Abstract: An array of optical resonators includes at least a first type of optical resonators each having a resonant response to an optical field at a first wavelength, and a second type of optical resonators each having a resonant response to an optical field at a second wavelength, being different from the first wavelength. The resonant responses can be selected to reduce chromatic aberrations, or to shape a profile of a light beam, or to selectively switch a near field beam.

Abstract: An array of optical resonators comprises at least a first type of optical resonators each having a resonant response to an optical field at a first wavelength, and a second type of optical resonators each having a resonant response to an optical field at a second wavelength, being different from the first wavelength. The resonant responses can be selected to reduce chromatic aberrations, or to shape a profile of a light beam, or to selectively switch a near field beam.

Abstract: An array of optical resonators comprises at least a first type of optical resonators each having a resonant response to an optical field at a first wavelength, and a second type of optical resonators each having a resonant response to an optical field at a second wavelength, being different from the first wavelength. The resonant responses can be selected to reduce chromatic aberrations, or to shape a profile of a light beam, or to selectively switch a near field beam.

Abstract: An array of optical resonators comprises at least a first type of optical resonators each having a resonant response to an optical field at a first wavelength, and a second type of optical resonators each having a resonant response to an optical field at a second wavelength, being different from the first wavelength. The resonant responses can be selected to reduce chromatic aberrations, or to shape a profile of a light beam, or to selectively switch a near field beam.

Abstract: An array of optical resonators comprises at least a first type of optical resonators each having a resonant response to an optical field at a first wavelength, and a second type of optical resonators each having a resonant response to an optical field at a second wavelength, being different from the first wavelength. The resonant responses can be selected to reduce chromatic aberrations, or to shape a profile of a light beam, or to selectively switch a near field beam.

Abstract: An array of optical resonators is disclosed. The array comprises at least a first type of optical resonators each having a resonant response to an optical field at a first wavelength, and a second type of optical resonators each having a resonant response to an optical field at a second wavelength, being different from the first wavelength. The resonant responses can be selected to reduce chromatic aberrations, or to shape a profile of a light beam, or to selectively switch a near field beam.

Abstract: A method and system for transferring data in a multi ordered memory array from a source memory array to a destination memory array, at least one of which is multi-ordered. A reading memory access unit reads data from the source memory array according to a source access template and a writing memory access unit writes the data to the destination memory array according to a destination access template.

Abstract: A system, processor, data structure, and method are provided for processing multiple dimension data. A plurality of data elements stored in different dimensions in a sub-array of a first multiple dimension data array may be identified or determined to be correlated. The plurality of correlated data elements in different dimensions may be mapped to sequential positions in a single dimension of a second data array. In each computational cycle a plurality of data elements that are sequentially stored in the single dimension may be iteratively retrieved from the data array until at least all the correlated data elements are retrieved. The correlated data elements may be processed.

Abstract: A system having at least one breakpoint generating module and a core processor and method for providing mutual breakpoint capabilities to at least one breakpoint generating module and a core processor in a computing device. Each breakpoint generating module is capable of generating a first breakpoint message for allowing operation of the core processor and each breakpoint generating module to be halted. A second breakpoint message allows operation of the core processor to be halted. The second breakpoint message corresponds to the first breakpoint message. In addition, the core processor generates a third breakpoint message for allowing operation of the core processor and each breakpoint generating module to be halted.

Abstract: A system having at least one breakpoint generating module and a core processor and method for providing mutual breakpoint capabilities to at least one breakpoint generating module and a core processor in a computing device. Each breakpoint generating module is capable of generating a first breakpoint message for allowing operation of the core processor and each breakpoint generating module to be halted. A second breakpoint message allows operation of the core processor to be halted. The second breakpoint message corresponds to the first breakpoint message. In addition, the core processor generates a third breakpoint message for allowing operation of the core processor and each breakpoint generating module to be halted.