An antimicrobial composition includes an aqueous and/or ethanolic solution of iodine and hydrogen peroxide, which is acidified. The acidifying agent may be aspirin, hydrochloric acid, or other acidic agent tolerable to the body. The composition may also include a witch hazel extract, or alternately hamamelitannin, gallic acid, or other components thereof that effect quorum signaling inhibition that blocks and erodes microbe-induced biofilm on cellular and device surfaces. Acetohydroxamic acid may be combined with the composition as a counter to microbe-induced alkalinization, particularly in urine. Moreover, a metal, halogen, and combinations of these, such as a silver colloid, may be added as a secondary microbicidal agent. The antimicrobial composition may be applied topically to or instilled through an indwelling urinary catheter or applied as a device surface-coating on other medical devices.

Compositions are provided which i) consists essentially of a siloxane defoamer and an alkoxylated C4-10 alcohol, ii) are aqueous concentrates comprising composition i), an adjuvant, and an electrolyte, and iii) are aqueous formulations obtainable by diluting compositions ii). Furthermore the use of compositions i) and ii) for in the preparation of agricultural formulations iii) and the use of such formulations iii) to treat a field or plants.

A biopesticide composition contains a synergistic bioactive core consisting of essential oil, oleoresin, aqueous, alcoholic or hydroalcoholic extract of root or rhizomes of Zingiber officinale Roscoe and cinnamaldehyde or source of cinnamaldehyde. The composition may contain at least one secondary component and/or inert substances. A method is used for obtaining the biopesticide composition. The biopesticide composition is used in agriculture, parks and sports facilities against pests belonging to the whitefly group.

A biopesticide composition contains a synergistic bioactive core consisting of essential oil, oleoresin, aqueous, alcoholic or hydroalcoholic extract of root or rhizomes of Zingiber officinale Roscoe and cinnamaldehyde or source of cinnamaldehyde. The composition may contain at least one secondary component and/or inert substances. A method is used for obtaining the biopesticide composition. The biopesticide composition is used in agriculture, parks and sports facilities against pests belonging to the whitefly group.

It is disclosed a pharmaceutical and/or phytosanitary composition comprising an aqueous extract of Chelidonium majus root and an acceptable pharmaceutical or phytosanitary excipient for the prevention or treatment of nail infections. The composition may further comprise an aqueous extract of Thuja occidentalis leaf; and from about 1 to 5% of at least one natural phenolic compound. The composition is efficient in the treatment of plant infection (mildew fungus, blight fungus, etc); the treatment of intumescence of a plant; the treatment of potatoes (powdery or common scab, Rhizoctonia, etc), and also allows a higher crop yield: without the use of a chemical fungicide. The composition also allows rapid treatment of fungus infection of nails.

It is disclosed a pharmaceutical and/or phytosanitary composition comprising an aqueous extract of Chelidonium majus root and an acceptable pharmaceutical or phytosanitary excipient for the prevention or treatment of nail infections. The composition may further comprise an aqueous extract of Thuja occidentalis leaf; and from about 1 to 5% of at least one natural phenolic compound. The composition is efficient in the treatment of plant infection (mildew fungus, blight fungus, etc); the treatment of intumescence of a plant; the treatment of potatoes (powdery or common scab, Rhizoctonia, etc), and also allows a higher crop yield: without the use of a chemical fungicide. The composition also allows rapid treatment of fungus infection of nails.

It is disclosed a pharmaceutical and/or phytosanitary composition comprising an aqueous extract of Chelidonium majus root and an acceptable pharmaceutical or phytosanitary excipient for the prevention or treatment of nail infections. The composition may further comprise an aqueous extract of Thuja occidentalis leaf; and from about 1 to 5% of at least one natural phenolic compound. The composition is efficient in the treatment of plant infection (mildew fungus, blight fungus, etc); the treatment of intumescence of a plant; the treatment of potatoes (powdery or common scab, Rhizoctonia, etc), and also allows a higher crop yield: without the use of a chemical fungicide. The composition also allows rapid treatment of fungus infection of nails.

A plant protecting agent for combatting plant pathogens, including an active substance soluble in water, to provide a plant protecting agent which is particularly gentle on humans and the environment and at the same time has good efficacy against plant pathogens. The plant protecting agent includes as active substances a first fraction (A) based on the cannabis plant (Cannabis Sativa L.) and a second fraction (B) based on the tea tree plant (Melaleuca alternifolia), and a third fraction (C) of distilled water, the first and second fractions (A; B) being present in the third fraction (C) as an extract.

A plant protecting agent for combatting plant pathogens, including an active substance soluble in water, to provide a plant protecting agent which is particularly gentle on humans and the environment and at the same time has good efficacy against plant pathogens. The plant protecting agent includes as active substances a first fraction (A) based on the cannabis plant (Cannabis Sativa L.) and a second fraction (B) based on the tea tree plant (Melaleuca alternifolia), and a third fraction (C) of distilled water, the first and second fractions (A; B) being present in the third fraction (C) as an extract.

The present invention discloses a preparation method for the plant-based nano corrosion inhibition bactericide for oilfield, comprising the following steps: Step 1. Prepare the aloin liquid; Step 2. Stir the carbon nanotube, hydroxyethyl methacrylate and acrylic acid to react for 4 h at a constant temperature of 80° C. to get the carbon nanotube after fiber treatment, namely the modified carbon nanotube; Step 3. Mix the aloin liquid with imidazoline-ammonium-salt, add acetonitrile, and then add modified carbon nanotube, increase the temperature to 95° C. stir and react for 12 hours, and filter after naturally cooling down to room temperature and get the carbon nanotube loaded with bactericide; Step 4. Stir the carbon nanotube loaded with bactericide, diphenylmethane diisocyanate and polycaprolactone to react for 6 hours at a constant temperature of 95° C. and in the reaction process, continuously inject helium to get the target bactericide.