was added into the bacterial culture medium, and the bacterial proliferation rate was determined after 24 hours of culture, and the turbidimetric method was used for analysis.

[0129] Experimental Description Experimental Materials: Experimental tablets: Tablets prepared in Examples 1 to 4 and Comparative Examples 1 to 4.

[0130] Experimental Animals: Healthy male SD rats, 180 g to 200 g, were purchased from a regular experimental animal center.

[0131] Experimental reagents: Simulated gastric fluid (pH 2.0) and intestinal fluid (pH 7.4).

[0132] Cholesterol standard solution, high-fat feed, bacterial culture medium (special for bifidobacteria and lactic acid bacteria).

[0133] Heavy metal ions (Pb 2+ 、Cd 2+ ) solution.

[0134] Instruments and equipment: High performance liquid chromatography (HPLC).

[0135] Atomic absorption spectrometer (AAS).

[0136] Weighing scales, drying ovens, fecal fat extraction equipment.

[0137] Experimental steps: Animal Experiments (1) The rats were randomly divided into groups (10 rats in each group): Examples 1 to 4 and Comparative Examples 1 to 4 were respectively the experimental group and the control group, and a blank group was also set up.

[0138] (2) The rats were fed with the Example and Comparative Example tablets at a rate of 1 g / kg body weight per day for 4 weeks. The blank group was fed only with high-fat diet.

[0139] (3) Weigh the rats weekly and observe the trend of body weight changes.

[0140] (4) At the end of the experiment, stool samples were collected and the fat content was tested using the Soxhlet extraction method.

[0141] (5) Blood sampling for testing of blood lipids (total cholesterol, triglycerides, LDL-C and HDL-C).

[0142] (6) Liver samples were obtained by autopsy to detect heavy metal residues (Pb 2+ 、Cd 2+ ).

[0143] In vitro experiments: (1) Adsorption experiment: Prepare simulated gastric and intestinal fluids and add the tablets to the liquid.

[0144] Add cholesterol, fat, Pb2+ and Cd 2+ The solution was shaken at 37°C for 2 hours.

[0145] The concentration of residual substances after adsorption was analyzed by HPLC and AAS.

[0146] (2) Prebiotics experiment: The tablet solution was added to the bacterial culture medium and the bacterial count was determined after 24 hours of incubation.

[0147] Experimental process: Tablets for the experimental group and the control group were prepared, and high-fat feed and simulated in vitro environment were prepared.

[0148] Animal experiments and in vitro experiments are carried out simultaneously, and samples and data are collected one by one according to the steps.

[0149] After the experiment, the experimental data of all groups were analyzed uniformly.

[0150] Table 1: Comparison of comprehensive test data between the embodiment and the comparative example: The data clearly show that the embodiments are superior to the comparative examples in many aspects, especially in weight loss and detoxification. In the embodiments, the particle size and ratio of corn cob activated carbon are optimized, and the adsorption of fat, cholesterol and heavy metals is obvious. Prebiotic ingredients (such as inulin) further improve the intestinal microecology by promoting the proliferation of probiotics. This synergistic effect ensures the balance of the tablets in many aspects, while the experimental group in comparative example 5 that omits inulin has significantly reduced performance in terms of flora proliferation and fat excretion.

[0151] The introduction of steam humidification process is also a key link. The embodiment uses humidification stirring to improve the uniformity and binding force of the particles, ensuring the stability of the tablets during transportation and in vivo release. However, after omitting the humidification process, the tableting quality of Comparative Examples 4 and 5 decreased, and the adsorption function was not fully exerted. This shows that it is difficult to obtain tablets with excellent comprehensive performance by relying only on activated carbon and simple binders.

[0152] The experimental results verified the scientific nature of the present invention from a mechanism perspective. The embodiment not only adsorbed fat and toxins, but also significantly improved the function of intestinal flora through the optimized particle size of activated carbon and the synergistic effect of prebiotics. This all-round improvement was not reflected in the comparative group, highlighting the innovation and application value of the technical solution.

[0153] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A formula of edible activated carbon for weight loss, detoxification and beauty, characterized in that: Including the following raw materials by mass: Corn cob activated carbon: 55 to 75 parts; Pumpkin powder: 10-20 parts; Jerusalem artichoke powder: 8 to 15 portions; Inulin: 8 to 15 parts.

2. The edible activated carbon formula for weight loss, detoxification and beauty care according to claim 1, characterized in that: The corncob activated carbon has a particle size of 200 meshes and a drying rate of less than 10%.

3. The edible activated carbon formula for weight loss, detoxification and beauty care according to claim 1, characterized in that: The particle size of the pumpkin powder is 80 meshes to 150 meshes, and the drying rate is 5% to 8%.

4. The edible activated carbon formula for weight loss, detoxification and beauty care according to claim 1, characterized in that: The particle size of the Jerusalem artichoke powder is 20-80 meshes, and the drying rate is 12%.

5. The edible activated carbon formula for weight loss, detoxification and beauty care according to claim 1, characterized in that: The particle size of the inulin is 200-300 meshes, and the drying rate is 4.5%-8%.

6. A method for preparing edible activated carbon for weight loss, detoxification and beauty, characterized in that: The edible activated carbon formula for weight loss, detoxification and beauty care applied to any one of claims 1 to 5 comprises the following steps: S1. Crush the corn cob activated carbon into 200 mesh, control the drying rate below 10%, take 55 to 75 parts of corn cob activated carbon and add them into the stirring device; S2. Add 10 to 20 parts of pumpkin powder and stir thoroughly with corn cob activated carbon; S3. Add 8 to 15 parts of Jerusalem artichoke powder and continue stirring until well mixed; S4. Add 8 to 15 parts of inulin, stir evenly, and continue stirring in a steam atomization environment for 10 minutes; S5. The mixed raw materials are sent to a tabletting machine for tableting, and then dried and packaged.

7. The method for preparing an edible activated carbon formula for weight loss, detoxification and beauty care according to claim 6, characterized in that: The water vapor atomization stirring time is 10 minutes.

8. The method for preparing an edible activated carbon formula for weight loss, detoxification and beauty care according to claim 6, characterized in that: The drying temperature after tableting is controlled at 50°C to 60°C, and the drying time is 30 minutes to 60 minutes.

9. The method for preparing an edible activated carbon formula for weight loss, detoxification and beauty care according to claim 6, characterized in that: The pressure of the tablet punching machine is controlled at 150N-200N.

10. The method for preparing an edible activated carbon formula for weight loss, detoxification and beauty care according to claim 6, characterized in that: The diameter of the finished particles of the uniformly mixed raw materials after tableting is 4 mm.

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