Abstract: A recreational vehicle (RV) may include may include a chassis including longitudinal frame rails, an axle, and an RV body. The RV body may include an RV roof. The RV roof may include foam core units, a composite shell, and a biaxial glass perimeter along a perimeter of the RV roof. The RV may further include an RV battery that may be positioned between the longitudinal frame rails, forward of a center of mass of the RV, and below the RV floor of the RV body. The RV may also include a range extender that may be positioned between the longitudinal frame rails, rearward of the center of mass of the RV, and below the RV floor of the RV body. The RV may further include an electric motor that may be positioned rearward of the center of mass of the RV.

Abstract: There is provided a hydrogel string for encapsulating a biological material. The hydrogel string has a thiol-ene crosslinked polymer with a first side-chain functionalized backbone polymer functionalized with an activated alkene crosslinked with a free or protected thiol-containing group present on a second side-chain functionalized backbone polymer. The biological material is encapsulated within the thiol-ene crosslinked polymer.

Abstract: A recreational vehicle, of the type including a living space, may include an interior wall of the living space. The interior wall may comprise a window. The recreational vehicle may include a foldable table structure affixed to the interior wall. The foldable table structure may include a table surface including an opening. The table surface may be substantially against the interior wall in a stowed position and the window may be viewable or accessible through the opening in the stowed position of the foldable table structure. The table surface may be substantially perpendicular to the interior wall in an extended position of the foldable table structure.

Abstract: A system and method to determine a range between a first device (e.g., an object device) and a second device (e.g., a remote device) based on a characteristic of phase determined with respect to transmissions from a first device to the second device, and optionally a return transmission from the second device back to the first device.

Abstract: Certain aspects of the disclosure provide an RV comprising a convertible cockpit having a driver position, comprising a convertible dashboard configurable to positions, the positions comprising a compressed position and an expanded position, at least a portion of the dashboard being closer in distance on a longitudinal axis to the driver position in the compressed position than in the expanded position, the convertible dashboard comprising a slit portion for placing a steering wheel apparatus, wherein the slit portion runs on the longitudinal axis across a portion of the convertible dashboard; and a steering wheel apparatus comprising a steering column or a steering wheel, wherein the steering wheel apparatus is movable along a length of the slit portion in several positions comprising a driving position or a stowing position.

Abstract: Process inserts, assemblies, and related methods for use in monitoring high velocity fluids or supporting instruments that monitor and manage high velocity fluids are disclosed. Exemplary inserts include a head having a cavity for receiving an instrument, a shank, and an integral flange. The shank includes an elongated body having a first end disposed proximate to the head, a free end opposite the first end, and a threaded portion spaced apart from the first and free ends. Exemplary process insert assemblies include a process insert having a shank and a threaded support disposed around the shank. Methods of making and using process inserts are also disclosed. For example, a method of installing a process insert on a container includes inserting the free end of the process insert in the interior volume of a container containing a high velocity fluid.

Abstract: There is provided a method for producing hydrogel microparticles with spherical shape and having a narrow-disperse or mono-disperse size distribution. At least one temporary crosslinker such as those of formula (I), (Ila)-(Ilf) and at least one permanent crosslinker comprising two or more vinyl groups, such as: divinylbenzene (DVB), ethylene glycol dimethacrylate (EGDMA),diethyleneglycol dimethacrylate (DEGDMA), N,N?-methylenebisacrylamide (MBA), oligo/poly ethyleneglycol dimethyacrylate, 1,4-butanediol dimethacrylate, and 1,6-hexanediol dimethacrylate are combined in an organic solvent having a polarity suitable for a precipitation polymerization to occur. The precipitation polymerization is allowed to take place without the addition of surfactant and/or stabilizer and/or the formed microparticles comprise less than 1% surfactant and/or stabilizer. These microparticles may be further functionalized to obtain amine and carboxylic acid units by functionalizing the monomers of the temporary crosslinkers.

Abstract: Process inserts, assemblies, and related methods for use in monitoring high velocity fluids or supporting instruments that monitor and manage high velocity fluids are disclosed. Exemplary inserts include a head having a cavity for receiving an instrument, a shank, and an integral flange. The shank includes an elongated body having a first end disposed proximate to the head, a free end opposite the first end, and a threaded portion spaced apart from the first and free ends. Exemplary process insert assemblies include a process insert having a shank and a threaded support disposed around the shank. Methods of making and using process inserts are also disclosed. For example, a method of installing a process insert on a container includes inserting the free end of the process insert in the interior volume of a container containing a high velocity fluid.

Abstract: A compute device includes a printed circuit board, at least three compute subassemblies disposed on the printed circuit board, and a liquid loop. The compute subassemblies disposed on the printed circuit board and each of the three compute subassemblies includes a thermal control plate defining a respective internal conduit therethrough. A temperature controlled liquid circuit circulates through the liquid loop through to control the temperature of each of compute subassemblies in series during operation, the liquid loop including each of the internal conduits in each of the thermal control plates in each of the compute subassemblies.

Abstract: Process inserts, assemblies, and related methods for use in monitoring high velocity fluids or supporting instruments that monitor and manage high velocity fluids are disclosed. Exemplary inserts include a head having a cavity for receiving an instrument, a shank, and an integral flange. The shank includes an elongated body having a first end disposed proximate to the head, a free end opposite the first end, and a threaded portion spaced apart from the first and free ends. Exemplary process insert assemblies include a process insert having a shank and a threaded support disposed around the shank. Methods of making and using process inserts are also disclosed. For example, a method of installing a process insert on a container includes inserting the free end of the process insert in the interior volume of a container containing a high velocity fluid.

Abstract: A compute device includes a printed circuit board, at least three compute subassemblies disposed on the printed circuit board, and a liquid loop. The compute subassemblies disposed on the printed circuit board and each of the three compute subassemblies includes a thermal control plate defining a respective internal conduit therethrough. A temperature controlled liquid circuit circulates through the liquid loop through to control the temperature of each of compute subassemblies in series during operation, the liquid loop including each of the internal conduits in each of the thermal control plates in each of the compute subassemblies.

Abstract: Process inserts, assemblies, and related methods for use in monitoring high velocity fluids or supporting instruments that monitor and manage high velocity fluids are disclosed. Exemplary inserts include a head having a cavity for receiving an instrument, a shank, and a hub. The shank includes an elongated body having a first end disposed proximate to the head, a free end opposite the first end, and a threaded portion spaced apart from the first and free ends. The hub can form a lapped joint. Exemplary process insert assemblies include a process insert having a shank and a threaded support disposed around the shank. Methods of making and using process inserts are also disclosed. For example, a method of installing a process insert on a container includes inserting the free end of the process insert in the interior volume of a container containing a high velocity fluid.

Abstract: In an example, a system includes a first controller for controlling a first-flight-control surface, a second controller for controlling a second-flight-control surface, and a first override system including a mechanical linkage between the first controller and the second controller. The first override system is configured such that: (i) while less than a first threshold amount of force is applied to the mechanical linkage, movement of the first controller causes a corresponding movement of the second controller and vice versa, and (ii) while greater than the first threshold amount of force is applied to the mechanical linkage, the first controller and the second controller move separately. The system also includes a second override system operable to permanently disconnect the mechanical linkage responsive to greater than a second threshold amount of force applied to the mechanical linkage. The second threshold amount of force is greater than the first threshold amount of force.

Abstract: Process inserts, assemblies, and related methods for use in monitoring high velocity fluids or supporting instruments that monitor and manage high velocity fluids are disclosed. Exemplary inserts include a head having a cavity for receiving an instrument, a shank, and an integral flange. The shank includes an elongated body having a first end disposed proximate to the head, a free end opposite the first end, and a threaded portion spaced apart from the first and free ends. Exemplary process insert assemblies include a process insert having a shank and a threaded support disposed around the shank. Methods of making and using process inserts are also disclosed. For example, a method of installing a process insert on a container includes inserting the free end of the process insert in the interior volume of a container containing a high velocity fluid.

Abstract: An electronic device according to various embodiments of the present invention may comprise: a body which is made of a conductive material and has both ends curvedly extending to be adjacent to each other so as to have a loop shape; a communication module arranged on the body; a feeding line which extends from the communication module and is arranged to cross a gap between both ends of the body; and at least one connection terminal for connecting the feeding line to the body, wherein the body can receive a feeding signal from the communication module through the feeding line, and transmit/receive a wireless signal. The above-mentioned electronic device can be implemented variously according to embodiments.

Abstract: In an example, a system includes a first controller for controlling a first-flight-control surface, a second controller for controlling a second-flight-control surface, and a first override system including a mechanical linkage between the first controller and the second controller. The first override system is configured such that: (i) while less than a first threshold amount of force is applied to the mechanical linkage, movement of the first controller causes a corresponding movement of the second controller and vice versa, and (ii) while greater than the first threshold amount of force is applied to the mechanical linkage, the first controller and the second controller move separately. The system also includes a second override system operable to permanently disconnect the mechanical linkage responsive to greater than a second threshold amount of force applied to the mechanical linkage. The second threshold amount of force is greater than the first threshold amount of force.

Abstract: Process inserts, assemblies, and related methods for use in monitoring high velocity fluids or supporting instruments that monitor and manage high velocity fluids are disclosed. Exemplary inserts include a head having a cavity for receiving an instrument, a shank, and a hub. The shank includes an elongated body having a first end disposed proximate to the head, a free end opposite the first end, and a threaded portion spaced apart from the first and free ends. The hub can form a lapped joint. Exemplary process insert assemblies include a process insert having a shank and a threaded support disposed around the shank. Methods of making and using process inserts are also disclosed. For example, a method of installing a process insert on a container includes inserting the free end of the process insert in the interior volume of a container containing a high velocity fluid.