Abstract: In one embodiment, a computing device establishes a secure connection with user equipment. The computing device receives a credential for a remote user account and connects to a remote user account based on the credential. The computing device generates a bonding key based on information associated with the remote user account and sends the bonding key to the user equipment through the secure connection for storage by the user equipment. Subsequent to the sending of the bonding key, proof of possession of the bonding key is required for establishing a trusted connection with the user equipment.

Abstract: Provisioning multiple artificial reality devices can be accomplished through network communications between a device distributor, an administration system, a provisioning device, and the artificial reality devices. The device distributor can provide, to the administration system, a list of artificial reality devices corresponding to a particular organization. A provisioning device can sign into an account on the administration system and receive the list. The provisioning device can then scan for wireless connectivity with the listed artificial reality devices and can make a wireless connection with any artificial reality devices that respond and that are on the list. The provisioning device can then send these devices credentials for a local WiFi network. The artificial reality devices can automatically, upon receipt of the credentials, connect to the administration system to obtain the software update and/or the configuration data.

Abstract: Provisioning multiple artificial reality devices can be accomplished through network communications between a device distributor, an administration system, a provisioning device, and the artificial reality devices. The device distributor can provide, to the administration system, a list of artificial reality devices corresponding to a particular organization. A provisioning device can sign into an account on the administration system and receive the list. The provisioning device can then scan for wireless connectivity with the listed artificial reality devices and can make a wireless connection with any artificial reality devices that respond and that are on the list. The provisioning device can then send these devices credentials for a local WiFi network. The artificial reality devices can automatically, upon receipt of the credentials, connect to the administration system to obtain the software update and/or the configuration data.

Abstract: Provisioning multiple artificial reality devices can be accomplished through network communications between a device distributor, an administration system, a provisioning device, and the artificial reality devices. The device distributor can provide, to the administration system, a list of artificial reality devices corresponding to a particular organization. A provisioning device can sign into an account on the administration system and receive the list. The provisioning device can then scan for wireless connectivity with the listed artificial reality devices and can make a wireless connection with any artificial reality devices that respond and that are on the list. The provisioning device can then send these devices credentials for a local WiFi network. The artificial reality devices can automatically, upon receipt of the credentials, connect to the administration system to obtain the software update and/or the configuration data.

Abstract: Provisioning multiple artificial reality devices can be accomplished through network communications between a device distributor, an administration system, a provisioning device, and the artificial reality devices. The device distributor can provide, to the administration system, a list of artificial reality devices corresponding to a particular organization. A provisioning device can sign into an account on the administration system and receive the list. The provisioning device can then scan for wireless connectivity with the listed artificial reality devices and can make a wireless connection with any artificial reality devices that respond and that are on the list. The provisioning device can then send these devices credentials for a local WiFi network. The artificial reality devices can automatically, upon receipt of the credentials, connect to the administration system to obtain the software update and/or the configuration data.

Abstract: A microfluidic arrangement including a fluid channel configured to receive a first fluid from a first inlet and a second fluid from a second inlet, and a mixer connected to the fluid channel, the mixer including a mixer channel configured to receive a volume of the first fluid and a volume of the second fluid from the fluid channel, the mixer channel defining a mixer capacity, wherein the mixer is (i) configured to mix the volume of the first fluid and the volume of the second fluid in order to provide a mixture of the first fluid and the second fluid when the combined volume of the first fluid and the second fluid is less than the mixer capacity, and (ii) further configured to mix the volume of the first fluid and the volume of the second fluid in order to provide a mixture of the first fluid and the second fluid when the combined volume of the first fluid and the second fluid is equal to the mixer capacity.

Abstract: A microfluidic device is programmable so that a single microarchitecture design can run many assays. Specifically, the programmable microfluidic device includes an execution method to facilitate translating from a programming language to a set of requests that are specified for the device. In addition, the microfluidic device includes a contamination mitigation method that includes a conflict list to mitigate contamination effects within the microfluidic device.

Abstract: A microfluidic device is programmable so that a single microarchitecture design can run many assays. Specifically, the programmable microfluidic device includes an execution method to facilitate translating from a programming language to a set of requests that are specified for the device. In addition, the microfluidic device includes a contamination mitigation method that includes a conflict list to mitigate contamination effects within the microfluidic device.

Abstract: A microfluidic arrangement including a fluid channel configured to receive a first fluid from a first inlet and a second fluid from a second inlet, and a mixer connected to the fluid channel, the mixer including a mixer channel configured to receive a volume of the first fluid and a volume of the second fluid from the fluid channel, the mixer channel defining a mixer capacity, wherein the mixer is (i) configured to mix the volume of the first fluid and the volume of the second fluid in order to provide a mixture of the first fluid and the second fluid when the combined volume of the first fluid and the second fluid is less than the mixer capacity, and (ii) further configured to mix the volume of the first fluid and the volume of the second fluid in order to provide a mixture of the first fluid and the second fluid when the combined volume of the first fluid and the second fluid is equal to the mixer capacity.