Abstract: An electrochemical device includes a transition metal oxide cathode, such as LiNi0.8Co0.1Mn0.1O2, and an electrolyte. The electrolyte includes N, N-dimethyltrifluoromethane-sulfonamide (DMTMSA) and lithium bis(fluorosulfonyl)imide (LiFSI). The DMTMSA and LiFSI may be either the primary component of the electrolyte or an additive in the electrolyte. The electrochemical device may also include a graphite anode or a lithium metal anode. With a lithium metal anode, the electrochemical device has an initial specific capacity of at least 231 mAh g?1. Over at least 100 cycles (upper cut-off voltage of 4.7±0.05 V vs. Li/Li+), the electrochemical device maintains an average specific capacity of at least 88% of the initial specific capacity and an average Coulombic efficiency of at least about 99.65%.

Abstract: A metal-oxygen battery can provide improved energy storage and transportation applications due to high gravimetric energies, and such a metal-oxygen battery can include a polyolefin including a plurality of functional groups such as sulfamide, sulfoxy, carbonyl, phosphoramide or heterocyclic groups.

Abstract: A storage vessel includes a body, two or more internal chambers or sections which may hold fluids or debris, one or more bulkheads 108 within the body of the storage vessel to separate the sections, and a roll off attachment apparatus. The storage vessel also comprises a series of ports and hatches to provide access to the sections within the storage vessel. The storage vessel can be moved to and from excavation sites using the roll off attachment apparatus which allows the storage vessel to be attached to or lifted onto a truck.

Abstract: Electrolytes and polymers for a lithium battery can include a fluorinated aryl sulfonimide salt or fluorinated aryl sulfonimide polymer.

Abstract: A storage vessel includes a body, two or more internal chambers or sections which may hold fluids or debris, one or more bulkheads 108 within the body of the storage vessel to separate the sections, and a roll off attachment apparatus. The storage vessel also comprises a series of ports and hatches to provide access to the sections within the storage vessel. The storage vessel can be moved to and from excavation sites using the roll off attachment apparatus which allows the storage vessel to be attached to or lifted onto a truck.

Abstract: A foldable shade device is disclosed herein. The shade device includes a collapsible disc, a telescopic rod, a mechanical joint, and a handle. The handle is secured to the bottom segment of the telescopic rod for grip and durability. The collapsible disc is attached to the telescoping rod, on the end opposing the handle, by the mechanical joint. When in use, the fabric screen across the expanded disc offers sun protection and shade to the user. The user can position the device as desired by extending the telescoping rod and adjusting the angle of the disc. When not in use, the collapsible disc folds into itself, the telescoping rod retracts, and the mechanical joint can be closed. The user can place the folded device into a storage bag for convenient storage and portability. The device offers users protection from the sun during extended periods outdoors.

Abstract: Electrolytes and polymers for a lithium battery can include a fluorinated aryl sulfonimide salt or fluorinated aryl sulfonimide polymer.

Abstract: A metal-oxygen battery and components of a metal-oxygen battery can include sulfamide, sulfoxy, carbonyl, phosphoramide or heterocyclic groups.

Abstract: An apparatus, system, and method are disclosed for generating contact plans and responding to web form inquires using the contact plans.

Abstract: The present invention relates to methods for preparing degradable model networks from any monomer functionality with any degradation methodology. It is based on the use of Atom-Transfer Radical Polymerization and CLICK chemistry to form the desired product.

Abstract: The present invention relates to methods for preparing degradable model networks from any monomer functionality with any degradation methodology. It is based on the use of Atom-Transfer Radical Polymerization and CLICK chemistry to form the desired product.

Abstract: The present invention relates to methods for preparing degradable model networks from any monomer functionality with any degradation methodology. It is based on the use of Atom-Transfer Radical Polymerization and CLICK chemistry to form the desired product.

Abstract: An apparatus, system, and method are disclosed for generating contact plans and responding to web form inquires using the contact plans.

Abstract: An apparatus, system, and method are disclosed for generating contact plans and responding to web form inquires using the contact plans.

Abstract: Embodiments of the invention relate to methods for assessing and/or improving contact between an electrophysiology catheter and tissue, and catheters for performing the methods. One embodiment relates to a catheter comprising a braided conductive member coupled to the distal end of a shaft, wherein the braided conductive member comprises a plurality of pressure sensitive wires. Another embodiment relates to a catheter comprising a braided conductive member having a plurality of sectors and coupled to the distal end of a shaft, and a balloon assembly constructed and arranged to selectively apply distal pressure to one or more sectors of the braided conductive member.

Abstract: A system and method for automated deployment of an information handling system are disclosed. A method for managing the deployment of an information handling system may include executing a deployment application on an information handling system, the deployment application including one or more tasks associated with the deployment of the information handling system. The method may further include automatically determining for a particular task whether an execution time for the particular task is within a predetermined range of execution times. The method may further include automatically performing an error-handling task in response to determining that the execution time for the particular task is not within the predetermined range of execution times.

Abstract: A system and method for automated deployment of an information handling system are disclosed. A method for managing the deployment of an information handling system may include executing a deployment application on an information handling system, the deployment application including one or more tasks associated with the deployment of the information handling system. The method may further include automatically determining for a particular task whether an execution time for the particular task is within a predetermined range of execution times. The method may further include automatically performing an error-handling task in response to determining that the execution time for the particular task is not within the predetermined range of execution times.

Abstract: A system and method for automated deployment of an information handling system are disclosed. A method for managing the deployment of an information handling system may include executing a deployment application on an information handling system, the deployment application including one or more tasks associated with the deployment of the information handling system. The method may further include automatically determining for a particular task whether an execution time for the particular task is within a predetermined range of execution times. The method may further include automatically performing an error-handling task in response to determining that the execution time for the particular task is not within the predetermined range of execution times.

Abstract: The present invention relates to methods for preparing degradable model networks from any monomer functionality with any degradation methodology. It is based on the use of Atom-Transfer Radical Polymerization CLICK chemistry and a tetrafunctional initiator having terminal halogen groups to form the desired product.

Abstract: A system and method for automated deployment of an information handling system are disclosed. A method for managing the deployment of an information handling system may include executing a deployment application on an information handling system, the deployment application including one or more tasks associated with the deployment of the information handling system. The method may further include automatically determining for a particular task whether an execution time for the particular task is within a predetermined range of execution times. The method may further include automatically performing an error-handling task in response to determining that the execution time for the particular task is not within the predetermined range of execution times.