Sensing parasites: Proteomic and advanced bio-detection alternatives

Area of Science:

• Parasitology
• Biotechnology
• Nanotechnology

Background:

• Parasitic diseases significantly impact human and animal health globally.
• Conventional microscopy, the current diagnostic standard, has limitations in sensitivity, specificity, and requires expert technicians.
• There is a critical need for advanced, high-throughput diagnostic tools for early detection and control of parasitic infections.

Purpose of the Study:

• To review recent advancements in diagnostic methodologies and technologies for parasite detection.
• To highlight the potential of '-omics' approaches and microfluidic platforms in combating parasitic diseases.
• To explore novel sensing strategies using proteomics and nanotechnology for pathogen detection.

Main Methods:

• Review of current literature on parasitic disease diagnostics.
• Analysis of proteomics and nanotechnology applications in bio-sensing.
• Discussion of microfluidic platforms for pathogen detection.
• Exploration of parasite-derived immune-modulatory products as diagnostic markers.

Main Results:

• Proteomics and nanotechnology offer sensitive and affordable bio-sensing tools.
• Microfluidic platforms integrated with these technologies can enable high-throughput screening.
• Parasite-derived products show potential as early and accurate diagnostic candidates.
• Novel methods can aid in blocking parasite development and improving control programs.

Conclusions:

• Emerging '-omics' technologies and advanced platforms present significant opportunities for parasite detection and control.
• Sensitive and affordable diagnostic devices are crucial for sustainable parasitic disease management, particularly in low-income regions.
• The integration of nanotechnology and proteomics holds promise for novel solutions against parasitic infections.