Abstract: A bumper system includes a bumper beam having top and bottom attachment features, such as apertures or concavities for attachment. A thermoformed polymeric energy absorber includes a base flange for engaging the face of the beam, protruding crush lobes for absorbing energy upon an impact, and top and bottom rear flanges. The top and bottom rear flanges include inwardly-facing protrusions defining a second dimension less than a first dimension of the beam's face, but the base flange is sufficiently resilient and flexible at desired locations and with desired force of flexures to provide tunable flexure points so the protrusions can be temporarily resiliently flexed apart to the first dimension for assembly and then upon release, the protrusions flex back to the second dimension engaging the attachment features to temporarily but positively retain the energy absorber on the beam.

Abstract: A multi-sectional, modular energy absorber 10 comprising one or more modules, which have one or more energy absorbing units 12. Some have a first section 14 and a second section 16 in some embodiments that are united like a clamshell to form the energy absorbing unit 12. There is a means for locating the sections 18 in relation to each other. First and second flange sections 20,22 extend from at least some of the first and second sections. There are means for coordinating energy absorbing units 24 in one of the one or more modules, the means for coordinating 24 having a topography including a number (n) of apertures 26 defined therein, where n is an integer?0. At least some of the sections include an upper perimeter 28, a lower perimeter 30 and an intermediate wall 32 extending therebetween with a number (m) of breaches defined in the intermediate wall before impact, where m is an integer?0.

Abstract: A multi-sectional, modular energy absorber 10 comprising one or more modules, which have one or more energy absorbing units 12. Some have a first section 14 and a second section 16 that are united like a clamshell to form the energy absorbing unit 12. There is a means for locating the sections 18 in relation to each other. First and second flange sections 20,22 extend from at least some of the first and second sections. There are means for coordinating energy absorbing units 24 in one of the one or more modules, the means for coordinating 24 having a topography including a number (n) of apertures 26 defined therein, where n is an integer ?0. At least some of the sections include an upper perimeter 28, a lower perimeter 30 and an intermediate wall 32 extending therebetween with a number (m) of breaches defined in the intermediate wall before impact, where m is an integer ?0.

Abstract: A modular energy absorber 10 that is tunable. It comprises one or more energy absorbing modules 12. The energy absorbing modules 12 have means for coordinating 14 energy absorbing units 16 of the one or more modules. The means 14 for coordinating position and support the units 16 in relation to each other before and during relative motion between an incident object and the energy absorber. The units 16 are provided with an upper perimeter 22, a lower perimeter 24 and an intermediate wall 26 with stiffening male 36 or female 38 ribs. A method for configuring and for making the modular energy absorber are also disclosed.

Abstract: A multi-sectional, modular energy absorber 10 comprising one or more modules, which have one or more energy absorbing units 12. Some have a first section 14 and a second section 16 in some embodiments that are united like a clamshell to form the energy absorbing unit 12. There is a means for locating the sections 18 in relation to each other. First and second flange sections 20,22 extend from at least some of the first and second sections. There are means for coordinating energy absorbing units 24 in one of the one or more modules, the means for coordinating 24 having a topography including a number (n) of apertures 26 defined therein, where n is an integer ?0. At least some of the sections include an upper perimeter 28, a lower perimeter 30 and an intermediate wall 32 extending therebetween with a number (m) of breaches defined in the intermediate wall before impact, where m is an integer ?0.

Abstract: A trim panel (1) and a method of making a trim panel (1) comprising providing a formable sheet (12) having at least one layer, locating the sheet (12) adjacent to a forming surface (80), conforming the sheet (12) to the forming surface (80) so that the sheet (12) has a characterizing topography (15) and removing the sheet (12) from the forming surface (80). A substrate (40) is provided having a rear surface (45) and an opening (55) therethrough. Lastly, the sheet (12) is attached to the rear surface (45) of the substrate (40) so that the characterizing topography (15) extends through the opening (55). Alternatively, the sheet (12) may comprise at least one tab (17) and the substrate (40) may comprise at least one tab opening (57) wherein the tab (17) is inserted into the tab opening (57) to snap-fit the pieces together.