Abstract: A floor panel for installation in an aircraft includes a plurality of thermoplastic C-shaped stringers, a consolidated thermoplastic deltoid filler, a thermoplastic upper facing sheet, and a thermoplastic lower facing sheet. The stringers are disposed in a parallel arrangement with one another. The deltoid filler is disposed within a longitudinally-extending notch defined by a pair of adjacent stringers. The upper facing sheet covers an upper surface of the stringers and the deltoid filler. The lower facing sheet covers a lower surface of the stringers and the deltoid filler. The stringers, the deltoid filler, and the upper and lower facing sheets are integrally consolidated forming a unitary construction.

Abstract: A floor panel for installation in an aircraft includes a plurality of thermoplastic C-shaped stringers, a consolidated thermoplastic deltoid filler, a thermoplastic upper facing sheet, and a thermoplastic lower facing sheet. The stringers are disposed in a parallel arrangement with one another. The deltoid filler is disposed within a longitudinally-extending notch defined by a pair of adjacent stringers. The upper facing sheet covers an upper surface of the stringers and the deltoid filler. The lower facing sheet covers a lower surface of the stringers and the deltoid filler. The stringers, the deltoid filler, and the upper and lower facing sheets are integrally consolidated forming a unitary construction.

Abstract: Methods and systems for managing network provisioning for far edge devices are disclosed. New devices may be onboarded to a network at the far edge to provide computer-implemented services. Upon delivery to the far edge, the new devices may lack IP network configuration, which may be required to obtain provisioning data used to complete the onboarding process. That is, the new devices may be unable to access provisioning data until IP-based communications are established with a provisioning server. However, IP network configuration of the new devices may fail (e.g., when local DHCP servers fail to provide network configuration information), preventing initiation of the onboarding process. Thus, a remote service console may be implemented to automate network provisioning (e.g., when DHCP methods fail). The service console may be hosted by a service device and may provide the IP configuration information to new devices automatically, without user input and/or intervention.

Abstract: Methods and systems for managing network provisioning for far edge devices are disclosed. New devices may be onboarded to a network at the far edge to provide computer-implemented services. Upon delivery to the far edge, the new devices may lack IP network configuration, which may be required to obtain provisioning data used to complete the onboarding process. That is, the new devices may be unable to access provisioning data until IP-based communications are established with a provisioning server. However, IP network configuration of the new devices may fail (e.g., when local DHCP servers fail to provide network configuration information), preventing initiation of the onboarding process. Thus, a remote service console may be implemented to manage network provisioning (e.g., when DHCP methods fail). The service console may be hosted by a service device and may use raw-socket MAC address-based communications to manage the IP network configuration of the new devices.

Abstract: A floor panel for installation in an aircraft includes a plurality of thermoplastic C-shaped stringers, a consolidated thermoplastic deltoid filler, a thermoplastic upper facing sheet, and a thermoplastic lower facing sheet. The stringers are disposed in a parallel arrangement with one another. The deltoid filler is disposed within a longitudinally-extending notch defined by a pair of adjacent stringers. The upper facing sheet covers an upper surface of the stringers and the deltoid filler. The lower facing sheet covers a lower surface of the stringers and the deltoid filler. The stringers, the deltoid filler, and the upper and lower facing sheets are integrally consolidated forming a unitary construction.

Abstract: A floor panel for installation in an aircraft includes a plurality of thermoplastic C-shaped stringers, a consolidated thermoplastic deltoid filler, a thermoplastic upper facing sheet, and a thermoplastic lower facing sheet. The stringers are disposed in a parallel arrangement with one another. The deltoid filler is disposed within a longitudinally-extending notch defined by a pair of adjacent stringers. The upper facing sheet covers an upper surface of the stringers and the deltoid filler. The lower facing sheet covers a lower surface of the stringers and the deltoid filler. The stringers, the deltoid filler, and the upper and lower facing sheets are integrally consolidated forming a unitary construction.

Abstract: An off-center impact reinforcement structure includes a push arm proximate rearward of a front portion of the vehicle frame. The push arm extends in a forward and laterally outboard direction from a front side member. A rear surface of the push arm is located below the first side member. During an initial stage of an off-center impact event in which a stationary barrier directly impacts a front surface of the push arm, impacting forces from the off-center impact event move the rear surface of the push arm into contact with brackets that extend downward from the front side member and transfer through the push arm to brackets and to the vehicle frame. In a second stage, a rear surface of the push arm contacts the vehicle frame as the push arm pivots with the front surface of the push arm moving in a laterally outboard direction.

Abstract: A floor panel for installation in an aircraft includes a plurality of thermoplastic C-shaped stringers, a consolidated thermoplastic deltoid filler, a thermoplastic upper facing sheet, and a thermoplastic lower facing sheet. The stringers are disposed in a parallel arrangement with one another. The deltoid filler is disposed within a longitudinally-extending notch defined by a pair of adjacent stringers. The upper facing sheet covers an upper surface of the stringers and the deltoid filler. The lower facing sheet covers a lower surface of the stringers and the deltoid filler. The stringers, the deltoid filler, and the upper and lower facing sheets are integrally consolidated forming a unitary construction.

Abstract: A vehicle structure includes a frame and a diagonal structure. The frame has a first side member, a second side member and a cross-member that extends in a vehicle lateral direction between the first and second side members. The cross-member is perpendicular to the first and second side members. The diagonal structure has a beam with a rear end that extends to an area of the second side member rearward of the cross-member. An angle of between 35 and 60 degrees is defined between the cross-member and the beam of the diagonal structure. The rear end of the beam is supported to the second side member by a rear attachment bracket such that the rear end of the beam is spaced apart from the second side member with a rear gap being defined between the rear end of the beam and the second side member.

Abstract: A vehicle structure includes a vehicle frame and a push arm. The vehicle frame includes surfaces that define an intersection of a first side member and a first cross-member. The surfaces extend from the first side member to the first cross-member with an upper surface of a mid-section of the first cross-member being vertically spaced apart from an upper surface of the first side member. The push arm is coupled to the vehicle frame proximate the intersection. A rear surface of the push arm faces and is adjacent to a front area of the intersection. A main body of the push arm extends forward and laterally outboard from the rear surface such that the front surface is located laterally outboard of the first side member.

Abstract: A front suspension structure has a front portion on a first side member of a vehicle frame and a rear portion on the first side member rearward of the front portion. A front wheel is supported by a wheel support structure that is pivotally mounted to a front suspension structure of the first side member. A stop structure is installed to the first side member at the rear portion of the front suspension structure. The stop structure extends in an outboard direction of the first side member. The stop structure has a stop surface that defines an angle relative to the vehicle longitudinal direction between 110 and 130 degrees. In response to an impact event to a front area of the front wheel, the front wheel pivots relative to the wheel support structure moving a rear area of the front wheel into contact with the stop surface.

Abstract: An off-center impact reinforcement structure includes a push arm proximate rearward of a front portion of the vehicle frame. The push arm extends in a forward and laterally outboard direction from a front side member. A rear surface of the push arm is located below the first side member. During an initial stage of an off-center impact event in which a stationary barrier directly impacts a front surface of the push arm, impacting forces from the off-center impact event move the rear surface of the push arm into contact with brackets that extend downward from the front side member and transfer through the push arm to brackets and to the vehicle frame. In a second stage, a rear surface of the push arm contacts the vehicle frame as the push arm pivots with the front surface of the push arm moving in a laterally outboard direction.

Abstract: An off-center impact reinforcement structure includes a push arm and a first diagonals structure installed to elements of a frame of a vehicle structure. The push arm is coupled to the frame proximate an intersection of a first side member and a first cross-member and extends in a forward and laterally outboard direction from the intersection. The first diagonal structure extends rearward and laterally inboard from proximate the intersection toward a section of a second side member rearward of the first cross-member. The off-center impact reinforcement structure is configured such that during an off-center impact event in which a stationary barrier impacts against a front surface of the push arm during forward movement of the vehicle frame, impacting forces from the impact event are transferred through the push arm to the vehicle frame at the intersection and from the intersection to the first diagonal structure.

Abstract: A front suspension structure has a front portion on a first side member of a vehicle frame and a rear portion on the first side member rearward of the front portion. A front wheel is supported by a wheel support structure that is pivotally mounted to a front suspension structure of the first side member. A stop structure is installed to the first side member at the rear portion of the front suspension structure. The stop structure extends in an outboard of the first side member. The stop structure has a stop surface that defines an angle relative to the vehicle longitudinal direction between 110 and 130 degrees. In response to an impact event to a front area of the front wheel, the front wheel pivots relative to the wheel support structure moving a rear area of the front wheel into contact with the stop surface.

Abstract: A vehicle structure includes a frame and a diagonal structure. The frame has a first side member, a second side member and a cross-member that extends in a vehicle lateral direction between the first and second side members. The cross-member is perpendicular to the first and second side members. The diagonal structure has a beam with a rear end that extends to an area of the second side member rearward of the cross-member. An angle of between 35 and 60 degrees is defined between the cross-member and the beam of the diagonal structure. The rear end of the beam is supported to the second side member by a rear attachment bracket such that the rear end of the beam is spaced apart from the second side member with a rear gap being defined between the rear end of the beam and the second side member.

Abstract: A vehicle structure includes a vehicle frame and a push arm. The vehicle frame includes surfaces that define an intersection of a first side member and a first cross-member. The surfaces extend from the first side member to the first cross-member with an upper surface of a mid-section of the first cross-member being vertically spaced apart from an upper surface of the first side member. The push arm is coupled to the vehicle frame proximate the intersection. A rear surface of the push arm faces and is adjacent to a front area of the intersection. A main body of the push arm extends forward and laterally outboard from the rear surface such that the front surface is located laterally outboard of the first side member.

Abstract: An off-center impact reinforcement structure includes a push arm and a first diagonals structure installed to elements of a frame of a vehicle structure. The push arm is coupled to the frame proximate an intersection of a first side member and a first cross-member and extends in a forward and laterally outboard direction from the intersection. The first diagonal structure extends rearward and laterally inboard from proximate the intersection toward a section of a second side member rearward of the first cross-member. The off-center impact reinforcement structure is configured such that during an off-center impact event in which a stationary barrier impacts against a front surface of the push arm during forward movement of the vehicle frame, impacting forces from the impact event are transferred through the push arm to the vehicle frame at the intersection and from the intersection to the first diagonal structure.

Abstract: A rice flour composition comprising rice flour having a Water Absorption Index of from about 3.5 to about 9 and a Peak Viscosity of from about 130 RVU to about 900 RVU. Dry blends, doughs, processes of making, and fabricated chips made from the rice flour composition.

Abstract: Polyol polyesters useful as nondigestible fat substitutes are prepared by improved heterogeneous interesterification processes between fatty acid esters of easily removable alcohol and polyol characterized by having one or more improvements such as using low levels of soap emulsifying agent, catalyst, and/or excess fatty acid ester; reducing the size of the polyol by mechanical means; removing extraneous particulate material during the reaction; using low temperature and/or high pressure and compensating by increasing the mass transfer area; and/or using backmixing in the initial stage(s) and plug-flow conditions in the final stage(s).

Abstract: Organic, small pore area materials (“SPMs”) are provided comprising open cell foams in unlimited sizes and shapes. These SPMs exhibit minimal shrinkage and cracking. Processes for preparing SPMs are also provided that do not require supercritical extraction. These processes comprise sol-gel polymerization of a hydroxylated aromatic in the presence of at least one suitable electrophilic linking agent and at least one suitable solvent capable of strengthening the sol-gel. Also disclosed are the carbonized derivatives of the organic SPMs.