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Accurate prediction of eye, hair, and skin color in Latin American populations requires region-specific models and ethical guidelines.

Micro-segmental hair analysis helps detect drug use patterns and estimate drug consumption days.

Hair protein differences help identify species and individuals in forensic science.

DNA phenotyping helps predict physical traits from DNA with varying accuracy and requires careful ethical and legal handling.

Understanding the Y chromosome is key to male health, aging, and developing diagnostic tools.

Hair testing is effective for detecting long-term drug use.

Electrophoresis can effectively analyze hair proteins for forensic use, even after cosmetic treatments and up to 2 years of weathering.

A new, quick method accurately detects minoxidil in drugs and cosmetics.

Topical minoxidil effectively promotes hair regrowth in male pattern baldness.

Hair elemental analysis could be useful for health and exposure assessment but requires more standardization and research.

Cosmetic residues on individual hairs can be identified and differentiated using ATR FT-IR microspectroscopy.

SEM/EDX can analyze hair elements but struggles with trace elements, limiting its forensic use.

DNA markers can help predict male pattern baldness, useful in criminal and missing person cases.

A 5 cm hair sample can reveal blood type and keratin type for forensic use.

Forensic medicine is crucial for justice and needs continuous innovation and technology integration.

Infrared spectroscopy can analyze hair for forensic and medical insights.

Forensic genetics can now predict physical traits and lifestyle habits, with future advancements expected from new technologies.

Combining skeletal and molecular anthropology improves identifying human remains.

Chemical analysis of hair products on human hair can help identify specific brands and link suspects to victims.

Forensic DNA phenotyping is becoming useful for predicting physical traits in criminal investigations but is limited by ethical concerns and incomplete genetic understanding.

DNA can predict physical traits like eye and hair color accurately, especially in Europeans, but predicting other traits and in diverse populations needs more research.

DNA profiling in forensics has improved, but predicting physical traits and ancestry from DNA has limitations and requires ethical consideration.

Hair cortisol measurement is a promising, non-invasive tool for monitoring cortisol exposure over time.

The method effectively measures hair elasticity and could be useful in forensics.

Extracted keratin from wool and hair can be used in medicine and bioengineering.

Hair analysis can be unreliable due to external contamination and varying drug concentrations.

Machine learning improves DNA predictions for eye and hair color, but challenges remain for skin tone and facial features.

New DNA analysis and machine learning are advancing forensic science, improving accuracy and expanding into non-human applications.

Next-Generation Sequencing improves forensic analysis by providing detailed genetic information quickly.

The model accurately predicts age from saliva and buccal cells for forensic use.