Abstract: Exemplary embodiments of the process and systems described herein include accessing a electronic device that is not connected to an authentication server by a user authentication by a multi-factor authentication using a mobile device as one factor and by either authenticating to the mobile device with a biometric or with knowledge as the second factor; wherein an encrypted code is transferred to the mobile device and decrypted by the mobile device, then using the decryption of the encrypted code to access an encrypted token on the computer that allows access to the computer by the user.

Abstract: Exemplary embodiments of the process of remotely accessing a first device may include: connecting the first device to an authentication server; generating a one time code; transferring the one time code to a second device; connecting the second device to the authentication server; sending the one time code from the second device to the authentication server; confirming the one time code with the authentication server; modifying the first device to exclusively use only one credential provider to authenticate a user; communicating approval for authentication of the user from the authentication server to the first device when the one time code is confirmed with the authentication server; and singing the user into the first device after the approval for authentication of the user is communicated to the first device.

Abstract: Exemplary embodiments of the process of remotely accessing a first device may include: connecting the first device to an authentication server; generating a one time code; transferring the one time code to a second device; connecting the second device to the authentication server; sending the one time code from the second device to the authentication server; confirming the one time code with the authentication server; modifying the first device to exclusively use only one credential provider to authenticate a user; communicating approval for authentication of the user from the authentication server to the first device when the one time code is confirmed with the authentication server; and singing the user into the first device after the approval for authentication of the user is communicated to the first device.

Abstract: Solid electrolytes have a favorable combination of properties such as high conductivity, high transference number, optimum processability, and low brittleness. A composite electrolyte includes some amount of a class of network polymer electrolytes with high transference number and high room temperature conductivity, and an additional polymeric component to contribute mechanical integrity and/or processability. The solid electrolytes can include a network polymer having linked nodes composed of a tetrahedral arylborate composition and a linear polymer combined with the network polymer as a composite. The solid electrolytes can be used in thin films and in solid-state batteries.

Abstract: A disposable scented face mask designed to provide a therapeutic scent to a user while wearing a disposable mask. The disposable scented face mask is a disposable mask having an inner surface and an outer surface, wherein the inner surface is designed to cover a nose and a mouth of a user. A scented area is disposed atop the exterior of the disposable mask. An adjustable nose clip disposed on the inner surface of the disposable mask along a top edge, wherein the nose clip is designed to contour to the nose of the user. At least one strap is disposed on each opposing side of the disposable mask, wherein each strap is designed to secure the disposable mask to the face of the user. In this way, a user is able to wear a disposable mask that encompasses a therapeutic scent.

Abstract: Solid electrolytes have a favorable combination of properties such as high conductivity, high transference number, optimum processability, and low brittleness. A composite electrolyte includes some amount of a class of network polymer electrolytes with high transference number and high room temperature conductivity, and an additional polymeric component to contribute mechanical integrity and/or processability. The solid electrolytes can include a network polymer having linked nodes composed of a tetrahedral arylborate composition and a linear polymer combined with the network polymer as a composite. The solid electrolytes can be used in thin films and in solid-state batteries.

Abstract: A method for controlling pore size of a membrane that includes providing a porous magnetic architecture and magnetizing the porous magnetic architecture. The porous magnetic architecture changes pore size when magnetized. A method for inhibiting the mobility of a solute through a membrane includes magnetizing a porous magnetic architecture in a flow stream that includes a solute. A membrane system for a solute includes a porous magnetic architecture disposed within a flow stream that also includes a solute, and a magnetic source disposed such that the nonuniform porous magnetic architecture is selectively magnetized.

Abstract: A device for use in energy storage comprising a nanostructured mesoporous electrically conductive substrate coated with a metal oxide and an ultrathin conformal polymer coating on the metal oxide wherein said electrode has a mesoporous structure. Also disclosed is the related method for making an electrode for use in energy storage.

Abstract: An apparatus for storage, selective inspection, and execution of complex, contingent rules, comprises a computer having one or more central processing units, a user interface, and magnetic, optical, or other media for data and program storage and retrieval. Rules are defined partly as programs and partly as data. Access procedures for selecting certain appropriate rules under the defined conditions. A display or other output procedures for conveying the results of the rule selections to people, to the computer executing the rules, and to other computers.

Abstract: A method and apparatus for decoding trellis-coded digital data. Digital data samples that have been convolutionally encoded by trellis-coded modulation (TCM) for purposes of forward error correction require a computationally intensive Viterbi decoder for best performance. A technique known as pragmatic trellis-code modulation (PTCM) reduces decoder complexity but at the expense of degraded performance in some situations. This disclosure provides a solution that retains the reduced complexity of PTCM, but uses a full trellis approach that yields significantly better performance in terms of bit error rate (BER).

Abstract: A composite having an electroactive polymer coating on a porous carbon structure is disclosed. The composite may be used in capacitor electrodes. The composite may be made by self-limiting electropolymerization of a monomer on the carbon structure.