Abstract: A robotic coordinate measurement machine (CMM) having a contact direction sensitive (CDS) probe is usable to detect internal dimensions for an object of interest. A robot arm may contact a surface with the CDS probe which may then detect a magnitude and direction of the resulting reaction force. The robotic CMM may monitor the magnitude and/or direction of the reaction force while the CDS probe is being slide across a surface to determine dimensions for the surface. Changes in the reaction force sensed by the CDS probe may be used to identify contact with other surfaces of contours in the surface the CDS probe is being slid across. A path of the CDS probe may be altered based on the contact with other surfaces or the contours.

Abstract: An example assembly includes a top ring, a bottom ring, and a brace connected to the top and bottom rings. The brace spaces the top ring from the bottom ring, such as along a longitudinal axis of the assembly. The assembly further includes a sidewall extending from the top ring to the bottom ring and defining at least part of an interior space of the assembly. The assembly also includes at least one mirror disposed external to the interior space and opposite the sidewall. The mirror is moveable, and is configured to direct ambient light to the interior space via the sidewall.

Abstract: A robotic coordinate measurement machine (CMM) having a contact direction sensitive (CDS) probe is usable to detect internal dimensions for an object of interest. A robot arm may contact a surface with the CDS probe which may then detect a magnitude and direction of the resulting reaction force. The robotic CMM may monitor the magnitude and/or direction of the reaction force while the CDS probe is being slide across a surface to determine dimensions for the surface. Changes in the reaction force sensed by the CDS probe may be used to identify contact with other surfaces of contours in the surface the CDS probe is being slid across. A path of the CDS probe may be altered based on the contact with other surfaces or the contours.

Abstract: A method and system of attaching a decorative light mounting structure. At least some of the illustrative embodiments are methods comprising magnetically affixing a lower support of a light mounting structure to an upper surface of a metallic roofing material by encompassing in an aperture a head of a fastener previously coupled to the metallic roofing material, and coupling a bulb through a bulb aperture of a bulb support portion.

Abstract: A method and system of attaching a decorative light mounting structure. At least some of the illustrative embodiments are decorative light mounting devices comprising a bulb support portion having an aperture and an affixation portion coupled to the bulb support portion. The affixation portion is configured to magnetically affix the decorative light mounting structure to substantially only an upper surface of a metallic roofing material.

Abstract: At least some of the illustrative embodiments are decorative light support device comprising a bulb retention portion having an aperture and an affixation portion coupled to the bulb retention portion. The affixation portion comprises a first straddle member and a second straddle member. The first and second straddle members are configured to straddle an overhang portion of a roofing material and to at least partially affix the decorative light support device to the roofing material.