Abstract: Provided herein are enzyme granules where the enzyme is encapsulated within a surfactant system. The enzyme granules contain 80-90% of active and functional ingredients and less than 15% fillers. The enzyme granules are easy to prepare, safe to handle and have a long shelf life. These granules can be used in detergent compositions which have various home care applications.

Abstract: This disclosure relates generally to the field of retrieval and extraction for designing formulated products by constructed ingredient-functionality lists for formulated products using search engine result excerpts in an automated manner. Many ingredients used in formulated products are multi-functional. Conventionally, in a given category of formulated product, only a single functionality or subset of functionalities of an ingredient is used ignoring other functionalities of which the ingredient is representative. However, there is a need to put together representative ingredients before proceeding further with process steps of making and testing the formulated product. The present disclosure addresses unresolved problems of the conventional methods by obtaining information regarding the functionalities of ingredients used in formulated products using search engines based on a loop processing involving query formation, and construction of a list of ingredients and functionalities till exhaustion.

Abstract: A fuel freeze mitigation and/or prevention system includes a power generator configured and adapted to be positioned within a fuel storage tank. A fluid mover device is in electrical communication with the power generator. The fluid mover device is configured and adapted to be positioned within a fuel storage tank to mitigate or prevent fuel freeze in the fuel storage tank. A method for mitigating or preventing fuel freeze in a fuel storage tank includes harvesting energy with a power generator positioned within the fuel storage tank, charging a battery with the harvested energy, monitoring a fuel temperature inside the fuel storage tank, and turning a fluid mover device positioned within the fuel storage tank ON or OFF depending on at least one of a manual command or the fuel temperature inside the fuel storage tank to mitigate or prevent fuel freeze in the fuel storage tank.

Abstract: An uplock system includes a cam plate comprising a cam channel, a hook configured to rotate with respect to the cam plate, a follower rotatably coupled to the hook, wherein a portion of the follower moves within the cam channel in response to rotation of the hook, a stopper configured to engage the follower, and a first biasing member configured to bias the stopper towards the follower to stop the follower from moving within the cam channel, thereby locking the hook in a locked position.

Abstract: A lock system for a landing gear assembly may comprise a housing and a hook configured to rotate relative to the housing. A lock pin may be configured to translate into a rotational path of the hook. An electromechanical actuator may be configured to translate the lock pin.

Abstract: An uplock system includes a cam plate comprising a cam channel, a hook configured to rotate with respect to the cam plate, a follower rotatably coupled to the hook, wherein a portion of the follower moves within the cam channel in response to rotation of the hook, a stopper configured to engage the follower, and a first biasing member configured to bias the stopper towards the follower to stop the follower from moving within the cam channel, thereby locking the hook in a locked position.

Abstract: Methods, devices, and systems for fire control panel interface generation are described herein. In some examples, one or more embodiments include a fire control panel comprising a memory and a processor to execute instructions stored in the memory to determine, from a plurality of geographic regions, a geographic region for the control panel, determine a set of standards corresponding to the determined geographic region, and generate a fire control panel interface using the determined set of standards, and a user interface to display the fire control panel interface.

Abstract: Methods, devices, and systems for fire control panel interface generation are described herein. In some examples, one or more embodiments include a fire control panel comprising a memory and a processor to execute instructions stored in the memory to determine, from a plurality of geographic regions, a geographic region for the control panel, determine a set of standards corresponding to the determined geographic region, and generate a fire control panel interface using the determined set of standards, and a user interface to display the fire control panel interface.

Abstract: A lock system for a landing gear assembly may comprise a housing and a hook configured to rotate relative to the housing. A lock pin may be configured to translate into a rotational path of the hook. An electromechanical actuator may be configured to translate the lock pin.

Abstract: Methods, devices, and systems for fire control panel interface generation are described herein. In some examples, one or more embodiments include a fire control panel comprising a memory and a processor to execute instructions stored in the memory to determine, from a plurality of geographic regions, a geographic region for the control panel, determine a set of standards corresponding to the determined geographic region, and generate a fire control panel interface using the determined set of standards, and a user interface to display the fire control panel interface.

Abstract: Methods, devices, and systems for fire control panel interface generation are described herein. In some examples, one or more embodiments include a fire control panel comprising a memory and a processor to execute instructions stored in the memory to determine, from a plurality of geographic regions, a geographic region for the control panel, determine a set of standards corresponding to the determined geographic region, and generate a fire control panel interface using the determined set of standards, and a user interface to display the fire control panel interface.

Abstract: A legacy-to-container (L2C) system converts a computer program in a procedural programming language to an object oriented programming language. The L2C system parses the procedural language to identify program variables and also program sub-elements, such as paragraphs in COBOL for example. The L2C system provides a user interface that allows the user to select which paragraphs should be converted into methods wherein the remaining non-selected paragraphs are to be converted into classes. The L2C system is configured to re-architect the procedural language by (i) creating normal object classes corresponding to the identified variables, (ii) creating methods for the user-selected paragraphs; and (iii) creating classes for the remaining non-selected paragraphs.

Abstract: A method and apparatus for migration of application source code may include parsing the source code and generating a first output, dynamically analyzing the source code to produce a second output wherein the second output comprises at least business rule metadata associated with the application, converting, using the at least business rule metadata, the source code of the application in an original language to a destination language on the second platform and a data source in an assigned format to a destination format. The method may include simulating memory to execute the source code by creating a dynamic memory array, executing the source code within the dynamic memory array, detecting and resolving parameters of the source code by monitoring execution of the source code, and storing the detected and resolved parameters of the source code in a metadata register.

Abstract: A method and apparatus for migration of application source code may include parsing the source code and generating a first output, dynamically analyzing the source code to produce a second output wherein the second output comprises runtime metadata associated with the application, converting, using the metadata, the source code of the application in an original language to a destination language on the second platform and a data source in an assigned format to a destination format. The method may include simulating memory to execute the source code by creating a dynamic memory array, executing the source code within the dynamic memory array, detecting and resolving parameters of the source code by monitoring execution of the source code, and storing the detected and resolved parameters of the source code in a metadata register.

Abstract: A method and apparatus for migration of application source code may include parsing the source code and generating a first output, dynamically analyzing the source code to produce a second output wherein the second output comprises runtime metadata associated with the application, converting, using the runtime metadata, the source code of the application in an original language to a destination language on the second platform and a data source in an assigned format to a destination format. The method may include simulating memory to execute the source code by simulating a dynamic memory array, executing the source code within the dynamic memory array, detecting and resolving parameters of the source code by monitoring execution of the source code, and storing the detected and resolved parameters of the source code in a metadata register.

Abstract: A legacy-to-container (L2C) system converts a computer program in a procedural programming language to an object oriented programming language. The L2C system parses the procedural language to identify program variables and also program sub-elements, such as paragraphs in COBOL for example. The L2C system provides a user interface that allows the user to select which paragraphs should be converted into methods wherein the remaining non-selected paragraphs are to be converted into classes. The L2C system is configured to re-architect the procedural language by (i) creating normal object classes corresponding to the identified variables, (ii) creating methods for the user-selected paragraphs; and (iii) creating classes for the remaining non-selected paragraphs.

Abstract: A method and apparatus for migration of application source code may include parsing the source code and generating a first output, dynamically analyzing the source code to produce a second output wherein the second output comprises runtime metadata associated with the application, converting, using the metadata, the source code of the application in an original language to a destination language on the second platform and a data source in an assigned format to a destination format. The method may include simulating memory to execute the source code by creating a dynamic memory array, executing the source code within the dynamic memory array, detecting and resolving parameters of the source code by monitoring execution of the source code, and storing the detected and resolved parameters of the source code in a metadata register.

Abstract: A method and apparatus for migration of application source code may include parsing the source code and generating a first output, dynamically analyzing the source code to produce a second output wherein the second output comprises at least business rule metadata associated with the application, converting, using the at least business rule metadata, the source code of the application in an original language to a destination language on the second platform and a data source in an assigned format to a destination format. The method may include simulating memory to execute the source code by creating a dynamic memory array, executing the source code within the dynamic memory array, detecting and resolving parameters of the source code by monitoring execution of the source code, and storing the detected and resolved parameters of the source code in a metadata register.

Abstract: A vehicle includes a bumper beam and a bumper fascia that covers the bumper beam. An energy absorption member includes a first laterally positioned leg including a mounting flange connected to the bumper beam and a second laterally positioned leg including a mounting flange connected to the bumper beam. The first and second laterally positioned legs are located at opposite sides of a forward facing surface and are spaced-apart from each other.

Abstract: A vehicle includes a bumper beam and a bumper fascia that covers the bumper beam. An energy absorption member includes a first laterally positioned leg including a mounting flange connected to the bumper beam and a second laterally positioned leg including a mounting flange connected to the bumper beam. The first and second laterally positioned legs are located at opposite sides of a forward facing surface and are spaced-apart from each other.