Electric Vehicles

With electric cars taking over the automotive landscape, it’s important to understand how electric cars actually work. Tesla and other EV (electric vehicles) operate purely on electrical motor-based input and utilizes electricity as their main source of power. Electric cars have zero emissions, and receive their fuel source by plugging into a wall outlet instead of pulling up to the gas station. To get a better idea of how exactly electric cars function, let’s take a look at some of the different parts and features that make up these vehicles. Understanding the Components of an Electric Car In order to understand how electric cars work, we must first understand the components that make up these vehicles. Similar to your normal combustion engine, electric cars have their own energy conversion system. Instead of converting gasoline, they instead convert electricity into the power that moves them. The Most Important Piece: The Traction Battery Pack The single most important piece of an Electric car like Tesla’s, is what’s known as the traction battery pack. This battery is single handedly responsible for storing the electricity responsible for moving the vehicle. This should not be confused with the auxiliary battery, which we’ll cover shortly. The Power Electronics Controller Does an Essential Job The power electronics controller is responsible for the proper delivery of stored electricity to the electric traction motor. Thanks to this device, you’re able to control the total delivered power and, in turn, the total torque output. It’s easiest to remember it as the device that best represents a throttle on your standard combustion engine vehicle. Electric Traction Motor is Essential for Movement With the help of the power electronics controller, the electric traction motor is what actually moves the electric car. The power electronics controller converts the electricity into usable electricity from the traction battery pack, which the electric traction motor then uses to propel the vehicle forward or backward. The electric traction motor is essentially the electric variant of the gas motor. They are similar in their job, however, the energy utilized is what is different. The Charging Port is Used to Power Up Similar to a combustion engine car, electric cars require a place to refuel, or charge in this case. This is where the charging port comes into play. Typically located in a similar location as the fuel neck on a gas car, the charging port is simply the place on your electric car that allows it to be plugged in to charge. Onboard Charging Device Converts from AC to DC Whether at home or a charging station, the power supplied to charge your electric vehicle is most often supplied in its AC variant. Since electric vehicles utilize DC power, a conversion must take place in order for the vehicle to utilize it in its charging system. The onboard charging device takes care of this conversion, and also allows you to monitor the overall health of your batteries and charging system. Cooling System or Thermal System Much like your standard gasoline powered car, electric cars create heat as a bi-product with extended use. In order to better manage this heat, electric cars are equipped with cooling systems to better regulate the temperature of the onboard computers and electronics within the vehicle. When comparing it to a traditional automotive system, think of your radiator and surrounding pieces that influence it. The goal of this cooling system is to reduce the total heat being put off by the power source by introducing something that cools it down. Auxiliary Battery for Accessories or Electronics The auxiliary battery should not be confused with the traction battery pack, as it serves a different purpose entirely. The auxiliary battery is responsible for storing and supplying the electricity to the many other electrical needs of the vehicle. These are usually things like lights and other convenience features. Auxiliary batteries have long served their purpose in automotive application, most often used to power features available in the vehicle. Instead of an alternator powering it through driving, electric cars use a DC converter that delivers power from the traction battery pack.  DC Converter Transforms High Current to Low Current While the auxiliary battery and the traction battery pack both require electricity to operate, they utilize different forms of DC power. The DC converter is responsible for converting the high-voltage DC power utilized by the traction battery pack into the lower-voltage DC power needed by the auxiliary battery to power your electronics. The process done by the DC converter is much less invasive than the AC to DC conversion done at the onboard charging device. While some electricity is lost at this conversion, it’s minimal loss overall. Rather than changing formats, it’s actually just decreasing the level of voltage. Electrical Transmission Does a Lot of the Heavy Lifting The electrical transmission is responsible for getting the vehicle moving. It takes the mechanical power output by the electric traction motor and uses it to physically drive the wheels. Without the electrical transmission, the vehicle would be unable to use the electricity stored to move the vehicle. The electrical transmission is similar in concept to a standard gas car transmission in function only. It takes the power created by the motor, and transforms it into energy that can be used to turn the wheels and get the car moving. Visualizing How All of the Parts Come Together Now that you understand the parts that make up an electric vehicle, you may still be wondering how it all actually comes together to drive. Let’s use the information provided about the parts to better visualize how they all do their own heavy lifting to create the electric car driving experience Tesla and other brands are known for. First, You Need to get Charged Up So, the first step in getting an electrical vehicle going is supplying it with the electricity it needs. Tesla has their patented Super Chargers scattered through the US and assuming you have the correct hardware installed, you can

Tesla continues to distinguish itself from other car manufacturers by implementing innovative and sleek features in its electric cars. One of those features is the Autopilot functionality, a semi-autonomous technology that aims to enhance your driving experience and reduce driving fatigue. But just like most systems, it’s not perfect and takes some getting used to. To use Autopilot on a Tesla Model 3 or Tesla Model Y, pull down on the gear selector stalk twice quickly. Your screen will display a grey steering wheel to let you know that the feature is ready to engage and turn blue when engaged. To disengage it, press on the brake or push the gear selector stalk forward. This article will tell you everything you need to know about the Tesla Autopilot and how to use it on a Model 3/Y. What Is Tesla Autopilot? Tesla’s renowned Autopilot is a cutting-edge driver assistance system that offers better road safety and convenience. The autopilot functionality has several features that make driving less of a burden, and Tesla keeps rolling out new features that make the system even more impressive.  However, the capability doesn’t make your car autonomous. You still need to pay full attention to the road and keep your hands on the steering wheel every time.  The system is ranked by the US National Highway Transportation Safety Administration (NHTSA) as a level 2 autonomous system, meaning that the car is capable of automated functions like steering and accelerating/decelerating. Still, the driver must remain in control of the vehicle and be prepared to take over at any given moment.  When activated, Autopilot can steer, detect nearby obstacles, accelerate, change lanes, adjust speed, and brake. The feature is available in two packages for Tesla owners: Autopilot or Full self-driving capability. At the time of this article, Full Self-Driving has been rolled out to some customers in a beta release. How Does the Autopilot Feature Work? Tesla Autopilot is made possible by combining eight 360-degree external cameras, a forward-facing radar, 12 ultrasonic sensors, vision processing hardware, a powerful onboard computer, a high-precision digitally-controlled electric assist braking system, and a host of other hardware and software.  The sensors are placed all around the car to help it understand the environment and detect various types of objects, including nearby vehicles. They can sense anything within 16 feet around the car.  The cameras are capable of providing visibility up to a range of 250 meters. They are like the system’s eyes and are important for changing lanes, merging into traffic, parking, and detecting objects at close range. They can capture pedestrians, traffic lights, lane markings, road signs, and any objects around the car.  Because the sensors can be less effective when things like debris cover them, Tesla uses a forward-facing radar that provides additional data about the environment and can sense through fog, dust, heavy rain, and even approaching vehicles.  How To Activate and Use Autopilot on a Tesla Model 3/Y Tesla Model 3 and Model Y comes standard with the Autopilot and Full Self-Driving (FSD) hardware. However, the car manufacturer advises you to read the Owner’s Manual for complete instructions and safety information. Many Autopilot features like Summon, Autosteer, and Navigate on Autopilot are turned off by default. You can enable them by going to the Autopilot Controls menu. Here are some of the main Autopilot features and how you can activate them: Traffic-Aware Cruise Control This feature monitors the traffic around you and adjusts your speed accordingly. When it’s activated, the car maintains a speed limit and a safe distance between you and the vehicles ahead. If one of those vehicles changes lanes to block your path, cruise control will continuously monitor its position and react appropriately. How to use: To activate the Cruise Control feature on Tesla Model 3, find the gear selector stalk on the right of the steering column and pull it down once.  Autosteer As the name suggests, Autosteer helps with steering. It uses the cameras and sensors around the car to keep you in the marked lane, and in combination with Cruise Control, it maintains your speed. For the Autosteer feature to work well, the road must be clearly marked, and the car should be traveling above 20mph (32.19kph). When the function is engaged, you must keep your hands on the wheel. The system gives you multiple visual and audible alerts telling you to grab the wheel. If you keep ignoring the warnings, the vehicle will slow down and lock you out of Autopilot for the rest of the journey. How to use: To engage the Autosteer feature on Tesla Model 3/Y, pull down on the gear selector stalk twice in quick succession. A grey steering icon will appear on your screen to let you know that the system is ready to engage. The steering wheel icon will turn blue to indicate that Autosteer is engaged. To disengage the Autosteer, you can either press the brake, push the gear selector stalk forward, or push the button on the end of the stalk. Navigate on Autopilot Navigate on Autopilot adds to the expansive list of Tesla Autopilot features. It improves your driving experience by guiding your car when taking on- and off-ramps on the highway. It gives you lane change suggestions, automatically navigates highway interchanges, makes lane changes, and takes exits based on your destination. How to use: Before you can engage this feature, you must first enable Autosteer. To do that, go to Controls > Autopilot > Autosteer – and then turn on Navigate on Autopilot. On a Tesla Model 3, pulling the cruise control stalk twice downwards will engage the Navigate on Autopilot feature. Auto Lane Change This feature helps the driver switch to an adjacent lane. It works when you engage the Autosteer function and switch on the turn signal. Your car will automatically change lanes when it is safe.  How to use: You need to engage the Autosteer function before you can activate Auto Lane Change. When activated, you

Tesla Motors ranks fourth on the 2021 Forbes list of the most innovative companies worldwide. Tesla EVs are well-known for their advanced technology. But what else distinguishes them from other cars? A Tesla is different from other cars in design, performance, propulsion systems, and fuel storage. Other distinctions include the instrument panel and blind-spot assist tech. Generally, Teslas are more energy-efficient, more responsive, quicker than regular cars, quiet on the road, and more stable. The rest of this article will describe in detail the features that set Teslas apart from other cars. Read on for insights into the aspects that make it worthwhile to own a Tesla. Design The exterior design of a Tesla isn’t much different from that of a regular car. However, you’d need to examine the underneath part of a Tesla’s sleek skin to spot what distinguishes it from other cars. Teslas are developed around an electric powertrain and battery. The battery back isn’t packed into the spaces occupied by a typical internal combustion engine (ICE) vehicle’s trunk, engine bay, or rare seats. Instead, you’ll find the batteries under the passenger compartment. Have you ever noticed that these EVs have an unusually thicker underside than ICE cars? This is to create the space for the battery pack, leaving the space where you’d find the engine in a regular car empty. Another distinction is that, unlike other cars, a Tesla EV doesn’t come with a driveshaft tunnel or transmission hump. Heads-Up Displays Heads-up displays (HUDs) have been a standard feature in regular cars for a long time. The reason is simple: they beam critical information onto vehicles’ windscreens, enabling drivers to monitor their speed, direction, and other vital details while keeping their eyes on the road. However, you’ll never spot a HUD on a Tesla. That’s because the company’s CEO, Elon Musk, considers them annoying and irrelevant as cars advance to autonomous driving. Some customers support this opinion. Most notably, they argue that HUDs are susceptible to getting washed out and can cause distractions. Overheat Protection and Dog Mode Tesla’s offer an overheat protection feature that prevents the interior from getting too hot and a pre-cool feature for comfortable rides.  You can cool down or warm up your EV’s seats remotely using a smartphone app. However, it comes with a downside: if you forget to do that, chances are you’ll be sitting in an uncomfortable, hot seat while driving during the dead of summer. With a Tesla, you can also enable Dog Mode. This keeps your HVAC system running if you need to leave your 4-legged friend unattended in your vehicle for a while. It also displays a message on the touchscreen in case concerned passerby’s see a dog in a vehicle in hot weather. Fuel Storage You’ll never come across a fuel tank in a Tesla vehicle. As I mentioned earlier, these EVs feature a large battery pack for energy storage. The pack also contains electronic controls and a cooling system.  These are packaged in a flat box between the EVs frame rails and under the floor pan. They’re protected by a titanium shield, giving these vehicles a remarkably lower center of gravity than regular cars. The pack weighs 1,200 pounds, helping these vehicles to stick on the road when cornering. Instrument Panel Another distinctive area between a Tesla and a regular car is the instrument panel. A regular automobile comes with lots of switches, buttons, knobs, and joysticks. Contrarily, a Tesla EV instrument panel features a massive, center-mounted, 17-in. (43.18-cm) display screen for clear, easy-to-use touch controls. The only buttons you’ll find on a Tesla’s dash are the glove box release and hazard lights buttons. Tesla’s unique instrument panel comes in handy, especially when driving at night. You won’t have the glare that comes with regular panels, allowing you to concentrate on the road. A Tesla projects speedometer and other systems’ information onto the screen, unlike conventional cars that feature analog and digital dials. Propulsion System Regular cars feature ICEs and multi-speed transmissions. Because of that, they come with hundreds of moving parts that require regular maintenance. On the other hand, Tesla EVs use electric motors with only two moving parts and gearless single-speed transmissions. Unlike other cars with about 200 moving parts in their drivetrains, a Tesla EV’s drivetrain has only 17. Because of that, a Tesla car is virtually maintenance-free. Since it’s controlled electronically, you can repair its systems through software adjustments. Faster Updates The rapid speed of updating a Tesla is another remarkable distinction from other cars. These EVs feature wireless, 4G connectivity, and touchscreen control panels that send real-time data to the manufacturer. The company also releases fixes that can be downloaded overnight. However, if you drive a regular car, you may have to wait for weeks, months, or even years before the manufacturer avails updates. In some cases, updating your car may require a physical visit, increasing the time it takes to update your car. Blind-Spot Assist Tesla pushes the envelope when it comes to the development of blind-spot assist tech. While regular cars come with orange lights that light up on side-view mirrors when a vehicle is in your blind spot, Tesla cars feature ultrasonic sensors and cameras that show the vehicles in your blind spot on the touch screen. Tesla cars also come with extra features, such as the option to activate audible chimes that sound when another motorist is in your blind spot. This video demonstrates how this technology works: Performance Tesla cars are designed for performance. Here are some aspects that back this statement up: They are quicker than most regular cars on the road. They come with regenerative braking. It allows the car to slow down without braking, thanks to the one-pedal driving feature. You don’t have to spend a lot of energy pressing the brake pedal. They’re cost-effective. For example, a Tesla S 85D consumes up to 34kWh for every 100 miles (an equivalent of 100 MPG). With an average electricity cost of $0.12/kWh,

The wave of futuristic cars has begun with the creation of the Tesla self-driving car. They are true pieces of technological wonder and show just how far humanity has come to achieving the futuristic world spoken of in science fiction. So, exactly do Tesla cars drive themselves?  Tesla cars drive themselves through a complicated system of artificial intelligence, software, and a network of cameras that allow them to see and understand what is around them. They cannot fully drive themselves currently, but they are on the brink of reaching that potential. Keep reading to learn everything you need to know about how Tesla cars drive themselves, the artificial intelligence that keeps them operating, and how the technology will soon be perfected. Tesla Cars’ Autopilot Mode Tesla cars come equipped with an autopilot feature. This feature allows Teslas to drive themselves under certain conditions. This is the feature most people think of when they imagine Tesla’s self-driving abilities. While it is capable of quite a bit, some limitations still exist. The Tesla car and its autopilot have some wonderful capabilities. The autopilot comes equipped with all the necessary hardware and software for future updates that will allow Tesla cars to fully drive themselves when that technology is finally made available to Tesla owners.  Autopilot essentially allows your car to drive you to any place that you so desire, but it only has the ability to drive itself in its current lane. If you need to switch lanes or something similar, you will need to do that yourself. This, however, is not a major limitation and will only affect you ever so often, rather than affecting you all the time. Tesla’s autopilot allows the vehicle to steer, accelerate, and brake automatically in its current lane. This can vastly decrease the need for you to focus on the annoying aspects of driving. Even though the Tesla can not drive itself by switching lanes or making turns, it can take control of those drives that require a single-lane route.  Teslas Can Drive, But Not Autonomously  While Teslas have a lot of impressive capabilities, they are not quite able to autonomously drive themselves without driver intervention. There are still a fair amount of limitations, but the company is constantly working on improving these limitations to make the cars fully self-driving and autonomous. Some of Teslas’ current self-driving limitations include: Requiring the attention of human drivers when they are in self-drive mode Requiring the human driver to touch the wheel periodically Requiring the human driver to take control in the event of something unexpected Tesla cars still require the attention of a human driver when they are in self-drive mode. This is because Tesla cars are not yet fully autonomous and need a human driver to ensure that the car’s passengers stay safe if something unexpected happens. A Tesla car is not yet able to make adequate split-second decisions. The human driver must let the car know that they are still there by touching the wheel periodically. It does not have to be a heavy touch or turn of the wheel, but drivers must touch the wheel every once in a while, or the car will drop out of self-driving mode.  Tesla’s Autopilot Mode Versus Fully Self-Driving Cars Tesla offers its customers two different self-driving packages. The two packages include different levels of self-driving capabilities. Drivers can decide how much control their cars have.  Regardless of if you get a Tesla with the basic autopilot mode or the full current self-driving functionality, you still have to remain with the vehicle with your hands on the wheel. This helps keep you and your passengers safe since the self-driving technology has not reached full autonomy yet. Always use your common sense and follow the traffic laws that exist when your Tesla is on autopilot or in self-driving mode. Having a car that can drive itself does not excuse you from remaining attentive and observant of what is currently happening around you. Remember, the car is not fully autonomous, and you should not treat it as such.  Tesla’s Camera System Tesla cars all come equipped with a large assortment of cameras that are used when the car is driving itself, with either autopilot or full self-driving. These cameras form a large portion of the Tesla car’s self-driving capabilities. Tesla cars use these cameras to observe what is happening around them at all times.  If you have a Tesla, your car is equipped with more than eight cameras that face in all directions and continually feed data and information to your car’s system. This system is equipped with some of the most powerful processors that exist. They are 40 times more powerful than Tesla’s previous processors, which is already a huge step towards getting Teslas to fully autonomous status. Alongside these cameras is a system of ultrasonic sensors and radar that ensure the Tesla has no blind spots anywhere as it is driving. Without these cameras, sensors, and radar, even the most basic of the Tesla autopilot features would not be able to work.  Front Forward-Facing Cameras The first system of cameras that Tesla cars employ are the front forward-facing cameras. These cameras have different sight levels and are angled differently, giving them complete and total coverage of everything in front of your car. They are located behind your windshield. A wide-vision camera with a 120-degree lens capable of capturing traffic lights, and obstacles ahead Main camera with a range of 150 meters ahead for general purpose Narrow front camera with a range of 250 meters to watch what is approaching from the front The wide-vision camera is most useful when driving in urban settings. The main camera is great for scoping out obstacles in the distance. The narrow front camera is useful in high-speed situations, like on a highway, when obstacles may approach at high speeds from a distance.  Frontward-Facing Side Cameras  The next system of cameras that exist on the Tesla is the frontward-facing side cameras. These

If you are interested in buying a Tesla car you may be wondering how the heater works, among other things. Many people are unsure of how the heater would work since Tesla is known for energy efficiency, and typically car heaters are not always that efficient. Heaters in Tesla cars work by using a resistance heater to warm up the car. As the Tesla vehicle is heating up, the resistance heater will use 400 volts of energy to increase a decline in currents. This allows for the inside of the car to be cozy while being much more efficient than most cars.  You probably would still like to have an in-depth explanation of how the car heaters work for Tesla. Throughout the rest of this article, the process of heating a Tesla car will be explained along with other questions you may be pondering as well.  How Are Tesla Cars Heated? Tesla vehicles use a method of heating that many cars do not have the luxury of using. Because Tesla is electric, there is not as much energy being wasted while heat is trying to circulate throughout the car.  There are several steps that go into heating up a Tesla. Keep reading to find out what happens. Tesla has a heater that uses energy instead of antifreeze that is normally used. They use a resistance heater, which reduces the currents typically happening that warm a car up. Since there are 400 extra volts available, Tesla uses them to reduce the amount of energy that regular cars take to produce heat. Do All Teslas Use a Resistance Heater? All Teslas do not use a resistance heater. Since the Model Y Tesla has made its first appearance, the concept of a heat pump has been brought to the attention of all Tesla car owners. The pump has been around for much longer, though. Even though Tesla by themselves are more energy-efficient than most vehicles, whenever the heat is on, the resistance heaters decrease the amount of distance a Tesla can drive. Heat pumps change the game by saving you the extra miles that are lost when a resistance pump is doing its job.  Does it Really Matter Which Heater I Have in My Tesla? The answer to this question really depends on what matters to you. However, most people would agree that a pump heater is better than having a resistance heater. Here are some of the reasons why people believe this. Resistance heaters take away the electricity that can be used to drive the car and heat the interior instead. Heat is made by recycling the colder out from the outside of the car. Heater pumps are being improved upon People are more likely to invest in an electric vehicle that has a heat pump, especially those who live in colder climates. Many have been cautious about switching to a more energy-efficient car because of many reasons, one being that they are unsure of how efficient the car actually is. Having a heat pump helps eliminate those suspicions and demonstrates a positive environmental impact. Some Helpful Tips For The Cold If you are not able to have a pump heater in your Tesla, that is not necessarily a horrible thing. You may, however, want to know of some tips that will be of great benefit to you when the weather gets chilly.  Let The Charging Finish Right Before You Go Basically, the battery needs to be heated up before it can charge at the perfect rate. When the battery is warm, that means your car will become warmer quicker. You can do this by scheduling your charging time through the Tesla app on your phone. Whenever you tell the app to charge your car, it will complete all but a small percentage so that it will be completed right as you are preparing to go. Be Cautious of Where You Leave Your Car Your Tesla will keep heat in your car even if it is turned off, as long as you are smart about where you park it. Here is a list of some places that are recommended to leave your Tesla: Garages Areas shielded from the weather A dry, confined space Ensure Your Battery is Warm Enough Like previously mentioned, the battery needs to be warmed up before the car can go anywhere. It is crucial that this process happens so all energy is released. If the battery is too cold, you will probably see a snowflake icon on your screen that is blue. Whenever the battery is hot enough, the snowflake will go away and your available energy will be used.  Be Prepared to Brake Normally Any person who has been driving a Tesla for a while now is accustomed to the regen braking that is so loved. While it is nice, be sure to remember that it is not always effective in frosty weather.  In fact, regen braking may not be able to work at all until you have been driving for a bit and the car is warmer. Be prepared to switch to the braking you learned when you were practicing for your driver’s license at sixteen.  Be Energy Savvy While Driving Just like you need to consider conserving energy while at home, the same needs to be done on the road. When you are driving, here are a few things you can do to help preserve your Tesla energy. Do not accelerate often Keep the inside of your car cooler Stay at a consistent speed  These ideas are helpful during any time of the year, but they are especially important during the winter season. Be Sure To Defrost Give your car ample time to warm up before anything happens. Just like the car battery needs to be heated, your windshield needs to be clear before you can travel anywhere.  On both our Model X and Nissan LEAF, we’ve noticed it can take the vehicle longer to defrost a windshield when it becomes fogged than your

Tesla’s electric cars are well-known for their reliance on technology. From their minimalistic touchscreen center consoles to their advanced safety and security features, Tesla vehicles are game-changers in the EV industry. For a first time electric vehicle owner, a Tesla charger may be foreign for new drivers and prospective buyers.  To remove a Tesla charger, first ensure the charge port is unlocked. Simply having your key card or fob with you also work. You can unlock the charge port via the Quick Controls on the touchscreen. Press and hold the charge connector button, and wait for the LED to turn white before removing the charger. You can also unplug the charger manually through the release cable located in the trunk, though this should be a last resort. If you’re concerned about charging your Tesla or how to remove a charger from the car, then you couldn’t be in a better place. Read on as we break down several ways to remove your charger, even when it gets stuck. Unlock the Charge Port You can only remove the connector if your chargerport is unlocked because the connector is designed to lock when the car is plugged in and charging. This prevents a random person from walking up to your Tesla and unplugging it. Press the Charge Connector Button Once your car is unlocked (or with your key fob or key card nearby), the next step is to press and hold the button on the connector for two to three seconds. The LED on the charge port should turn white to indicate that the connector is safe for unplugging.   The charge port can also be unlocked through the touchscreen in the quick controls menu: Manually Release a Tesla Charge Cable Tesla’s have a manual release cable. Be sure to follow the instructions in the owner manual for your specific model as these steps and precautions may be updated. The release cable is located in the rear trunk area on the driver side. These are the current steps listed in the Model X Owner’s Manual. If the usual methods for releasing a charge cable fromthe charge port (using the charge handle release button,touchscreen, or mobile app) do not work, carefullyfollow these steps: Ensure that Model X is not actively charging bydisplaying the charging screen on the touchscreen. Ifnecessary, touch Stop Charging. Open the rear trunk. Pull the charge port’s release cable downwards tounlatch the charge cable. Pull the charge cable from the charge port. CAUTION: Use the release cable only in situations where you can not release the charge cable using the usual methods. Continuous use can damage the release cable or charging equipment. When To Be Cautious  Please note that Tesla strongly advises against using manual cable release techniques frequently. The EV manufacturer insists that the release cable or levers are for situations where the normal charger release methods don’t work.   Another precaution given by Tesla is to refrain from manually releasing the charger cable when the car is charging. Removing the cable when the vehicle is charging can lead to electric shock and serious car damage.   Tesla further adds that you should never pull the release cable and the charger cable simultaneously. The right way to do things is to pull the release cable before you attempt to remove the charger cable from your car. Doing both activities at the same time increases the chances of electric shock and car damage. If the vehicle is still charging, stop charging via the touchscreen. What if My Charge Connector Is Stuck and the Charge Port Color Is Yellow? Your charger connector is likely to get stuck when incorrectly positioned in the charge port. In such situations, the charge port color will be yellow, an indication of incorrect connector positioning. Pressing the button on the connector will only make the situation harder and more confusing for you.  Instead, push the connector carefully such that it fits firmly in the charge port. Observe if the charge port LED switches to flashing or solid green. If the LED is green, the car is fully plugged in. You can then press the connector button and safely remove it from the charge port. Understanding Tesla’s LED Lights Going through your owner’s manual is integral to safe and efficient Tesla charging. You should understand what the LED lights mean and how to navigate past the various colors. Below is a brief explanation of what some LED lights mean when charging a Tesla Model 3. White: A white color means the charge port door is open and your car is ready to charge, but the connector is yet to be inserted. White also signifies that the port latch is unlocked, and it is safe to remove the connector. Blue: A blue light indicates that the connector has been plugged incorrectly. A blue blink is a sign that the car is in communication with the connector and is preparing to charge. It could also indicate that the car is scheduled to start charging at a specified time. Green: Blinking green signifies that your Tesla is charging as expected. The frequency of the blinks tends to reduce as the car approaches full charge. A solid green should then follow after a while, indicating that the car is fully charged. Amber: Be wary of solid amber as it is an indication that you’ve not properly or fully plugged in the connector. In such situations, try realigning it and inserting it fully inside the connector. Blinking amber is usually a sign that your Model 3 is charging at a slow pace (AC charging only). Red: Red is a danger sign indicating that charging has come to a halt due to a fault. Proceed to check for a fault message on your touchscreen whenever red appears on the charge port LED. Charge port LED colors can change depending on the model you’re using. However, these are standard LED colors associated with most Tesla releases. But to be on the safe side, always consult with

Tesla electric vehicles are known for their lower carbon footprint and reduced fuel expenses. Besides getting the most out of the advanced tech featured in these vehicles, Tesla owners also enjoy not having to rely on conventional gas stations. The most convenient way to charge a Tesla for most owners is at home with a Level 2 charger. The best Tesla EV home chargers are compact, Wi-Fi compatible, allow smart charging, and work with indoor and outdoor installations. They are weather-resistant and can prevent overheating. They’ll come with lights for monitoring the charge status and long cables for flexible mounting. Read on for comprehensive reviews of the best alternatives for Tesla EV home chargers available on the market. Note: These are recommendations for J1772 Level 2 chargers. You’ll need a a Tesla J1772 adapter in order to charge your Tesla with these units. If you don’t feel you have a need for a J1772 connector, strongly consider the Wall Connector from Tesla. ChargePoint Home Flex The ChargePoint Home Flex tops the chart of the most popular EV chargers. This charger is designed to produce up to 50 Amps, a feature that edges out its alternatives, mostly rated 32 Amp or 40 Amp. Therefore, this product offers fast, high-powered charging. With that rating, you can rest assured that this charger will power your Tesla car to the maximum level. The charger offers a 23 ft (7.01 m) cable and can come with either the NEMA 14-50 plug or the NEMA 6-50 plug. Additional selling points include a Wi-Fi compatible, smart-charging function, an integrated holster that swivels up when you remove the charger’s connector, a tapered edge for easy return, and backlighting for comfortable use in poorly lit installations. MSRP: $699 JuiceBox 40 The JuiceBox 40 deserves a distinction as one of the best EV chargers on the market. This electric vehicle charging station (EVSE) checks all the essential boxes: it’s compact, high power, Wi-Fi enabled, portable, and comes with a 25 ft (7.62 m) cable for flexible mounting. You can also schedule the JuiceBox 40 to charge at off-peak times. It produces 40 Amps, reducing charging times, and it’s a plug-in EVSE, making installation easy and quick. Earlier on when JuiceBox first started, they weren’t UL certified, but today they are both UL and Energy Star certified. MSRP: $629 Morec EV Charging Station The Morec EV level 2 charger can supply up to 240V and is quite versatile – it’s compatible with indoor and outdoor installations and works for all EVs. The charger has a crystal-clear display, making it easy to read, and the power leveler comes in handy for maintaining balance during multiple charges. Other pros include leak-proof construction that also minimizes overheating and a waterproof build that prevents water damage. You’ll never go wrong on safety with the Morec EV Charging Station. The gripe? The charger’s connector is a little stiff on some EV models – you may need to apply extra force to set it up in such cases. Siemens VersiCharge Home Charger If you’re looking for convenient EV charging, then the VersiCharge Home Charger is what you need! This charger comes with an adjustable start time that allows you to set the time your EV will start charging. Better yet, the indicator halo lights enable you to monitor the charging status from a distance. Reviewers point out the Universal version of this charger is a plug-and-play solution that works indoors and outdoors. Controlling the Smart Grid version of the charger is a breeze since it’s Wi-Fi enabled and can be controlled remotely using an Android or iOS device, and the hardware version is designed for indoor applications. It comes with a 14 ft (4.67 m) cable, while the other two feature 20 ft (6.1 m) cables. ClipperCreek HCS-40P ClipperCreek is well-known for producing some of the most durable and reliable EV chargers, and the HCS-40p is no exception. This charger comes in as a plug-in or hardwired unit and produces 32 Amps. The charger comes with a 25 ft (7.62 m) long cable for versatile mounting. The external casing is rated NEMA-4, meaning it’s designed to withstand harsh elements. The remote connector holster is also easy to locate – you can quickly find the charge port from pretty far away. The dual-connector construction means you can charge 2 EVs simultaneously. And, installation is pretty simple, thanks to the long lag bolts included in the package.  The outside panel comes with display lights that indicate when the unit has power and when it’s charging, and two trouble lights that show when the charger is faulty. Blink HQ 100 The value-priced HQ 100 EV charger comes with a handy hook for easy installation and usage. Wider than other high-end charging stations, the HQ 100 comes with a control panel and a button that allows you to delay the start of charging. But there are even more selling points. For example, the charger is categorized as level 2 and produces 30 Amps, meaning it’s six times faster than the standard chargers that come with most vehicles. I also find the automatic resumption of charging after a power outage as an impressive feature worth mentioning. For safe mounting, the package includes a wall-mounting bracket. The stylish yet simple design allows you to use the charger without an application or home network. The cons? Non-Tesla electric vehicles won’t benefit from the high amperage since most of them can’t funnel higher currents. Bosch Level 2 EV Charger If you’re looking for a solid charging station, then the Level 2 EV charger from Bosch will never disappoint! The charger comes with a sleek, compact design and is made for any EV that meets the J1772 standard. That Bosch pushes the envelope in the production of high-end charging stations is evident in the charger’s NEMA 3R enclosure that’s weather-resistant and versatile and the product’s high-quality features that exceed international standards.   The charger comes with a thermal sensor that prevents overheating and LED lights that