Abstract: A system for generating a custom audio experience that is configured receive a first audio sample of a first impulse response corresponding to an interior of a vehicle, generate a first convolution reverb from the first audio sample, receive a second audio sample of a second impulse response corresponding to an audio equipment of the vehicle, generate an impulse response module from the second audio sample, generate combination module based on the first convolution reverb and the impulse response module, receive a third audio sample from a user, modify the third audio sample based on the combination module to generate a modified third audio sample, receive an indication of user input to play the modified third audio sample, and cause a user device to output the modified third audio sample.

Abstract: Systems and methods are provided for configuring automatic playback settings on a media playback device. A graphical user interface displays automatic playback settings and receives selections of customized settings for automatic playback. The settings can include context granularity for automatic playback, limiting autoplay to when the media playback device is connected to a wireless network, and activating an audible notification when automatic playback of media content is beginning. An initial queue of media content is selected for playback on the media playback device. The system ascertains whether autoplay is enabled for a particular situation. If autoplay is enabled, the system automatically generates a queue of media that is related to the initial queue and initiates playback on the media playback device after the initial queue concludes.

Abstract: Systems and methods for implementing one or more compiled workflows at a biological foundry are provided. A representation of an uncompiled workflow to produce engineering targets is obtained. The representation is translated into a first corresponding instance of a compiled workflow. If the translation satisfaction of various threshold translation criteria is determined, and the first corresponding instance of the compiled workflow is executed to complete a first portion of manufacture of the engineering targets. If the executing satisfaction of various threshold execution criteria is determined, the representation is translated into a second corresponding instance of the compiled workflow different from the first corresponding instance. If this translation satisfaction of the various threshold translation criteria is determined, the second corresponding instance of the compiled workflow is executed to complete a second portion of the manufacture of the engineering targets.

Abstract: A docking device for receiving a portable device. The docking device includes a base including a substantially planar upper surface for supporting a portable device. The docking device includes an array of a plurality of engagement members. Each engagement member in the plurality of engagement members includes a fixed body protruding upwardly from the substantially planar upper surface of the base. Each engagement member includes a spring including a fixed end portion and a free end portion for engagement with the portable device. The fixed end portion interfaces with the fixed body. The free end portion protrudes from the fixed end portion obliquely towards the substantially planar upper surface of the base. The free end being movable along a deformable gap between a first surface of the fixed body and a second surface of the spring.

Abstract: The present disclosure illustrates a motorized mount with a plurality of degrees of freedom coupled to a seating system. The motorized mount assembly can include an attachment assembly configured to attach to a seating assembly. A vertical control assembly can be connected to the attachment assembly with an arm having a first end attached to vertical control assembly by a first hinge. A mounting assembly can be attached to a second end of the arm. The mounting assembly can configured to receive a personal computing device. A linear actuator may be attached to the vertical control assembly to raise and lower the arm and mounting assembly. A first motor can be configured to attach to the arm. A second motor can be configured to attach between the arm and the mounting assembly.

Abstract: A rigid cartridge for housing and removably coupling with a soft body bioreactor is provided. The rigid cartridge includes rigid walls defining a rigid housing. The rigid walls expose a fixed interior configured to house the soft body. An interior surface of a first rigid wall includes a first mating mechanism to engage a second mating mechanism of the soft body to removably coupled with the rigid cartridge and accommodate the soft body in the fixed interior of the rigid cartridge. A rigid wall includes a planar upper surface including an aperture. Each aperture is encompassed by an annular hood protruding upwardly from the substantially planar upper surface and integrally formed with the at least one rigid wall. The aperture is configured to receive and fixed engage a corresponding connector. Each connector includes a rigid coupling mechanism that provides communication with a corresponding plurality of ports of the soft body.

Abstract: A face shield made of a single sheet of transparent material. An example face shield includes a front face covering, a first side strap having a tab, and a second side strap having at least one slot. The slot is configured to engage with the tab on the first side strap to assemble the first side strap to the second side strap and form a band for positioning the face shield on a user's head. A cantilever tab is provided above the front face covering, and a slot is formed in the front face covering. The cantilever tab rolls back onto the front face covering and the cantilever tab connects into the slot to form an adjustable spacer to maintain a distance between the user's head and the front face covering when worn by the user.

Abstract: A rigid cartridge for housing and removably coupling with a soft body bioreactor is provided. The rigid cartridge includes rigid walls defining a rigid housing. The rigid walls expose a fixed interior configured to house the soft body. An interior surface of a first rigid wall includes a first mating mechanism to engage a second mating mechanism of the soft body to removably coupled with the rigid cartridge and accommodate the soft body in the fixed interior of the rigid cartridge. A rigid wall includes a planar upper surface including an aperture. Each aperture is encompassed by an annular hood protruding upwardly from the substantially planar upper surface and integrally formed with the at least one rigid wall. The aperture is configured to receive and fixed engage a corresponding connector. Each connector includes a rigid coupling mechanism that provides communication with a corresponding plurality of ports of the soft body.

Abstract: An automated batch filling apparatus comprising a first base comprising a first plurality of metering holes, a trough slidably disposed on an upper surface of the first base, one or more guides configured to constrain a motion of the trough, a gate disposed on a bottom surface of the first base, wherein the gate comprises a second plurality of metering holes, a second base disposed below the gate, wherein the second base comprise a third plurality of metering hole, and one or more vibration devices, wherein the one or more vibration devices are configured to agitate the filling apparatus.

Abstract: The present disclosure illustrates a motorized mount with a plurality of degrees of freedom coupled to a seating system. The motorized mount assembly can include an attachment assembly configured to attach to a seating assembly. A vertical control assembly can be connected to the attachment assembly with an arm having a first end attached to vertical control assembly by a first hinge. A mounting assembly can be attached to a second end of the arm. The mounting assembly can configured to receive a personal computing device. A linear actuator may be attached to the vertical control assembly to raise and lower the arm and mounting assembly. A first motor can be configured to attach to the arm. A second motor can be configured to attach between the arm and the mounting assembly.

Abstract: The present disclosure illustrates a motorized mount with a plurality of degrees of freedom coupled to a seating system. The motorized mount assembly can include an attachment assembly configured to attach to a seating assembly. A vertical control assembly can be connected to the attachment assembly with an arm having a first end attached to vertical control assembly by a first hinge. A mounting assembly can be attached to a second end of the arm. The mounting assembly can configured to receive a personal computing device. A linear actuator may be attached to the vertical control assembly to raise and lower the arm and mounting assembly. A first motor can be configured to attach to the arm. A second motor can be configured to attach between the arm and the mounting assembly.

Abstract: A gripping device comprises multiple flexures configured to couple predetermined linkages, a fixed linkage, and an input linkage disposed partially above the fixed linkage. The input linkage comprises a first end portion and a second end portion. Each end portion comprises an output linkage comprising a first end portion and a second end portion, a jaw disposed on the first end portion of the output linkage, and an initial damper linkage disposed below the fixed linkage. The initial damper linkage is coupled with the fixed linkage, the corresponding end portion of the input linkage, and the second end portion of the output linkage. At least one auxiliary damper linkage is disposed below the fixed linkage and adjacent to the initial damper linkage. The at least one auxiliary damper linkage is coupled to the fixed linkage and the second end portion of the output linkage.

Abstract: A gripping device comprises multiple flexures configured to couple predetermined linkages, a fixed linkage, and an input linkage disposed partially above the fixed linkage. The input linkage comprises a first end portion and a second end portion. Each end portion comprises an output linkage comprising a first end portion and a second end portion, a jaw disposed on the first end portion of the output linkage, and an initial damper linkage disposed below the fixed linkage. The initial damper linkage is coupled with the fixed linkage, the corresponding end portion of the input linkage, and the second end portion of the output linkage. At least one auxiliary damper linkage is disposed below the fixed linkage and adjacent to the initial damper linkage. The at least one auxiliary damper linkage is coupled to the fixed linkage and the second end portion of the output linkage.

Abstract: An automated batch filling apparatus comprising a first base comprising a first plurality of metering holes, a trough slidably disposed on an upper surface of the first base, one or more guides configured to constrain a motion of the trough, a gate disposed on a bottom surface of the first base, wherein the gate comprises a second plurality of metering holes, a second base disposed below the gate, wherein the second base comprise a third plurality of metering hole, and one or more vibration devices, wherein the one or more vibration devices are configured to agitate the filling apparatus.

Abstract: The present disclosure illustrates a motorized mount with a plurality of degrees of freedom coupled to a seating system. The motorized mount assembly can include an attachment assembly configured to attach to a seating assembly. A vertical control assembly can be connected to the attachment assembly with an arm having a first end attached to vertical control assembly by a first hinge. A mounting assembly can be attached to a second end of the arm. The mounting assembly can configured to receive a personal computing device. A linear actuator may be attached to the vertical control assembly to raise and lower the arm and mounting assembly. A first motor can be configured to attach to the arm. A second motor can be configured to attach between the arm and the mounting assembly.

Abstract: A dispensing system includes a filament extruder that lays filament solutions. The filament extruder comprises multiple extruder sets. Each extruder set includes a first and a second extruder. Each of the first and the second extruder includes an extruder portion, a hot end portion, and a shroud. The extruder portion includes a first and a second insert that combine to form a channel and a needle tube that receives the filament solution from the channel and lays the filament solution on the target surface.

Abstract: A dispensing system comprises a main base with a hopper insertion hole. An upper base, fixed above the main base by spacers, comprises a stirrer insertion hole. A lower base, below the main base, has a hopper insertion hole with an aperture larger than a diameter of a hopper, and is coupled to the main base by a guide. A rotatable hopper, disposed in the insertion hole of the main base, comprises a bottom surface with metering holes. A stirrer, inside the hopper and fixed to the upper base, feeds material into the metering holes. A gate, on a bottom surface of the lower base, comprises a bottom surface with a dispensing hole. The gate diameter is greater than the hopper. A gate spring, between the bottom of the main base and an upper surface of the lower base, is mounted parallel to a sliding motion of the lower base. A vibration device agitates the assembly on the main base.

Abstract: A heater box for PCB boards uses open cell metal foam as a heat sink and diffuser of heated gas. The heated gas is dispensed through a metal fabric mesh and then to the PCB to be heated. The gas is introduced under pressure and flow regulated to conduits in the metal foam diffuser. The conduits have side holes that allow the gas to diffuse evenly through the foam. The gas is heated by electrical resistance heaters built into the conduits or by a resistance heated layer between the conduits and the foam. The frame that holds the PCB to be heated and the metal fabric mesh and the heater box itself are all laterally floating with respect to each other.