Abstract: The present disclosure provides systems and methods for secure, compliant, context-driven electronic communications using an agentic AI platform. Within a server, modular AI bot components are dynamically instantiated, sequenced, and deallocated by a bot orchestration engine in response to workflow context extracted from inbound communication data. Computer-executable instructions stored in memory implement a multi-stage privacy pipeline including REGEX matching, NER, and locally retrainable SLMs language models to redact PII and other sensitive identifiers prior to further processing. The architecture incorporates parallel processing routines for privacy enforcement, context extraction, compliance evaluation, and agentic bot management. Composite prompts generated from bot outputs are supplied to downstream LLMs for draft creation.

Abstract: An insole can include: an upper conductive ground plane layer; an upper compressible insulating layer physically coupled to the upper conductive ground plane layer; a conductive sensor layer physically coupled to the upper compressible insulating layer, the conductive sensor layer comprising one or more sensors are configured to a force applied to the insole by the foot; a lower compressible insulating layer physically coupled to conductive sensor layer; a lower conductive ground plane layer physically coupled to the lower compressible insulating layer and electrically coupled to the upper conductive ground plane layer; and at least one computational unit communicatively coupled to the one or more sensors. The upper conductive ground plane layer and the lower conductive ground plane layer are configured to substantially electrically shield the upper compressible insulating layer, the conductive sensor layer, and the lower compressible insulating layer from the shoe and the foot.

Abstract: An insole can include: an upper conductive ground plane layer; an upper compressible insulating layer physically coupled to the upper conductive ground plane layer; a conductive sensor layer physically coupled to the upper compressible insulating layer, the conductive sensor layer comprising one or more sensors are configured to a force applied to the insole by the foot; a lower compressible insulating layer physically coupled to conductive sensor layer; a lower conductive ground plane layer physically coupled to the lower compressible insulating layer and electrically coupled to the upper conductive ground plane layer; and at least one computational unit communicatively coupled to the one or more sensors. The upper conductive ground plane layer and the lower conductive ground plane layer are configured to substantially electrically shield the upper compressible insulating layer, the conductive sensor layer, and the lower compressible insulating layer from the shoe and the foot.

Abstract: An apparatus and method apply water to a hydrogen-containing composition, such as a hydride, in the presence of a catalyst that promotes hydrolysis to generate hydrogen in a controlled manner. The amount of catalyst used can be carefully tailored so that the reaction rate is limited by the amount of catalyst present (passive control) or it can be sufficiently large so that the reaction is controlled by the rate of water addition (active control).

Abstract: An apparatus and method apply water to a hydrogen-containing composition, such as a hydride, in the presence of a catalyst that promotes hydrolysis to generate hydrogen in a controlled manner. The amount of catalyst used can be carefully tailored so that the reaction rate is limited by the amount of catalyst present (passive control) or it can be sufficiently large so that the reaction is controlled by the rate of water addition (active control).

Abstract: Insecticidal, acaricidal, nematicidal or molluscicidal compounds of formula (I) wherein Y is a single bond, C?O, C?S or C?(O)q where q is 0, 1 or 2; and R1, R2, R3, R4, R8, R9 and R10 are as defined in the claims or salts or N-oxides thereof, processes for preparing them and compositions containing them.

Abstract: The present invention relates to an oxygen electrode for a unitized regenerative hydrogen-oxygen fuel cell and the unitized regenerative fuel cell having the oxygen electrode. The oxygen electrode contains components electrocatalytically active for the evolution of oxygen from water and the reduction of oxygen to water, and has a structure that supports the flow of both water and gases between the catalytically active surface and a flow field or electrode chamber for bulk flow of the fluids. The electrode has an electrocatalyst layer and a diffusion backing layer interspersed with hydrophilic and hydrophobic regions. The diffusion backing layer consists of a metal core having gas diffusion structures bonded to the metal core.

Abstract: The present invention relates to an oxygen electrode for a unitized regenerative hydrogen-oxygen fuel cell and the unitized regenerative fuel cell having the oxygen electrode. The oxygen electrode contains components electrocatalytically active for the evolution of oxygen from water and the reduction of oxygen to water, and has a structure that supports the flow of both water and gases between the catalytically active surface and a flow field or electrode chamber for bulk flow of the fluids. The electrode has an electrocatalyst layer and a diffusion backing layer interspersed with hydrophilic and hydrophobic regions. The diffusion backing layer consists of a metal core having gas diffusion structures bonded to the metal core.

Abstract: A conversion coating process that forms a stable and corrosion-resistant oxide layer on metal or metal oxide substrates or layers. Particularly, the conversion coating process involves contacting the metal or metal oxide substrate or layer with the aqueous calcium hydroxide solutions in order to convert the surface of the substrate to a stable metal oxide layer or coating. According to the present invention, the calcium hydroxide solution is prepared by removing carbon dioxide from water or an aqueous solution before introducing the calcium hydroxide. In this manner, formation of calcium carbonate particles is avoided and the porosity of the conversion coating produced by the calcium hydroxide solution is reduced to below about 1%.