Abstract: Excipient compositions including a combination of excipients for mucoadhesive pharmaceutical compositions that improve mucoadhesiveness power, as well as release of and adhesion time of suitable active pharmaceutical ingredients (APIs) are disclosed. The excipient compositions include an aqueous solution with a synergistic combination of polymers, such as, for example amylopectin, pullulan, hyaluronic acid, and tamarind xyloglucan, among others. These polymers have been demonstrated to improve the release of as well as the adhesion time of APIs onto mucosa membrane. Mucoadhesive pharmaceutical compositions that include excipient compositions include suitable APIs, such as, for example analgesics, anesthetics, anthelmintics, anti-allergic agents, anti-fungals, antihistamines, anti-inflammatory agents, antimigraine agents, and hormones, among others. Mucoadhesive pharmaceutical compositions including excipient compositions are employed in the treatment of a plurality of mucous membrane diseases.

Abstract: The present disclosure relates to pharmaceutical compositions with increased skin permeability for treating ear disease in mammals Disclosed pharmaceutical compositions are prepared as topical gels or as transdermal gels. The pharmaceutical compositions reduce ear inflammation and irritation produced by ear diseases or injuries (e.g., cauliflower ear, chronic otitis, and the like). The pharmaceutical compositions include a synergistic combination of pracaxi oil and seje oil. Additionally, the pharmaceutical compositions include phosphatidylcholine as a permeation enhancer. The combination of aforementioned natural components exhibits enhanced healing properties, thereby providing organic acids with antioxidant, antibacterial, and antifungal properties.

Abstract: The present disclosure refers to topical pharmaceutical bases that possess scar healing properties. Further, these topical pharmaceutical bases are proposed for treating skin conditions, such as, for example keloids, hypertrophic scars, wounds, and burns, among others. The topical pharmaceutical bases include Amazonian oils and resins, such as pracaxi oil and breu-branco resin. The synergistic effect of pracaxi oil combined with breu-branco resin results in a highly effective scar and wound treatment. Suitable active pharmaceutical ingredients (APIs) can be incorporated to the topical pharmaceutical bases to formulate topical pharmaceutical compositions, which improve healing effects. The synergistic effect provided by the combination of pracaxi oil and breu-branco resin enables lower dosage requirements of the associated APIs when topical pharmaceutical compositions are employed for treating skin conditions.

Abstract: The present disclosure refers to topical pharmaceutical bases that possess antiviral properties. Further, these topical pharmaceutical bases are employed for preventing a patient to be infected by viral diseases. The topical pharmaceutical bases include Amazonian oils and resins, such as pracaxi oil and breu-branco resin. The synergistic effect of pracaxi oil combined with breu-branco resin results in a highly effective antiviral treatment. Suitable active pharmaceutical ingredients (APIs) can be incorporated to the topical pharmaceutical bases to formulate topical pharmaceutical compositions, which improve antiviral effects. The synergistic effect provided by the combination of pracaxi oil and breu-branco resin enables lower dosage requirements of the associated APIs when topical pharmaceutical compositions are employed for preventing viral diseases.

Abstract: The present disclosure describes compositions and methods for inhibiting the development, formation and/or maturation of bacterial and fungal biofilms. The biofilm inhibiting compositions include non-steroidal anti-inflammatory drugs (NSAIDs) as APIs, and ethoxylated oil as a solubilizing agent. The ethoxylated oils employed within the biofilm inhibiting compositions includes between 9 and 24 ethoxylations/molecules. The NSAIDs agents within the biofilm inhibiting compositions inhibit the syntheses of prostaglandins by blocking the cyclooxygenase (COX) enzyme system due to the analgesic, anti-inflammatory, and antipyretic properties of the NSAIDs. The biofilm inhibiting compositions inhibit the cyclooxygenase isoenzymes required for prostaglandin formation, thereby preventing the colonization of fungi or bacteria as well as the formation of biofilms.

Abstract: The present disclosure refers to topical pharmaceutical bases that include a synergistic combination of pracaxi oil, andiroba oil, copaiba balsam, and ucuuba butter. Further, these topical pharmaceutical bases are proposed for treating skin conditions in mammals, such as, for example wounds and scars. The topical pharmaceutical bases provide healing, moisturizing, anti-inflammatory, antibacterial, and antifungal effect. Additionally, the topical pharmaceutical bases enable an effective administration of specific active pharmaceutical ingredients (APIs), thereby improving treatment outcomes. Topical pharmaceutical compositions including the topical pharmaceutical bases increase the residence time of APIs within a wound or scar, thereby improving the penetration of APIs into the affected area. Also, the topical pharmaceutical bases provide relatively uniform distribution of the APIs within the topical pharmaceutical compositions.

Abstract: The present disclosure refers to transdermal pharmaceutical bases that include a synergistic combination of a silicone base with a natural permeation enhancement composition (NPE). Further, these transdermal pharmaceutical bases are proposed to treat ear diseases in mammals The silicone base includes silicone, pracaxi oil, and seje oil. Additionally, the NPE composition includes one or more phospholipids, one or more oils rich in essential fatty acids, behenic acid, and oleic acid, one or more skin lipids, and one or more butters rich in linoleic acid and linolenic acid. The synergistic combination of aforementioned natural components exhibit enhanced healing properties, thereby providing organic acids with antioxidant, antibacterial, and antifungal properties. The transdermal pharmaceutical bases are employed to increase the residence time of the medicament in the ear canal, and increase the penetration of the APIs into the affected area, thereby enhancing treatment effectiveness.

Abstract: The present disclosure refers to topical pharmaceutical bases that possess anti-inflammatory properties. Further, these topical pharmaceutical bases are proposed for treating inflammatory disorders, such as swollen tissues within joints and muscles, and the like. The topical pharmaceutical bases include Amazonian oils and resins, such as pracaxi oil and breu-branco resin. The synergistic effect of pracaxi oil combined with breu-branco resin results in a highly effective anti-inflammatory treatment. Suitable active pharmaceutical ingredients (APIs) can be incorporated to the topical pharmaceutical bases to formulate topical pharmaceutical compositions, which improve anti-inflammatory effects. The synergistic effect provided by the combination of pracaxi oil and breu-branco resin enables lower dosage requirements of the associated APIs when topical pharmaceutical compositions are employed for treating inflammatory disorders.

Abstract: The present disclosure relates to a synergistic mixture of betamethasone valerate and tranilast combined with a transdermal gel using skin permeation enhancement for application in scars for reducing or preventing the abnormal scar formation, specially keloids and hypertrophic scars. The disclosed synergistic mixture may exhibit permeation enhancing properties. The transdermal gel may include a mixture of silicone, phosphatidylcholine, pracaxi oil, and seje oil; one or more oils having essential fatty acids, behenic acid, oleic acid; one or more skin lipids; a butter having linoleic acid and linolenic acid; and solvents as transdermal penetration enhancers.

Abstract: The present disclosure relates to a synergistic mixture of betamethasone valerate and tranilast combined with a transdermal gel using skin permeation enhancement for application in scars for reducing or preventing the abnormal scar formation, specially keloids and hypertrophic scars. The disclosed synergistic mixture may exhibit permeation enhancing properties. The transdermal gel may include a mixture of silicone, phosphatidylcholine, pracaxi oil, and seje oil; one or more oils having essential fatty acids, behenic acid, oleic acid; one or more skin lipids; a butter having linoleic acid and linolenic acid; and solvents as transdermal penetration enhancers.

Abstract: A pharmaceutical composition for the treatment of yeast and fungal infections is provided. The composition may include a micronized poloxamer composition as excipient and itraconazole as active pharmaceutical ingredient (API). The micronized poloxamer composition may include a combination of poloxamer 188 and poloxamer 407. Additionally, micronized poloxamer-based composition, used as a surfactant, may help to break out or disrupt the membrane of microorganisms' cells within biofilm, thus allowing APIs, such as itraconazole, to improve their action and effectiveness against fungus and yeast infections. Additionally, poloxamer-based composition may be delivered to the infected site by different administration routes, such as orally, topically, via nasal, lung inhalation, and transdermal delivery. Due to the synergistic effect of poloxamer-based composition, itraconazole may have improved solubility, and dispersibility, thus decreasing side effects and time of treatment.

Abstract: Compositions and methods for treating bacterial, fungal, and yeast infections in wounds are disclosed. The disclosed poloxamer-based pharmaceutical composition includes a micronized poloxamer composition base combined with one or more suitable active pharmaceutical ingredients (APIs), such as, antibacterial or antifungal, thereby resulting in a synergistic effect for the APIs. The micronized poloxamer composition within poloxamer-based pharmaceutical composition includes poloxamer 407 and poloxamer 188. Poloxamer-based pharmaceutical composition exhibits a particle size average of about 50 ?m, which enhance APIs solubility. Additionally, poloxamer-based pharmaceutical composition can be delivered in a plurality of dosage forms, such as, powders, sprays, ointments, pastes, creams, lotions, solutions, and patches, among others.

Abstract: An inhalation composition for the treatment of bacteria related diseases is provided. The disclosed composition may include a mixture of three or more API(s) and a micronized poloxamer composition. Micronized poloxamer composition may include poloxamer 188 and poloxamer 407. According to an embodiment, an inhalation composition including one or more APIs may be delivered to the respiratory tract by employing inhalation devices, such as inhalers and nebulizers. Antibiotic inhalation composition may provide improved solubility and bioavailability for three or more API(s), such as levofloxacin, betamethasone, and clindamycin. Furthermore, the synergistic effect of micronized poloxamer composition may provide improved solubility and bioavailability of any suitable API.

Abstract: An antibiotic inhalation composition for the treatment of bacteria related diseases in the respiratory tract is provided. The antibiotic inhalation composition may include a mixture of levofloxacin and a micronized poloxamer composition (excipient/solubilizer). Micronized poloxamer composition may include poloxamer 188 and poloxamer 407. The manufacturing method for micronized poloxamer composition may include any suitable process, such as non-contact mixing technology. This technology may include an apparatus for applying low-frequency acoustic field, in order to facilitate the mixing process. Antibiotic inhalation composition may be delivered to the respiratory tract employing any suitable inhalation devices, such as metered-dose inhalers (MDIs), dry powder inhalers, aerosols, syringe, pipette, forceps, measured spoon, eyedropper, nebulizers, or any suitable medically approved delivery apparatus.

Abstract: An inhalation composition for the treatment of bacteria related diseases in the respiratory tract is provided. The inhalation composition may include a mixture of levofloxacin, betamethasone, and a micronized poloxamer composition (excipient/solubilizer). Micronized poloxamer composition may include poloxamer 188 and poloxamer 407. The manufacturing method for micronized poloxamer composition may include any suitable process, such as non-contact mixing technology. This technology may include an apparatus for applying low-frequency acoustic field, in order to facilitate the mixing process. Inhalation composition may be delivered to the respiratory tract employing suitable inhalation devices, such as metered-dose inhalers (MDIs), dry powder inhalers, aerosols, syringe, pipette, forceps, measured spoon, eyedropper, nebulizers, or any suitable medically approved delivery apparatus.

Abstract: An antibiotic inhalation or irrigation composition for the treatment of bacterial infections especially in the respiratory tract, is provided. The antibiotic inhalation or irrigation composition may include a mixture of mupirocin as active pharmaceutical ingredient (API), and a micronized poloxamer composition as excipient. Micronized poloxamer composition may be produced by mixing poloxamer 188 and poloxamer 407 in an apparatus where a low-frequency acoustic field is applied to facilitate mixing. Antibiotic inhalation or irrigation composition may be obtained in powder or solution form. In other embodiments, antibiotic inhalation or irrigation composition may be employed to produce a topical formulation for the treatment of traumatic skin lesions. In some embodiments, other suitable poloxamers or sugar alcohols may be employed as excipients.

Abstract: An antibiotic composition for the treatment of bacterial infections, especially in the respiratory tract is provided. The antibiotic composition may include a mixture of gentamicin as active pharmaceutical ingredient (API), and a micronized poloxamer composition as excipient. Micronized poloxamer composition may be produced by mixing poloxamer 188 and poloxamer 407 in a suitable apparatus where a low-frequency acoustic field may be applied to facilitate mixing. Antibiotic composition may be obtained in powder form, or in solution, and may be administered by inhalation or irrigation. In other embodiments, a topical formulation of the antibiotic inhalation or irrigation composition may be produced. In some embodiments, other suitable poloxamers, or sugar alcohols may be employed as excipients. Due to the synergistic effect of micronized poloxamer composition, antibiotic composition may provide improved solubility and bioavailability of gentamicin, thus decreasing side effects and time of treatment.

Abstract: A composition to be used as a permeation enhancer is provided. The composition may be added to topical cosmetics or pharmaceutical formulations that are topically applied. The composition comprises about 10-50% of Pracaxi oil, 15-40% of Patauá oil, 10-30% of Inaja oil, and 10-30% of one of more emollients.

Abstract: A composition to be used as a permeation enhancer is provided. The composition may be added to topical cosmetics or pharmaceutical formulations that are topically applied. The composition comprises about 0.05-5% w/w of one or more phospholipids, 1-20% w/w of one or more oils having essential fatty acids, behenic acid, and oleic acid, 0.1-3% w/w of one or more skin lipids, and 1-10% w/w of a butter having linoleic acid and linolenic acid. One of the oils used in the composition is Pracaxi oil.

Abstract: A composition to be used as a permeation enhancer is provided. The composition may be added to topical cosmetics or pharmaceutical formulations that are topically applied. The composition comprises about 10-50% of Pracaxi oil, 15-40% of Patauá oil, 10-30% of Inaja oil, and 10-30% of one of more emollients.