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    <subfield code="a">Bacterial infection is a health problem caused by bacteria attacking all body organs (i.e.,  Burkholderia pseudomallei sp., Hemophilus influenzae sp., Klebsiella pneumoniae sp.,  Pseudomonas aeruginosa sp., Staphylococcus aureus sp., Streptococcus pneumoniae  sp.). Early identification of bacterial infection significantly influences clinical  microbiology diagnosis performance and decision treatment. In addition, the ability of  visual microbiologists influences the traditional method based on the gold standard used  to classify bacterial species through microscopy. Computer-aided diagnosis (CAD) based  on image processing and machine learning is one of the modern technologies that would  help clinical microbiology assessments. The current issues on the CAD implementation  include the efficiency model development, and time consumption during species  classification. Traditional image processing and machine learning are ineffective work its  involve handcrafted feature extraction. The existing scheme applies CNN-based deep  learning to achieve high-accuracy predictions. However, existing CNN algorithms face  the obstacle of avoiding overfitting and computation, simultaneously taking longer.  Developing a hybrid method that combines deep learning and machine learning with the  efficient design of models proposes a solution to this problem. In this approach, the CNN  layers are utilized for deep feature extraction. This study has proposed the enhancement  of hybrid method based on deep convolution neural networks (EHDCNN) for  classification the bacterial species. The EHDCNN scheme extracted the feature on the  earlier CNN layer by the skip connection technique which can be efficient in the training  process. Then, the SVM-based error-correcting output codes (ECOC) model was used to  classify the feature map. The experiment results show that the proposed method based on  an EHDCNN model produces a high prediction score, such as overall accuracy of  99.61%, recall of 99.58%, specificity of 99.97%, precision of 99.58%, F-score of 0.9958,  and FPR of 0.03%, respectively. Additionally, the computational time was achieved by a  rapid processing of 05.08 minutes. The high computational hardware-based GPU can  ensure the speed of deep processing. In addition, GPU-based high-computing hardware  can ensure deep processing speed. Therefore, the proposed model supported by highgrade devices has the potential to be applied in CAD systems.</subfield>
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