Creating Connected Car Platforms with MQTT
summary
Claims that MQTT cuts remote-unlock latency from up to 30 seconds to sub-second unlocks, handles unreliable cellular by keeping persistent sessions and offline queued messages, and supports fleet broadcasts and geofencing. Deployments run on Kubernetes and public clouds with Kafka integration for enterprise sinks. Case examples include a car‑sharing platform moving from SMS/HTTP to MQTT, an automotive mobility cloud connecting millions of vehicles, and brokers proven at scale (230 million concurrent clients reported).
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chapters (19)
- 0:00Introduction
- 2:45About HiveQ
- 4:25Big Numbers
- 6:42Challenges
- 9:47MQTT vs HTTP
- 11:21MQTT for Connected Cars
- 12:39What is MQTT
- 13:39What does MQTT provide
- 15:57Operational disruption
- 20:01Interoperability
- 22:32Ecarx
- 23:32ZF
- 24:10Sirius XM
- 25:45Questions
- 26:52MQTT Performance
- 29:27MQTT Payload agnostic
- 31:56Spark Plugs
- 34:10MQTT Constructor
- 35:40Outro
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