Abstract: Disclosed herein are systems, apparatuses, methods, and non-transitory computer readable media related to a display construct coupled to a structure (e.g., a vision window). The structure can be a supportive structure such as a fixture. The display construct is configured to facilitate media display and is at least partially transparent. The vision window may be a tintable window, e.g., a window in which its tint is electrically controllable (e.g., an electrochromic window). Various interactive capabilities with the display construct are disclosed (e.g., via a touch screen).

Abstract: Disclosed herein are systems, apparatuses, methods, and non-transitory computer readable media related to display constructs that can be fixed or movable. The display constructs can be configured to facilitate media display at opposite sides. The display constructs may be is at least partially transparent and can be viewed therethrough. Various interactive capabilities with the display construct are disclosed, as well as various installation component and kits. Further disclosed are wireless chargers embedded in fixtures and/or real assets of a facility.

Abstract: A data-fetching and data-rendering system may, in response to receiving a page display request, construct a static, possibly nested query for retrieving all the data to be rendered for the page and store the query result in a data store. For a future page display request, the system may similarly construct a query and determine whether the query can be resolved from the data store. If not, the system may construct a “diff query” to fetch only the missing data. In some embodiments, in response to a subsequent page update request, the system may retrieve from the server all the data likely to be viewed or updated and render the data changes corresponding to the requested update. The system may then submit the data changes to the server and undo the rendering of the data changes when the server fails to process the data changes.

Abstract: Embodiments are disclosed for fast data fetching and rendering. In some embodiments, in response to receiving a page display request, a system constructs a static, possibly nested query for retrieving all the data to be rendered for the page and stores the query result in a data store. For a future page display request, the system similarly constructs a query and determines whether the query can be resolved from the data store. If not, the system constructs a “diff query” to fetch only the missing data. In some embodiments, in response to a subsequent page update request, the system retrieves from the server all the data likely to be viewed or updated and renders the data changes corresponding to the requested update. The system then submits the data changes to the server and undoes the rendering of the data changes when the server fails to process the data changes.

Abstract: Embodiments are disclosed for fast data fetching and rendering. In some embodiments, in response to receiving a page display request, a system constructs a static, possibly nested query for retrieving all the data to be rendered for the page and stores the query result in a data store. For a future page display request, the system similarly constructs a query and determines whether the query can be resolved from the data store. If not, the system constructs a “diff query” to fetch only the missing data. In some embodiments, in response to a subsequent page update request, the system retrieves from the server all the data likely to be viewed or updated and renders the data changes corresponding to the requested update. The system then submits the data changes to the server and undoes the rendering of the data changes when the server fails to process the data changes.

Abstract: Embodiments are disclosed for fast data fetching and rendering. In some embodiments, in response to receiving a page display request, a system constructs a static, possibly nested query for retrieving all the data to be rendered for the page and stores the query result in a data store. For a future page display request, the system similarly constructs a query and determines whether the query can be resolved from the data store. If not, the system constructs a “diff query” to fetch only the missing data. In some embodiments, in response to a subsequent page update request, the system retrieves from the server all the data likely to be viewed or updated and renders the data changes corresponding to the requested update. The system then submits the data changes to the server and undoes the rendering of the data changes when the server fails to process the data changes.

Abstract: Support for dynamic behavior is specified while reducing reliance on JIT compilation and large runtimes; semantic characteristics are selectively attached to types and type members outside source code. A directives document contains human-readable directives in a parsable format for submission to an innovative compiler. The directives specify whether a type T or type member M is required, optional, or prohibited in a runtime environment. Some reference an application, library, assembly, or namespace group, and others reference group components: type, type instantiation, method, method instantiation, field, property, or event. Some directives force a generic instantiation. Some directives indirectly reference a type through a parameter, type parameter, or generic directive. Some directives reference degrees to manage runtime activation of type instances, runtime introspection over types, reflection, and/or runtime or static serialization.

Abstract: Embodiments are disclosed for fast data fetching and rendering. In some embodiments, in response to receiving a page display request, a system constructs a static, possibly nested query for retrieving all the data to be rendered for the page and stores the query result in a data store. For a future page display request, the system similarly constructs a query and determines whether the query can be resolved from the data store. If not, the system constructs a “diff query” to fetch only the missing data. In some embodiments, in response to a subsequent page update request, the system retrieves from the server all the data likely to be viewed or updated and renders the data changes corresponding to the requested update. The system then submits the data changes to the server and undoes the rendering of the data changes when the server fails to process the data changes.

Abstract: Embodiments are disclosed for fast data fetching and rendering. In some embodiments, in response to receiving a page display request, a system constructs a static, possibly nested query for retrieving all the data to be rendered for the page and stores the query result in a data store. For a future page display request, the system similarly constructs a query and determines whether the query can be resolved from the data store. If not, the system constructs a “diff query” to fetch only the missing data. In some embodiments, in response to a subsequent page update request, the system retrieves from the server all the data likely to be viewed or updated and renders the data changes corresponding to the requested update. The system then submits the data changes to the server and undoes the rendering of the data changes when the server fails to process the data changes.

Abstract: Support for dynamic behavior is specified while reducing reliance on JIT compilation and large runtimes; semantic characteristics are selectively attached to types and type members outside source code. A directives document contains human-readable directives in a parsable format for submission to an innovative compiler. The directives specify whether a type T or type member M is required, optional, or prohibited in a runtime environment. Some reference an application, library, assembly, or namespace group, and others reference group components: type, type instantiation, method, method instantiation, field, property, or event. Some directives force a generic instantiation. Some directives indirectly reference a type through a parameter, type parameter, or generic directive. Some directives reference degrees to manage runtime activation of type instances, runtime introspection over types, reflection, and/or runtime or static serialization.

Abstract: Support for dynamic behavior is specified while reducing reliance on JIT compilation and large runtimes; semantic characteristics are selectively attached to types and type members outside source code. A directives document contains human-readable directives in a parsable format for submission to an innovative compiler. The directives specify whether a type T or type member M is required, optional, or prohibited in a runtime environment. Some reference an application, library, assembly, or namespace group, and others reference group components: type, type instantiation, method, method instantiation, field, property, or event. Some directives force a generic instantiation. Some directives indirectly reference a type through a parameter, type parameter, or generic directive. Some directives reference degrees to manage runtime activation of type instances, runtime introspection over types, reflection, and/or runtime or static serialization.

Abstract: Support for dynamic behavior is specified while reducing reliance on JIT compilation and large runtimes; semantic characteristics are selectively attached to types and type members outside source code. A directives document contains human-readable directives in a parsable format for submission to an innovative compiler. The directives specify whether a type T or type member M is required, optional, or prohibited in a runtime environment. Some reference an application, library, assembly, or namespace group, and others reference group components: type, type instantiation, method, method instantiation, field, property, or event. Some directives force a generic instantiation. Some directives indirectly reference a type through a parameter, type parameter, or generic directive. Some directives reference degrees to manage runtime activation of type instances, runtime introspection over types, reflection, and/or runtime or static serialization.

Abstract: Support for dynamic behavior is specified while reducing reliance on JIT compilation and large runtimes; semantic characteristics are selectively attached to types and type members outside source code. A directives document contains human-readable directives in a parsable format for submission to an innovative compiler. The directives specify whether a type T or type member M is required, optional, or prohibited in a runtime environment. Some reference an application, library, assembly, or namespace group, and others reference group components: type, type instantiation, method, method instantiation, field, property, or event. Some directives force a generic instantiation. Some directives indirectly reference a type through a parameter, type parameter, or generic directive. Some directives reference degrees to manage runtime activation of type instances, runtime introspection over types, reflection, and/or runtime or static serialization.

Abstract: Support for dynamic behavior is specified while reducing reliance on JIT compilation and large runtimes; semantic characteristics are selectively attached to types and type members outside source code. A directives document contains human-readable directives in a parsable format for submission to an innovative compiler. The directives specify whether a type T or type member M is required, optional, or prohibited in a runtime environment. Some reference an application, library, assembly, or namespace group, and others reference group components: type, type instantiation, method, method instantiation, field, property, or event. Some directives force a generic instantiation. Some directives indirectly reference a type through a parameter, type parameter, or generic directive. Some directives reference degrees to manage runtime activation of type instances, runtime introspection over types, reflection, and/or runtime or static serialization.

Abstract: A current mode buck-boost converter has an input terminal, an output terminal, and an output capacitor coupled to the output terminal. The input terminal is used to receive an input voltage, and the output terminal is for producing the output voltage. The current mode buck-boost converter comprises a voltage converter and a control circuit. The voltage converter comprises an inductor. The control circuit is for detecting the current passing through the inductor to determine the electric energy transmitted to the output terminal by the voltage converter. Accordingly, the current mode buck-boost converter has fast response, and the electrical energy can be recycled and stored to the voltage source when the current mode buck-boost converter operates in down-tracking process.

Abstract: A current mode buck-boost converter has an input terminal, an output terminal, and an output capacitor coupled to the output terminal. The input terminal is used to receive an input voltage, and the output terminal is for producing the output voltage. The current mode buck-boost converter comprises a voltage converter and a control circuit. The voltage converter comprises an inductor. The control circuit is for detecting the current passing through the inductor to determine the electric energy transmitted to the output terminal by the voltage converter. Accordingly, the current mode buck-boost converter has fast response, and the electrical energy can be recycled and stored to the voltage source when the current mode buck-boost converter operates in down-tracking process.

Abstract: The present invention relates generally to an assay for detecting variant Hepatitis B viruses (HBVs) which exhibit altered sensitivity to agents. The variant HBVs are delivered to cells using a baculovirus vector. The altered sensitivity to an agent is in relation to the effects of the agent on one or more stages of infection, replication, assembly or release of virus or virus-like particles. The identification of variant HBVs with altered sensitivities to anti-HBV agents provides a means of monitoring cross resistance, or the development of new therapeutics effective against variant HBVs with altered sensitivities to other anti-HBV agents, as well as monitoring therapeutic protocols. The present invention further provides variant HBVs detected by the assay of the present invention and to components thereof as well as recombinant, chemical analogue, homologue and derivative forms of such components.

Abstract: The present invention relates generally to an assay for detecting variant Hepatitis B viruses (HBVs) which exhibit altered sensitivity to agents. The variant HBVs are delivered to cells using a baculovirus vector. The same agents generally have a particular effect or absence of effect on a reference HBV. The altered sensitivity is in relation to the effects of the agent on one or more stages of infection, replication, assembly or release of virus or virus-like particles including any intermediary steps during the processes of viral infection, replication, assembly and/or release.

Abstract: N instruction class (IClass) fields, m branch prediction (BRPD) and k next fetch address fields are added to each instruction set of n instructions of a cache line of an instruction cache, where m and k are less than or equal to n. The BRPD and NFAPD fields of a cache line are initialized in accordance to a pre-established initialization policy of a branch and next fetch address prediction algorithm while the cache line is first brought into the instruction cache. The sets of IClasses, BRPDS, and NFAPDs of a cache line are accessed concurrently with the corresponding sets of instructions of the cache line. One BRPD and one NFAPD is selected from the set of BRPDs and NFAPDs corresponding to the selected set of instructions. The selected BRPD and NFAPD are updated in accordance to a pre-established update policy of the branch and next fetch address prediction algorithm when the actual branch direction and next fetch address are resolved.

Abstract: An optimized, superscalar microprocessor architecture for supporting graphics operations in addition to the standard microprocessor integer and floating point operations. A number of specialized graphics instructions and accompanying hardware for executing them are disclosed to optimize the execution of graphics instruction with minimal additional hardware for a general purpose CPU.