Multilayer embedding structure for probiotics
By adopting a multi-layer embedding structure of probiotics and using the combination of natural polymers, antioxidant polypeptide bio-oxygen barrier layer and polymer substances, the problem of insufficient probiotic protection in the prior art is solved, and the effect of improving the stability and survival rate of probiotics is achieved.
Patent Information
- Application Number
- CN202420937677.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-04-30
- Publication Date
- 2025-03-18
- Estimated Expiration
- 2034-04-30
AI Technical Summary
Existing probiotic protection technologies, such as monolayer and double layer embedding technologies, cannot effectively protect probiotics, resulting in reduced or inactivation of their activity.
A multi-layer embedding structure of probiotics is adopted, including the outer layer, the middle layer and the inner layer. The outer layer uses natural polymer substances, the middle layer is an antioxidant polypeptide biological oxygen barrier layer, and the inner layer uses polymer substances, and a fixed layer, an inner layer and an outer layer are provided in the inner layer to improve the stability of probiotics through three layers protection.
Effectively block the influence of the external environment, improve the survival rate and functional activity of probiotics, and enhance the stability of probiotic embedding.
Smart Images
Figure CN222631405U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of probiotics, in particular to a probiotics multi-layer embedding structure. Background Art
[0002] Probiotics are microorganisms that are beneficial to the human body and have multiple functions such as maintaining intestinal health, promoting digestion, and enhancing immunity. However, during the preparation and storage process, probiotics are easily affected by the external environment, such as temperature, humidity, acidity, etc., which can reduce their activity or even inactivate them.
[0003] At present, common probiotic protection technologies include single-layer embedding technology and double-layer embedding technology. However, single-layer embedding technology often cannot provide sufficient protection, and although double-layer embedding technology provides a certain degree of protection, the stability is poor. Therefore, a probiotic multi-layer embedding structure is proposed to protect probiotics and improve the stability of probiotic embedding. Utility Model Content
[0004] The utility model aims to provide a probiotic multi-layer embedding structure, which can protect the probiotics and improve the embedding stability of the probiotics.
[0005] To achieve the above-mentioned purpose, the utility model adopts a probiotic multi-layer embedding structure, comprising an outer layer, a middle layer, an inner layer and a probiotic colony body, wherein the probiotic colony body is arranged on the inner side of the inner layer, the middle layer is arranged on the outer side of the inner layer, and the outer layer is arranged on the outer side of the middle layer;
[0006] The inner layer includes a fixed layer body, an inner mixing layer body and an outer mixing layer body. The fixed layer body is arranged between the middle layer and the probiotic colony body. The inner mixing layer body is arranged on the inner side of the fixed layer body, and the outer mixing layer body is arranged on the outer side of the fixed layer body.
[0007] Wherein, the inner layer further includes inner mixing particles, and a plurality of the inner mixing particles are arranged on the inner mixing layer body.
[0008] Wherein, the probiotic colony body and the inner mixing particles are formed by mixing.
[0009] Wherein, the inner layer further includes outer mixed particles, and a plurality of the outer mixed particles are arranged on the outer mixed layer body.
[0010] Wherein, the outer mixing layer and the outer mixing particles are formed by mixing.
[0011] The utility model provides a probiotic multi-layer embedding structure, wherein the probiotic colony body is arranged on the inner side of the inner layer, the middle layer is arranged on the outer side of the inner layer, and the outer layer is arranged on the outer side of the middle layer. The fixed layer body is arranged between the middle layer and the probiotic colony body, the inner side of the fixed layer body is arranged with the inner blending layer body, and the outer side of the fixed layer body is arranged with the outer blending layer body. During the embedding process, the probiotic colony body and the inner blending layer body are embedded, and then the middle layer and the outer layer are embedded in turn; three-layer protection is adopted, and at the same time, the probiotic colony body is connected with the middle layer by the inner layer, so as to obtain the effect of protecting the probiotic colony body and improving the stability of the embedding of the probiotic colony body.
[0012] The outer layer is made of natural polymer materials, such as gelatin, sodium alginate, etc., which have good barrier properties, can block the invasion of external substances, and protect the functional activity of the probiotic colony itself.
[0013] The middle layer is an antioxidant polypeptide biological oxygen barrier layer, which can effectively prevent the damage caused by oxygen invasion to the probiotic colony body, and further improve the survival rate of the probiotic colony body.
[0014] The inner layer uses polymer materials, such as gelatin, cellulose lactate, etc., to provide a stable microenvironment for the probiotic colony body, which can block changes in humidity and temperature, thereby keeping the probiotic colony body in a suitable living environment. BRIEF DESCRIPTION OF THE DRAWINGS
[0015] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.
[0016] Figure 1 It is a structural schematic diagram of the probiotic multi-layer embedding structure of the utility model.
[0017] Figure 2 It is a structural schematic diagram of the inner layer of the utility model.
[0018] 10-outer layer, 20-middle layer, 30-inner layer, 31-fixed layer body, 32-inner mixing layer body, 33-outer mixing layer body, 34-inner mixing granules, 35-outer mixing granules, 40-probiotic colony body. DETAILED DESCRIPTION
[0019] See also Figure 1 and Figure 2 ,in Figure 1 This is a schematic diagram of the structure of the multi-layer embedding structure of probiotics. Figure 2 It is a schematic diagram of the inner layer structure.
[0020] The utility model provides a probiotic multi-layer embedding structure: comprising an outer layer 10, a middle layer 20, an inner layer 30 and a probiotic colony body 40, wherein the probiotic colony body 40 is arranged on the inner side of the inner layer 30, the middle layer 20 is arranged on the outer side of the inner layer 30, and the outer layer 10 is arranged on the outer side of the middle layer 20;
[0021] The inner layer 30 includes a fixed layer body 31, an inner mixing layer body 32 and an outer mixing layer body 33. The fixed layer body 31 is arranged between the middle layer 20 and the probiotic colony body 40. The inner mixing layer body 32 is arranged on the inner side of the fixed layer body 31, and the outer mixing layer body 33 is arranged on the outer side of the fixed layer body 31.
[0022] In this embodiment, the probiotic colony body 40 is arranged inside the inner layer 30, the middle layer 20 is arranged outside the inner layer 30, and the outer layer 10 is arranged outside the middle layer 20. The fixed layer 31 is arranged between the middle layer 20 and the probiotic colony body 40, the inner mixing layer 32 is arranged inside the fixed layer 31, and the outer mixing layer 33 is arranged outside the fixed layer 31. During the embedding process, the probiotic colony body 40 is embedded with the inner mixing layer 32, and then the middle layer 20 and the outer layer 10 are embedded in sequence; three-layer protection is adopted, and at the same time, the probiotic colony body 40 is connected with the middle layer 20 by the inner layer 30, so as to obtain the effect of protecting the probiotic colony body 40 and improving the embedding stability of the probiotic colony body 40.
[0023] The outer layer 10 is made of natural polymer materials, such as gelatin, sodium alginate, etc., which have good barrier properties, can block the invasion of external substances, and protect the functional activity of the probiotic colony body 40.
[0024] The middle layer 20 is an antioxidant polypeptide biological oxygen barrier layer, which can effectively prevent the probiotic colony body 40 from being damaged by oxygen invasion, and further improve the survival rate of the probiotic colony body 40.
[0025] The inner layer 30 uses polymer materials, such as gelatin, cellulose lactate, etc., to provide a stable microenvironment for the probiotic colony body 40, which can block changes in humidity and temperature, thereby keeping the probiotic colony body 40 in a suitable living environment.
[0026] Furthermore, the inner layer 30 further includes inner mixing particles 34 , and a plurality of the inner mixing particles 34 are disposed on the inner mixing layer body 32 .
[0027] In this embodiment, the probiotic colony body 40 is disposed inside the inner layer 30, the middle layer 20 is disposed outside the inner layer 30, and the outer layer 10 is disposed outside the middle layer 20. The fixed layer 31 is disposed between the middle layer 20 and the probiotic colony body 40, the inner mixing layer 32 is disposed inside the fixed layer 31, a plurality of inner mixing particles 34 are disposed on the inner mixing layer 32, and the outer mixing layer 33 is disposed outside the fixed layer 31.
[0028] Furthermore, the probiotic colony body 40 and the inner mixing particles 34 are mixed and formed.
[0029] In this embodiment, the probiotic colony body 40 is disposed inside the inner layer 30, the middle layer 20 is disposed outside the inner layer 30, and the outer layer 10 is disposed outside the middle layer 20. The fixed layer 31 is disposed between the middle layer 20 and the probiotic colony body 40, the inner mixing layer 32 is disposed inside the fixed layer 31, a plurality of inner mixing particles 34 are disposed on the inner mixing layer 32, and the outer mixing layer 33 is disposed outside the fixed layer 31. During the embedding process, the probiotic colony body 40 and the inner blending particles 34 are blended and embedded with the inner blending layer 32, and then the middle layer 20 and the outer layer 10 are embedded in sequence; three-layer protection is adopted, and at the same time, the probiotic colony body 40 is connected with the middle layer 20 by the inner layer 30, so as to obtain the effect of protecting the probiotic colony body 40 and improving the embedding stability of the probiotic colony body 40. Among them, the outer layer 10 adopts natural polymer materials, such as gelatin, sodium alginate, etc., which have good barrier properties, can block the invasion of foreign substances, and protect the functional activity of the probiotic colony body 40. The middle layer 20 is an antioxidant polypeptide biological oxygen barrier layer, which can effectively prevent the damage caused by oxygen invasion to the probiotic colony body 40, and further improve the survival rate of the probiotic colony body 40. The inner layer 30 uses polymer materials, such as gelatin, cellulose lactate, etc., to provide a stable microenvironment for the probiotic colony body 40, which can block changes in humidity and temperature, thereby keeping the probiotic colony body 40 in a suitable living environment.
[0030] Furthermore, the inner layer 30 further includes outer mixing particles 35 , and a plurality of the outer mixing particles 35 are disposed on the outer mixing layer body 33 .
[0031] In this embodiment, the probiotic colony body 40 is disposed inside the inner layer 30, the middle layer 20 is disposed outside the inner layer 30, and the outer layer 10 is disposed outside the middle layer 20. The fixed layer 31 is disposed between the middle layer 20 and the probiotic colony body 40, the inner mixing layer 32 is disposed inside the fixed layer 31, a plurality of the inner mixing particles 34 are disposed on the inner mixing layer 32, and the outer mixing layer 33 is disposed outside the fixed layer 31, a plurality of the outer mixing particles 35 are disposed on the outer mixing layer 33.
[0032] Furthermore, the outer mixing layer 33 and the outer mixing particles 35 are formed by mixing.
[0033] In this embodiment, the probiotic colony body 40 is disposed inside the inner layer 30, the middle layer 20 is disposed outside the inner layer 30, and the outer layer 10 is disposed outside the middle layer 20. The fixed layer 31 is disposed between the middle layer 20 and the probiotic colony body 40, the inner mixing layer 32 is disposed inside the fixed layer 31, a plurality of the inner mixing particles 34 are disposed on the inner mixing layer 32, and the outer mixing layer 33 is disposed outside the fixed layer 31, a plurality of the outer mixing particles 35 are disposed on the outer mixing layer 33. During the embedding process, the probiotic colony body 40 and the inner blending particles 34 are blended and embedded with the inner blending layer body 32, the outer blending layer body 33 and the outer blending particles 35 are blended, and then the middle layer 20 and the outer layer 10 are embedded in sequence; three-layer protection is adopted, and at the same time, the probiotic colony body 40 is connected with the middle layer 20 by the inner layer 30, so as to obtain the effect of protecting the probiotic colony body 40 and improving the embedding stability of the probiotic colony body 40. Among them, the outer layer 10 adopts natural polymer materials, such as gelatin, sodium alginate, etc., which have good barrier properties, can block the invasion of foreign substances, and protect the functional activity of the probiotic colony body 40. The middle layer 20 is an antioxidant polypeptide biological oxygen barrier layer, which can effectively prevent the damage caused by oxygen invasion to the probiotic colony body 40, and further improve the survival rate of the probiotic colony body 40. The inner layer 30 uses polymer materials, such as gelatin, cellulose lactate, etc., to provide a stable microenvironment for the probiotic colony body 40, which can block changes in humidity and temperature, thereby keeping the probiotic colony body 40 in a suitable living environment.
[0034] The above disclosure is only a preferred embodiment of the present invention, and certainly cannot be used to limit the scope of rights of the present invention. Ordinary technicians in this field can understand that all or part of the processes of the above embodiment and equivalent changes made according to the claims of the present invention still fall within the scope covered by the utility model.
Claims
1. A probiotic multi-layer embedding structure, characterized in that: It comprises an outer layer, a middle layer, an inner layer and a probiotic colony body, wherein the probiotic colony body is arranged on the inner side of the inner layer, the middle layer is arranged on the outer side of the inner layer, and the outer layer is arranged on the outer side of the middle layer; The inner layer includes a fixed layer body, an inner mixing layer body and an outer mixing layer body. The fixed layer body is arranged between the middle layer and the probiotic colony body. The inner mixing layer body is arranged on the inner side of the fixed layer body, and the outer mixing layer body is arranged on the outer side of the fixed layer body.
2. The probiotic multi-layer embedding structure according to claim 1, characterized in that: The inner layer also includes inner mixing particles, and a plurality of the inner mixing particles are arranged on the inner mixing layer body.
3. The probiotic multi-layer embedding structure according to claim 2, characterized in that: The probiotic colony body and the inner mixing particles are formed by mixing.
4. The probiotic multi-layer embedding structure according to claim 1, characterized in that: The inner layer also includes outer mixed particles, and a plurality of the outer mixed particles are arranged on the outer mixed layer body.
5. The probiotic multi-layer embedding structure according to claim 4, characterized in that: The outer mixing layer and the outer mixing particles are formed by mixing.