Abstract: A non-transitory processor-readable medium storing code representing instructions to be executed by a processor. The code causes the processor to send a signal to a compute device such that a first graphical user interface is rendered at the compute device via a dynamic form builder. The code causes the processor to receive, via the first graphical user interface, a set of inputs associated with a set of questions and a set of layout settings. The code causes the processor to generate, based on the set of inputs, a platform-agnostic configuration application data structure. The code causes the processor to send the platform-agnostic configuration application data structure to an application on a mobile device, causing the mobile device to render a second graphical user interface. The second graphical user interface includes a dynamic form configured to receive at least one response to a question from the set of questions.

Abstract: Methods and apparatuses for ion peak compression and increasing resolution of ions are disclosed. Packets of ions are introduced into a device. A first electric field is applied for dispersing the ion packets temporally or spatially according to their mobilities. A second intermittent traveling wave is applied for regrouping or merging the dispersed ion packets into a lesser number of trapping regions with narrower peaks. The ions packets are compressed into the narrower peak regions by varying a duty cycle of the intermittent traveling wave.

Abstract: The methods and apparatuses disclosed herein generally relate to optimizing the creation and loading of application interface layouts by providing a platform for generating configuration files for mobile applications. A mobile configuration file can allow a developer to update an application layout, and for the application to render updated layouts, without any need to alter the underlying code of the application after it has been installed on the a client device. A mobile workbench receives drag-and-drop layout definition input from a developer, and creates a mobile configuration file based on the developer's input. The mobile workbench can then dynamically update the mobile configuration file as the developer updates the application layout. The developer and/or the mobile workbench can send the updated application layout to mobile applications running on client devices, such that the client devices need not redownload the mobile application to render the updated application layout.

Abstract: Methods and apparatuses for ion peak compression and increasing resolution of ions are disclosed. Packets of ions are introduced into a device. A first electric field is applied for dispersing the ion packets temporally or spatially according to their mobilities. A second intermittent traveling wave is applied for regrouping or merging the dispersed ion packets into a lesser number of trapping regions with narrower peaks. The ions packets are compressed into the narrower peak regions by varying a duty cycle of the intermittent traveling wave.

Abstract: Methods and apparatuses for ion peak compression and increasing resolution of ions are disclosed. Packets of ions are introduced into a device. A first electric field is applied for dispersing the ion packets temporally or spatially according to their mobilities. A second intermittent traveling wave is applied for regrouping or merging the dispersed ion packets into a lesser number of trapping regions with narrower peaks. The ions packets are compressed into the narrower peak regions by varying a duty cycle of the intermittent traveling wave.

Abstract: Methods and apparatuses for ion peak compression and increasing resolution of ions are disclosed. Packets of ions are introduced into a device. A first electric field is applied for dispersing the ion packets temporally or spatially according to their mobilities. A second intermittent traveling wave is applied for regrouping or merging the dispersed ion packets into a lesser number of trapping regions with narrower peaks. The ions packets are compressed into the narrower peak regions by varying a duty cycle of the intermittent traveling wave.

Abstract: Methods and apparatuses for ion peak compression and increasing resolution of ions are disclosed. Packets of ions are introduced into a device. A first electric field is applied for dispersing the ion packets temporally or spatially according to their mobilities. A second intermittent traveling wave is applied for regrouping or merging the dispersed ion packets into a lesser number of trapping regions with narrower peaks. The ions packets are compressed into the narrower peak regions by varying a duty cycle of the intermittent traveling wave.

Abstract: Described herein are examples of systems and methods for integrating IMS and MS systems. In certain examples, systems and methods for decoding double multiplexed data are described. The systems and methods can also perform multiple refining procedures in order to minimize the demultiplexing artifacts. The systems and methods can be used, for example, for the analysis of proteomic and petroleum samples, where the integration of IMS and high mass resolution are used for accurate assignment of molecular formulae.

Abstract: Described herein are examples of systems and methods for integrating IMS and MS systems. In certain examples, systems and methods for decoding double multiplexed data are described. The systems and methods can also perform multiple refining procedures in order to minimize the demultiplexing artifacts. The systems and methods can be used, for example, for the analysis of proteomic and petroleum samples, where the integration of IMS and high mass resolution are used for accurate assignment of molecular formulae.

Abstract: Methods and apparatuses for ion peak compression and increasing resolution of ions are disclosed. Packets of ions are introduced into a device. A first electric field is applied for dispersing the ion packets temporally or spatially according to their mobilities. A second intermittent traveling wave is applied for regrouping or merging the dispersed ion packets into a lesser number of trapping regions with narrower peaks. The ions packets are compressed into the narrower peak regions by varying a duty cycle of the intermittent traveling wave.

Abstract: In various embodiments, a control client is configured to determine whether or not the most current configuration profile has been installed within a corresponding mobile device. In particular embodiments, the client is configured to store its own copy of a configuration profile and to compare its copy with the most current configuration profile generated by a device management system as well as to the configuration profile currently installed and applied by a configuration manager within the mobile device. Each configuration profile includes an embedded verification token that facilitates this process. Furthermore, the client may be configured to inform the device management system as to whether or not the current configuration profile has been installed. The device management system may govern enterprise access by the mobile device based on whether or not the current configuration profile has been installed.

Abstract: In various embodiments, a method is described that includes receiving mobile device usage data directly from each of a plurality of mobile devices associated with a particular enterprise, aggregating the usage data from each of the plurality of mobile devices at a central database, and generating one or more mobile device usage reports based on the aggregated usage data.

Abstract: In various embodiments, a control client is configured to determine whether or not the most current configuration profile has been installed within a corresponding mobile device. In particular embodiments, the client is configured to store its own copy of a configuration profile and to compare its copy with the most current configuration profile generated by a device management system as well as to the configuration profile currently installed and applied by a configuration manager within the mobile device. Each configuration profile includes an embedded verification token that facilitates this process. Furthermore, the client may be configured to inform the device management system as to whether or not the current configuration profile has been installed. The device management system may govern enterprise access by the mobile device based on whether or not the current configuration profile has been installed.

Abstract: The methods and apparatuses disclosed herein generally relate to optimizing the creation and loading of application interface layouts by providing a platform for generating configuration files for mobile applications. A mobile configuration file can allow a developer to update an application layout, and for the application to render updated layouts, without any need to alter the underlying code of the application after it has been installed on the a client device. A mobile workbench receives drag-and-drop layout definition input from a developer, and creates a mobile configuration file based on the developer's input. The mobile workbench can then dynamically update the mobile configuration file as the developer updates the application layout. The developer and/or the mobile workbench can send the updated application layout to mobile applications running on client devices, such that the client devices need not redownload the mobile application to render the updated application layout.

Abstract: In various embodiments, a control client is configured to determine whether or not the most current configuration profile has been installed within a corresponding mobile device. In particular embodiments, the client is configured to store its own copy of a configuration profile and to compare its copy with the most current configuration profile generated by a device management system as well as to the configuration profile currently installed and applied by a configuration manager within the mobile device. Each configuration profile includes an embedded verification token that facilitates this process. Furthermore, the client may be configured to inform the device management system as to whether or not the current configuration profile has been installed. The device management system may govern enterprise access by the mobile device based on whether or not the current configuration profile has been installed.

Abstract: In various embodiments, a method is described that includes receiving mobile device usage data directly from each of a plurality of mobile devices associated with a particular enterprise, aggregating the usage data from each of the plurality of mobile devices at a central database, and generating one or more mobile device usage reports based on the aggregated usage data.

Abstract: In various embodiments, a method is described that includes receiving mobile device usage data directly from each of a plurality of mobile devices associated with a particular enterprise, aggregating the usage data from each of the plurality of mobile devices at a central database, and generating one or more mobile device usage reports based on the aggregated usage data.

Abstract: In various embodiments, a control client is configured to determine whether or not the most current configuration profile has been installed within a corresponding mobile device. In particular embodiments, the client is configured to store its own copy of a configuration profile and to compare its copy with the most current configuration profile generated by a device management system as well as to the configuration profile currently installed and applied by a configuration manager within the mobile device. Each configuration profile includes an embedded verification token that facilitates this process. Furthermore, the client may be configured to inform the device management system as to whether or not the current configuration profile has been installed. The device management system may govern enterprise access by the mobile device based on whether or not the current configuration profile has been installed.

Abstract: In various embodiments, a control client is configured to determine whether or not the most current configuration profile has been installed within a corresponding mobile device. In particular embodiments, the client is configured to store its own copy of a configuration profile and to compare its copy with the most current configuration profile generated by a device management system as well as to the configuration profile currently installed and applied by a configuration manager within the mobile device. Each configuration profile includes an embedded verification token that facilitates this process. Furthermore, the client may be configured to inform the device management system as to whether or not the current configuration profile has been installed. The device management system may govern enterprise access by the mobile device based on whether or not the current configuration profile has been installed.

Abstract: A method, apparatus, and electronic device for conforming integrity of a client device 106 are disclosed. A memory 1100 may store a policy tag 404 associated with a subgroup of a group of policies 1102 and having a tag timestamp. A network interface 1060 may receive the certificate of health 300 from the client device 106. A processor 1010 may extract from the certificate of health a certificate timestamp 302 and a policy tag 304. The processor 1010 may access the tag timestamp. The processor 1010 may execute a comparison of the certificate timestamp 302 with the tag timestamp. The network interface 1060 may grant access to a network 104 based in part upon the comparison.