Abstract: Systems and methods for cache optimization are disclosed. A request for a user interface is received from a first user device. The request includes a user key. An interface key corresponding to an interface template of the requested user interface is generated from the user key. The interface template of the requested user interface is loaded. The interface template includes one or more edge side include (ESI) identifiers in the interface template. An element key corresponding to a first ESI element associated with a first of the one or more ESI identifiers is generated from the user key. The first ESI element is loaded and positioned at a location within the interface template identified by the first of the one or more ESI identifiers. A complete user interface is provided to the first user device. The complete user interface includes the interface template having the first ESI element positioned therein.

Abstract: Systems and methods for cache optimization are disclosed. A request for a user interface is received from a first user device. The request includes a user key. An interface key corresponding to an interface template of the requested user interface is generated from the user key. The interface template of the requested user interface is loaded. The interface template includes one or more edge side include (ESI) identifiers in the interface template. An element key corresponding to a first ESI element associated with a first of the one or more ESI identifiers is generated from the user key. The first ESI element is loaded and positioned at a location within the interface template identified by the first of the one or more ESI identifiers. A complete user interface is provided to the first user device. The complete user interface includes the interface template having the first ESI element positioned therein.

Abstract: Systems and methods for cache optimization are disclosed. A request for a user interface is received from a first user device. The request includes a user key. An interface key corresponding to an interface template of the requested user interface is generated from the user key. The interface template of the requested user interface is loaded. The interface template includes one or more edge side include (ESI) identifiers in the interface template. An element key corresponding to a first ESI element associated with a first of the one or more ESI identifiers is generated from the user key. The first ESI element is loaded and positioned at a location within the interface template identified by the first of the one or more ESI identifiers. A complete user interface is provided to the first user device. The complete user interface includes the interface template having the first ESI element positioned therein.

Abstract: Systems and methods for dynamically defining smart measurement points are disclosed. A first experiment configured to provide one of a base element or a variant element is defined and the first experiment is associated with a first page. The first experiment includes a first dynamically defined qualifying measurement point. A plurality of records each comprising one or more variables indicative of an interaction between one of the plurality of user systems and the computing device are generated and a search query including the first dynamically defined qualifying measurement point is received. Each record received is searched. For each record containing the first dynamically defined qualifying measurement point, an associated one of the plurality of user devices is qualified for the at least one experiment and, for each remaining record, the associated one of the plurality of user devices is excluded for the at least one experiment.

Abstract: Systems and methods for cache optimization are disclosed. A request for a user interface is received from a first user device. The request includes a user key. An interface key corresponding to an interface template of the requested user interface is generated from the user key. The interface template of the requested user interface is loaded. The interface template includes one or more edge side include (ESI) identifiers in the interface template. An element key corresponding to a first ESI element associated with a first of the one or more ESI identifiers is generated from the user key. The first ESI element is loaded and positioned at a location within the interface template identified by the first of the one or more ESI identifiers. A complete user interface is provided to the first user device. The complete user interface includes the interface template having the first ESI element positioned therein.

Abstract: Systems and methods for providing a shared control group are disclosed. A request for a page is received and each user device is assigned to a shared control pool or one of a plurality of experiments. The shared control pool includes a first percentage of user devices and each of the experiments includes an experimental percentage. For each user device in the shared control pool, a base version of each element is transmitted; for each user device in a first experiment, a first variant element is transmitted; and for each user device assigned to a second experiment a second variant element is transmitted. A record indicative of interactions that occur after transmission is received and the interactions of a first subset of the shared control pool is compared with the devices assigned to the first experiment and a second subset is compared to the devices assigned to the second experiment.

Abstract: Systems and methods for providing a shared control group are disclosed. A request for a page is received and each user device is assigned to a shared control pool or one of a plurality of experiments. The shared control pool includes a first percentage of user devices and each of the experiments includes an experimental percentage. For each user device in the shared control pool, a base version of each element is transmitted; for each user device in a first experiment, a first variant element is transmitted; and for each user device assigned to a second experiment a second variant element is transmitted. A record indicative of interactions that occur after transmission is received and the interactions of a first subset of the shared control pool is compared with the devices assigned to the first experiment and a second subset is compared to the devices assigned to the second experiment.

Abstract: Systems and methods for dynamically defining smart measurement points are disclosed. A first experiment configured to provide one of a base element or a variant element is defined and the first experiment is associated with a first page. The first experiment includes a first dynamically defined qualifying measurement point. A plurality of records each comprising one or more variables indicative of an interaction between one of the plurality of user systems and the computing device are generated and a search query including the first dynamically defined qualifying measurement point is received. Each record received is searched. For each record containing the first dynamically defined qualifying measurement point, an associated one of the plurality of user devices is qualified for the at least one experiment and, for each remaining record, the associated one of the plurality of user devices is excluded for the at least one experiment.

Abstract: Embodiments of the present invention generally describe systems, devices, and methods for directly measuring pulse profiles during pulse delivery. In some embodiment, the pulse profiles may be measured while the pulse is delivered to ablate a material. Embodiments, may calculate ablation spot parameters based on the pulse profiles and may refine one or more subsequent laser pulses based on deviations from the calculated ablation spot parameters from desired ablation spot parameters. In some embodiments, a fluence profiler is provided. The fluence profiler may measure a pulse profile of a laser pulse from a portion of the laser pulse. The fluence profiler may utilize a UV radiation energy sensor device and a camera-based imager. The measurements from the UV radiation energy sensor device and the camera-based imager may be combined and scaled to provide a measured pulse profile that corresponds to the delivered pulse.

Abstract: Embodiments generally describe systems, devices, and methods for focusing and calibrating beam profilers. A test object is provided that may include an internal housing rotatable within an external housing. The internal housing may house a light source, a collimator, a filter, and/or a diffuser. A plate may be mounted to the internal housing and may include a plurality of markings. In some embodiments, to focus a beam profiler, the test object may be positioned adjacent the converter plate of a beam profiler. Marker images may be captured and a focus quality may be assessed therefrom. A position of the converter, objective, and/or camera of the beam profiler may be adjusted based on the focus quality. To calibrate, images of the markings in several rotational positions may be captured and used for calibration. The markings may be rotated to several positions by rotating the internal housing relative to the external housing.

Abstract: Embodiments generally describe systems, devices, and methods for focusing and calibrating beam profilers. A test object is provided that may include an internal housing rotatable within an external housing. The internal housing may house a light source, a collimator, a filter, and/or a diffuser. A plate may be mounted to the internal housing and may include a plurality of markings. In some embodiments, to focus a beam profiler, the test object may be positioned adjacent the converter plate of a beam profiler. Marker images may be captured and a focus quality may be assessed therefrom. A position of the converter, objective, and/or camera of the beam profiler may be adjusted based on the focus quality. To calibrate, images of the markings in several rotational positions may be captured and used for calibration. The markings may be rotated to several positions by rotating the internal housing relative to the external housing.

Abstract: Embodiments generally describe systems, devices, and methods for focusing and calibrating beam profilers. A test object is provided that may include an internal housing rotatable within an external housing. The internal housing may house a light source, a collimator, a filter, and/or a diffuser. A plate may be mounted to the internal housing and may include a plurality of markings. In some embodiments, to focus a beam profiler, the test object may be positioned adjacent the converter plate of a beam profiler. Marker images may be captured and a focus quality may be assessed therefrom. A position of the converter, objective, and/or camera of the beam profiler may be adjusted based on the focus quality. To calibrate, images of the markings in several rotational positions may be captured and used for calibration. The markings may be rotated to several positions by rotating the internal housing relative to the external housing.

Abstract: Embodiments generally describe systems, devices, and methods for focusing and calibrating beam profilers. A test object is provided that may include an internal housing rotatable within an external housing. The internal housing may house a light source, a collimator, a filter, and/or a diffuser. A plate may be mounted to the internal housing and may include a plurality of markings. In some embodiments, to focus a beam profiler, the test object may be positioned adjacent the converter plate of a beam profiler. Marker images may be captured and a focus quality may be assessed therefrom. A position of the converter, objective, and/or camera of the beam profiler may be adjusted based on the focus quality. To calibrate, images of the markings in several rotational positions may be captured and used for calibration. The markings may be rotated to several positions by rotating the internal housing relative to the external housing.

Abstract: Embodiments of the present invention generally describe systems, devices, and methods for directly measuring pulse profiles during pulse delivery. In some embodiment, the pulse profiles may be measured while the pulse is delivered to ablate a material. Embodiments, may calculate ablation spot parameters based on the pulse profiles and may refine one or more subsequent laser pulses based on deviations from the calculated ablation spot parameters from desired ablation spot parameters. In some embodiments, a fluence profiler is provided. The fluence profiler may measure a pulse profile of a laser pulse from a portion of the laser pulse. The fluence profiler may utilize a UV radiation energy sensor device and a camera-based imager. The measurements from the UV radiation energy sensor device and the camera-based imager may be combined and scaled to provide a measured pulse profile that corresponds to the delivered pulse.

Abstract: Gas purge systems and methods and a spectroscopic ellipsometer are disclosed. A purge gas system may include an input beam optics housing, a collection optics housing and a gas purge manifold. The input beam optics housing may include a first gas flow path between a first gas inlet and an aperture in a first nose cone proximate a measurement position. The collection optics housing may include a second gas flow path between a second gas inlet and an aperture in a second nose cone proximate the measurement position. The gas purge manifold may be disposed between the input beam optics housing and the collection optics housing. The gas purge manifold has a third gas flow path between a third gas inlet and an aperture in the gas manifold proximate the measurement position. The ellipsometer may include input beam optics in the input beam optics housing and collection optics in the collection optics housing.

Abstract: In one embodiment, a method is described. The method of designing a web application includes designing a set of components, each component having a set of instances. The method also includes designing an application having references to the set of components. The method further includes designing an interface having references to the application, and building the application based on the interface and the designing of the application.