Abstract: A sunroof drainage conduit integrated into a heating, ventilation and air conditioning duct (HVAC) duct for a vehicle is provided. The duct may include an elongated, hollow body defining an air passage. The drainage conduit may be integrally formed on a surface of the body of the duct, such as an inside surface or an outside surface. The integrated drainage conduit may be routed through the duct's air passage or around the duct's exterior. A first drain tube may connect the sunroof to an inlet of the drainage conduit for directing drainage away from the sunroof's gutter or trough. A second drain tube may connect to an outlet of the drainage conduit for directing drainage from the drainage conduit to ambient.

Abstract: A reinforcement assembly for a structural pillar includes an upper reinforcement that extends over a top of a wheel house and first and second surfaces. An area extends between the first and second surfaces such that the area defines a substantial right triangle over the wheel house. A slot within the area is defined to allow a duct connected to a casing to extend through the upper reinforcement. The reinforcement assembly further includes a lower reinforcement attached to the first surface of the upper reinforcement. The lower reinforcement extends parallel to the wheel house and perpendicular to the floor such that a load path is established through the upper and lower reinforcements.

Abstract: A vehicle includes a vehicle body and an HVAC unit. The vehicle body has a first structure and a second structure that define a gap. The HVAC unit is fixed to the vehicle body and includes a motor and a case housing the motor. The case is disposed in the gap, abuts the first structure and the second structure, and reinforces the vehicle body between the first structure and the second structure.

Abstract: A reinforcement assembly for a structural pillar includes an upper reinforcement that extends over a top of a wheel house and first and second surfaces. An area extends between the first and second surfaces such that the area defines a substantial right triangle over the wheel house. A slot within the area is defined to allow a duct connected to a casing to extend through the upper reinforcement. The reinforcement assembly further includes a lower reinforcement attached to the first surface of the upper reinforcement. The lower reinforcement extends parallel to the wheel house and perpendicular to the floor such that a load path is established through the upper and lower reinforcements.

Abstract: An assembly and method of forming the assembly are disclosed. The assembly may include first and second components, the first component including a non-mating region and a mating region. The mating region may have an offset in a direction towards the second component and have a welding surface contacting the second component. A weld located within the welding surface may join the first and second components. The weld may be a laser weld. The method may include positioning a first component including a welding pad offset from a surrounding region of the first component such that the welding pad is in contact with a second component to form a gap between the surrounding region of the first component and the second component. The first component may then be welded to the second component in an area within the welding pad.

Abstract: A vehicle is equipped with a spotlight. The spotlight has a rod that passes through a pillar of the vehicle, such as the A-pillar. The A-pillar includes one or more beams. The beam is provided with an aperture or a through-hole for the rod to pass through. One or more sleeves are provided with a tubular body and a flange. The flange is secured to the beam and is oriented such that the tubular body passes at least partially through the aperture or through-hole. The sleeve provides an engagement surface that surrounds the rod of the spotlight while improving structural rigidity of that portion of the pillar.

Abstract: A structural reinforcement assembly for a vehicle body structure is provided. The assembly may include a pillar portion, a roof cross member, and a bead formation. The pillar portion may disposed at a rear upper corner region of the body structure and between a rear quarter window opening and a liftgate opening defined by the body structure. The roof cross member may extend along an upper portion of the liftgate opening. The bead formation may extend from the pillar portion to the roof cross member to reinforce the rear upper corner region. The bead formation may define an arc shape having a first end located adjacent the roof cross member and an access hole.

Abstract: A vehicle is equipped with a spotlight. The spotlight has a rod that passes through a pillar of the vehicle, such as the A-pillar. The A-pillar includes one or more beams. The beam is provided with an aperture or a through-hole for the rod to pass through. One or more sleeves are provided with a tubular body and a flange. The flange is secured to the beam and is oriented such that the tubular body passes at least partially through the aperture or through-hole. The sleeve provides an engagement surface that surrounds the rod of the spotlight while improving structural rigidity of that portion of the pillar.

Abstract: A vehicle cabin pressure relief device is provided having a base layer defining an aperture, a retainer layer disposed on the base layer; and a sealing member. The sealing member further includes a first portion and a second portion extending from the first portion, wherein the second portion of the sealing member is sandwiched between the base layer and the retainer layer. The first portion is also displaceable relative to the base layer, and covers a portion of the aperture in a closed first position.

Abstract: A computer-implemented method for recommending one or more materials used in designing and manufacturing parts may include receiving data from at least three data sources. The data sources may include a sourcing, manufacturing, and design data source. The data source data may be standardized to obtain a collection of data including a dataset of materials for consideration in recommending one or more materials for use in one or more parts. The method may also include receiving optimization metrics and constraints for the dataset of materials. Optimization values for each material based on the dataset of materials and the one or more optimization metrics may be determined. An optimization algorithm on each material may be performed based at least on the optimization values and the constraints to obtain one or more recommended materials from the dataset of materials for use in a design of one or more parts.

Abstract: A computer-implemented method for recommending one or more materials used in designing and manufacturing parts may include receiving data from at least three data sources. The data sources may include a sourcing, manufacturing, and design data source. The data source data may be standardized to obtain a collection of data including a dataset of materials for consideration in recommending one or more materials for use in one or more parts. The method may also include receiving optimization metrics and constraints for the dataset of materials. Optimization values for each material based on the dataset of materials and the one or more optimization metrics may be determined. An optimization algorithm on each material may be performed based at least on the optimization values and the constraints to obtain one or more recommended materials from the dataset of materials for use in a design of one or more parts.

Abstract: A holder for charts having two transparent sheets, a connecting mechanical hinge and non-ferrous latching devices. The chart holder is sized to hold aeronautical charts and related flight planning documents. The hinge allows the two transparent sheets to be opened at least 180 degrees where the charts and documents can easily be place therein. The two sheets are able to close together, clamping the charts and documents between them. The two sheets are kept together by the latching devices. The transparent sheets provide an erasable writing surface where the pre-flight plans and in-flight data can be drawn and written with a non-permanent marker, thus protecting the documents enclosed. The chart holder also provides for the storage of the non-permanent marker. The chart holder can easily be opened with one hand to allow for repositioning of documents in flight. The transparent sheets have a tab allowing for an offset tab arrangement to allow for quick identification between multiple chart holders.

Abstract: A reinforced fastener assembly (18) for securing a vehicle seat (14, 16) to a vehicle sheet metal body structure (20) is provided. The reinforced fastener assembly (18) includes a mounting bracket (34) having a collar portion (36) for coupling to the vehicle sheet metal body structure (20) and distributing a load across a substantial portion of the vehicle sheet metal body structure (20). This mounting bracket (34) further includes an attachment portion (50) that has a vehicle seat fastener (52) extending therefrom. Finally, the reinforced fastener assembly (18) includes a tubular reinforcement member (78) that is coupled to and extends substantially across the collar portion (36) of the mounting bracket (34). This tubular reinforcement member (78) is intended to reinforce the collar portion (36) thereby allowing the collar portion (36) to distribute a load across a substantial portion of the vehicle sheet metal body structure (20).