Grants and Contributions

The Cornell team will collaborate with the NRC in leading additional focal?plane wavefront sensing and control development for the CAL 2.0 project, focusing specifically on adapting existing Speckle Nulling/Electric Field Conjugation codes to work with both the new CAL 2.0 SAPHIRA detector as well as the updated GPI 2.0 software stack. This work will involve drafting of interface control and functional design documentation, and an initial and final software implementation cycle. Once software implementation is complete, we will demonstrate and evaluate its operation on the as-built CAL 2.0 hardware.

Youth: Customer Support resource for building marketing campaigns, engaging with the platform community, technical troubleshooting, platform demos, and answering support calls.

Marketing Strategy and Product Launch Execution For Social Media Marketing Platform.

The future of electronics requires semiconductor and related materials which can be built along the z-axis. Zinite will demonstrate a high carrier mobility material required for a high performance back-end-of-line (BEOL) transistors.

Scalability, performance and feature improvements to Ecommerce platform.

The path of light in free space propagation is severely disturbed by atmospheric turbulence. Adaptive optics has demonstrated that it can effectively mitigate this problem for ground-based astronomy. Quantum key distribution for ground-to-satellite optical communication could also benefit from active atmospheric turbulence correction to improve channel fidelity. The performance of current adaptive optics systems remains limited, with correction residuals preventing from achieving very high-profile science cases, such as imaging exoplanets. One of the main limitations comes from the wavefront sensors, i.e. the devices used to sense the incoming fast-evolving stochastic aberrations. The Project aims to implement a new generation of wavefront sensors taking advantage of a single photon avalanche diode array integrated with advanced readout and signal processing electronics, also known as photon-to-digital converters.

This project is to automate the features and functionality of the firm's proprietary technology.

Remote quantum sensing is one of the emerging technologies that exploit photonic quantum correlations for detecting, probing and imaging classical objects with fundamentally better performance than traditional approaches. The state-of-the-art theoretical and experimental studies in the field mainly focus on the generation and measurement of such quantum correlations under very specific and controlled conditions that can reveal the quantum advantage. However, the practical realization of these technologies with their ultimate performance also requires the manipulation of photonic quantum correlations, such as storage and reversible transfer between the entities, in a highly controlled and coherent fashion. In the Project, our goal is to explore and develop new methods of remote quantum sensing/imaging relying on quantum radiation in both the optical and microwave domains. The project team will explore different quantum remote sensing approaches and develop integrated platforms and systems (sources and detectors) that can find use in near-future applications, ranging from quantum Light Detection and Ranging (LiDAR) & Radar-based sensing to quantum imaging of biological samples.

Research and deploy infrastructure
UI development
Back end and API development
Integrate maps and transactional data to this functionality
Testing – unit testing and integration testing of the platform

This project will develop novel tools to improve workflow for trauma center ERs