Abstract: Disclosed herein are embodiments for processing a user interface (UI) using one or more parameters to capture user feedback. Embodiments operate by identifying one or more UI element codes in an information screen based on a parameter data structure. The embodiments request a set of responses from a database based on the parameter data structure. The embodiments generate a set of UI elements that capture user feedback based on the set of responses. The embodiments then present the information screen with the generated set of UI elements to capture user feedback.

Abstract: A spectroscopy system is described. The spectroscopy system includes a cell, a photodiode, and mirrors. The cell has walls forming a chamber therein. The chamber is configured to receive laser signal(s) and retaining a vapor therein. The vapor fluoresces in response to the laser signal(s). The mirrors are configured to direct fluorescent light from the vapor toward the photodiode. In some embodiments, the spectroscopy system is incorporated with a photonic integrated circuit.

Abstract: A spectroscopy system is described. The spectroscopy system includes a cell, a photodiode, and mirrors. The cell has walls forming a chamber therein. The chamber is configured to receive laser signal(s) and retaining a vapor therein. The vapor fluoresces in response to the laser signal(s). The mirrors are configured to direct fluorescent light from the vapor toward the photodiode. In some embodiments, the spectroscopy system is incorporated with a photonic integrated circuit.

Abstract: An optical beam-forming apparatus including: a chassis supporting a plurality of component units, having a collimation lens unit to produce a collimated beam of light from the input light; a polarisation control unit to impose a pre-set minimum degree of linear polarisation upon the collimated beam of light; a beam splitter unit to extract a monitoring portion of light from the collimated beam of light; wherein the chassis is shaped to support each one of the collimation lens unit, the polarisation control unit and the beam splitter unit so as to secure their respective positions in a mutual coaxial alignment along an optical axis of the beam-forming apparatus; and, a beam monitoring unit to receive the monitoring portion of light and to produce a monitoring signal corresponding to an optical intensity thereof according to the optical intensity of the monitoring portion of light.

Abstract: Disclosed herein are embodiments for processing a user interface (UI) using one or more parameters to capture user feedback. Embodiments operate by identifying one or more UI element codes in an information screen based on a parameter data structure. The embodiments request a set of responses from a database based on the parameter data structure. The embodiments generate a set of UI elements that capture user feedback based on the set of responses. The embodiments then present the information screen with the generated set of UI elements to capture user feedback.

Abstract: Disclosed herein are embodiments for processing an information screen to enable filtering of another information screen. Embodiments operate by identifying a UI element code in the information screen based on a parameter data structure. The embodiments request a set of filter responses from a database based on the parameter data structure. The embodiments generate a set of UI elements that are each configured to perform a first action performed by the UI element code. Each UI element is further configured to perform a second action comprising filtering the other information screen using one of the set of filter responses. The embodiments then present the information screen with the generated set of UI elements to enable filtering of the other information screen.

Abstract: Systems, devices, and methods for smart chain charging of electric vehicles. A system has a dock and one or more electric vehicles supporting rechargeable batteries. One or more electric vehicles may be coupled in series in a smart chain at the dock. Each electric vehicle has a charger with a plug and a receptacle. The plug may couple to a dock receptacle, if the vehicle is first in the smart chain, or to a receptacle on a neighboring electric vehicle at the end of a smart chain of vehicles electrically coupled to the dock. The receptacle may receive a plug of a neighboring electrical vehicle. Each charger may include an interface, battery charger and a battery monitor. The interface may carry power and transfer data into and out of the charger along the smart chain. Each battery monitor may output battery monitor data and receive battery charging control information.

Abstract: A spectroscopy system is described. The spectroscopy system includes a cell, a photodiode, and mirrors. The cell has walls forming a chamber therein. The chamber is configured to receive laser signal(s) and retaining a vapor therein. The vapor fluoresces in response to the laser signal(s). The mirrors are configured to direct fluorescent light from the vapor toward the photodiode. In some embodiments, the spectroscopy system is incorporated with a photonic integrated circuit.

Abstract: Disclosed herein are embodiments for processing a user interface (UI) using one or more parameters to capture user feedback. Embodiments operate by identifying one or more UI element codes in an information screen based on a parameter data structure. The embodiments request a set of responses from a database based on the parameter data structure. The embodiments generate a set of UI elements that capture user feedback based on the set of responses. The embodiments then present the information screen with the generated set of UI elements to capture user feedback.

Abstract: Computer-implemented methods and systems, including a user interface, that (a) calculate and display a graphical representation of a market implied probability distribution for the future prices of a tradable asset, which is derived from real time prices of the options on the asset, (b) permit the user to customize the market implied probability distribution graph to reflect the user's own view on the probability that the future price of the asset will be within a price range, and (c) propose an optimal trading strategy implemented as a combination of option orders, which strategy is optimized to be profitable assuming the customized probability distribution (if any). The combination orders may be modified and/or added to by the user.

Abstract: Disclosed herein are embodiments for processing a user interface (UI) using one or more parameters to capture user feedback. Embodiments operate by identifying one or more UI element codes in an information screen based on a parameter data structure. The embodiments request a set of responses from a database based on the parameter data structure. The embodiments generate a set of UI elements that capture user feedback based on the set of responses. The embodiments then present the information screen with the generated set of UI elements to capture user feedback.

Abstract: Systems, devices, and methods for smart chain charging of electric vehicles. A system has a dock and one or more electric vehicles supporting rechargeable batteries. One or more electric vehicles may be coupled in series in a smart chain at the dock. Each electric vehicle has a charger with a plug and a receptacle. The plug may couple to a dock receptacle, if the vehicle is first in the smart chain, or to a receptacle on a neighboring electric vehicle at the end of a smart chain of vehicles electrically coupled to the dock. The receptacle may receive a plug of a neighboring electrical vehicle. Each charger may include an interface, battery charger and a battery monitor. The interface may carry power and transfer data into and out of the charger along the smart chain. Each battery monitor may output battery monitor data and receive battery charging control information.

Abstract: Disclosed herein are embodiments for processing a user interface (UI) using one or more parameters to capture user feedback. Embodiments operate by identifying one or more UI element codes in an information screen based on a parameter data structure. The embodiments request a set of responses from a database based on the parameter data structure. The embodiments generate a set of UI elements that capture user feedback based on the set of responses. The embodiments then present the information screen with the generated set of UI elements to capture user feedback.

Abstract: Disclosed herein are embodiments for processing a user interface (UI) using one or more parameters to capture user feedback. Embodiments operate by identifying one or more UI element codes in an information screen based on a parameter data structure. The embodiments request a set of responses from a database based on the parameter data structure. The embodiments generate a set of UI elements that capture user feedback based on the set of responses. The embodiments then present the information screen with the generated set of UI elements to capture user feedback.

Abstract: A caspofungin composition includes caspofungin acetate and at least one amino acid, where the composition is a solid. The solid composition may be made by forming a liquid mixture including a solvent, caspofungin acetate and the amino acid(s), and lyophilizing the liquid mixture.

Abstract: Disclosed herein are embodiments for processing a user interface (UI) using one or more parameters to capture user feedback. Embodiments operate by identifying one or more UI element codes in an information screen based on a parameter data structure. The embodiments request a set of responses from a database based on the parameter data structure. The embodiments generate a set of UI elements that capture user feedback based on the set of responses. The embodiments then present the information screen with the generated set of UI elements to capture user feedback.

Abstract: A caspofungin composition includes caspofungin acetate and at least one amino acid, where the composition is a solid. The solid composition may be made by forming a liquid mixture including a solvent, caspofungin acetate and the amino acid(s), and lyophilizing the liquid mixture.

Abstract: A caspofungin composition includes caspofungin acetate and at least one amino acid, where the composition is a solid. The solid composition may be made by forming a liquid mixture including a solvent, caspofungin acetate and the amino acid(s), and lyophilizing the liquid mixture.

Abstract: A caspofungin composition includes caspofungin acetate and at least one amino acid, where the composition is a solid. The solid composition may be made by forming a liquid mixture including a solvent, caspofungin acetate and the amino acid(s), and lyophilizing the liquid mixture.

Abstract: Computer-implemented methods and systems, including a user interface, that (a) calculate and display a graphical representation of a market implied probability distribution for the future prices of a tradable asset, which is derived from real time prices of the options on the asset, (b) permit the user to customize the market implied probability distribution graph to reflect the user's own view on the probability that the future price of the asset will be within a price range, and (c) propose an optimal trading strategy implemented as a combination of option orders, which strategy is optimized to be profitable assuming the customized probability distribution (if any). The combination orders may be modified and/or added to by the user.