The scope of the Internet of Things (IoT) is vast, covering numerous consumer and enterprise market sectors. For a closer look at how MIPI specifications support growth in IoT, we're taking a look at a different IoT market sector each month. In this second post in the series, we’ll examine the use of MIPI specifications in connected wearable devices.
Automotive display requirements are evolving rapidly as trends in connectivity, automation, sharing and electrification demand that automakers incorporate a growing number of larger and higher-resolution displays inside their vehicles. The use of visually lossless image compression will be essential to meet the bandwidth demands of these in-vehicle automotive displays and to ensure display connectivity solutions meet the stringent safety, reliability, power, weight and electromagnetic compatibility requirements demanded by the automotive industry.
Formed in 2019, the MIPI Security Investigation Group (Security IG) was established to provide recommendations for a scalable, uniform MIPI security framework and ongoing support model, as well as to offer guidance to MIPI working groups on overarching security requirements, guiding principles and policies, and external threats.
Recently the group achieved a significant milestone in evaluating approaches to secure systems-on-chips (SoCs) in automotive electronic control units (ECUs) to peripherals such as cameras, sensors and displays in support of MIPI’s automotive work. As part of this effort, the Security IG conducted a technical and strategic evaluation of DMTF’s Security Protocol and Data Model (SPDM) architecture, which provides message exchange, sequence diagrams, message formats and other relevant semantics for authentication, firmware measurement and certificate management. The evaluation confirmed that the SPDM architecture meets MIPI’s requirements for this use case. We sat down with Philip Hawkes and Rick Wietfeldt, co-chairs of the Security IG, to learn more.
MIPI A-PHY℠ v1.0 has now crossed an important milestone on its path toward adoption as an IEEE standard.
On 10 February, the MIPI A-PHY adoption PAR (Project Authorization Request), known as "IEEE P2977™ Adoption of MIPI Alliance Specification for A-PHY Interface (A-PHY) Version 1.0," was approved by the IEEE Standards Association (IEEE SA) Standards Board, following a recommendation by the organization's New Standards Committee. The IEEE SA Corporate Advisory Group served as the project's sponsor.
Next-generation vehicles are rewriting the rulebooks when it comes to high-speed data interfaces. With the implementation of advanced driver assistance systems, high-definition in-vehicle infotainment and autonomous driving systems, the number of onboard cameras, sensors, displays and computing systems is increasing significantly—placing huge bandwidth demands on in-vehicle data interfaces.
The scope of the Internet of Things (IoT) is vast, covering numerous consumer and enterprise market sectors. For a closer look at how MIPI specifications support growth in IoT, we’re launching a new series of blog posts that will focus on a different market each month, kicking off with an examination of MIPI specifications in Smart Factories.
According to analyst predictions, the Smart Factory market is estimated to grow from USD 214.7 billion in 2020 to USD 384.8 billion by 2025, covering virtually all industrial sectors, including process industries such as oil & gas, food & beverages, pharmaceuticals, chemicals, energy & power, metals & mining, pulp & paper, as well as discrete industries such as automotive, aerospace & defense, semiconductor & electronics, medical devices, machine manufacturing and others.