tft lcd meter cluster factory

There are other tft instrument clusters on the market, such as a custom Tft instrument cluster. In addition, the installation of a Tft panel cluster is small and easier to build the instrument as its own suggests. There are several types of Tft instrument clusters, including solar panel clusters, dash gauge cluster, and dashboard clusters.

Explore more products, find out more about them. On Alibaba.com, you can find different tft instrument clusters that are suitable for different vehicles and the tftometer modes.

The traditional mechanical instrument lacks the ability to satisfy the market with characters of favorable compatibility, easy upgrading, and fashion. Thus the design of a TFT-LCD (thin film transistor-liquid crystal display) based automobile instrument is carried out. With a 7-inch TFT-LCD and the 32-bit microcontroller MB91F599, the instrument could process various information generated by other electronic control units (ECUs) of a vehicle and display valuable driving parameters on the 7-inch TFT-LCD. The function of aided parking is also provided by the instrument. Basic principles to be obeyed in circuits designing under on-board environment are first pointed out. Then the paper analyzes the signals processed in the automobile

instrument and gives an introduction to the sampling circuits and interfaces related to these signals. Following this is the functional categorizing of the circuit modules, such as video buffer circuit, CAN bus interface circuit, and TFT-LCD drive circuit. Additionally, the external EEPROM stores information of the vehicle for history data query, and the external FLASH enables the display of high quality figures. On the whole, the accomplished automobile instrument meets the requirements of automobile instrument markets with its characters of low cost, favorable compatibility, friendly interfaces, and easy upgrading.

As an essential human-machine interface, the automobile instrument provides the drivers with important information of the vehicle. It is supposed to process various information generated by other ECUs and display important driving parameters in time, only in which way can driving safety be secured. However, the traditional mechanical automobile instrument is incompetent to provide all important information of the vehicle. Besides, the traditional instrument meets great challenge with the development of microelectronic technology, advanced materials, and the transformation of drivers’ aesthetics [1, 2]. Moreover, the parking of the vehicle is also a problem puzzling many new drivers. Given this, traditional instruments should be upgraded in terms of driving safety, cost, and fashion.

The digital instrument has functions of vehicle information displaying, chord alarming, rear video aided parking, LED indicating, step-motor based pointing, and data storage. The instrument adopts dedicated microcontroller MB91F599, a 7-inch LCD, and two step-motors to substitute for the traditional instrument. All the information generated by other ECUs can be acquired via not only the sample circuits but also the CAN bus.

The CAN bus interface and the 7-inch TFT-LCD make it more convenient to upgrade the instrument without changing the hardware. If the software needs to be upgraded, we need not bother to take the instrument down and program the MCU. Instead, we can upgrade the instrument via the vehicle’s CAN network without taking the instrument down, which makes the upgrading more convenient. Most of the information from other ECUs can be transmitted via the CAN bus; so, we do not have to change the hardware circuits if some of the ECUs’ signals are changed in different applications. Besides, since most of the driving parameters are displayed on the TFT-LCD, and the graphical user interface can be designed with great flexibility by programming, only the software needs to be revised to meet different requirements of what kind of driving parameters to display and so forth. These characters, together with the reserved interfaces, enhance the instrument’s compatibility in different applications.

On the one hand, there are some automobile instruments which adopt 8-bit MCUs or 16-bit MCUs which have limited peripherals, so it is difficult for them to meet some requirements such as rearview video and high real-time data processing performance. And many extra components are needed if the designer wants to accomplish some functions such as video input. On the other hand, there are some advanced automobile instruments which adopt high performance MCUs (such as i.MX 53, MPC5121e, and MPC5123) and run Linux on them. They even use larger TFT-LCDs (such as the 12.3-inch TFT-LCD with a resolution of 1280 × 480 pixels) to display driving parameters. These automobile instruments show higher performances than the instrument in this paper. However, they are more expensive than this automobile. This instrument is able to provide almost all the functions of the advanced automobile instrument with a lower cost.

The instrument receives signals from other ECUs via the sampling circuits or the CAN bus interface. It can also receive commands from the driver via the button interface. The signals are then processed by the MCU, after which the MCU may send the vehicle information to the LCD or light the LEDs and so forth, according to the results. Therefore, the automobile instrument can be viewed as a carrier of the information flow. And the design of the system can be viewed from two aspects: the hardware system and the information flow based on it.

SMD components are the first choice due to space limitations of the instrument cluster. And the actual power of these components must be no more than 30% of the rated power.3.1.2. Overvoltage Protection

The automobile instrument receives and processes information from other ECUs such as the tachometer, the speedometer, the cooling water temperature gauge, the oil pressure gauge, and the fuel gauge. The signals coming from these ECUs are of different types, according to which different kinds of sampling circuits and interfaces should be designed. Accordingly, a classification of the input signals is first carried out, as shown in Table 1.

The microcontroller is essential to the performance of the instrument cluster. Therefore, the microcontroller that suits the system should have rich peripherals to reduce extra components, thus saving the space of the cluster and enhancing the stability of the system. Meanwhile, the operating frequency should be high and the memory size should be large for the demand of speed and accuracy in real-time processing. Besides, various operation modes are needed to lower down the power consumption.

Respecting the above mentioned factors, we finally chose the MB91F599 produced by Fujitsu as the microcontroller. The MB91F599 is particularly well-suited for use in automotive instrument clusters using color displays to generate flexible driver interfaces. It integrates a high performance FR81S CPU core which offers the highest CPU performance level in the industry. Besides, it has a graphics display controller with strong sprite functionality, rendering engine, and external video capture capabilities. These greatly reduce the need for extra components and enhance the stability of the system. The rendering engine can operate in combination with the video capture to enable image manipulation. Overlaid graphics such as needles or parking guidelines can be rendered in conjunction with captured video, which helps to accomplish the aided parking. What is more, multiple built-in regulators and a flexible standby mode enable the MB91F599 to operate with low power consumption.

Square wave signal is the signal that comes from the tachometer. The engine speed, the velocity of the vehicle, and the mileage are proportional to the frequency of the square wave signal. However, the square wave is not “standard” because it is often corrupted by interferences. Besides, the peak voltage of the square wave is +12 V while the I/O voltage of the microcontroller is . The main task for the circuits is to remove the interferences and convert the +12 V voltage to . As shown in Figure 3, the square wave signal is input from node ②; node ① is connected to one pin of the microcontroller.

where is the engine speed, is the frequency of the square wave, and is the number of pulses generated by the tachometer in every circle of the wheel.

where is the velocity of the vehicle, is the frequency of the square wave, is the diameter of the wheel, is the reduction ratio of the main reducer, and is the number of pulses generated by the tachometer in every circle of the wheel.

Since the FLASH size of the microcontroller is only 1 MB which is limited for the storage of pictures displayed on the LCD, external FLASH is needed to store different kinds of meaningful pictures such as the background of the dial. Two S29GL256N chips with a memory capacity of 256 Mb are chosen for picture data storage for their high performance and low power consumption. The application circuits of the chips are provided in their datasheets, so it is unnecessary to go into the details of them here.

The 7-inch TFT-LCD has a resolution of pixels and supports the 24-bit for three RGB colors. The interface of the 60-pin TFT-LCD can be categorized into data interface, control interface, bias voltage interface, and gamma correction interface.

The data interface supports the parallel data transmitting of 18-bit (6 bits per channel) for three RGB colors. Thus, a range of colors can be generated. The control interface consists of a “horizontal synchronization” which indicates the start of every scan line, a “vertical synchronization” which indicates the start of a new field, and a “pixel clock.” This part is controlled by the graphics display controller which is integrated in the MB91F599. We just need to connect the pins of the LCD to those of the microcontroller correspondingly.

Bias voltages are used to drive the liquid crystal molecules in an alternating form. The compact LCD bias IC TPS65150 provides all bias voltages required by the 7-inch TFT-LCD. The detailed circuit is also provided in the datasheet of TPS65150.

The greatest effect of gamma on the representations of colors is a change in overall brightness. Almost every LCD monitor has an intensity to voltage response curve which is not a linear function. So if the LCD receives a message that a certain pixel should have certain intensity, it will actually display a pixel which has intensity not equal to the certain one. Then the brightness of the picture will be affected. Therefore, gamma correction is needed. Several approaches to gamma correction are discussed in [20–22]. For this specific 7-inch LCD, only the producer knows the relationship between the voltage sent to the LCD and the intensity it produces. The signal can be corrected according to the datasheet of the LCD before it gets to the monitor. According to the datasheet, ten gamma correction voltages are needed. These voltages can be got from a resistive subdivision circuit.

For this instrument, the LED indicators, the backlight, and the chord alarm need to be supplied with a voltage of +12 V; the CAN transceiver, the EEPROM, and the buttons need to be supplied with a voltage of +5 V; the video buffer circuit, the external FLASH, and the data interface of the LCD need to be supplied with a voltage of +3.3 V. Besides, the microcontroller needs to be supplied with voltages of +5 V and +3.3 V simultaneously. Figure 8 offers a detailed block diagram of the power supply for the automobile instrument.

The main task for the program is to calculate the driving parameters of the vehicle and display them on the TFT-LCD. The calculation is triggered by the input signals via the sampling circuits or the CAN bus. The main program flow chart of the system is shown in Figure 10.

The design scheme of a TFT-LCD based automobile instrument is carried out form aspects of both the hardware and the main program flow chart. The MB91F599 simplifies the peripheral circuits with its rich on-chip resources and shows high performance in real-time data processing. The automobile instrument is capable of displaying the velocity of the vehicle, the engine speed, the cooling water temperature, the oil pressure, the fuel volume, the air pressure, and other information on the TFT-LCD, which contributes a lot to driving safety and satisfies drivers’ aesthetics. Besides, the rearview video makes the parking and backing easier and safer for the driver. Moreover, the CAN bus interface and TFT-LCD make it easier for the upgrading of the instrument without changing the hardware, thus saving the cost.

Stoneridge instrument clusters are at the core of delivering vehicle operating data to the driver, whether it is a classic analog gauge cluster or a fully reconfigurable full TFT display cluster with animated 3D graphics. Our first mass produced electronic instrument cluster was introduced to the market in 1988. Since then, our instrument clusters have been designed and built using Stoneridge advances in hardware and software platforms and are adapted to meet each customer’s vehicle-specific requirements.

Used TFT clocks DIM from S/V60, XC60, S80II, XC/V70III made in the years 2014 to 2017 (the unit from V40 series can only be used in V40 cars - it has different mechanical shape than x60, x70, x80)

make sure that you located the TFT DIM that matches the transmission type of the target car - Automatic (PRND display) or Manual (+ Gear -) on the right side of the display. Diesel/petrol fuel type of the donor car does NOT matter.

Then press DECODE CEM. We must warn you this process can take up to 24 hours(but on average it usually does not take more than 12 hours). During the whole process you can interrupt the decoding process and continue later. If you do the CEM PIN decoding then you no longer need to do it again. Thanks to this you can also make other changes in the vehicle configuration including the TFT retrofit. After this process is done you will receive an email to the account you put in in the beginning.

Then choose CAR CONFIGURATION and then “Car configuration wizard”. Then you only need to choose the “TFT retrofit” wizard. Make sure DIM is connected.

Connect DiCE again, turn the ignition key to position II and open VDASH again on your computer. Go to “Car configuration wizard” and choose TFT retrofit again.

VDASH will begin to look for the newly connected TFT DIM. If all wires are correctly plugged in, the update process will begin. If not then check the connecting of the wires again using the multimeter.

You can change and move the clock motivesonly when the engine is running (this does not have any specific explanation). The designated motive is Elegance(grey or brown). It is possible to reprogramme this motive to a blue version “R-design” (using car configuration > advanced settings > Advanced TFT DIM settings > Screen Skins > DIM: R-design menu), motives Ecoand Powerremain unchanged.

1. Temporarily disconnect newly connected cables from the white DIM connector, and connect the original DIM2. Start the engine (SCL the steering lock will now unlock)3. While the engine is running, disconnect the original DIM connector and reconnect the additional wiring, connect the TFT DIM4. Turn the engine off and lock the car5. SCL will NOT turn on again (unless you connect the original DIM). You will not observe any further immobilisation issues.

Visteon’s RenderCore™ is an advanced graphics platform that gives designers the ability to develop 3D graphics before they are added to the vehicle’s instrument cluster. With RenderCore™, automakers can tap the skillset of the much larger gaming community, rather than relying on hiring or training specialized automotive developers. By eliminating the need for well-known automotive-specific design tools, RenderCore™ not only simplifies and streamlines the workflow, but also saves licensing costs and gives designers and engineers the creative freedom to deploy and preview any number of designs before final target.

Component selection is done according to the expected functionality of the virtual instrument cluster. Not all SoC are equal, some of them can get the output of GPS system,

A thin-film-transistor liquid-crystal display (TFT LCD) is a variant of a liquid-crystal display that uses thin-film-transistor technologyactive matrix LCD, in contrast to passive matrix LCDs or simple, direct-driven (i.e. with segments directly connected to electronics outside the LCD) LCDs with a few segments.

In February 1957, John Wallmark of RCA filed a patent for a thin film MOSFET. Paul K. Weimer, also of RCA implemented Wallmark"s ideas and developed the thin-film transistor (TFT) in 1962, a type of MOSFET distinct from the standard bulk MOSFET. It was made with thin films of cadmium selenide and cadmium sulfide. The idea of a TFT-based liquid-crystal display (LCD) was conceived by Bernard Lechner of RCA Laboratories in 1968. In 1971, Lechner, F. J. Marlowe, E. O. Nester and J. Tults demonstrated a 2-by-18 matrix display driven by a hybrid circuit using the dynamic scattering mode of LCDs.T. Peter Brody, J. A. Asars and G. D. Dixon at Westinghouse Research Laboratories developed a CdSe (cadmium selenide) TFT, which they used to demonstrate the first CdSe thin-film-transistor liquid-crystal display (TFT LCD).active-matrix liquid-crystal display (AM LCD) using CdSe TFTs in 1974, and then Brody coined the term "active matrix" in 1975.high-resolution and high-quality electronic visual display devices use TFT-based active matrix displays.

The circuit layout process of a TFT-LCD is very similar to that of semiconductor products. However, rather than fabricating the transistors from silicon, that is formed into a crystalline silicon wafer, they are made from a thin film of amorphous silicon that is deposited on a glass panel. The silicon layer for TFT-LCDs is typically deposited using the PECVD process.

Polycrystalline silicon is sometimes used in displays requiring higher TFT performance. Examples include small high-resolution displays such as those found in projectors or viewfinders. Amorphous silicon-based TFTs are by far the most common, due to their lower production cost, whereas polycrystalline silicon TFTs are more costly and much more difficult to produce.

The twisted nematic display is one of the oldest and frequently cheapest kind of LCD display technologies available. TN displays benefit from fast pixel response times and less smearing than other LCD display technology, but suffer from poor color reproduction and limited viewing angles, especially in the vertical direction. Colors will shift, potentially to the point of completely inverting, when viewed at an angle that is not perpendicular to the display. Modern, high end consumer products have developed methods to overcome the technology"s shortcomings, such as RTC (Response Time Compensation / Overdrive) technologies. Modern TN displays can look significantly better than older TN displays from decades earlier, but overall TN has inferior viewing angles and poor color in comparison to other technology.

The transmittance of a pixel of an LCD panel typically does not change linearly with the applied voltage,sRGB standard for computer monitors requires a specific nonlinear dependence of the amount of emitted light as a function of the RGB value.

Less expensive PVA panels often use dithering and FRC, whereas super-PVA (S-PVA) panels all use at least 8 bits per color component and do not use color simulation methods.BRAVIA LCD TVs offer 10-bit and xvYCC color support, for example, the Bravia X4500 series. S-PVA also offers fast response times using modern RTC technologies.

TFT dual-transistor pixel or cell technology is a reflective-display technology for use in very-low-power-consumption applications such as electronic shelf labels (ESL), digital watches, or metering. DTP involves adding a secondary transistor gate in the single TFT cell to maintain the display of a pixel during a period of 1s without loss of image or without degrading the TFT transistors over time. By slowing the refresh rate of the standard frequency from 60 Hz to 1 Hz, DTP claims to increase the power efficiency by multiple orders of magnitude.

Due to the very high cost of building TFT factories, there are few major OEM panel vendors for large display panels. The glass panel suppliers are as follows:

External consumer display devices like a TFT LCD feature one or more analog VGA, DVI, HDMI, or DisplayPort interface, with many featuring a selection of these interfaces. Inside external display devices there is a controller board that will convert the video signal using color mapping and image scaling usually employing the discrete cosine transform (DCT) in order to convert any video source like CVBS, VGA, DVI, HDMI, etc. into digital RGB at the native resolution of the display panel. In a laptop the graphics chip will directly produce a signal suitable for connection to the built-in TFT display. A control mechanism for the backlight is usually included on the same controller board.

The low level interface of STN, DSTN, or TFT display panels use either single ended TTL 5 V signal for older displays or TTL 3.3 V for slightly newer displays that transmits the pixel clock, horizontal sync, vertical sync, digital red, digital green, digital blue in parallel. Some models (for example the AT070TN92) also feature input/display enable, horizontal scan direction and vertical scan direction signals.

New and large (>15") TFT displays often use LVDS signaling that transmits the same contents as the parallel interface (Hsync, Vsync, RGB) but will put control and RGB bits into a number of serial transmission lines synchronized to a clock whose rate is equal to the pixel rate. LVDS transmits seven bits per clock per data line, with six bits being data and one bit used to signal if the other six bits need to be inverted in order to maintain DC balance. Low-cost TFT displays often have three data lines and therefore only directly support 18 bits per pixel. Upscale displays have four or five data lines to support 24 bits per pixel (truecolor) or 30 bits per pixel respectively. Panel manufacturers are slowly replacing LVDS with Internal DisplayPort and Embedded DisplayPort, which allow sixfold reduction of the number of differential pairs.

Backlight intensity is usually controlled by varying a few volts DC, or generating a PWM signal, or adjusting a potentiometer or simply fixed. This in turn controls a high-voltage (1.3 kV) DC-AC inverter or a matrix of LEDs. The method to control the intensity of LED is to pulse them with PWM which can be source of harmonic flicker.

Kawamoto, H. (2012). "The Inventors of TFT Active-Matrix LCD Receive the 2011 IEEE Nishizawa Medal". Journal of Display Technology. 8 (1): 3–4. Bibcode:2012JDisT...8....3K. doi:10.1109/JDT.2011.2177740. ISSN 1551-319X.

K. H. Lee; H. Y. Kim; K. H. Park; S. J. Jang; I. C. Park & J. Y. Lee (June 2006). "A Novel Outdoor Readability of Portable TFT-LCD with AFFS Technology". SID Symposium Digest of Technical Papers. AIP. 37 (1): 1079–82. doi:10.1889/1.2433159. S2CID 129569963.

Chapter 1. Methodology and Scope1.1. Methodology1.1.1. Definition and forecast parameters1.1.1.1. Definitions1.1.1.2. Assumptions, methodology and forecast parameters1.2. Data Sources1.2.1. Primary1.2.2. SecondaryChapter 2. Executive Summary2.1. Automotive digital instrument cluster industry 360 degree synopsis, 2015 - 20252.1.1. Business trends2.1.2. Display type trends2.1.3. Display size trends2.1.4. Regional trendsChapter 3. Automotive Digital Instrument Cluster Insights3.1. Industry segmentation3.2. Industry landscape, 2015 - 20253.2.1. Global instrument cluster landscape3.2.1.1. North America3.2.1.2. Europe3.2.1.3. Asia Pacific3.2.1.4. Latin America3.2.1.5. MEA3.2.2. Global automotive production statistics3.2.2.1. North America3.2.2.2. Europe3.2.2.3. Asia Pacific3.2.2.4. Latin America3.2.2.5. MEA3.3. Industry ecosystem analysis3.3.1. Component suppliers3.3.2. Manufacturers3.3.3. System integrators3.3.4. Technology providers3.3.5. Distribution channel analysis3.3.6. Vendor matrix3.4. Technology & innovation landscape3.4.1. Morphing instrument panel3.4.2. Reconfigurable digital instrument cluster3.5. Regulatory landscape3.5.1. North America3.5.2. Europe3.5.3. Asia Pacific3.5.4. Latin America3.5.5. MEA3.6. Industry impact forces3.6.1. Growth drivers3.6.1.1. Increasing demand for luxury vehicles in North America and Europe3.6.1.2. R&D activities in the automotive industry3.6.1.3. Increasing sales of electric vehicles globally3.6.1.4. Proliferation of component manufacturers in Asia Pacific3.6.1.5. Growing demand for safety and comfort features in vehicles3.6.1.6. Growing vehicle production activities in South Africa3.6.2. Industry pitfalls and challenges3.6.2.1. Easy availability and lower cost of analog cluster3.6.2.2. Operational issue in fully digitized clusters3.7. Growth potential analysis3.8. Porter"s analysis3.8.1. Industry rivalry3.8.2. Threat of new entrants3.8.3. Buyer power3.8.4. Supplier power3.8.5. Threat of substitutes3.9. Competitive landscape, 20183.9.1. Company market share analysis3.9.2. Strategy dashboard3.10. PESTEL analysisChapter 4. Automotive Digital Instrument Cluster Market, By Display Type (Revenue, Shipment)4.1. Key trends by display type4.2. LCD4.2.1. Market estimates and forecast, 2015 - 20254.3. TFT-LCD4.3.1. Market estimates and forecast, 2015 - 20254.4. OLED4.4.1. Market estimates and forecast, 2015 - 2025Chapter 5. Automotive Digital Instrument Cluster Market, By Display Size (Revenue, Shipment)5.1. Key trends by display size5.2. 5-8-inch5.2.1. Market estimates and forecast, 2015 - 20255.3. 9-11-inch5.3.1. Market estimates and forecast, 2015 - 20255.4. >12-inch5.4.1. Market estimates and forecast, 2015 - 2025Chapter 6. Automotive Digital Instrument Cluster Market, By Region (Revenue, Shipment)6.1. Key trends in digital instrument cluster market, by region6.2. North America6.2.1. Market estimates and forecast, by display type, 2015 - 20256.2.2. Market estimates and forecast, by display size, 2015 - 20256.2.3. U.S.6.2.3.1. Market estimates and forecast, by display type, 2015 - 20256.2.3.2. Market estimates and forecast, by display size, 2015 - 20256.2.4. Canada6.2.4.1. Market estimates and forecast, by display type, 2015 - 20256.2.4.2. Market estimates and forecast, by display size, 2015 - 20256.3. Europe6.3.1. Market estimates and forecast, by display type, 2015 - 20256.3.2. Market estimates and forecast, by display size, 2015 - 20256.3.3. UK6.3.3.1. Market estimates and forecast, by display type, 2015 - 20256.3.3.2. Market estimates and forecast, by display size, 2015 - 20256.3.4. Germany6.3.4.1. Market estimates and forecast, by display type, 2015 - 20256.3.4.2. Market estimates and forecast, by display size, 2015 - 20256.3.5. France6.3.5.1. Market estimates and forecast, by display type, 2015 - 20256.3.5.2. Market estimates and forecast, by display size, 2015 - 20256.3.6. Italy6.3.6.1. Market estimates and forecast, by display type, 2015 - 20256.3.6.2. Market estimates and forecast, by display size, 2015 - 20256.3.7. Spain6.3.7.1.1. Market estimates and forecast, by display type, 2015 - 20256.3.7.1.2. Market estimates and forecast, by display size, 2015 - 20256.3.8. Russia6.3.8.1.1. Market estimates and forecast, by display type, 2015 - 20256.3.8.1.2. Market estimates and forecast, by display size, 2015 - 20256.4. Asia Pacific6.4.1. Market estimates and forecast, by display type, 2015 - 20256.4.2. Market estimates and forecast, by display size, 2015 - 20256.4.3. China6.4.3.1. Market estimates and forecast, by display type, 2015 - 20256.4.3.2. Market estimates and forecast, by display size, 2015 - 20256.4.4. India6.4.4.1. Market estimates and forecast, by display type, 2015 - 20256.4.4.2. Market estimates and forecast, by display size, 2015 - 20256.4.5. Japan6.4.5.1. Market estimates and forecast, by display type, 2015 - 20256.4.5.2. Market estimates and forecast, by display size, 2015 - 20256.4.6. South Korea6.4.6.1. Market estimates and forecast, by display type, 2015 - 20256.4.6.2. Market estimates and forecast, by display size, 2015 - 20256.5. Latin America6.5.1. Market estimates and forecast, by display type, 2015 - 20256.5.2. Market estimates and forecast, by display size, 2015 - 20256.5.3. Brazil6.5.3.1. Market estimates and forecast, by display type, 2015 - 20256.5.3.2. Market estimates and forecast, by display size, 2015 - 20256.5.4. Mexico6.5.4.1. Market estimates and forecast, by display type, 2015 - 20256.5.4.2. Market estimates and forecast, by display size, 2015 - 20256.6. MEA6.6.1. Market estimates and forecast, by display type, 2015 - 20256.6.2. Market estimates and forecast, by display size, 2015 - 20256.6.3. South Africa6.6.3.1.1. Market estimates and forecast, by display type, 2015 - 20256.6.3.1.2. Market estimates and forecast, by display size, 2015 - 2025Chapter 7. Company Profiles7.1. Continental AG7.1.1. Business Overview7.1.2. Financial Data7.1.3. Display type Landscape7.1.4. Strategic Outlook7.1.5. SWOT Analysis7.2. Nvidia Corporation7.2.1. Business Overview7.2.2. Financial Data7.2.3. Display type Landscape7.2.4. Strategic Outlook7.2.5. SWOT Analysis7.3. Robert Bosch GmbH7.3.1. Business Overview7.3.2. Financial Data7.3.3. Display type Landscape7.3.4. Strategic Outlook7.3.5. SWOT Analysis7.4. Nippon Seiki7.4.1. Business Overview7.4.2. Financial Data7.4.3. Display type Landscape7.4.4. Strategic Outlook7.4.5. SWOT Analysis7.5. Visteon Corporation7.5.1. Business Overview7.5.2. Financial Data7.5.3. Display type Landscape7.5.4. Strategic Outlook7.5.5. SWOT Analysis7.6. IAC Group7.6.1. Business Overview7.6.2. Financial Data7.6.3. Display type Landscape7.6.4. Strategic Outlook7.6.5. SWOT Analysis7.7. Panasonic7.7.1. Business Overview7.7.2. Financial Data7.7.3. Display type Landscape7.7.4. Strategic Outlook7.7.5. SWOT Analysis7.8. Magneti Marelli S.p.A.7.8.1. Business Overview7.8.2. Financial Data7.8.3. Display type Landscape7.8.4. Strategic Outlook7.8.5. SWOT Analysis7.9. Denso Corporation7.9.1. Business Overview7.9.2. Financial Data7.9.3. Display type Landscape7.9.4. Strategic Outlook7.9.5. SWOT Analysis7.10. ID4Motion7.10.1. Business Overview7.10.2. Financial Data7.10.3. Display type Landscape7.10.4. Strategic Outlook7.10.5. SWOT Analysis7.11. Pricol Limited7.11.1. Business Overview7.11.2. Financial Data7.11.3. Display type Landscape7.11.4. Strategic Outlook7.11.5. SWOT Analysis7.12. Toshiba7.12.1. Business Overview7.12.2. Financial Data7.12.3. Display type Landscape7.12.4. Strategic Outlook7.12.5. SWOT Analysis7.13. Stoneridge Inc.7.13.1. Business Overview7.13.2. Financial Data7.13.3. Display type Landscape7.13.4. Strategic Outlook7.13.5. SWOT AnalysisData TablesTABLE 1. Automotive digital instrument cluster industry 360 synopsis, 2015 - 2025TABLE 2. Automotive digital instrument cluster market, 2015 - 2018 (USD Million)TABLE 3. Automotive digital instrument cluster market, 2019 - 2025 (USD Million)TABLE 4. Automotive digital instrument cluster market, 2015 - 2018 (Units)TABLE 5. Automotive digital instrument cluster market, 2019 - 2025 (Units)TABLE 6. Automotive digital instrument cluster market, by display type, 2015 - 2018 (USD Million)TABLE 7. Automotive digital instrument cluster market, by display type, 2019 - 2025 (USD Million)TABLE 8. Automotive digital instrument cluster market, by display type, 2015 - 2018 (Units)TABLE 9. Automotive digital instrument cluster market, by display type, 2019 - 2025 (Units)TABLE 10. Automotive digital instrument cluster market, by display size, 2015 - 2018 (USD Million)TABLE 11. Automotive digital instrument cluster market, by display size, 2019 - 2025 (USD Million)TABLE 12. Automotive digital instrument cluster market, by display size, 2015 - 2018 (Units)TABLE 13. Automotive digital instrument cluster market, by display size, 2019 - 2025 (Units)TABLE 14. Automotive digital instrument cluster market, by region, 2015 - 2018 (USD Million)TABLE 15. Automotive digital instrument cluster market, by region, 2019 - 2025 (USD Million)TABLE 16. Automotive digital instrument cluster market, by region, 2015 - 2018 (Units)TABLE 17. Automotive digital instrument cluster market, by region, 2019 - 2025 (Units)TABLE 18. Vendor matrixTABLE 19. Industry impact forcesTABLE 20. LCD market demand, 2015 - 2018 (USD Million)TABLE 21. LCD market demand, 2019 - 2025 (USD Million)TABLE 22. LCD market demand, 2015 - 2018 (Units)TABLE 23. LCD market demand, 2019 - 2025 (Units)TABLE 24. TFT-LCD market demand, 2015 - 2018 (USD Million)TABLE 25. TFT-LCD market demand, 2019 - 2025 (USD Million)TABLE 26. TFT-LCD market demand, 2015 - 2018 (Units)TABLE 27. TFT-LCD market demand, 2019 - 2025 (Units)TABLE 28. OLED market demand, 2015 - 2018 (USD Million)TABLE 29. OLED market demand, 2019 - 2025 (USD Million)TABLE 30. OLED market demand, 2015 - 2018 (Units)TABLE 31. OLED market demand, 2019 - 2025 (Units)TABLE 32. 5-8-inch display market demand, 2015 - 2018 (USD Million)TABLE 33. 5-8-inch display market demand, 2019 - 2025 (USD Million)TABLE 34. 5-8-inch display market demand, 2015 - 2018 (Units)TABLE 35. 5-8-inch display market demand, 2019 - 2025 (Units)TABLE 36. 9-11-inch display market demand, 2015 - 2018 (USD Million)TABLE 37. 9-11-inch display market demand, 2019 - 2025 (USD Million)TABLE 38. 9-11-inch display market demand, 2015 - 2018 (Units)TABLE 39. 9-11-inch display market demand, 2019 - 2025 (Units)TABLE 40. >12-inch display market demand, 2015 - 2018 (USD Million)TABLE 41. >12-inch display market demand, 2019 - 2025 (USD Million)TABLE 42. >12-inch display market demand, 2015 - 2018 (Units)TABLE 43. >12-inch display market demand, 2019 - 2025 (Units)TABLE 44. North America market size by display type, 2015 - 2018(USD Million)TABLE 45. North America market size by display type, 2019 - 2025 (USD Million)TABLE 46. North America market size by display type, 2015 - 2018(Units)TABLE 47. North America market size by display type, 2019 - 2025 (Units)TABLE 48. North America market size by display size, 2015 - 2018 (USD Million)TABLE 49. North America market size by display size, 2019 - 2025 (USD Million)TABLE 50. North America market size by display size, 2015 - 2018 (Units)TABLE 51. North America market size by display size, 2019 - 2025 (Units)TABLE 52. U.S. market size by display type, 2015 - 2018(USD Million)TABLE 53. U.S. market size by display type, 2019 - 2025 (USD Million)TABLE 54. U.S. market size by display type, 2015 - 2018(Units)TABLE 55. U.S. market size by display type, 2019 - 2025 (Units)TABLE 56. U.S. market size by display size, 2015 - 2018 (USD Million)TABLE 57. U.S. market size by display size, 2019 - 2025 (USD Million)TABLE 58. U.S. market size by display size, 2015 - 2018 (Units)TABLE 59. U.S. market size by display size, 2019 - 2025 (Units)TABLE 60. Canada market size by display type, 2015 - 2018(USD Million)TABLE 61. Canada market size by display type, 2019 - 2025 (USD Million)TABLE 62. Canada market size by display type, 2015 - 2018(Units)TABLE 63. Canada market size by display type, 2019 - 2025 (Units)TABLE 64. Canada market size by display size, 2015 - 2018 (USD Million)TABLE 65. Canada market size by display size, 2019 - 2025 (USD Million)TABLE 66. Canada market size by display size, 2015 - 2018 (Units)TABLE 67. Canada market size by display size, 2019 - 2025 (Units)TABLE 68. Europe market size by display type, 2015 - 2018(USD Million)TABLE 69. Europe market size by display type, 2019 - 2025 (USD Million)TABLE 70. Europe market size by display type, 2015 - 2018(Units)TABLE 71. Europe market size by display type, 2019 - 2025 (Units)TABLE 72. Europe market size by display size, 2015 - 2018 (USD Million)TABLE 73. Europe market size by display size, 2019 - 2025 (USD Million)TABLE 74. Europe market size by display size, 2015 - 2018 (Units)TABLE 75. Europe market size by display size, 2019 - 2025 (Units)TABLE 76. UK market size by display type, 2015 - 2018(USD Million)TABLE 77. UK market size by display type, 2019 - 2025 (USD Million)TABLE 78. UK market size by display type, 2015 - 2018(Units)TABLE 79. UK market size by display type, 2019 - 2025 (Units)TABLE 80. UK market size by display size, 2015 - 2018 (USD Million)TABLE 81. UK market size by display size, 2019 - 2025 (USD Million)TABLE 82. UK market size by display size, 2015 - 2018 (Units)TABLE 83. UK market size by display size, 2019 - 2025 (Units)TABLE 84. Germany market size by display type, 2015 - 2018(USD Million)TABLE 85. Germany market size by display type, 2019 - 2025 (USD Million)TABLE 86. Germany market size by display type, 2015 - 2018(Units)TABLE 87. Germany market size by display type, 2019 - 2025 (Units)TABLE 88. Germany market size by display size, 2015 - 2018 (USD Million)TABLE 89. Germany market size by display size, 2019 - 2025 (USD Million)TABLE 90. Germany market size by display size, 2015 - 2018 (Units)TABLE 91. Germany market size by display size, 2019 - 2025 (Units)TABLE 92. France market size by display type, 2015 - 2018(USD Million)TABLE 93. France market size by display type, 2019 - 2025 (USD Million)TABLE 94. France market size by display type, 2015 - 2018(Units)TABLE 95. France market size by display type, 2019 - 2025 (Units)TABLE 96. France market size by display size, 2015 - 2018 (USD Million)TABLE 97. France market size by display size, 2019 - 2025 (USD Million)TABLE 98. France market size by display size, 2015 - 2018 (Units)TABLE 99. France market size by display size, 2019 - 2025 (Units)TABLE 100. Italy market size by display type, 2015 - 2018(USD Million)TABLE 101. Italy market size by display type, 2019 - 2025 (USD Million)TABLE 102. Italy market size by display type, 2015 - 2018(Units)TABLE 103. Italy market size by display type, 2019 - 2025 (Units)TABLE 104. Italy market size by display size, 2015 - 2018 (USD Million)TABLE 105. Italy market size by display size, 2019 - 2025 (USD Million)TABLE 106. Italy market size by display size, 2015 - 2018 (Units)TABLE 107. Italy market size by display size, 2019 - 2025 (Units)TABLE 108. Spain market size by display type, 2015 - 2018(USD Million)TABLE 109. Spain market size by display type, 2019 - 2025 (USD Million)TABLE 110. Spain market size by display type, 2015 - 2018(Units)TABLE 111. Spain market size by display type, 2019 - 2025 (Units)TABLE 112. Spain market size by display size, 2015 - 2018 (USD Million)TABLE 113. Spain market size by display size, 2019 - 2025 (USD Million)TABLE 114. Spain market size by display size, 2015 - 2018 (Units)TABLE 115. Spain market size by display size, 2019 - 2025 (Units)TABLE 116. Russia market size by display type, 2015 - 2018(USD Million)TABLE 117. Russia market size by display type, 2019 - 2025 (USD Million)TABLE 118. Russia market size by display type, 2015 - 2018(Units)TABLE 119. Russia market size by display type, 2019 - 2025 (Units)TABLE 120. Russia market size by display size, 2015 - 2018 (USD Million)TABLE 121. Russia market size by display size, 2019 - 2025 (USD Million)TABLE 122. Russia market size by display size, 2015 - 2018 (Units)TABLE 123. Russia market size by display size, 2019 - 2025 (Units)TABLE 124. Asia Pacific market size by display type, 2015 - 2018(USD Million)TABLE 125. Asia Pacific market size by display type, 2019 - 2025 (USD Million)TABLE 126. Asia Pacific market size by display type, 2015 - 2018(Units)TABLE 127. Asia Pacific market size by display type, 2019 - 2025 (Units)TABLE 128. Asia Pacific market size by display size, 2015 - 2018 (USD Million)TABLE 129. Asia Pacific market size by display size, 2019 - 2025 (USD Million)TABLE 130. Asia Pacific market size by display size, 2015 - 2018 (Units)TABLE 131. Asia Pacific market size by display size, 2019 - 2025 (Units)TABLE 132. China market size by display type, 2015 - 2018(USD Million)TABLE 133. China market size by display type, 2019 - 2025 (USD Million)TABLE 134. China market size by display type, 2015 - 2018(Units)TABLE 135. China market size by display type, 2019 - 2025 (Units)TABLE 136. China market size by display size, 2015 - 2018 (USD Million)TABLE 137. China market size by display size, 2019 - 2025 (USD Million)TABLE 138. China market size by display size, 2015 - 2018 (Units)TABLE 139. China market size by display size, 2019 - 2025 (Units)TABLE 140. India market size by display type, 2015 - 2018(USD Million)TABLE 141. India market size by display type, 2019 - 2025 (USD Million)TABLE 142. India market size by display type, 2015 - 2018(Units)TABLE 143. India market size by display type, 2019 - 2025 (Units)TABLE 144. India market size by display size, 2015 - 2018 (USD Million)TABLE 145. India market size by display size, 2019 - 2025 (USD Million)TABLE 146. India market size by display size, 2015 - 2018 (Units)TABLE 147. India market size by display size, 2019 - 2025 (Units)TABLE 148. Japan market size by display type, 2015 - 2018(USD Million)TABLE 149. Japan market size by display type, 2019 - 2025 (USD Million)TABLE 150. Japan market size by display type, 2015 - 2018(Units)TABLE 151. Japan market size by display type, 2019 - 2025 (Units)TABLE 152. Japan market size by display size, 2015 - 2018 (USD Million)TABLE 153. Japan market size by display size, 2019 - 2025 (USD Million)TABLE 154. Japan market size by display size, 2015 - 2018 (Units)TABLE 155. Japan market size by display size, 2019 - 2025 (Units)TABLE 156. South Korea market size by display type, 2015 - 2018(USD Million)TABLE 157. South Korea market size by display type, 2019 - 2025 (USD Million)TABLE 158. South Korea market size by display type, 2015 - 2018(Units)TABLE 159. South Korea market size by display type, 2019 - 2025 (Units)TABLE 160. South Korea market size by display size, 2015 - 2018 (USD Million)TABLE 161. South Korea market size by display size, 2019 - 2025 (USD Million)TABLE 162. South Korea market size by display size, 2015 - 2018 (Units)TABLE 163. South Korea market size by display size, 2019 - 2025 (Units)TABLE 164. Latin America market size by display type, 2015 - 2018(USD Million)TABLE 165. Latin America market size by display type, 2019 - 2025 (USD Million)TABLE 166. Latin America market size by display type, 2015 - 2018(Units)TABLE 167. Latin America market size by display type, 2019 - 2025 (Units)TABLE 168. Latin America market size by display size, 2015 - 2018 (USD Million)TABLE 169. Latin America market size by display size, 2019 - 2025 (USD Million)TABLE 170. Latin America market size by display size, 2015 - 2018 (Units)TABLE 171. Latin America market size by display size, 2019 - 2025 (Units)TABLE 172. Brazil market size by display type, 2015 - 2018 (USD Million)TABLE 173. Brazil market size by display type, 2019 - 2025 (USD Million)TABLE 174. Brazil market size by display type, 2015 - 2018 (Units)TABLE 175. Brazil market size by display type, 2019 - 2025 (Units)TABLE 176. Brazil market size by display size, 2015 - 2018 (USD Million)TABLE 177. Brazil market size by display size, 2019 - 2025 (USD Million)TABLE 178. Brazil market size by display size, 2015 - 2018 (Units)TABLE 179. Brazil market size by display size, 2019 - 2025 (Units)TABLE 180. Mexico market size by display type, 2015 - 2018(USD Million)TABLE 181. Mexico market size by display type, 2019 - 2025 (USD Million)TABLE 182. Mexico market size by display type, 2015 - 2018 (Units)TABLE 183. Mexico market size by display type, 2019 - 2025 (Units)TABLE 184. Mexico market size by display size, 2015 - 2018 (USD Million)TABLE 185. Mexico market size by display size, 2019 - 2025 (USD Million)TABLE 186. Mexico market size by display size, 2015 - 2018 (Units)TABLE 187. Mexico market size by display size, 2019 - 2025 (Units)TABLE 188. MEA market size by display type, 2015 - 2018 (USD Million)TABLE 189. MEA market size by display type, 2019 - 2025 (USD Million)TABLE 190. MEA market size by display type, 2015 - 2018 (Units)TABLE 191. MEA market size by display type, 2019 - 2025 (Units)TABLE 192. MEA market size by display size, 2015 - 2018 (USD Million)TABLE 193. MEA market size by display size, 2019 - 2025 (USD Million)TABLE 194. MEA market size by display size, 2015 - 2018 (Units)TABLE 195. MEA market size by display size, 2019 - 2025 (Units)TABLE 196. South Africa market size by display type, 2015 - 2018 (USD Million)TABLE 197. South Africa market size by display type, 2019 - 2025 (USD Million)TABLE 198. South Africa market size by display type, 2015 - 2018 (Units)TABLE 199. South Africa market size by display type, 2019 - 2025 (Units)TABLE 200. South Africa market size by display size, 2015 - 2018 (USD Million)TABLE 201. South Africa market size by display size, 2019 - 2025 (USD Million)TABLE 202. South Africa market size by display size, 2015 - 2018 (Units)TABLE 203. South Africa market size by display size, 2019 - 2025 (Units)Charts & FiguresFIG. 1 Industry segmentationFIG. 2 Global digital instrument cluster market, 2015 - 2025 (USD Million)FIG. 3 Industry ecosystem analysisFIG. 4 Growth potential analysisFIG. 5 Porter"s analysisFIG. 6 Company market share, 2018FIG. 7 PESTEL analysisFIG. 8 SWOT Analysis, Continental AGFIG. 9 SWOT Analysis, Nvidia CorporationFIG. 10 SWOT Analysis, Robert Bosch GmbHFIG. 11 SWOT Analysis, Nippon SeikiFIG. 12 SWOT Analysis, Visteon CorporationFIG. 13 SWOT Analysis, IAC GroupFIG. 14 SWOT Analysis, PanasonicFIG. 15 SWOT Analysis, Magneti Marelli S.p.A.FIG. 16 SWOT Analysis, Denso CorporationFIG. 17 SWOT Analysis, ID4 MotionFIG. 18 SWOT Analysis, Pricol limitedFIG. 19 SWOT Analysis, ToshibaFIG. 20 SWOT Analysis, Stoneridge Inc.

The industry"s first instrumentation cluster MCU with on-chip TFT display driver revamps graphic display capabilities in the low-end automotive dashboard realm.