Abstract: Systems, devices, and methods of diagnosing an electrochemical cell using cyclic coulometry are discussed. An exemplary battery diagnostic system comprises a current generator to generate symmetric charge current and discharge current to excite an electrochemical cell, and a cyclic coulometer to evaluate performance of the electrochemical cell. The cyclic coulometer can adjust at least one of a charge time for applying the charge current, or a discharge time for applying the discharge current, to keep a monitored cell voltage toward a specific setpoint. The adjustment of charge or discharge time can be achieved by changing a current switch timing for reversing current from a first to a second current direction. The cyclic coulometer measures one or more electrical parameters during the charge or discharge cycle, and generates a performance metric using the measured electrical parameters.

Abstract: A lithium-ion battery includes a cathode comprising a lithium compound and the cathode further includes solid additives based on metal nitrides and/or borates. The solid additives improve the capacity retention of the lithium-ion battery and extend the battery lifetime. The solid additives also reduce the growth in internal resistance of the lithium-ion battery that is known to occur as Li-ion batteries age. The solid additives help stabilize the lithium-ion chemistry to high cell potentials or temperatures.

Abstract: Systems, devices, and methods of diagnosing an electrochemical cell using cyclic coulometry are discussed. An exemplary battery diagnostic system comprises a current generator to generate symmetric charge current and discharge current to excite an electrochemical cell, and a cyclic coulometer to evaluate performance of the electrochemical cell. The cyclic coulometer can adjust at least one of a charge time for applying the charge current, or a discharge time for applying the discharge current, to keep a monitored cell voltage toward a specific setpoint. The adjustment of charge or discharge time can be achieved by changing a current switch timing for reversing current from a first to a second current direction. The cyclic coulometer measures one or more electrical parameters during the charge or discharge cycle, and generates a performance metric using the measured electrical parameters.

Abstract: Systems, devices, and methods of diagnosing an electrochemical cell using cyclic coulometry are discussed. An exemplary battery diagnostic system comprises a current generator to generate symmetric charge current and discharge current to excite an electrochemical cell, and a cyclic coulometer to evaluate performance of the electrochemical cell. The cyclic coulometer can adjust at least one of a charge time for applying the charge current, or a discharge time for applying the discharge current, to keep a monitored cell voltage toward a specific setpoint. The adjustment of charge or discharge time can be achieved by changing a current switch timing for reversing current from a first to a second current direction. The cyclic coulometer measures one or more electrical parameters during the charge or discharge cycle, and generates a performance metric using the measured electrical parameters.

Abstract: A lithium-ion battery includes a cathode comprising a lithium compound and the cathode further includes solid additives based on metal nitrides and/or borates. The solid additives improve the capacity retention of the lithium-ion battery and extend the battery lifetime. The solid additives also reduce the growth in internal resistance of the lithium-ion battery that is known to occur as Li-ion batteries age. The solid additives help stabilize the lithium-ion chemistry to high cell potentials or temperatures.

Abstract: Sorption reinforced catalytic coating system for the degradation of threat agents including a synzyme coating about a material, the synzyme coating having bucket-shaped molecules for the sorption and degradation of the threat agents. A binding agent is configured for synzyme immobilization to maximize loading and retention of the synzyme coating on the material.

Abstract: Sorption reinforced catalytic coating system for the degradation of threat agents including a synzyme coating about a material configured for the degradation of the threat agents, the synzyme coating including bucket-shaped molecules configured for the sorption of the threat agents A binding agent is configured for synzyme immobilization to maximize loading and retention of the synzyme coating on the material.

Abstract: A self-decontaminating metal organic framework including an acid linked to a metal producing a metal organic framework configured for the sorption of chemical warfare agents and/or toxic industrial chemicals, the metal organic framework including reactive sites for the degradation of the agents and chemicals.

Abstract: Sorption reinforced catalytic coating system for the degradation of threat agents including a synzyme coating about a material, the synzyme coating having bucket-shaped molecules for the sorption and degradation of the threat agents. A binding agent is configured for synzyme immobilization to maximize loading and retention of the synzyme coating on the material.

Abstract: Sorption reinforced catalytic coating system for the degradation of threat agents including a synzyme coating about a material, the synzyme coating having bucket-shaped molecules for the sorption and degradation of the threat agents. A binding agent is configured for synzyme immobilization to maximize loading and retention of the synzyme coating on the material.

Abstract: The invention relates to materials used as electrodes and/or catalysts, as well as methods associated with the same. The materials may comprise an alloy or intermetallic compound of a transition metal (e.g., Ni) and a metal additive (e.g., Sn). The transition metal and additive are selected to provide improved electrode and/or catalytic performance. For example, the materials of the invention may have a high catalytic activity, while being less susceptible to coking than certain conventional electrode/catalytic materials. These performance advantages can simplify the equipment used in certain applications, as well as reducing energy and capital requirements. Furthermore, the materials may be manufactured using traditional ceramic processing methods, without the need for complex, unconventional fabrication techniques. The materials are particularly suitable for use in fuel cells (e.g., SOFCs electrodes) and in reactions that use or produce synthesis gas.

Abstract: Sorption reinforced catalytic coating system for the degradation of threat agents including a synzyme coating about a material configured for the degradation of the threat agents, the synzyme coating including bucket-shaped molecules configured for the sorption of the threat agents A binding agent is configured for synzyme immobilization to maximize loading and retention of the synzyme coating on the material.

Abstract: A self-decontaminating metal organic framework including an acid linked to a metal producing a metal organic framework configured for the sorption of chemical warfare agents and/or toxic industrial chemicals, the metal organic framework including reactive sites for the degradation of the agents and chemicals.

Abstract: A method includes interfacing with a field replaceable unit (FRU) having a memory device configured to store a FRUID image including at least status data. The status data is extracted from the memory device. Repair information associated with a repair of the field replaceable unit is received. The repair information is stored in the memory device. A system includes a field replaceable unit (FRU) and a FRU tool. The FRU includes a memory device configured to store a FRUID image including at least status data. The FRU tool is configured to interface with the FRU, extract the status data from the memory device, receive repair information associated with a repair of the field replaceable unit, and store the repair information in the memory device.

Abstract: A method for tracking repair histories includes providing a field replaceable unit having a memory device. Operational history data is collected during the operation of the field replaceable unit. The operational history data is stored in the memory device. A computing system includes a field replaceable unit including a memory device configured to store operational history data associated with the field replaceable unit.

Abstract: A method includes interfacing with a field replaceable unit (FRU) having a memory device configured to store a FRUID image including at least status data. The status data is extracted from the memory device. Repair information associated with a repair of the field replaceable unit is received. The repair information is stored in the memory device. A system includes a field replaceable unit (FRU) and a FRU tool. The FRU includes a memory device configured to store a FRUID image including at least status data. The FRU tool is configured to interface with the FRU, extract the status data from the memory device, receive repair information associated with a repair of the field replaceable unit, and store the repair information in the memory device.

Abstract: A method includes providing a field replaceable unit having a memory device. Static information associated with the identity of the field replaceable unit is stored in the memory device. Dynamic data associated with a service life of the field replaceable unit is stored in the memory device. A computing system includes a field replaceable unit having a memory device storing static information associated with the identity of the field replaceable unit and dynamic data associated with a service life of the field replaceable unit.

Abstract: A method for tracking repair histories includes providing a field replaceable unit having a memory device. Operational history data is collected during the operation of the field replaceable unit. The operational history data is stored in the memory device. A computing system includes a field replaceable unit including a memory device configured to store operational history data associated with the field replaceable unit.

Abstract: A method includes providing a field replaceable unit having a memory device. A first data element including dynamic information associated with the service life of the field replaceable unit is generated. A first tag is generated for the first data element. The first tag is prepended to the first data element to generate a first tagged data element. The first tagged data element is stored in the memory device. A computing system includes a field replaceable unit having a memory device configured to store a first tagged data element, the first tagged data element including a first data element including dynamic information associated with the service life of the field replaceable unit and a first tag associated with the first data element.