An assessment of physical properties and the viability of osteoblast-like cells of cefazolin-impregnated calcium sulfate bone-void filler. 2023

Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
Department of Biomedical Engineering, College of Engineering and College of Medicine, National Taiwan University, Taipei, Taiwan.

Calcium sulfate, an injectable and biodegradable bone-void filler, is widely used in orthopedic surgery. Based on clinical experience, bone-defect substitutes can also serve as vehicles for the delivery of drugs, for example, antibiotics, to prevent or to treat infections such as osteomyelitis. However, antibiotic additions change the characteristics of calcium sulfate cement. Moreover, high-dose antibiotics may also be toxic to bony tissues. Accordingly, cefazolin at varying weight ratios was added to calcium sulfate samples and characterized in vitro. The results revealed that cefazolin changed the hydration reaction and prolonged the initial setting times of calcium sulfate bone cement. For the crystalline structure identification, X-ray diffractometer revealed that cefazolin additive resulted in the decrease of peak intensity corresponding to calcium sulfate dihydrate which implying incomplete phase conversion of calcium sulfate hemihydrate. In addition, scanning electron microscope inspection exhibited cefazolin changed the morphology and size of the crystals greatly. A relatively higher amount of cefazolin additive caused a faster degradation and a lower compressive strength of calcium sulfate compared with those of uploaded samples. Furthermore, the extract of cefazolin-impregnated calcium sulfate impaired cell viability, and caused the death of osteoblast-like cells. The results of this study revealed that the cefazolin additives prolonged setting time, impaired mechanical strength, accelerated degradation, and caused cytotoxicity of the calcium sulfate bone-void filler. The aforementioned concerns should be considered during intra-operative applications.

UI MeSH Term Description Entries
D001843 Bone Cements Adhesives used to fix prosthetic devices to bones and to cement bone to bone in difficult fractures. Synthetic resins are commonly used as cements. A mixture of monocalcium phosphate, monohydrate, alpha-tricalcium phosphate, and calcium carbonate with a sodium phosphate solution is also a useful bone paste. Bone Cement,Bone Glues,Bone Pastes,Bone Glue,Bone Paste,Cement, Bone,Cements, Bone,Glue, Bone,Glues, Bone,Paste, Bone,Pastes, Bone
D002133 Calcium Sulfate A calcium salt that is used for a variety of purposes including: building materials, as a desiccant, in dentistry as an impression material, cast, or die, and in medicine for immobilizing casts and as a tablet excipient. It exists in various forms and states of hydration. Plaster of Paris is a mixture of powdered and heat-treated gypsum. Dental Gypsum,Dental Stone, Artificial,Gypsum,Plaster of Paris,Alabaster,Anhydrous Sulfate of Lime,Artificial Dental Stone,Calcium Sulfate (1:1), Dihydrate,Calcium Sulfate (1:1), Hemihydrate,Calcium Sulfate (2:1),Calcium Sulfate Dihydrate,Calcium Sulfate, Anhydrous,Calcium Sulfate, Dihydrate,Calcium Sulfate, Hemihydrate,Calcium Sulphate,Drierite,Gypsite,Gypsum, Dental,Karstenite,Stone, Artificial Dental
D002437 Cefazolin A semisynthetic cephalosporin analog with broad-spectrum antibiotic action due to inhibition of bacterial cell wall synthesis. It attains high serum levels and is excreted quickly via the urine. Cephazolin,Ancef,Cefamedin,Cefamezine,Cefazolin Sodium,Cephamezine,Cephazolin Sodium,Gramaxin,Kefzol,Sodium Cephazolin,Totacef,Cephazolin, Sodium,Sodium, Cefazolin,Sodium, Cephazolin
D005079 Excipients Usually inert substances added to a prescription in order to provide suitable consistency to the dosage form. These include binders, matrix, base or diluent in pills, tablets, creams, salves, etc. Excipient,Stabilizing Agent,Stabilizing Agents,Suspending Agent,Suspending Agents,Agent, Stabilizing,Agent, Suspending,Agents, Stabilizing,Agents, Suspending
D000900 Anti-Bacterial Agents Substances that inhibit the growth or reproduction of BACTERIA. Anti-Bacterial Agent,Anti-Bacterial Compound,Anti-Mycobacterial Agent,Antibacterial Agent,Antibiotics,Antimycobacterial Agent,Bacteriocidal Agent,Bacteriocide,Anti-Bacterial Compounds,Anti-Mycobacterial Agents,Antibacterial Agents,Antibiotic,Antimycobacterial Agents,Bacteriocidal Agents,Bacteriocides,Agent, Anti-Bacterial,Agent, Anti-Mycobacterial,Agent, Antibacterial,Agent, Antimycobacterial,Agent, Bacteriocidal,Agents, Anti-Bacterial,Agents, Anti-Mycobacterial,Agents, Antibacterial,Agents, Antimycobacterial,Agents, Bacteriocidal,Anti Bacterial Agent,Anti Bacterial Agents,Anti Bacterial Compound,Anti Bacterial Compounds,Anti Mycobacterial Agent,Anti Mycobacterial Agents,Compound, Anti-Bacterial,Compounds, Anti-Bacterial
D018786 Bone Substitutes Synthetic or natural materials for the replacement of bones or bone tissue. They include hard tissue replacement polymers, natural coral, hydroxyapatite, beta-tricalcium phosphate, and various other biomaterials. The bone substitutes as inert materials can be incorporated into surrounding tissue or gradually replaced by original tissue. Bone Replacement Materials,Bone Replacement Material,Bone Substitute,Replacement Material, Bone,Replacement Materials, Bone,Substitutes, Bone,Material, Bone Replacement,Materials, Bone Replacement,Substitute, Bone
D019245 Compressive Strength The maximum compression a material can withstand without failure. (From McGraw-Hill Dictionary of Scientific and Technical Terms, 5th ed, p427) Compressive Strengths,Strength, Compressive,Strengths, Compressive

Related Publications

Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
September 1998, Orthopedics,
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
July 2000, The Journal of craniofacial surgery,
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
November 2018, Materials (Basel, Switzerland),
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
December 2000, Biomaterials,
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
September 2004, The Journal of craniofacial surgery,
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
May 2017, Journal of biomedical materials research. Part B, Applied biomaterials,
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
March 2018, Acta orthopaedica Belgica,
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
September 2019, Journal of the American Podiatric Medical Association,
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
February 2008, Journal of biomedical materials research. Part B, Applied biomaterials,
Chih-Yung Chiang, and Wei-Chia Chang, and Wei-Min Chang, and Yin-Chuan Shih, and Feng-Huei Lin, and Chang-Chin Wu, and Kai-Chiang Yang
May 2018, Journal of the American Podiatric Medical Association,
Copied contents to your clipboard!