Biological 3D printing planting shell wire rod and formula and manufacturing process thereof
A 3D printing and manufacturing process technology, applied in the field of biological 3D printing, can solve the problems of easy breeding of bacteria, inability to confirm the shell, etc., and achieve the effects of convenient measurement, improved plasticity, increased viscosity and hardness
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Embodiment 1
[0041]A formulation of biological 3D printing planting shell wire, comprising the following substances by weight: 12 parts of phenazine derivative gel factor, 20 parts of pectin, 30 parts of chitosan gel, 10 parts of collagen, 0.9 wt% chlorine 18 parts of sodium chloride solution, 8 parts of amylose, 5 parts of polystyrene sulfonate, 10 parts of sterilized natural silk powder, 12 parts of ethanol, and 40 parts of water.
[0042] The manufacturing process of the biological 3D printing planting shell wire comprises the following steps:
[0043] (1) Add pectin, chitosan gel and collagen to the heating mixer, then add water to the mixer, heat and stir until dissolved, keep warm at 95-100°C for 30-60min, and then gradually cool down to 75°C ~85°C;
[0044] (2) Add chitosan into the mixing system of step (1), stir until dissolved at 75-85° C., and keep warm for 5-10 minutes;
[0045] (3) Heat and dissolve the phenazine derivative factor in ethanol under airtight conditions to form...
Embodiment 2
[0048] Embodiment 2: A formula for bio-3D printing planting shell wire, including the following materials in parts by weight: 10 parts of phenazine derivative gel factor, 20 parts of sodium alginate gel, 40 parts of gelatin, 8 parts of collagen, 15 parts of crystal sugar, 10 parts of mannitol, 8 parts of sterilized natural silk powder, 15 parts of ethanol, and 40 parts of water.
[0049] The manufacturing process of the biological 3D printing planting shell wire comprises the following steps:
[0050] (1) Add 20 parts of sodium alginate gel, gelatin and collagen to a heating mixer, then add water to the mixer, heat and stir until dissolved, keep warm at 95-100°C for 30-60 minutes, and then gradually cool down to 75~85℃;
[0051] (2) Add chitosan into the mixing system of step (1), stir until dissolved at 75-85° C., and keep warm for 5-10 minutes;
[0052] (3) heating and dissolving the phenazine derivative factor in a mixed solution of isopropanol and ethanol under airtight ...
Embodiment 3
[0055] Embodiment 3: A formula for bio-3D printing planting shell wire, including the following materials in parts by weight: 18 parts of phenazine derivative gel factor, 42 parts of agar, 10 parts of collagen, and 15 parts of 0.9wt% sodium chloride solution , 5 parts of monocrystalline sugar, 15 parts of chitin, 12 parts of sterilized natural silk powder, 10 parts of ethanol, and 50 parts of water.
[0056] The manufacturing process of the biological 3D printing planting shell wire comprises the following steps:
[0057] (1) Add agar and collagen to the heating mixer, then add water to the mixer, heat and stir until dissolved, keep warm at 95-100°C for 30-60min, and then gradually cool down to 75-85°C;
[0058] (2) Add chitosan into the mixing system of step (1), stir until dissolved at 75-85° C., and keep warm for 5-10 minutes;
[0059] (3) heating and dissolving the phenazine derivative factor in acetone under airtight conditions to form a solution with a concentration of ...
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