# Biocompatibility Testing for Implants: A Novel Tool for Selection and Characterization

**Authors:** Walid Al-Zyoud, Dana Haddadin, Sameer Ahmad Hasan, Hussamaldeen Jaradat, Olfa Kanoun

PMC · DOI: 10.3390/ma16216881 · Materials · 2023-10-26

## TL;DR

This paper introduces a new tool combining a flowchart and Python code to simplify biocompatibility testing for medical implants.

## Contribution

A novel integrated tool using a flowchart and Python code to streamline biocompatibility test selection for implants.

## Key findings

- A significant gap exists in tools for selecting biocompatibility tests for implants.
- A 'yes or no' flowchart and Python-based framework were developed to address this gap.
- The tool bridges theory and practice, improving implant development safety and efficiency.

## Abstract

This review article dives into the complex world of biocompatibility testing: chemical, mechanical, and biological characterization, including many elements of biocompatibility, such as definitions, descriptive examples, and the practical settings. The focus extends to evaluating standard documents obtained from reliable organizations; with a particular focus on open-source information, including FDA-USA, ISO 10933 series, and TÜV SÜD. We found a significant gap in this field: biomaterial scientists and those involved in the realm of medical device development in general, and implants in particular, lack access to a tool that reorganizes the process of selecting the appropriate biocompatibility test for the implant being examined. This work progressed through two key phases that aimed to provide a solution to this gap. A straightforward “yes or no” flowchart was initially developed to guide biocompatibility testing decisions based on the previously accumulated information. Subsequently, the Python code was employed, generating a framework through targeted questions. This work reshapes biocompatibility evaluation, bridging theory and practical implementation. An integrated approach via a flowchart and the Python code empowers stakeholders to navigate biocompatibility testing effortlessly. To conclude, researchers are now better equipped for a safer, more effective implant development, propelling the field towards improved patient care and innovative progress.

## Full-text entities

- **Diseases:** injuries (MESH:D014947), coagulation (MESH:D001778), fatigue fracture (MESH:D015775), arterial blockage (MESH:D015508), cardiovascular diseases (MESH:D002318), Cytotoxicity (MESH:D064420), deaths (MESH:D003643), hypersensitivity (MESH:D004342), Maxillary atrophy (MESH:D008439), scoliosis (MESH:D012600), stroke (MESH:D020521), muscle injury (MESH:D009135), implant loosening (MESH:D011475), fracture (MESH:D050723), Carcinogens (MESH:D011230), injury to people or property (MESH:C000719191), infection (MESH:D007239), fever (MESH:D005334), neuropathy (MESH:D009422), CAD (MESH:D003324), memory problems (MESH:D008569), birth defects (MESH:D000014), cancer (MESH:D009369), genetic harm (MESH:D030342), oral lichenoid diseases (MESH:D017512), burned (MESH:D002056), stenosis or (MESH:D003251), Hemolysis (MESH:D006461), cranial anomalies (MESH:C565666), mercury poisoning (MESH:D008630), Thrombosis (MESH:D013927), teratogenicity (MESH:C535542), heart failure (MESH:D006333), eye injuries (MESH:D005131), pain (MESH:D010146), Carcinogenesis (MESH:D063646), blood artery stenosis (MESH:D012078), inflammation (MESH:D007249), renal failure (MESH:D051437), bone resorption (MESH:D001862), femoral fracture (MESH:D005264)
- **Chemicals:** Silicone (MESH:D012828), oxygen (MESH:D010100), nylon (MESH:D009757), Nitinol (MESH:C013616), polypyrrole (MESH:C067635), Stainless steel (MESH:D013193), copper (MESH:D003300), 316L (-), polydioxanone (MESH:D016687), water (MESH:D014867), caprosyn (MESH:C508421), calcium (MESH:D002118), nickel (MESH:D009532), MTT (MESH:C070243), BPA (MESH:C006780), bupivacaine (MESH:D002045), Cobalt-chromium alloys (MESH:D002858), methacrylate (MESH:D008689), polyester (MESH:D011091), lipid (MESH:D008055), polyaniline (MESH:C416807), phosphorus (MESH:D010758), Mercury (MESH:D008628), tantalum (MESH:D013635), steel (MESH:D013232), polybutester (MESH:C048850), beta-Ti (MESH:C023988), Gold (MESH:D006046), oxide (MESH:D010087), PLA (MESH:C033616), Polymers (MESH:D011108), PGA (MESH:D011454), polyglycolic acid (MESH:D011100), Resin (MESH:D012116), zinc (MESH:D015032), Titanium (MESH:D014025), calcium phosphate (MESH:C020243), PMMA (MESH:D019904), polyethylene (MESH:D020959), magnesium (MESH:D008274), polyglactin 910 (MESH:D011098), Zirconia (MESH:C028541), glutaraldehyde (MESH:D005976), acrylic resins (MESH:D000180), carbon (MESH:D002244), polysaccharide (MESH:D011134), silver (MESH:D012834), sugar (MESH:D000073893), hyaluronic acid (MESH:D006820), polypropylene (MESH:D011126)
- **Species:** Felis catus (cat, species) [taxon 9685], Ovis aries (domestic sheep, species) [taxon 9940], Mus musculus (house mouse, species) [taxon 10090], Rattus norvegicus (brown rat, species) [taxon 10116], Sus scrofa (pig, species) [taxon 9823], Asteroidea (sea stars, class) [taxon 7588], Homo sapiens (human, species) [taxon 9606], Bos taurus (bovine, species) [taxon 9913]

## Full text

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## Figures

6 figures with captions in the complete paper: https://tomesphere.com/paper/PMC10647244/full.md

## References

74 references — full list in the complete paper: https://tomesphere.com/paper/PMC10647244/full.md

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Source: https://tomesphere.com/paper/PMC10647244