Abstract: The present disclosure relates to the field of agrochemical compositions and formulations. In an aspect, the present disclosure provides for a composition in combination with a fibril or microfibril or nanofibril structuring agent. In yet another aspect, the disclosure provides for a composition comprising: (a) an agricultural bioactive material, a fungicide, insecticide, herbicide, and/or plant growth regulator; (b) a fibril or microfibril or nanofibril structuring agent; and (c) optionally, an auxiliary surface active agent. The disclosure further provides for a comprising a composition described herein mixed or combined with a liquid fertilizer.

Abstract: Particles for delivery of active ingredients formed from an active ingredient and a hydrophobic matrix, as well as methods for making such particles.

Abstract: Particles for delivery of active ingredients formed from an active ingredient and a hydrophobic matrix, as well as methods for making such particles.

Abstract: The present invention provides a method of increasing the concentration of an active ingredient in an agrochemical formulation while maintaining the flowability of the agrochemical formulation. The present invention also provides an agrochemical formulation produced by the disclosed methods and plant propagation material treated with the agrochemical formulation.

Abstract: The disclosure provides for agrochemical compositions comprising a succinate dehydrogenase inhibitor and a polymeric crystal growth inhibitor. The disclosure further provides for methods of reducing crystal growth in agriculturally-active compounds in an agrochemical composition. In yet a further aspect, the disclosure provides for methods of utilizing an agrochemical composition comprising a succinate inhibitor and a polymeric crystal growth inhibitor to control pests in a plant or crop.

Abstract: The present disclosure relates to a taste-masking microcapsule composition. The composition comprises a core portion encapsulated by a shell portion. The core portion comprises an active pharmaceutical ingredient (API) and one or more excipients. The shell portion comprises a hydrophobic matrix and a pH-responsive material. The microcapsule compositions prevent API release at the more neutral pH levels in the oral cavity, but upon exposure to pH levels of the stomach, the pH-responsive material becomes soluble thereby permitting release of the API.

Abstract: The present disclosure relates to the field of agrochemical compositions and formulations. In an aspect, the present disclosure provides for a composition in combination with a fibril or microfibril or nanofibril structuring agent. In yet another aspect, the disclosure provides for a composition comprising: (a) an agricultural bioactive material, a fungicide, insecticide, herbicide, and/or plant growth regulator; (b) a fibril or microfibril or nanofibril structuring agent; and (c) optionally, an auxiliary surface active agent. The disclosure further provides for a comprising a composition described herein mixed or combined with a liquid fertilizer.

Abstract: Particles for delivery of active ingredients formed from an active ingredient and a hydrophobic matrix, as well as methods for making such particles.

Abstract: The present disclosure relates to a taste-masking microcapsule composition. The composition comprises a core portion encapsulated by a shell portion. The core portion comprises an active pharmaceutical ingredient (API) and one or more excipients. The shell portion comprises a hydrophobic matrix and a pH-responsive material. The microcapsule compositions prevent API release at the more neutral pH levels in the oral cavity, but upon exposure to pH levels of the stomach, the pH-responsive material becomes soluble thereby permitting release of the API.

Abstract: The present disclosure relates to a taste-masking microcapsule composition. The composition comprises a core portion encapsulated by a shell portion. The core portion comprises an active pharmaceutical ingredient (API) and one or more excipients. The shell portion comprises a hydrophobic matrix and a pH-responsive material. The microcapsule compositions prevent API release at the more neutral pH levels in the oral cavity, but upon exposure to pH levels of the stomach, the pH-responsive material becomes soluble thereby permitting release of the API.

Abstract: Particles for delivery of active ingredients formed from an active ingredient and a hydrophobic matrix, as well as methods for making such particles.

Abstract: Particles for delivery of active ingredients formed from an active ingredient and a hydrophobic matrix, as well as methods for making such particles.

Abstract: Particles for delivery of active ingredients formed from an active ingredient and a hydrophobic matrix, as well as methods for making such particles.

Abstract: The present disclosure relates to a taste-masking microcapsule composition. The composition comprises a core portion encapsulated by a shell portion. The core portion comprises an active pharmaceutical ingredient (API) and one or more excipients. The shell portion comprises a hydrophobic matrix and a pH-responsive material. The microcapsule compositions prevent API release at the more neutral pH levels in the oral cavity, but upon exposure to pH levels of the stomach, the pH-responsive material becomes soluble thereby permitting release of the API.

Abstract: Particles for delivery of active ingredients formed from an active ingredient and a hydrophobic matrix, as well as methods for making such particles.

Abstract: Methods can prepare tissue engineering scaffolds that include a plurality of biocompatible microspheres linked together to form a three-dimensional matrix. The matrix can include a plurality of pores for growing cells. The biocompatible microspheres can include first and second sets of microspheres. The first set of microspheres can have a first characteristic, and a first predetermined spatial distribution with respect to the three-dimensional matrix. The second set of microspheres can have a second characteristic that is different from the first characteristic, and a second predetermined spatial distribution that is different from the first predetermined spatial distribution with respect to the three-dimensional matrix.

Abstract: Sustained release particle formulations formed from a hydrophobic wax matrix and guaifenesin.

Abstract: Methods can prepare tissue engineering scaffolds that include a plurality of biocompatible microspheres linked together to form a three-dimensional matrix. The matrix can include a plurality of pores for growing cells. The biocompatible microspheres can include first and second sets of microspheres. The first set of microspheres can have a first characteristic, and a first predetermined spatial distribution with respect to the three-dimensional matrix. The second set of microspheres can have a second characteristic that is different from the first characteristic, and a second predetermined spatial distribution that is different from the first predetermined spatial distribution with respect to the three-dimensional matrix.

Abstract: A tissue engineering scaffold for growing cells can include a plurality of biocompatible microspheres linked together to form a three-dimensional matrix. The matrix can include a plurality of pores for growing cells. The biocompatible microspheres can include first and second sets of microspheres. The first set of microspheres can have a first characteristic, and a first predetermined spatial distribution with respect to the three-dimensional matrix. The second set of microspheres can have a second characteristic that is different from the first characteristic, and a second predetermined spatial distribution that is different from the first predetermined spatial distribution with respect to the three-dimensional matrix.

Abstract: A tissue engineering scaffold for growing cells can include a plurality of biocompatible microspheres linked together to form a three-dimensional matrix. The matrix can include a plurality of pores for growing cells. The biocompatible microspheres can include first and second sets of microspheres. The first set of microspheres can have a first characteristic, and a first predetermined spatial distribution with respect to the three-dimensional matrix. The second set of microspheres can have a second characteristic that is different from the first characteristic, and a second predetermined spatial distribution that is different from the first predetermined spatial distribution with respect to the three-dimensional matrix.