Compound target protein binding prediction method based on multi-deep learning model consensus
A learning model and deep learning technology, applied in the field of pharmaceutical research and development, can solve problems such as numerous parameters to be adjusted, high false positives, and low success rate
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Embodiment 1
[0072] Multiple "recurrent neural network (positive)" models are connected in series to multiple "recurrent neural network (negative)" models to predict the binding relationship and system of compound target proteins.
[0073] Schematic diagram of the overall system structure: see Figure 3 ~ Figure 4 .
[0074] System operating environment:
[0075] Hardware: CPU+GPU;
[0076] Software: Windows or Linux, Python+Tensorflow, PyTorch, Keras, etc.
[0077] Technical solutions:
[0078] Such as Figure 3 ~ Figure 4 shown.
[0079] (1) Compound target protein binding data (positive sample), compound-target protein non-binding data (negative sample)
[0080] Compound target protein binding data (positive sample), compound-target protein non-binding data (negative sample). Among them, the positive sample is the target protein binding of the compound that humans have discovered in scientific research activities, usually selected from ChemSpider, PubChem, BindingDB, ZINC, ChEMBL...
Embodiment 2
[0127] Multiple "recurrent neural networks (positive)" are connected in series with multiple "encoder-decoder neural networks (negative)" deep learning models to predict the binding relationship and system of compound target proteins.
[0128] Schematic diagram of the overall system structure: see Figure 5 .
[0129] System operating environment: same as "Embodiment 1".
[0130] (1) Obtain compound target protein binding / non-binding data (positive sample / negative sample)
[0131] The same as the corresponding part in "Example 1".
[0132] (2-1) Extract compound target protein binding / unbinding data (positive sample / negative sample) according to nine positive and negative sample ratios and synthesize the total data set, which is divided into training set, test set and verification set
[0133] With (2-1) part of " embodiment 1 " technical scheme.
[0134] (2-2) Build multiple different compound target protein binding / non-binding deep learning models (positive / negative mode...
Embodiment 3
[0160] Multiple "encoder-decoder neural networks (positive)" connected in series with multiple "recurrent neural network (negative)" deep learning models to predict the binding relationship and system of compound target proteins
[0161] Schematic diagram of the overall system structure: see Figure 6 .
[0162] System operating environment: same as "Embodiment 1".
[0163] Technical solutions:
[0164] (1) Obtain compound target protein binding / non-binding data (positive sample / negative sample)
[0165] The same as the corresponding part in "Example 1".
[0166] (2-1) Extract compound target protein binding / unbinding data (positive sample / negative sample) according to nine positive and negative sample ratios and synthesize the total data set, which is divided into training set, test set and verification set
[0167] With (2-1) part of " embodiment 1 " technical scheme.
[0168] (2-2) Build multiple different compound target protein binding / non-binding deep learning model...
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