Genesis Cockpit

[Gordon Neal]

Weannounced in 2021 that Hyundai Motor Company has selected Qt as their key HMI technology partner for all Hyundai, Kia, and Genesis brands. Since then, they have released their new electric luxury SUV Genesis GV60, and we love it!

The GV60 comes equipped with a complete digital cockpit including cluster, in-vehicle infotainment system (IVI), climate control (HVAC), and high-resolution smart mirrors. The UX carefully combines both physical buttons and touch elements, giving the driver control of the key UI elements without moving their hands from the wheel.

Digital side mirrors, connected to cameras and OLED monitors, provide a precise and wide viewing angle of the vehicle surroundings, eliminating traditional blind spots.

On the other hand, the highway driving assistant monitors the distance between you and the car in front, automatically maintaining a safe speed and distance. It also comes equipped with an automatic lane-changing assistant, all you need to do is turn the signal on, and the car does the rest for you!

The lane assistant is connected to the navigation, taking into account highway ramps, curves, and speed zones, so it adapts accordingly to keep you safe on the road. The intuitive UI makes using these advanced features easy while clearly communicating the vehicle's intentions to the driver.

Other intelligent features like blind-spot monitoring in the digital cluster highlight potential dangers to the driver, preventing lane changing if another vehicle is in your blind spot. The same feature also lends itself to collision detection when leaving a parking spot, making it a breeze to maneuver in tight and busy areas. This is an excellent example of a relatively simple feature enabled by Qts' next-gen technology that significantly improves driver experience and helps keep people safe on the road.

You might be familiar with the traditional rear-seat seatbelt monitoring systems that warn you if a passenger is not wearing their seatbelt. The GV60 takes this feature to the next level by detecting sudden passenger movement in the back seat, warning the driver of any sudden changes.

Rear-view cameras are a must in modern cars, and the GV60 is taking steps to make parking and reversing in tight spots more accessible than ever. On top of the traditional reverse camera, GV60 also offers surround view monitoring that utilizes real-time 3D graphics to visualize your car in relation to the environment around you.

Over-the-air updates were used on older Genesis vehicles to wirelessly update infotainment system features, such as navigation, the digital instrument cluster, and the Head-Up-Display (HUD). With the GV60, the scope of the updates has been further expanded to other critical areas of the vehicle, enabling additional software updates on major electronic devices, including the electric vehicle integrated control device, suspension, brakes, steering wheel, airbags, and ADAS (Advanced Driver Assistance Systems).

The GV60 comes with dozens of innovative features designed to make your life easier. Some of our favorites are face detection for entering the car and fingerprint recognition for starting the engine.

One of the more innovative convenience features allows you to make payments in the vehicle by registering your card through their Carpay application. This makes the electric vehicle charging experience smooth and painless as your car can automatically pay for the charging without the need to fumble with your credit card or apps.

The cockpit of an aircraft contains flight instruments on an instrument panel, and the controls that enable the pilot to fly the aircraft. In most airliners, a door separates the cockpit from the aircraft cabin. After the September 11, 2001 attacks, all major airlines fortified their cockpits against access by hijackers.

The word cockpit seems to have been used as a nautical term in the 17th century, without reference to cock fighting. It referred to an area in the rear of a ship where the cockswain's station was located, the cockswain being the pilot of a smaller "boat" that could be dispatched from the ship to board another ship or to bring people ashore. The word "cockswain" in turn derives from the old English terms for "boat-servant" (coque is the French word for "shell"; and swain was old English for boy or servant).[2] The midshipmen and master's mates were later berthed in the cockpit, and it served as the action station for the ship's surgeon and his mates during battle. Thus by the 18th century, "cockpit" had come to designate an area in the rear lower deck of a warship where the wounded were taken. The same term later came to designate the place from which a sailing vessel is steered, because it is also located in the rear, and is often in a well or "pit".[3][4][5]

However, a convergent etymology does involve reference to cock fighting. According to the Barnhart Concise Dictionary of Etymology, the buildings in London where the king's cabinet worked (the Treasury and the Privy Council) were called the "Cockpit" because they were built on the site of a theater called The Cockpit (torn down in 1635), which itself was built in the place where a "cockpit" for cock-fighting had once stood prior to the 1580s. Thus the word Cockpit came to mean a control center.[6]

The original meaning of "cockpit", first attested in the 1580s, is "a pit for fighting cocks", referring to the place where cockfights were held. This meaning no doubt influenced both lines of evolution of the term, since a cockpit in this sense was a tight enclosure where a great deal of stress or tension would occur.[4]

From about 1935,[7][citation needed] cockpit came to be used informally to refer to the driver's cabin, especially in high performance cars,[8] and this is official terminology used to describe the compartment[9] that the driver occupies in a Formula One[10] car.

In an airliner, the cockpit is usually referred to as the flight deck, the term deriving from its use by the RAF for the separate, upper platform in large flying boats where the pilot and co-pilot sat.[11][clarification needed][12][clarification needed] In the USA and many other countries, however, the term cockpit is also used for airliners.[13]

The first airplane with an enclosed cabin appeared in 1912 on the Avro Type F; however, during the early 1920s there were many passenger aircraft in which the crew remained open to the air while the passengers sat in a cabin. Military biplanes and the first single-engined fighters and attack aircraft also had open cockpits, some as late as the Second World War when enclosed cockpits became the norm.

The largest impediment to having closed cabins was the material used to make the windows. Prior to Perspex becoming available in 1933, windows were either safety glass, which was heavy, or cellulose nitrate (i.e.: guncotton), which yellowed quickly and was extremely flammable. In the mid-1920s many aircraft manufacturers began using enclosed cockpits for the first time. Early airplanes with closed cockpits include the 1924 Fokker F.VII, the 1926 German Junkers W 34 transport, the 1926 Ford Trimotor, the 1927 Lockheed Vega, the Spirit of St. Louis and the passenger aircraft manufactured by the Douglas and Boeing companies during the mid-1930s. Open-cockpit airplanes were almost extinct by the mid-1950s, with the exception of training planes, crop-dusters and homebuilt aircraft designs.

Cockpit windows may be equipped with a sun shield. Most cockpits have windows that can be opened when the aircraft is on the ground. Nearly all glass windows in large aircraft have an anti-reflective coating, and an internal heating element to melt ice. Smaller aircraft may be equipped with a transparent aircraft canopy.

The layout of the cockpit, especially in the military fast jet, has undergone standardisation, both within and between aircraft, manufacturers and even nations. An important development was the "Basic Six" pattern, later the "Basic T", developed from 1937 onwards by the Royal Air Force, designed to optimise pilot instrument scanning.

Ergonomics and Human Factors concerns are important in the design of modern cockpits. The layout and function of cockpit displays controls are designed to increase pilot situation awareness without causing information overload. In the past, many cockpits, especially in fighter aircraft, limited the size of the pilots that could fit into them. Now, cockpits are being designed to accommodate from the 1st percentile female physical size to the 99th percentile male size.

The layout of control panels in modern airliners has become largely unified across the industry. The majority of the systems-related controls (such as electrical, fuel, hydraulics and pressurization) for example, are usually located in the ceiling on an overhead panel. Radios are generally placed on a panel between the pilot's seats known as the pedestal. Automatic flight controls such as the autopilot are usually placed just below the windscreen and above the main instrument panel on the glareshield. A central concept in the design of the cockpit is the Design Eye Position or "DEP", from which point all displays should be visible.

A Mode control panel, usually a long narrow panel located centrally in front of the pilot, may be used to control heading, speed, altitude, vertical speed, vertical navigation and lateral navigation. It may also be used to engage or disengage both the autopilot and the autothrottle. The panel as an area is usually referred to as the "glareshield panel". MCP is a Boeing designation (that has been informally adopted as a generic name for the unit/panel) for a unit that allows for the selection and parameter setting of the different autoflight functions, the same unit on an Airbus aircraft is referred to as the FCU (Flight Control unit).

The primary flight display is usually located in a prominent position, either centrally or on either side of the cockpit. It will in most cases include a digitized presentation of the attitude indicator, air speed and altitude indicators (usually as a tape display) and the vertical speed indicator. It will in many cases include some form of heading indicator and ILS/VOR deviation indicators. In many cases an indicator of the engaged and armed autoflight system modes will be present along with some form of indication of the selected values for altitude, speed, vertical speed and heading. It may be pilot selectable to swap with the ND.

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