Abstract: A photobooth that is suspended from a rigid non-moving structure, such as a ceiling, is disclosed. The photobooth may include a support structure that includes a non-movable section and a movable section. The non-movable section is not moved and remains fixed after installation relative to the ceiling. The movable section may comprise posts or brackets, may move relative to the non-movable section, and may include one or both of a camera or lighting. Further, to rigidize the support structure, a track may be attached to some or all of the posts or brackets, thereby rigidizing the structure and reducing jitter which may affect operation of the camera or lighting.

Abstract: A mobile device temperature-regulating case is disclosed. Mobile devices, such as tablet computers and smartphones, may be exposed to extreme temperatures, such as extreme cold and extreme heat. Under these extreme temperatures, the mobile devices may not function properly or at all. In that regard, the mobile device temperature-regulating case is configured to at least partially encase a side of the mobile device and conductively cool and/or heat the side of the mobile device. For example, a solid-state heat pump may conductively cool the side of the mobile device, with a fan convectively cooling the solid-state heat pump. In this way, temperature of the mobile device may be kept less than or greater than a predetermined temperature so that the mobile device may function properly.

Abstract: A photobooth that is suspended from a rigid non-moving structure, such as a ceiling, is disclosed. The photobooth may include a support structure that includes a non-movable section and a movable section. The non-movable section is not moved and remains fixed after installation relative to the ceiling. The movable section may comprise posts or brackets, may move relative to the non-movable section, and may include one or both of a camera or lighting. Further, to rigidize the support structure, a track may be attached to some or all of the posts or brackets, thereby rigidizing the structure and reducing jitter which may affect operation of the camera or lighting.

Abstract: A mobile device temperature-regulating case is disclosed. Mobile devices, such as tablet computers and smartphones, may be exposed to extreme temperatures, such as extreme cold and extreme heat. Under these extreme temperatures, the mobile devices may not function properly or at all. In that regard, the mobile device temperature-regulating case is configured to at least partially encase a side of the mobile device and conductively cool and/or heat the side of the mobile device. For example, a solid-state heat pump may conductively cool the side of the mobile device, with a fan convectively cooling the solid-state heat pump. In this way, temperature of the mobile device may be kept less than or greater than a predetermined temperature so that the mobile device may function properly.

Abstract: A mobile device temperature-regulating case is disclosed. Mobile devices, such as tablet computers and smartphones, may be exposed to extreme temperatures, such as extreme cold and extreme heat. Under these extreme temperatures, the mobile devices may not function properly or at all. In that regard, the mobile device temperature-regulating case is configured to at least partially encase a side of the mobile device and conductively cool and/or heat the side of the mobile device. For example, a solid-state heat pump may conductively cool the side of the mobile device, with a fan convectively cooling the solid-state heat pump. In this way, temperature of the mobile device may be kept less than or greater than a predetermined temperature so that the mobile device may function properly.

Abstract: A distributed vehicle documentation system uses multiple sensor systems to capture vehicle information and generate vehicle documentation. A sensor system may be a micro server in communication with a sensor and a control device. In response to requests from the control device, the sensor system may analyze images input in order to identify an object in the images, and modifying the images based on the identified object. For example, in response to identifying a wheel in an image, the image may be cropped in order to be centered around the identified wheel. In the event that the sensor system cannot identify the object (e.g., cannot identify the wheel in the image), another image may be obtained with a different field of view based on a determined size of the vehicle.

Abstract: A system and method for mobile device inventory control is disclosed. A mobile device is docked and locked in a docking station. When a user wishes to retrieve the mobile device from the docking station, the user may access software, such as an app, on the mobile device that is configured to receive user identification information, such as a user ID. The mobile device transmits the user identification information to an inventory control server, which determines whether to authorize the removal of the mobile device from the docking station. Responsive to the inventory control server authorizing the removal, the mobile device sends a command to the docking station to unlock the docking station. Responsive to the inventory control server denying the removal, the mobile device causes an output to be generated, either on the mobile device or on the docking station, indicating the denial.

Abstract: A mobile device temperature-regulating case is disclosed. Mobile devices, such as tablet computers and smartphones, may be exposed to extreme temperatures, such as extreme cold and extreme heat. Under these extreme temperatures, the mobile devices may not function properly or at all. In that regard, the mobile device temperature-regulating case is configured to at least partially encase a side of the mobile device and conductively cool and/or heat the side of the mobile device. For example, a solid-state heat pump may conductively cool the side of the mobile device, with a fan convectively cooling the solid-state heat pump. In this way, temperature of the mobile device may be kept less than or greater than a predetermined temperature so that the mobile device may function properly.

Abstract: An unmanned aerial vehicle is operated to utilize one or more tools included in an attachment assembly to obtain state measurements on an object being analyzed by the unmanned aerial vehicle. The attachment assembly can include one or more of a digital camera for capturing a digital image (or a series of images), a color meter for measuring a paint color, a thermographic camera for measuring infrared radiation, an electronic nose device for measuring odors, or an electronic distance measuring device for measuring a distance between objects. An operation of the unmanned aerial vehicle is then modified based on the obtained state measurements.

Abstract: A vehicle documentation system uses multiple sensor systems to capture vehicle information and generate vehicle documentation. A sensor system may measure and or adjust settings, such as light settings or position settings, dynamically within an enclosed area surrounding a vehicle. The settings may be adjusted based on vehicle information obtained from a vehicle report describing vehicle history and vehicle build information.

Abstract: A distributed vehicle documentation system uses multiple sensor systems to capture vehicle information and generate vehicle documentation. A sensor system may be a micro server in communication with a sensor and a control device. In response to requests from the control device, the sensor system may analyze images input in order to identify an object in the images, and modifying the images based on the identified object. For example, in response to identifying a wheel in an image, the image may be cropped in order to be centered around the identified wheel. In the event that the sensor system cannot identify the object (e.g., cannot identify the wheel in the image), another image may be obtained with a different field of view based on a determined size of the vehicle.

Abstract: An unmanned aerial vehicle is operated to utilize one or more tools included in an attachment assembly to obtain state measurements on an object being analyzed by the unmanned aerial vehicle. The attachment assembly can include one or more of a digital camera for capturing a digital image (or a series of images), a color meter for measuring a paint color, a thermographic camera for measuring infrared radiation, an electronic nose device for measuring odors, or an electronic distance measuring device for measuring a distance between objects. An operation of the unmanned aerial vehicle is then modified based on the obtained state measurements.