Staphyloccocus aureus

Linearly annelated esters, acids, and hydroxamic acids 132 showed antibacterial and anticarcinogenic activities (doses 0.2-2.0 g/day) [80JAP(K)2, 81JAP(K)1], whereas angularly annelated 133 has demonstrated MIC against Staphyloccocus aureus, Streptococcus biogenes, and Sarcina lutea (79JAP(K)I). 

Staphylococcus aures (penicillin-sensitive) Staphyloccocus aureus (penicillin-resistant) Streptococcus pyogenes Streptococcus pneumoniae Enterococcus faecalis ... 

Evidence of Efficacy of 10 PPM Silver Against Candida Albicans ATCC 10231, Trichomonas Vaginalis ATCC 20235, and MRSA Staphyloccocus Aureus ATCC BAA-44... 

This is a method originating from the textile industry but is sometimes also used as a base for testing textiles or other substrates coated with PVC or PU. A swab of pure bacteria, usually Staphyloccocus aureus or Klebsiella sp., but others can also be used, is drawn across nutrient agar in five parallel lines. The sample for testing is then intimately placed across the five streaks. If the biocide migrates from the sample, it will prevent growth of the bacterium near the edge and under the sample itself. 

Vasculitis Hepatitis B virus, hepatitis C virus, Staphyloccocus aureus, parvovirus B19... 

Diabetic wound is a complication of diabetes mellitus which is characterised by the slow healing of normal wounds specially produced at the body extremities leading to diabetic foot ulceration etc. It leads to approximately 20% cases of hospitalisation, amputations, morbidity and 50% of non-traumatic lower limb amputations [10, 11]. Diabetic wounds are accelerated by the microorganisms like Staphyloccocus aureus. Pseudomonas, Streptococci etc. [11]. Medicinal plants have been extensively used for thousands of years to cure ailments like diabetes, blood pressure, infection etc. Herbal, Unani, Chinese, traditional or folklore all state the beneficial effects of such plants [12, 13]. 

A wide variety of natural and synthetic materials have been used for biomedical applications. These include polymers, ceramics, metals, carbons, natural tissues, and composite materials (1). Of these materials, polymers remain the most widely used biomaterials. Polymeric materials have several advantages which make them very attractive as biomaterials (2). They include their versatility, physical properties, ability to be fabricated into various shapes and structures, and ease in surface modification. The long-term use of polymeric biomaterials in blood is limited by surface-induced thrombosis and biomaterial-associated infections (3,4). Thrombus formation on biomaterial surface is initiated by plasma protein adsorption followed by adhesion and activation of platelets (5,6). Biomaterial-associated infections occur as a result of the adhesion of bacteria onto the surface (7). The biomaterial surface provides a site for bacterial attachment and proliferation. Adherent bacteria are covered by a biofilm which supports bacterial growth while protecting them from antibodies, phagocytes, and antibiotics (8). Infections of vascular grafts, for instance, are usually associated with Pseudomonas aeruginosa Escherichia coli. Staphylococcus aureus, and Staphyloccocus epidermidis (9). 

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