Abstract: An exhaust gas aftertreatment system includes: a first sensor configured to measure a parameter in the exhaust gas aftertreatment system; a second sensor configured to measure the parameter in the exhaust gas aftertreatment system, the second sensor disposed proximate the first sensor; and at least one controller configured to alternately receive sensor values from the first sensor for a first target period of time, and receive sensor values from the second sensor for a second target period of time.

Abstract: A photoelectrode includes a fluorine-doped tin oxide (FTO) substrate, and a layer of graphitic-poly(2,4,6-triaminopyrimidine) (g-PTAP) nanoflakes at least partially covering a surface of the FTO substrate. Further, the g-PTAP nanoflakes have a width of 0.1 to 5 micrometers (?m). In addition, a method for producing the photoelectrode, and a method for photocatalytic water splitting, in which the photoelectrode is used.

Abstract: A method of preparing a photocatalyst. The method includes a sulfone-containing conjugated polyimide obtained by solvothermally imidizing 3-sulfonyldianiline 1,4,5,8-naphthalenetetracarboxylic dianhydride with poly (amic acid) (PAA). The photocatalyst of the present disclosure can be used in an electrochemical cell for water oxidation processes.

Abstract: An exhaust gas aftertreatment system includes: a first sensor configured to measure a parameter in the exhaust gas aftertreatment system; a second sensor configured to measure the parameter in the exhaust gas aftertreatment system, the second sensor disposed proximate the first sensor; and at least one controller configured to simultaneously receive sensor values from the first sensor and receive sensor values from the second sensor.

Abstract: A method of preparing a photocatalyst. The method includes a sulfone-containing conjugated polyimide obtained by solvothermally imidizing 3-sulfonyldianiline 1,4,5, 8-naphthalenetetracarboxylic dianhydride with poly (amic acid) (PAA). The photocatalyst of the present disclosure can be used in an electrochemical cell for water oxidation processes.

Abstract: A method of preparing bismuth vanadate particles is described. The bismuth vanadate particles prepared via ultrasonication and hydrothermal treatment exhibit controlled morphology (e.g., octahedral shape) and crystallinity (e.g., tetragonal crystal symmetry). A photoelectrode containing bismuth vanadate particles and a method of using the photoelectrode in a photoelectrochemical cell for water splitting is also provided.

Abstract: Disclosed herein is a brace for regeneration of tissue in a knee comprising a sleeve and a first strut; where the first strut comprises an upper portion comprising a first jig; where the first jig comprises a slot for hosting a first strap that is in contact with the sleeve; a central portion that comprises a central strut that is in fluid communication with an actuator located on a first side of the knee that imposes a force on the knee; where the force is inclined at an angle to a longitudinal axis of the first strut; and a lower portion that comprises a second jig; where the second jig comprises a slot for hosting a second strap that contacts the sleeve at an opposite end relative to a position that the first strap contacts the sleeve.

Abstract: A system and method for placement optimization of public electric vehicle charging stations using telematics data that includes receiving vehicle telematics data from a plurality of vehicles. The system and method also includes analyzing the vehicle telematics data to determine clusters of candidate locations of the public electric vehicle charging stations and selecting a subset of nodes of a fully connected graph structure that are associated with the candidate locations as optimal locations of the public electric vehicle charging stations. The system and method further include controlling an electronic computing system to present a human machine interface to present a visualization of the optimal locations of public electric vehicle charging stations to at least one party.

Abstract: The packet processing system, according to an example embodiment, comprises a Network Interface Controller (NIC) to receive and transmit network packets; a memory unit for storing network packets; a processor for processing network packets stored in the memory unit; a cache unit to access all data to the processor from the memory unit; and an application process running on the processing unit. The NIC includes a packet processing means to process the network packets received by the NIC. The packet processing means includes a Contiguous Header Mapping/Map (CHM) header-data splitter to split said network packets into a header portion and a payload portion; a table or equivalent to store the contiguous header-data split configuration data; and a packet Direct Memory Access (DMA) unit to DMA copy said header portion and said payload portion into separate memory area/location and contiguously map said header portion of network packets in the memory unit.

Abstract: A method of fixating CO2 to form a substituted oxazolidinone is described. The method includes mixing a nickel-based metal-organic framework (Ni-MOF) catalyst of formula [Ni3(BTC)2(H2O)3]·(DMF)3(H2O)3, a cocatalyst, an aromatic amine, and at least one epoxide to form a reaction mixture, and further contacting the reaction mixture with a gas stream containing carbon dioxide to react the carbon dioxide in the gas stream with the epoxide and the aromatic amine to form a substituted oxazolidinone mixture. The method further includes adding a polar protic solvent to the substituted oxazolidinone mixture, centrifuging, and filtering to produce a recovered Ni-MOF; and further washing the recovered Ni-MOF with an organochloride solvent and drying for at least 5 hours to produce a recycled Ni-MOF.

Abstract: A method of water uptake is provided. The method includes contacting a hydrogen-bonded organic framework (HOF) with water to form a mixture where the HOF comprises hydrogen bonded units of trimesic acid and guanazole. The HOF has a sheet structure, where the sheets form an intercrossed macroporous network with pores on a surface. The HOF absorbs at least a portion of the water in the mixture.

Abstract: A hydrogen-bonded organic framework (HOF) and a method of making the HOF. The HOF has at least one amine substituted organic linker and at least one carboxylic acid-based organic linker. The HOF is prepared by dissolving the linkers separately in water and mixing the aqueous solutions, without using any organic solvents, additional catalysts, or any other reagents.

Abstract: An exhaust gas aftertreatment system includes: a first sensor configured to measure a parameter in the exhaust gas aftertreatment system; a second sensor configured to measure the parameter in the exhaust gas aftertreatment system, the second sensor disposed proximate the first sensor; and at least one controller configured to simultaneously receive sensor values from the first sensor and receive sensor values from the second sensor.

Abstract: An exhaust gas aftertreatment system includes: a first sensor configured to measure a parameter in the exhaust gas aftertreatment system; a second sensor configured to measure the parameter in the exhaust gas aftertreatment system, the second sensor disposed proximate the first sensor; and at least one controller configured to alternately receive sensor values from the first sensor for a first target period of time, and receive sensor values from the second sensor for a second target period of time.

Abstract: A system and method for placement optimization of public electric vehicle charging stations using telematics data that includes receiving vehicle telematics data from a plurality of vehicles. The system and method also includes analyzing the vehicle telematics data to determine clusters of candidate locations of the public electric vehicle charging stations and selecting a subset of nodes of a fully connected graph structure that are associated with the candidate locations as optimal locations of the public electric vehicle charging stations. The system and method further include controlling an electronic computing system to present a human machine interface to present a visualization of the optimal locations of public electric vehicle charging stations to at least one party.

Abstract: An exhaust gas aftertreatment system includes a first sensor configured to measure a parameter and a second sensor disposed proximate the first sensor and configured to measure the parameter. The system includes a controller configured to initially utilize the first sensor as a primary sensor. At target intervals, the controller is configured to receive a first sensor value from the first sensor and receive a second sensor value from the second sensor. The controller is configured to calculate a difference between the first sensor value and the second sensor value and determine if the difference between the first sensor value and the second sensor value is greater than a threshold value. If the difference between the first and second sensor values is greater than the threshold value, the controller is configured to stop utilizing the first sensor as the primary sensor and utilize the second sensor as the primary sensor.

Abstract: An exhaust gas aftertreatment system includes a first sensor configured to measure a parameter and a second sensor disposed proximate the first sensor and configured to measure the parameter. The system includes a controller configured to initially utilize the first sensor as a primary sensor. At target intervals, the controller is configured to receive a first sensor value from the first sensor and receive a second sensor value from the second sensor. The controller is configured to calculate a difference between the first sensor value and the second sensor value and determine if the difference between the first sensor value and the second sensor value is greater than a threshold value. If the difference between the first and second sensor values is greater than the threshold value, the controller is configured to stop utilizing the first sensor as the primary sensor and utilize the second sensor as the primary sensor.

Abstract: The packet processing system, according to an example embodiment, comprises a Network Interface Controller (NIC) to receive and transmit network packets; a memory unit for storing network packets; a processor for processing network packets stored in the memory unit; a cache unit to access all data to the processor from the memory unit; and an application process running on the processing unit. The NIC includes a packet processing means to process the network packets received by the NIC. The packet processing means includes a Contiguous Header Mapping/Map (CHM) header-data splitter to split said network packets into a header portion and a payload portion; a table or equivalent to store the contiguous header-data split configuration data; and a packet Direct Memory Access (DMA) unit to DMA copy said header portion and said payload portion into separate memory area/location and contiguously map said header portion of network packets in the memory unit.

Abstract: A method of transmitting a data flow over a link aggregation group (LAG), including: comparing the bandwidth demand of the data flow with the capacity of a first link assigned to the flow in the LAG; identifying an underutilized second link in the LAG when the bandwidth demand of the flow is greater than the capacity of the link assigned to the flow resulting in excess packets; determining if the second link is available; determining the traffic type of the traffic flow; calculating a time delay and delaying excess packets of the traffic flow by the calculated time delay when the determined traffic type does not include a packet sequence number; and sending excess packets of the traffic flow on the second link.

Abstract: A method of identifying a flow in a received data stream from a secure tunnel, including receiving a plurality of data packets including a flow identification and an encrypted data portion, separating a flow identification from the encrypted data portion, distributing the plurality of data packets to a plurality of processing cores, wherein all the packets associated with a flow identification are distributed to the a processing core.