throbber
MOST Technology Report
`
`Jaguar Land Rover
`Exhibit 1014
`Page 001
`
`

`

`MOST Connectivity Worldwide
`
`We are delighted to present an over-
`view of MOST Technology and intro-
`duce the latest accomplishments of
`the MOST Cooperation. MOST offers a
`network architecture for HD audio/vid-
`eo and IP-based applications: MOST
`provides a powerful, flexible, and up-
`gradable network architecture that
`forms a stable, robust backbone to eas-
`ily and seamlessly integrate many ap-
`plications. The MOST network concept
`is inherently scalable and extendable
`with respect to speed and types of
`data channels. The MOST Cooperation
`celebrates the growing acceptance of
`this automotive network standard by
`key carmakers worldwide. Over 200
`car models worldwide have implemen-
`ted MOST. MOST connects to other
`industry standards such as Universal
`Plug and Play (UPnP) communication
`based on the Internet Protocol (IP) and
`AUTOSAR. In fact, MOST is so widely
`used now, that the MOST Coopera-
`tion is considering how to transfer the
`MOST Specifications to the Interna-
`tional Standards Organization (ISO),
`to make them more accessible and
`make future technical developments
`go through a recognized standards
`development organization.
`
`MOST Technology is versatile and
`easy-to-use: Tier-1s and carmakers
`demand future automotive networks
`to be as simple as possible. MOST pro-
`vides a mature, reliable and cost-effi-
`cient network technology. It is versatile,
`enabling suppliers and carmakers to
`achieve a short time to market. MOST
`is available in three speed grades with
`25, 50 and 150 Mbit/s. The portfolio of
`physical layers includes Plastic Optical
`Fiber (POF/LED), Shielded (STP) and
`Unshielded Twisted Pair (UTP) copper
`wires, and coaxial cables.
`
`MOST architecture is scalable and ex-
`tendable: to meet the future automotive
`network requirements for a powerful
`and ascendable multiplex architecture
`with free topology configuration, MOST
`provides the expandable multi-protocol
`approach, with different types of data
`being transported across the different
`MOST channel types. In addition, the
`mechanism is flexible and expandable
`with extra channels for future protocols.
`Many different topologies are feasible:
`from star to daisy-chain to tree, differ-
`ent topologies and combinations can
`be connected to each other.
`
`Within a MOST network, a remote con-
`trol feature can reduce the number of
`microcontrollers and the amount of
`memory required in peripheral nodes
`such as displays, cameras, and am-
`plifiers, thus driving system cost down
`significantly.
`
`The MOST network is deterministic
`and predictable: the growing number of
`data streams between devices and the
`higher safety requirements represent
`a challenge for planning and verifying
`a networked system. MOST networks
`are engineered networks where the
`complete planning of bandwidth and
`connectivity are defined at design time.
`Planned bandwidth is guaranteed and
`reproducible at any time. No extensive
`runtime examinations or simulations
`are necessary. In addition, control
`data with real-time demand has its
`own channel, ensuring reliable band-
`width and a well-defined channel be-
`havior - independent and unaffected by
`streaming data and peak loads in the
`other channels. MOST also provides
`an Ethernet packet channel that uses
`unmodified Ethernet frames for Inter-
`net and IP-based applications.
`
`Yours sincerely,
`
`The MOST Cooperation
`Steering Committee
`
`Jaguar Land Rover
`Exhibit 1014
`Page 002
`
`

`

`Contents
`
`MOST Status 2 // 3
`
`MOST Technology
`
`Network Intelligence: Real Interconnectivity .......................4
`
`MOST Framework: Flexible and Scalable ...........................5
`
`Physical Layers and Speed Grades ........................................6
`
`MOST25 - Optical Physical Layer ..............................6
`
`MOST50 - Electrical Physical Layer ...........................7
`
`MOST150 - Optical and Coax Physical Layer ...........8
`
`Audio and Video Streaming:
`
`Real-time and Deterministic ................................................9
`
`Content Protection: DTCP, HDCP, CI+ ..............................10
`
`Automotive Ethernet: Seamless Transmission ..................11
`
`Seamless Connectivity: AUTOSAR, Linux, UPnP .............12
`
`MOST Cooperation
`
`The Mission .......................................................................13
`
`Organizational Structure ....................................................14
`
`Members around the World ...............................................15
`
`MOST Cars ........................................................................16
`
`Major Achievements ..........................................................17
`
`Specification Work ............................................................18
`
`MOST Compliance ............................................................19
`
`MOST Technology Report
`
`Jaguar Land Rover
`Exhibit 1014
`Page 003
`
`

`

`Network Intelligence: Real Interconnectivity
`
`MOST – Media Oriented Systems Trans-
`port – is a multimedia network of 25, 50
`and 150 Mbit/s bandwidth, optimized
`for multimedia and infotainment appli-
`cations. It is a network originally devel-
`oped by and for the automotive industry.
`The technology was designed from the
`ground up to provide an efficient and
`cost-effective network to transport au-
`dio, video, data and control information
`between any devices attached, even in
`the harsh environment of an automobile.
`Founded in 1998, the MOST Coopera-
`tion is the organization that standardizes
`and refines MOST Technology.
`
`MOST is a synchronous network: a tim-
`ing master supplies the clock with a
`synchronous and continuous data signal
`and all other devices synchronize their
`operation to this base signal. This tech-
`nology eliminates the need for buffering
`and sample rate conversion, so that very
`
`simple and inexpensive devices can be
`connected, and the hardware of the
`network interface itself is lean and cost
`effective. Within the synchronous base
`data signal, multiple streaming data
`channels, asynchronous channels, and
`a control channel are transported. The
`control channel regulates which strea-
`ming data channels the sender and re-
`ceiver use. Once the connection is estab-
`lished, data can flow continuously and
`no further addressing or processing of
`packet label information is required. The
`bandwidth of the streaming data chan-
`nels is always available and reserved for
`the dedicated stream so there are no in-
`terruptions, collisions, or slow-downs in
`the transport of the data stream. This is
`the optimum mechanism for delivering
`streaming data like audio and video.
`
`MOST meets the automotive require-
`ments not only for the traditional areas
`
`of entertainment and information, but
`also for the new domains of mobile
`connectivity, connected services, and
`driver assistance. In addition to trans-
`porting high Quality of Service (QoS)
`audio and video, it also provides an
`automotive-ready physical
`layer to
`transport Ethernet frames and pro-
`tocols within the car. The flexibility of
`MOST network technology allows star,
`daisy-chain, tree, and other topologies
`implemented on different physical lay-
`ers: Plastic Optical Fiber (POF/LED),
`Shielded (STP) and Unshielded Twist-
`ed Pair (UTP) copper wires and coax
`cables. MOST defines the physical
`interconnection between devices and
`also specifies and standardizes a lean
`embedded communication protocol
`and software framework that simplifies
`the development of complete systems
`and applications to distribute and man-
`age multimedia content.
`
`Jaguar Land Rover
`Exhibit 1014
`Page 004
`
`

`

`MOST Technology 4 // 5
`
`Framework: Flexible and Scalable
`
`Radio
`
`AmFmTuner
`AudioAmplifier
`Enh.Testability
`NetBlock
`
`AmFmTuner Functions:
` ATWaveband
` ATStationsInfo
` ATSeek
` ATFrequency
` ATPresentSave
` TAInfo ...
`
`HMI
`
`NetworkMaster
`ConnectionMaster
`Enh.Testability
`NetBlock
`
`Amp
`
`AudioAmplifier
`Enh.Testability
`NetBlock
`
`AudioAmplifier Functions:
` Balance
` Loudness
` Bass
` Treble
` Fader
` Volume ...
`
`DVD
`
`DVDVideoPlayer
`Enh.Testability
`NetBlock
`
`DVDVideoPlayer Functions:
` DeckStatus
` TimePosition
` TitlePosition
` ActiveDisk
` MediaInfo ...
`
`The MOST Framework with its func-
`tion block concept comprises a clear
`application programming
`interface,
`which allows simple access to the
`applications. It is able to standardize
`interfaces between both infotainment
`applications and applications of other
`domains such as sensor and camera
`interfaces. Due to the functional sys-
`tem model, it does not matter whether
`the communication partner sits in the
`same control unit or is connected a-
`cross the network.
`
`The MOST Framework has been de-
`signed for optimal synchronous and
`isochronous streaming with almost no
`overhead for administrative commu-
`
`nication control. It represents a func-
`tional and hierarchical system model
`appropriate for controlling powerful,
`distributed systems. Furthermore, the
`framework is object oriented, lean,
`and suitable for embedded systems.
`It provides a network-independent
`functional system with seamless scal-
`ability and easy maintenance. In addi-
`tion, the framework supports all kinds
`of HMIs and allows free partitioning
`of the functionality to real devices.
`Service discovery and notification are
`available. The application program-
`ming interface (API) is standardized
`through the function block framework.
`The architecture provides a flexibly
`scalable, automotive-ready Ethernet
`
`channel according to IEEE 802.3.
`Thus, it guarantees simple integration
`with IP-based protocols such as Uni-
`versal Plug-and-Play (UPnP).
`
`MOST150 Technology has already
`been investigated with respect to
`safety requirements by correspond-
`ing studies in cooperation with the
`German TÜV. With help of a safety
`layer concept on top of the appli-
`cation layer, MOST150 enables fail-
`safe applications up to SIL level 3
`according to IEC 61508 and ASIL D
`according to ISO 26262. Moreover,
`the network can even be mixed up
`with “normal” network nodes with-
`out a safety layer.
`
`Monitor
`
`Safety Layer
`
`Safety stream
`
`Virtual/safe
`
`Acknowledgements
`
`Camera
`
`Safety Layer
`
`Application Layer Service
`
`Application Layer Service
`
`Synchronized Raw Data
`
`Preprocessed Data
`
`Application Data
`
`Application Layer
`
`Application Layer
`
`MOST Frame
`
`Network Layer
`
`Real communication
`MOST telegrams
`
`Network Layer
`
`Synchronous / Isochronous channel
`
`Transparent IP-based data channel ("Ethernet-like")
`
`Control channel
`
`Legacy packet channel (ASYNC)
`
`MOST Technology Report
`
`Jaguar Land Rover
`Exhibit 1014
`Page 005
`
`

`

`Physical Layers and Speed Grades
`
`Coax
`PHY
`
`MOST25 - Optical Physical Layer
`
`The first generation, MOST25, oper-
`ates at 25 Mbit/s. It made it into
`practice only three years after the
`MOST Cooperation was founded: in
`2001, BMW introduced its 7 Series as
`the first MOST car. MOST25 is based
`on optical data transmission using
`optical fibers and has been under de-
`velopment for many years in Europe.
`It has established itself in the Europ-
`ean and Korean markets.
`
`Jaguar Land Rover
`Exhibit 1014
`Page 006
`
`

`

`MOST Technology 6 // 7
`
`MOST50 - Electrical Physical Layer
`
`Finalized in 2006, the specifications
`of the second generation - MOST50
`- marked a significant milestone in the
`history of the MOST Technology. With
`the “MOST Specification Rev. 2.5“,
`the MOST Cooperation doubled the
`
`bandwidth for automotive infotain-
`ment solutions from 25 to 50 Mbit/s.
`The “MOST Specification of Electrical
`Physical Layer Rev. 1.1” is an addi-
`tional key specification that enables
`data transmission over a shielded or
`
`even an unshielded twisted pair (UTP)
`of copper wires while meeting the
`stringent automotive electromagnetic
`compatibility requirements.
`
`Signal
`Conditioner
`
`Data
`Recovery
`
`Passive
`Analog
`Filter
`
`Passive
`Analog
`Filter
`
`INIC IC
`
`Passive Front END
`
`MOST Technology Report
`
`Jaguar Land Rover
`Exhibit 1014
`Page 007
`
`

`

`MOST150 - Optical and Coax Physical Layer
`
`quirements. In addition, MOST150
`still supports the well-known asyn-
`chronous channel to ensure back-
`ward compatibility with MOST25
`applications. With MOST150, audio
`and video signals can be transported
`with high bandwidth efficiency and
`without any overhead for address-
`ing, collision detection/recovery or
`broadcast. Multiple high definition
`(HD) video streams and multi-channel
`surround sound with premium quality
`of service can be transmitted, while
`simultaneously moving high loads of
`packet data around. Microchip Tech-
`nology has made the MOST150 data
`link layer specification available for
`license on a royalty-bearing basis.
`
`The ”MOST150 Coax Physical Layer
`Sub-Specification Rev. 1.0”, based
`on coaxial cable, complements the
`existing MOST150 optical physical
`layer in the infotainment domain.
`This is especially suitable for OEMs
`who have stringent preferences in
`the electrical physical layer. In addi-
`tion, the coaxial standard opens the
`way into other vehicle domains, i.e.
`it fits into the driver assistance do-
`main, as this physical layer is able
`to provide bi-directional communi-
`cation and power supply on a single
`coaxial cable. The specification was
`derived in a straight forward process
`from the MOST Physical Layer Basic
`Specification. Its principal structure
`is similar to the existing MOST150
`optical physical layer specification.
`Both physical layers are interopera-
`ble: MOST150 supports various phys-
`ical layers and enables various to-
`pology options. Coaxial cabling is the
`industry standard cable for transport
`of high frequency signals. It has in-
`herent shielding and provides stand-
`ard cables and connectors.
`
`Jaguar Land Rover
`Exhibit 1014
`Page 008
`
`MOST150 is the third generation,
`offering a bandwidth of 150 Mbit/s.
`With the transmission over
`lega-
`cy POF/LED optical physical layer,
`MOST150 offers a smooth migration
`from MOST25 and MOST50, allowing
`carmakers to continue to use POF
`and LEDs as light sources. In addi-
`tion to higher bandwidth, MOST150
`features an isochronous transport
`mechanism to support extensive vid-
`eo applications as well as an Ether-
`net channel for the efficient trans-
`port of IP-based packet data. This
`channel carries Ethernet packets
`(according to IEEE 802.3) so stand-
`ard TCP/IP stacks can continue to
`be used, without modification. Thus,
`the new generation of MOST pro-
`vides the automotive-ready physical
`layer for Ethernet in the car. This way,
`MOST will be open to a broad vari-
`ety of IP-based applications. It even
`allows manufacturers to adjust the
`bandwidth of a conventional stream-
`ing connection on the one hand
`and IP communication on the other,
`according to the corresponding re-
`
`© Hamamatsu
`
`

`

`MOST Technology 8 // 9
`
`Audio and Video Streaming:
`Real-time and Deterministic
`
`Source
`
`Infotainment Headunit
`HMI, Navigation,
`CD/DVD/BD
`
`Sink
`
`DVD-/Media-Changer
`
`Source
`Vid e o
`N avig atio n
`
`Blu-ray
`
`Instrument Cluster
`Rear View Camera
`
`Sink
`
`RSE
`Navigation
`Graphic
`
`Sink
`
`D
`
`T
`
`V C
`
`h
`
`a
`
`n
`
`n
`
`e l
`
`MOST150
`
`L
`
`o w L
`
`a
`
`t
`
`e
`
`n
`
`c
`
`y V i d
`
`e
`
`o
`
`RSE
`Blu-ray
`Video
`
`Sink
`
`Digital TV-Tuner
`
`Source
`
`Surround Sound
`
`Sink
`
`Rear View
`Camera
`
`The car industry has focused for more
`than fifteen years on the MOST stand-
`ard for audio and video communica-
`tion. From the start, the network was
`conceived for the streaming of data
`to different devices, to ease the load
`on entertainment systems in cars. A
`significant amount of data flows for
`a prolonged period of time when an
`A/V stream is transmitted between
`its source and its renderer. The data
`flows from a fixed source to one or
`more fixed renderers. For such trans-
`missions, the streaming and isochro-
`nous channels of MOST have a dis-
`tinct advantage. A control channel
`
`defines where the data will be placed
`within a frame, and where a rende-
`rer can retrieve the data it requires.
`Once this setup is completed, only
`audio or video data is transmitted,
`without any overhead for addressing
`or timing information.
`
`The whole MOST network is syn-
`chronous, with all participants de-
`riving their clock from a single timing
`master. This eliminates the need for
`buffering, and simplifies even isoch-
`ronous
`transmissions, where
`the
`data clock is different from the net-
`work clock.
`
`Each network interface has a deter-
`ministic time for data to traverse a
`MOST network, which is in the order
`of microseconds. Applications can
`know exactly how long it will take for
`data to move from one place to the
`other without the need for time-stam-
`ping and processing each packet to
`know where it came from and where
`it is going. Applications know exactly
`how fast data will be consumed and
`can place it or take it off the network
`„just in time“.
`
`MOST Technology Report
`
`Jaguar Land Rover
`Exhibit 1014
`Page 009
`
`

`

`Content Protection: DTCP, HDCP, CI+
`
`TunernnTunTunerer
`
`AKE - e.g. Control Channel
`AKE - e.g. Control Channel
`
`Head Unit
`
`Cipher
`
`Plain Text
`
`Encryption
`
`Cipher Text
`
`Decryption
`
`Plain Text
`
`Digital Transmission Content Protec-
`tion (DTCP) is used for the networked
`distribution of protected content and
`has been approved for MOST for
`many years (www.dtcp.com).
`
`With the specification for the High-
`bandwidth Digital Content Protection
`(HDCP) scheme on MOST, MOST
`Technology meets the requirements
`of the HDCP Independent Interface
`Specification of the Digital Content
`Protection
`LLC
`(www.digital-cp.
`com/). This allows the MOST net-
`work to move, for example, HDMI
`content with the required content
`protection. HDCP is used for a more
`direct point-to-point connection be-
`tween the output of a data source
`and a renderer. HDMI requires HDCP
`
`protection. Data cannot be extracted
`from an HDCP system and moved
`with a different protection scheme.
`The HDCP scheme in the MOST
`specification describes the MOST
`functions and services required to
`enable an HDCP system interface in-
`dependent adaptation. To implement
`HDCP mechanisms, the data to be
`protected is encrypted, transmitted
`and decrypted in packetized form.
`
`The latest MOST Stream Transmis-
`sion Specification includes support
`for the MOST CI+ Interim License
`Agreement issued by the CI Plus
`LLP (www.ci-plus.com). CI+ allows
`a MOST network to transport CI+
`protected content using DTCP. This
`technical specification adds addi-
`
`tional security and features to the
`proven DVB Common
`Interface
`Standard. CI+ compatible consumer
`electronic devices, such as Integrat-
`ed Digital Televisions and Set Top
`Boxes, can access a wide range of
`Pay TV Services via plug-in CI+ Mod-
`ules wherever the CI+ Technology
`is supported by the local Pay TV Pro-
`vider.
`
`The MOST standard supports ap-
`proved content protection schemes
`for both DTCP and HDCP as well as
`CI+ protected content, thus enabling
`the digital transmission of DVD au-
`dio and video, HD-DVD, Blu-ray and
`HDMI content.
`
`Jaguar Land Rover
`Exhibit 1014
`Page 010
`
`

`

`MOST Technology 10 // 11
`
`Automotive Ethernet: Seamless Transmission
`
`
`
`Bluetoothluetoo
`
`WLANWLAN
`
`Mobile
`Device
`
`Mobile
`Device
`
`IP Access
`
`IP stack
`
`IP stack
`(depending on
`use case)
`
`Router
`
`Head unit
`
`Rear unit
`
`Slaves
`
`
`
`IP ClientIP C tententCliCliCliCliliClilCliClilClillCliCliCC eCliCliCCClieee
`
`
`
`
`
`MOST150 delivers the seamless inte-
`gration capabilities of Ethernet-based
`devices with MOST: this enables
`MOST to be a network backbone for
`a broad variety of IP-based appli-
`cations, such as supporting apps
`on connected services and Internet
`access, in general. Thus, MOST is
`comparable to an IEEE802.x network,
`providing an automotive-ready physi-
`cal layer for Ethernet protocols in ad-
`dition to transporting high-definition
`audio and video within the car. The
`MOST150 network supports today‘s
`consumer standards such as UPnP
`(Universal Plug-n-Play) and DLNA
`(Digital Living Network Alliance) as
`well as diagnostics standards (DoIP).
`Typical Ethernet-based applications
`include:
`(cid:115)(cid:0) an Ethernet gateway that lifts
`Ethernet Packets from a 100Base-T
`Network to a MOST Network and
`
`vice versa,
`(cid:115)(cid:0) a web server which provides web
`content to other participants in
`the MOST network,
`(cid:115)(cid:0) a Network Attached Storage
`(NAS) which provides a file sys-
`tem to other participants in the
`MOST network,
`(cid:115)(cid:0) an UPnP server/client architec-
`ture which can be directly applied
`to the MOST system, in order to
`stream audio/video data from
`UPnP server to the iPad,
`(cid:115)(cid:0) the central MOST Hub device
`shows how the different physical
`layer and topology options may
`be applied, according to the ap-
`plication requirements.
`
`MOST150 has a dedicated Ethernet
`channel within its frame. This channel
`can take a standard Ethernet packet,
`without any special processing by the
`
`higher levels of the Ethernet network
`management stacks, and send it over
`the MOST network. MOST150 Intel-
`ligent Network Interface Controllers
`(INIC) even have Ethernet-style MAC
`addresses so the Ethernet packets
`can be extracted at the right loca-
`tion and passed on to other standard
`Ethernet devices. Streaming data,
`such as audio and video programs,
`can then be sent in parallel, using
`MOST mechanisms, to attain bet-
`ter efficiency in the use the available
`bandwidth. In fact, even if an applica-
`tion called only for an IP-based trans-
`mission, a MOST150 network could
`allocate 100 percent of its bandwidth
`just to the Ethernet channel. Thus, a
`proven automotive physical layer is al-
`ready available for Ethernet transmis-
`sions in the car.
`
`MOST Technology Report
`
`Jaguar Land Rover
`Exhibit 1014
`Page 011
`
`

`

`Seamless Connectivity: UPnP, AUTOSAR, Linux
`
`A fast and reliable network infrastruc-
`ture and connectivity to further stand-
`ards is necessary to achieve the prom-
`ise of the connected car.
`
`UPnP: The UPnP standard offers the
`ability to tightly integrate consumer
`electronics devices in MOST based
`vehicles. UPnP permits devices to be
`equipped with the wireless control
`options that installed in-vehicle head
`units already have. This facilitates
`customization of the vehicle interface.
`It also enables the automotive indus-
`try to better cope with the consumer
`electronics industry’s short life cycles.
`In addition, certain car-sharing envi-
`ronments might benefit from individual
`user settings such as preferred radio
`stations, audio equipment settings, or
`temperature settings in the air condi-
`tioning system. These settings can be
`stored in users’ personal devices, and
`then automatically applied as soon as
`
`a particular device connects with the
`vehicle.
`
`over the MOST Ethernet Channel.
`
`AUTOSAR: MOSTCO has presented
`an implementation of MOST within the
`AUTOSAR (AUTomotive Open Sys-
`tem ARchitecture, www.autosar.org)
`framework. AUTOSAR has developed
`a standardized open software architec-
`ture for automotive electronic control
`units and is increasingly being applied
`in traditional vehicle electronics do-
`mains. MOST, on the other hand, is
`an important standard for automotive
`infotainment. There are several ca-
`ses where it is useful for MOST and
`AUTOSAR to interoperate. A MOST/
`AUTOSAR gateway connects the ve-
`hicle network with a MOST network
`using AUTOSAR mechanisms. In a
`second approach, the communication
`of two AUTOSAR applications is tun-
`neled through a MOST network, either
`through the MOST Control Channel or
`
`Linux: The Linux Mainline Kernel start-
`ing with Version 4.3 includes a MOST
`Linux driver; this driver enables access
`to all MOST data types and supports
`the USB, MediaLB and I2C interfaces
`of MOST network interface controllers.
`It provides standard Linux interfaces,
`such as ALSA (Audio), V4L2 (Video)
`and
`IP-based communication over
`the standard Linux Networking Stack.
`Linux adoption is growing because it
`delivers automotive designers with an
`open-source platform that allows them
`to maximize the reuse of existing work,
`while making their own incremental
`improvements. The combination of
`MOST and Linux presents a solution
`for the increasing complexity of IVI and
`ADAS, accelerating development via
`open-source software and the auto-
`motive-industry-proven MOST network-
`ing technology.
`
`Jaguar Land Rover
`Exhibit 1014
`Page 012
`
`

`

`MOST Cooperation – The Mission
`
`The MOST Cooperation is a coopera-
`tive entity of car, device, component and
`infrastructure developers responsible
`for the development and promotion of
`the MOST Technology. Its mission is to
`develop the specifications for the MOST
`multimedia network, making it the long-
`
`term, reliable and stable backbone of
`car infotainment systems. Additional
`objectives include cost reduction, qual-
`ity and technical enhancements. The
`work of the Cooperation aims at stand-
`ardization and promotion of MOST as
`a global industry standard. The MOST
`
`Cooperation is prepared to embrace
`efforts to develop and standardize the
`technology to accommodate other in-
`dustries’ needs and to establish the
`corresponding work structures.
`
`MOST Technology Report
`
`Jaguar Land Rover
`Exhibit 1014
`Page 013
`
`

`

`Organizational Structure
`
`Structure for Standardization
`Technical Work
`
`Status Reports
`
`Programm
`Decisions
`
`Technical
`Coordinator
`TC
`Coordination
`Technical Programm
`
`Status
`and
`Issues
`
`Meeting
`Minutes
`
`Guidance
`
`Technical
`Coordination Group
`TCG
`Coordination of
`Working Groups
`
`Status
`and
`Issues
`
`Objectives
`
`Working Groups
`
`WG
`
`WG
`
`WG
`
`WG
`
`WG
`
`WG
`
`WG
`
`WG
`
`Working Out a Part of the
`Specification of the MOST Technology
`
`Overall
`Decisions
`
`Issues
`
`Organizational Work
`
`Steering Commitee
`SC
`Organization for
`Fast Standardization
`
`Input
`from
`
`Organizational
`Decisions
`
`Administrator
`Execution and
`Organization
`
`The MOST Cooperation is the orga-
`nization through which MOST Tech-
`nology is standardized and refined so
`that it continues to stay abreast of the
`latest technology requirements. The
`concept for the MOST Cooperation
`started as an informal cooperative
`effort in 1997. In 1998, the Coopera-
`tion was founded, and today, interna-
`tional carmakers and key component
`
`suppliers are working with the MOST
`Technology and contributing towards
`its innovation. Audi, BMW, Daimler,
`HARMAN and Microchip Technolo-
`gy as core partners form its Steering
`Committee. Other member car com-
`panies include China FAW Group,
`General Motors, Honda, Hyundai/Kia,
`Jaguar, Land Rover, Porsche, Toyota,
`Volkswagen, and Volvo. The MOST
`
`Cooperation is prepared to embrace
`efforts to develop and standardize the
`technology to accommodate other in-
`dustries’ needs and to establish the
`corresponding work structures. The
`Cooperation invites and welcomes
`other companies to participate and
`contribute their efforts to the develop-
`ment and enhancement of the MOST
`Technology.
`
`Jaguar Land Rover
`Exhibit 1014
`Page 014
`
`

`

`MOST Cooperation 14 // 15
`
`Members Around the World
`
`The Cooperation consists of international carmakers and key component suppliers that contribute to
`its innovation so that it stays abreast of the latest industry requirements.
`
`AAMP of America,
`
`Alpine, ALPS Electric, Analog
`
`Devices, ASK Industries, AWTCE, Bosch,
`
`Bose, Broadcom
`
`X2E, Yazaki.
`
`Continental
`
`Automotive
`
`Systems, Deelphi,
`
`Dension Audioo,
`
`DENSO,
`
`Dynavin Electronic,
`
`Fujitsu TEN,
`
`Furukawa, G.i.N.,
`
`GÖPEL electronic,
`
`Hamamatsu,
`
`HiRain Technologies,
`
`Hirschmann Car
`
`Communicatioon,
`
`Hoosiden,
`
`HYUNDAI MOBIS,
`
`
`
`Iriso, Lear, Iriso Lear
`
`LG Electronics,
`
`Visteon,
`
`Vector,
`
`
`
`tous, Ubiquit
`
`
`
`TTTTech AutomotiveTT
`
`,
`
`
`
`Telemotive, T
`
`Teledyne LeCroy,
`
`TechniSat Digital,
`
`TE Connectivity,
`
`Sony, RUETZ
`
`SYSTEM
`
`SOLUTIONS,
`
`
`
`ioneer, Pi
`
`
`
`asonicPana
`
`Automot
`
`ive Systems,
`
`Nippon Seiki,
`
`
`
` Molex, NAV TV,Molex NAV-TV
`
`Mitsubishi Rayon,
`
`Partners
`Associated Partners: Carmakers
`Associated Partners: Suppliers
`
`Magneti Marelli, Metra Electronics,
`
`Mitsubishi Electric,
`
`
`
`MOST Technology Report
`
`Jaguar Land Rover
`Exhibit 1014
`Page 015
`
`

`

`MOST Cars
`
`In 2001, only three years after the MOST Cooperation was founded, BMW introduced its 7 Series as the first MOST car.
`The following year saw 10 car models with a MOST infotainment backbone. Today, MOST is integrated in 201 vehicle
`models from 16 carmakers.
`
`Aston Martin DB9
`2009, 2013
`
`Aston Martin DBS
`
`Aston Martin One-77
`
`Aston Martin Rapide
`
`Aston Martin V12 Zagato
`
`Aston Martin Vanquish
`
`Aston Martin Vantage
`
`Audi A1
`
`Audi A1 Sportback
`
`Audi A3
`
`Audi A3 Sportback
`
`Audi A4
`2007, 2015
`
`Audi A5
`
`Audi A5 Sportback
`
`Audi A6
`2004, 2011
`
`Audi A7 Sportback
`
`Audi A8
`2002, 2010
`
`Audi Q3
`
`Audi Q5
`
`Audi Q7
`2006, 2015
`
`Audi R8
`
`Audi TT Coupé
`
`Bentley Mulsanne
`
`BMW 1 Series
`2006, 2011
`
`BMW 2 Series
`
`BMW 2 Series
`Active Tourer
`
`BMW 3 Gran Turismo
`
`BMW 3 Series
`2005, 2012
`
`BMW 4 Series
`
`BMW 5 Gran Turismo
`
`BMW 5 Series
`2003, 2010
`
`BMW 6 Series
`2004, 2011
`
`BMW 7 Series
`2001, 2008, 2015
`
`BMW X1
`2009, 2015
`
`BMW X3
`2010, 2014
`
`BMW X4
`
`BMW X5
`2006, 2013
`
`BMW X6
`2008, 2015
`
`BMW Z4
`
`Buick Envision
`
`Buick Excelle
`
`Buick LaCrosse
`
`Buick Regal
`
`Buick Verano
`
`Cadillac ATS
`
`Cadillac CTS
`
`Cadillac ELR
`
`Cadillac Escalade
`
`Cadillac SRX
`
`Cadillac XTS
`
`Chevrolet Bolt
`
`Chevrolet Camaro
`
`Chevrolet Colorado
`
`Chevrolet Cruze
`
`Chevrolet Impala
`
`Chevrolet Malibu
`
`Chevrolet Silverado
`
`Chevrolet Corvette
`Stingray
`
`Chevrolet Suburban
`
`Chevrolet Tahoe
`
`Citroen C8
`
`GMC Canyon
`
`GMC Sierra Truck
`
`GMC Yukon Denali
`
`Hyundai Equus
`
`Hyundai Genesis
`2008, 2014
`
`Jaguar F-Type
`
`Jaguar XF
`
`Jaguar XJ
`
`Jaguar XK
`
`Kia K900
`
`Kia Mohave
`
`Lancia Phedra
`
`Land Rover Discovery
`
`Land Rover Discovery 4
`
`Land Rover Freelander
`
`Land Rover
`Range Rover Evoque
`
`Lexus CT 200h
`
`Lexus GS
`2006, 2012
`
`Land Rover
`Discovery Sport
`
`Land Rover
`Range Rover
`2008, 2012
`
`Lexus GX 470
`
`Lexus HS 250h
`
`Lexus IS
`2005, 2013
`
`Lexus LS
`2006, 2012
`
`Lexus NX
`
`Lexus RX
`2009, 2015
`
`Maybach
`
`MB A-Class
`2005, 2012
`
`MB B-Class
`2005, 2011
`
`MB C-Class
`2007, 2011, 2014
`
`MB CL-Class
`
`MB CLA-Class
`
`MB CLS-Class
`2004, 2011
`
`MB CLS-Class
`Shooting Brake 2012
`
`MB E-Class
`2002, 2009, 2013, 2016
`
`MB E-Class Coupé
`
`MB G-Class
`
`MB GL-/GLS-Class
`2006, 2012, 2016
`
`MB GLA-Class
`
`MB GLC-Class
`
`MB GLK-Class
`
`MB M-Class
`2005, 2011
`
`MB R-Class
`
`MB S-Class
`2005, 2013
`
`MB SL-Class
`2008, 2012
`
`MB SLK-Class
`2004, 2011
`
`MB SLS AMG
`
`MB V-Class
`
`Mercedes-AMG GTG G
`
`MINI
`2007, 2013
`
`MINI Clubman
`
`MINI Countryman
`
`MINI Coupé
`
`Mitsubishi Colt
`
`Opel Astra
`
`Opel Insignia
`
`Peugeot 807
`
`Porsche 911
`2004, 2012
`
`Porsche Boxster
`2004, 2012
`
`Porsche Cayenne
`2006, 2010
`
`Porsche Cayman
`2009, 2013
`
`Porsche Macan
`
`Porsche Panamera
`
`Rolls-Royce Ghost
`
`Rolls-Royce Phantom
`
`Rolls-Royce Wraith
`
`Saab 9-3
`
`Skoda Oktavia
`
`Skoda Superb
`
`Smart Forfour
`
`SsangYong Chairman
`
`Toyota Alphard
`2008, 2015
`
`Toyota Crown
`
`Toyota Estima
`
`Toyota Harrier
`
`Toyota Land Cruiser / Prado
`
`Toyota Mark X
`
`Toyota Mark X ZiO
`
`Toyota Prius
`
`Toyota Prius +
`
`Toyota SAI
`
`Toyota Vellfire
`2008, 2015
`
`Volkswagen Golf
`
`Volkswagen Touareg
`
`Volvo C30
`
`Volvo C70
`
`Volvo S40
`
`Volvo S60
`
`Volvo S80
`
`Volvo S90
`
`Volvo V40
`
`Volvo V50
`
`Volvo V60
`
`Volvo V70
`
`Volvo XC60
`
`Volvo XC70
`
`Volvo XC90
`2002, 2015
`
`Jaguar Land Rover
`Exhibit 1014
`Page 016
`
`

`

`MOST Status 16 // 17
`
`Major Achievements
`
`
`Since its establishment in 1998, the Since itsits esestabtablilishhme tnt iin 19919988, ththe
`
`members of the MOST Cooperation members of the MOST Cooperation
`
`have successfully accomplished 18 h ff ll li h d 18
`
`
`
`years of standardization work. The co-
`operation brought together numerous
`competitors in order to work and in-
`vest for a common goal. More than
`250 experts from over 100 companies
`have contributed to MOST Technolo-
`gy. In-house specialists at the member
`companies have developed and imple-
`mented technical networking projects.
`The implementers have achieved an
`outstanding level of standardization
`and commonality. A complete stack
`of specifications contains more than
`
`
`4000 pages. MOSTCO introduced the 4000 pages. MOSTCCO
`
`idea of a virtual functional network. idea of a virtuualal ffunct
`
`
`It is the first network that presented It i th fi t t
`
`k
`advanced object-oriented modelling
`in embedded automotive applications.
`
`Within only three years, in 2001, the
`first generation MOST25 running on
`optical physical layer was put on the
`road. It is still up-to-date and being
`integrated. In 2003, MOST was the first
`network to be approved to transport
`DVD content. The second generation,
`MOST50, on electrical physical lay-
`er (UTP) has been on the road since
`2007, followed by MOST150 optical
`
`physical layer in 2012. Today, within
`only 15 years of its conception, MOST
`is the infotainment network in 201 car
`models of 16 carmakers.
`
`For more detailed information, please
`see the MOST Book:
`Grzemba, A. (Ed.): MOS

This document is available on Docket Alarm but you must sign up to view it.


Or .

Accessing this document will incur an additional charge of $.

After purchase, you can access this document again without charge.

Accept $ Charge
throbber

Still Working On It

This document is taking longer than usual to download. This can happen if we need to contact the court directly to obtain the document and their servers are running slowly.

Give it another minute or two to complete, and then try the refresh button.

throbber

A few More Minutes ... Still Working

It can take up to 5 minutes for us to download a document if the court servers are running slowly.

Thank you for your continued patience.

This document could not be displayed.

We could not find this document within its docket. Please go back to the docket page and check the link. If that does not work, go back to the docket and refresh it to pull the newest information.

Your account does not support viewing this document.

You need a Paid Account to view this document. Click here to change your account type.

Your account does not support viewing this document.

Set your membership status to view this document.

With a Docket Alarm membership, you'll get a whole lot more, including:

  • Up-to-date information for this case.
  • Email alerts whenever there is an update.
  • Full text search for other cases.
  • Get email alerts whenever a new case matches your search.

Become a Member

One Moment Please

The filing “” is large (MB) and is being downloaded.

Please refresh this page in a few minutes to see if the filing has been downloaded. The filing will also be emailed to you when the download completes.

Your document is on its way!

If you do not receive the document in five minutes, contact support at support@docketalarm.com.

Sealed Document

We are unable to display this document, it may be under a court ordered seal.

If you have proper credentials to access the file, you may proceed directly to the court's system using your government issued username and password.


Access Government Site

We are redirecting you
to a mobile optimized page.





Document Unreadable or Corrupt

Refresh this Document
Go to the Docket

We are unable to display this document.

Refresh this Document
Go to the Docket