Magnetic induction medium heating slow release method for tumor treatment
A technology for tumor treatment and media heating, applied in the field of tumor treatment, can solve the problems of poor biocompatibility, affect the treatment effect, limit the efficiency of drug delivery in tumor tissue, etc., achieve controlled release speed, good magnetic compliance, and improve drug invisibility sexual effect
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Embodiment 1
[0028] A method for sustained release of heat from a magnetic induction medium for tumor treatment, comprising:
[0029] S1. Prepare composite magnetic nanoparticles loaded with tumor therapeutic drugs, and sequentially coat the surface of the particles with a slow-release layer and a cell membrane layer to obtain product A;
[0030] Specifically, in this step
[0031] Preparation of composite magnetic nanoparticles:
[0032] By electrostatic interaction, in Fe 3 o 4 The surface of the core layer is coated with a layer of graphene wall layer to form Fe 3 o 4 nanospheres. in Fe 3 o 4 In nanospheres, Fe 3 o 4 The core layer has good magnetic parasitic and magnetocaloric properties, and graphene has good photothermal properties, thus making Fe 3 o 4 Nano-microspheres can achieve the synergistic control effect of magneto-thermal and photothermal.
[0033] Through electrostatic interaction, at least one chitosan wall layer and at least one sodium alginate wall layer are...
Embodiment 2
[0041] A method for sustained release of heat from a magnetic induction medium for tumor treatment, comprising:
[0042] S1. Prepare composite magnetic nanoparticles loaded with tumor therapeutic drugs, and sequentially coat the surface of the particles with a slow-release layer and a cell membrane layer to obtain product A;
[0043] Specifically, in this step
[0044] Preparation of composite magnetic nanoparticles:
[0045] By electrostatic interaction, in Fe 3 o 4 The surface of the core layer is coated with a layer of graphene wall layer to form Fe 3 o 4 nanospheres. in Fe 3 o 4 In nanospheres, Fe 3 o 4 The core layer has good magnetic parasitic and magnetocaloric properties, and graphene has good photothermal properties, thus making Fe 3 o 4 Nano-microspheres can achieve the synergistic control effect of magneto-thermal and photothermal.
[0046] Through electrostatic interaction, at least one chitosan wall layer and at least one sodium alginate wall layer are...
Embodiment 3
[0054] A method for sustained release of heat from a magnetic induction medium for tumor treatment, comprising:
[0055] S1. Prepare composite magnetic nanoparticles loaded with tumor therapeutic drugs, and sequentially coat the surface of the particles with a slow-release layer and a cell membrane layer to obtain product A;
[0056] Specifically, in this step
[0057] Preparation of composite magnetic nanoparticles:
[0058] By electrostatic interaction, in Fe 3 o 4 The surface of the core layer is coated with a layer of graphene wall layer to form Fe 3 o 4 nanospheres. in Fe 3 o 4 In nanospheres, Fe 3 o 4 The core layer has good magnetic parasitic and magnetocaloric properties, and graphene has good photothermal properties, thus making Fe 3 o 4 Nano-microspheres can achieve the synergistic control effect of magneto-thermal and photothermal.
[0059] Through electrostatic interaction, at least one chitosan wall layer and at least one sodium alginate wall layer are...
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