Abstract: Systems, methods, and storage media for managing encoder instances in a serverless content distribution platform are disclosed. Exemplary implementations may: receive channel information relating to content to be streamed over a networked content distribution platform; associate the channel information with an encoder function that specifies video packaging settings and bitrates to create a stateless event object; repeat the receiving step and the associating step to create multiple stateless event objects; each correspond to one or more channels of streaming content; combine the multiple stateless event objects into a state machine; monitor the state of the state machine; and apply at least one workflow based on the states to manage instances of encoders corresponding to the one or more channels of streaming content.

Abstract: Systems, methods, and storage media for managing encoder instances in a serverless content distribution platform are disclosed. Exemplary implementations may: receive channel information relating to content to be streamed over a networked content distribution platform; associate the channel information with an encoder function that specifies video packaging settings and bitrates to create a stateless event object; repeat the receiving step and the associating step to create multiple stateless event objects; each correspond to one or more channels of streaming content; combine the multiple stateless event objects into a state machine; monitor the state of the state machine; and apply at least one workflow based on the states to manage instances of encoders corresponding to the one or more channels of streaming content.

Abstract: A process for fabricating a nanochannel system using a combination of microelectromechanical system (MEMS) microfabrication techniques, atomic force microscopy (AFM) nanolithography, and focused ion beam (FIB). The nanochannel system, fabricated on either a glass or silicon substrate, has channel heights and widths on the order of single to tens of nanometers. The channel length is in the micrometer range. The nanochannel system is equipped with embedded micro and nanoscale electrodes, positioned along the length of the nanochannel for electron tunneling based characterization of nanoscale particles in the channel. Anodic bonding is used to cap off the nanochannel with a cover chip.

Abstract: A process for fabricating a nanochannel system using a combination of microelectromechanical system (MEMS) microfabrication techniques, atomic force microscopy (AFM) nanolithography, and focused ion beam (FIB). The nanochannel system, fabricated on either a glass or silicon substrate, has channel heights and widths on the order of single to tens of nanometers. The channel length is in the micrometer range. The nanochannel system is equipped with embedded micro and nanoscale electrodes, positioned along the length of the nanochannel for electron tunneling based characterization of nanoscale particles in the channel. Anodic bonding is used to cap off the nanochannel with a cover chip.

Abstract: A process for fabricating a nanochannel system using a combination of microelectromechanical system (MEMS) microfabrication techniques, atomic force microscopy (AFM) nanolithography, and focused ion beam (FIB). The nanochannel system, fabricated on either a glass or silicon substrate, has channel heights and widths on the order of single to tens of nanometers. The channel length is in the micrometer range. The nanochannel system is equipped with embedded micro and nanoscale electrodes, positioned along the length of the nanochannel for electron tunneling based characterization of nanoscale particles in the channel. Anodic bonding is used to cap off the nanochannel with a cover chip.