Abstract: Methods, devices, and systems are disclosed for providing an interactive virtual event to a plurality of participants. According to one embodiment, a computer implemented method includes providing a first participant graphical user interface (GUI) to a first participant client device of the interactive virtual event, providing a second participant GUI to a second participant client device of the interactive virtual event, providing a first production control GUI to a first event coordinator, receiving first participant audio/video (A/V) data from the first participant client device in near real-time, receiving second participant A/V data from the second participant client device in near real-time, providing the first participant A/V data to the first production control GUI, transmitting the first participant A/V data to a plurality of participant client devices associated with the plurality of participants, and providing the second participant A/V data to the first production control GUI.

Abstract: Methods, devices, and systems are disclosed for providing an interactive virtual event to a plurality of participants. According to one embodiment, a computer implemented method includes providing a first participant graphical user interface (GUI) to a first participant client device of the interactive virtual event, providing a second participant GUI to a second participant client device of the interactive virtual event, providing a first production control GUI to a first event coordinator, receiving first participant audio/video (A/V) data from the first participant client device in near real-time, receiving second participant A/V data from the second participant client device in near real-time, providing the first participant A/V data to the first production control GUI, transmitting the first participant A/V data to a plurality of participant client devices associated with the plurality of participants, and providing the second participant A/V data to the first production control GUI.

Abstract: A fixation leg for a vehicle interior panel includes an impact energy absorption region having one or more partial or complete perforations. Each one of the perforations may be formed by laser ablating material from the fixation leg at the impact energy absorption region. The impact energy absorption region is weakened due to the partial or complete perforations such that upon impact with the vehicle interior panel, the fixation leg can break and absorb some of the impact energy. In one embodiment, the fixation leg attaches a substrate of a vehicle instrument panel to a structural crossmember.

Abstract: A fixation leg for a vehicle interior panel includes an impact energy absorption region having one or more partial or complete perforations. Each one of the perforations may be formed by laser ablating material from the fixation leg at the impact energy absorption region. The impact energy absorption region is weakened due to the partial or complete perforations such that upon impact with the vehicle interior panel, the fixation leg can break and absorb some of the impact energy. In one embodiment, the fixation leg attaches a substrate of a vehicle instrument panel to a structural crossmember.

Abstract: Users may interface with user interfaces populated with large sets of data items (e.g., contacts, files, photos, etc.), but may be unable to quickly and/or efficiently find a desired data item. Accordingly, as provided herein, a graphical user interface, populated with a set of data items, may be presented to a user of a client device. Sensor data may be received from a motion sensing component of the client device. The sensor data may indicate a motion of the client device. A motion rate of the motion may be determined. The set of data items may be visually traversed at a scroll rate derived from the motion rate (e.g., a faster motion may increase the scroll rate and a slower motion may decrease the scroll rate). In this way, the user may efficiently scroll through large sets of data items by panning, tilting, twisting, or otherwise moving the client device.

Abstract: Users may interface with user interfaces populated with large sets of data items (e.g., contacts, files, photos, etc.), but may be unable to quickly and/or efficiently find a desired data item. Accordingly, as provided herein, a graphical user interface, populated with a set of data items, may be presented to a user of a client device. Sensor data may be received from a motion sensing component of the client device. The sensor data may indicate a motion of the client device. A motion rate of the motion may be determined. The set of data items may be visually traversed at a scroll rate derived from the motion rate (e.g., a faster motion may increase the scroll rate and a slower motion may decrease the scroll rate). In this way, the user may efficiently scroll through large sets of data items by panning, tilting, twisting, or otherwise moving the client device.