Leaf Box is a range extender controlling load applied to engine via throttle control. Adobe br download. No problems with warranty - undetectable by dealer. It is easy to install, as it uses factory plugs. It delivers following extensions to standard Nissan Leaf:
Thus, the provider leaf will learn 192.168.1.1 through the service node leaf VTEP IP, even though 192.168.1.1 is actually under a different leaf. If you disable data-plane learning on Svc-internal-BD, the bridge domain for the provider side of PBR node, the provider leaf doesn't learn 192.168.1.1 through the traffic from the PBR node. A forklift (also called lift truck, jitney, fork truck, fork hoist, and forklift truck) is a powered industrial truck used to lift and move materials over short distances. The forklift was developed in the early 20th century by various companies, including Clark, which made transmissions, and Yale & Towne Manufacturing, which made hois. 1991 5 Leaf Click to see substitution Items: Not In Stock (List Price 228.73) C186 Reed Kit Johnson/Evinrude V8 6 Petal. Johnson/Evinrude V4 V6 Cross Ref #: 317739 Mfg Part #: 317739 In Stock (List Price 15.99) 479 Gasket, Leaf Plate Johnson/Evinrude 25/35hp 2 Cyl. Results driven IT services for the modern business. Managed Services, IT Support, Cyber Security, Disaster Recovery, Cloud Solutions, Hybrid Cloud. Coronavirus communication – LEAF. Hybrid Cloud: What it can do for you. 10 Ways to Prevent Cyber Attacks. Webinar – SharePoint and OneDrive for Business.
- range extender – it bases on adding „N-mode on demand' (aka glide mode) to D-mode, along with alternative torque delivery strategy (read below). Range extension is around 10% (ECO mode, 24kWh/30kWh battery). With normal mode, Leaf Box is off.
- mimic of some functions of 'e-pedal' from new Nissan Leaf 2018 is possible.
- the regenerative force at D mode can be increased by about 20% (from 20kW to 24kW). If you have the version of Nissan Leaf with B mode - lucky you. But I can have B-mode even in the basic version of Leaf.
- max power of Leaf can be increased from 80kW to 83kW (option).
- works also for e-NV200
Alternative accelerator pedal interpretation for efficiency
Until now all Leafs have simple 'accelerator pedal (acc) position → power' transition. The position of an accelerator pedal is converted to power demand. This we can see at energy usage panel in the car, but I have verified that also with a chassis dyno.
This method suffers from two negative effects:
- Acceleration of the car is not stable at all. The car first speeds up better, then falls down with acceleration – as acceleration simply depends on torque, and because car has almost constant power for any rpm and any desired acc pedal position – it is logical that torque MUST go down (see graph – thin lines in the big graph – torque of car (=acceleration) for various acc pedal positions (verified with dyno).
- Some parts of our acceleration are not crossing optimal motor efficiency (red and orange areas). In some areas it is impossible, but of course, everything can be optimized.
Conclusion:
I have prepared an alternative power demand curve (presented as the bold line in the small graph vs. thin line with same colour – factory) that promotes two things: more constant acceleration and more efficiency.
Constant acceleration is, in my humble opinion, something perfect for our Leafs. I have been driving for few days with this setup – it is so nice that now when I press the pedal to some position – acceleration is much more stable. There is no rapid power demand, and power demand changes in time (as the power is now not constant, but rather torque is more constant). This is visible on the power usage panel.
Remaining more in the optimal efficiency area – this is a 'side effect', as we have 'constant torque' strategy instead of 'constant power' strategy. I cannot say whether or not this will extend the range (or maybe a bit) because I haven't tried this on my test route.
For acc pedal levels over 70% torque demand curve becomes increasingly „constant power' type. For 100% pedal, it is just factory 100% power line, not altered.
Below 30% of acc pedal, I have used less flat torque curves (not shown on the graph) because of the need for a jump start at lights or crossroads.
Nissan Leaf LeafBox feature of N-mode on demand. While driving in D-mode you can almost remove the leg from acc pedal. LeafBox will set motor power to exactly zero (0 kWh) so you will be rolling without energy conversions. This increases efficiency with long distance trips and is good for overall range (autonomy). Power gauge is visible on right side.
Nissan Leaf LeafBox feature of N-mode on demand. While driving in D-mode you can almost remove leg from acc pedal. LeafBox will set motor power to exactly zero (0 kWh) so you will be rolling without energy conversions. This increases efficiency with longer distance trips and is good for overall range (autonomy). Power gauge is visible on right side.
Box can be ordered worldwide. We accept PayPal as a method of payment. Delivery via courier. Warranty: 2 years, Money Back Guarantee: 14 days
Price: € 236 net.
EU citizens need to provide valid VAT number for tax exemption. Non EU citizens pay net price.
Shipping included (in EU). Proxifier 2 14 download free.
Shipping outside EU: +35 Eur.
Deliveries for USA/Canada will be provided from our new distribution center in Lake in the Hills, IL.
Free standard shipping or DHL Express service (extra fee).
Leaf Box – FAQ
- Do you ship to USA?
Yes, we ship to USA. - What modelyears and versions of Nissan Leaf is Leaf Box compatible?
All. It does not matter if it is first (up to 2012) or second gen (2013+) of Nissan Leaf / e-NV200, both battery sizes (24kWh and 30 kWh). - Can it be detected by the dealer/car manufacturer?
No. There is no risk for warranty as it is undetectable. - Is that difficult to install Leaf Box?
No. You can do that within few minutes, without any car modification. Box uses factory plugs. - Is there any risk for battery?
No. Battery works with same maximum current as designed by factory. In fact, smoother power control and low speed reduced energy drain in ECO mode helps battery to be more durable (and thus - increases range). Using Leaf Box is good for battery life. - Is the range increased?
Yes. You will observe up to 10% better range in ECO mode. This is caused by more sophisticated and precise electric power applying, and gliding (N-mode on demand) functionality + slightly increased regen in D-mode. Battery is not drained to lower level, than factory designed. - Is that legal to use Leaf Box?
As there are no car permanent modifications, modifications of power, emissions, safety – there are no reasons for such solutions to be illegal (like for car alarms or other additional equipment). - Can I return Leaf Box?
In additional to your Statutory Warranty (2 years) we offer a 14 Day Money Back Guarantee. If for any reason you are unsatisfied with Leaf Box, please contact us within 14 days of taking delivery, and organise to return the product and receive a refund. Product must be undamaged. - I have another question concerning Leaf Box
Contact us via support chat. - Do they have certification?
Yes, CE approval, E20 10R-03 2680
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Price
United Kingdom | £26,845 |
The Netherlands | €36,990 |
Germany | €29,234 |
Availability
United Kingdom | In production |
The Netherlands | In production |
Germany | In production |
Real Range between 155 - 325 km
City - Cold Weather | 215 km |
Highway - Cold Weather | 155 km |
Combined - Cold Weather | 185 km |
City - Mild Weather | 325 km |
Highway - Mild Weather | 200 km |
Combined - Mild Weather | 250 km |
Performance
Acceleration 0 - 100 km/h | 7.9 sec |
Top Speed | 144 km/h |
Electric Range | 220 km |
Total Power | 110 kW (150 PS) |
Total Torque | 320 Nm |
Drive | Front |
Battery and Charging
Battery Useable* | 36.0 kWh |
Europe
Charge Port | Type 2 |
Port Location | Front - Middle |
Charge Power | 3.6 kW AC |
Charge Time (0->220 km) | 11h45m |
Charge Speed | 19 km/h |
Fastcharge Port | CHAdeMO |
FC Port Location | Front - Middle |
Fastcharge Power (max) | 46 kW DC |
Fastcharge Time (22->176 km) | 40 min |
Fastcharge Speed | 230 km/h |
Energy Consumption
EVDB Real Range
CO2 Emissions | 0 g/km |
Vehicle Fuel Equivalent | 1.8 l/100km |
NEDC Ratings
Range | 350 km |
Rated Consumption | 152 Wh/km |
Vehicle Consumption | 103 Wh/km |
CO2 Emissions | 0 g/km |
Rated Fuel Equivalent | 1.7 l/100km |
Vehicle Fuel Equivalent | 1.2 l/100km |
WLTP Ratings
Range | 270 km |
Rated Consumption | 206 Wh/km |
Vehicle Consumption | 133 Wh/km |
CO2 Emissions | 0 g/km |
Rated Fuel Equivalent | 2.3 l/100km |
Vehicle Fuel Equivalent | 1.5 l/100km |
Vehicle = calculated battery energy consumption used by the vehicle for propulsion and on-board systems.
Real Energy Consumption between 111 - 232 Wh/km
City - Cold Weather | 167 Wh/km |
Highway - Cold Weather | 232 Wh/km |
Combined - Cold Weather | 195 Wh/km |
City - Mild Weather | 111 Wh/km |
Highway - Mild Weather | 180 Wh/km |
Combined - Mild Weather | 144 Wh/km |
Safety (Euro NCAP)
Rating Year | 2018 |
Vulnerable Road Users | 71% |
Safety Assist | 71% |
Dimensions and Weight
Length | 4490 mm |
Width | 1788 mm |
Height | 1530 mm |
Wheelbase | 2700 mm |
Weight Unladen (EU) | 1580 kg |
Gross Vehicle Weight (GVWR) | 1995 kg |
Cargo Volume | 435 L |
Cargo Volume Max | 1176 L |
Towing Weight Unbraked | 0 kg |
Towing Weight Braked | 0 kg |
Roof Load | 35 kg |
Max. Payload | 490 kg |
Miscellaneous
Seats | 5 people |
Isofix | Yes, 3 seats |
Turning Circle | 10.6 m |
Similar electric vehicles
Leaf V4 5 Download
Home and Destination Charging (0 -> 100%)
Charging is possible by using a regular wall plug or a charging station. Public charging is always done through a charging station. How fast the EV can charge depends on the charging station (EVSE) used and the maximum charging capacity of the EV. The table below shows all possible options for charging the Nissan Leaf. Each option shows how fast the battery can be charged from empty to full.
Europe
Charging an EV in Europe differs by country. Some European countries primarily use 1-phase connections to the grid, while other countries are almost exclusively using a 3-phase connection. The table below shows all possible ways the Nissan Leaf can be charged, but some modes of charging might not be widely available in certain countries.
Type 2 (Mennekes - IEC 62196) |
---|
Charging Point | Max. Power | Power | Time | Rate |
---|---|---|---|---|
Standard 3.6 kW On-Board Charger | ||||
Wall Plug (2.3 kW) | 230V / 1x10A | 2.3 kW | 18h30m | 12 km/h |
1-phase 16A (3.7 kW) | 230V / 1x16A | 3.6 kW † | 11h30m | 19 km/h |
1-phase 32A (7.4 kW) | 230V / 1x16A | 3.6 kW † | 11h45m | 19 km/h |
3-phase 16A (11 kW) | 230V / 1x16A | 3.6 kW † | 11h45m | 19 km/h |
3-phase 32A (22 kW) | 230V / 1x16A | 3.6 kW † | 11h45m | 19 km/h |
Optional 6.6kW On-Board Charger * | ||||
Wall Plug (2.3 kW) | 230V / 1x10A | 2.3 kW | 18h30m | 12 km/h |
1-phase 16A (3.7 kW) | 230V / 1x16A | 3.7 kW | 11h30m | 19 km/h |
1-phase 32A (7.4 kW) | 230V / 1x29A | 6.6 kW † | 6h30m | 34 km/h |
3-phase 16A (11 kW) | 230V / 1x16A | 3.7 kW † | 11h30m | 19 km/h |
3-phase 32A (22 kW) | 230V / 1x29A | 6.6 kW † | 6h30m | 34 km/h |
† = Limited by on-board charger, vehicle cannot charge faster.
* = Optional in some countries, standard in others. Check local specifications for details.
Fast Charging (10 -> 80%)
Leaf V4 50
Rapid charging enables longer journeys by adding as much range as possible in the shortest amount of time. Charging power will decrease significantly after 80% state-of-charge has been reached. A typical rapid charge therefore rarely exceeds 80% SoC. The rapid charge rate of an EV depends on the charger used and the maximum charging power the EV can handle. The table below shows all details for rapid charging the Nissan Leaf.
Leaf V4 5 Mod
- Max. Power: maximum power provided by charge point
- Avg. Power: average power provided by charge point over a session from 10% to 80%
- Time: time needed to charge from 10% to 80%
- Rate: average charging speed over a session from 10% to 80%
Europe
CHAdeMO |
---|
Charging Point | Max. Power | Avg. Power | Time | Rate |
---|---|---|---|---|
CHAdeMO (50 kW DC) | 46 kW † | 40 kW † | 40 min | 230 km/h |
Charge Curve |
---|
Data made available by Fastned |
† = Limited by charging capabilities of vehicle Typerider 1 0 1.
Actual charging rates may differ from data shown due to factors like outside temperature, state of the battery and driving style.
Preceding model
The model shown on this page is the successor of the Nissan Leaf 24 kWh, which was available from June 2013 until February 2018. The previous model had 90 km less range, 46% slower acceleration and was 3% less energy efficient.
Charging an EV in Europe differs by country. Some European countries primarily use 1-phase connections to the grid, while other countries are almost exclusively using a 3-phase connection. The table below shows all possible ways the Nissan Leaf can be charged, but some modes of charging might not be widely available in certain countries.
Type 2 (Mennekes - IEC 62196) |
---|
Charging Point | Max. Power | Power | Time | Rate |
---|---|---|---|---|
Standard 3.6 kW On-Board Charger | ||||
Wall Plug (2.3 kW) | 230V / 1x10A | 2.3 kW | 18h30m | 12 km/h |
1-phase 16A (3.7 kW) | 230V / 1x16A | 3.6 kW † | 11h30m | 19 km/h |
1-phase 32A (7.4 kW) | 230V / 1x16A | 3.6 kW † | 11h45m | 19 km/h |
3-phase 16A (11 kW) | 230V / 1x16A | 3.6 kW † | 11h45m | 19 km/h |
3-phase 32A (22 kW) | 230V / 1x16A | 3.6 kW † | 11h45m | 19 km/h |
Optional 6.6kW On-Board Charger * | ||||
Wall Plug (2.3 kW) | 230V / 1x10A | 2.3 kW | 18h30m | 12 km/h |
1-phase 16A (3.7 kW) | 230V / 1x16A | 3.7 kW | 11h30m | 19 km/h |
1-phase 32A (7.4 kW) | 230V / 1x29A | 6.6 kW † | 6h30m | 34 km/h |
3-phase 16A (11 kW) | 230V / 1x16A | 3.7 kW † | 11h30m | 19 km/h |
3-phase 32A (22 kW) | 230V / 1x29A | 6.6 kW † | 6h30m | 34 km/h |
† = Limited by on-board charger, vehicle cannot charge faster.
* = Optional in some countries, standard in others. Check local specifications for details.
Fast Charging (10 -> 80%)
Leaf V4 50
Rapid charging enables longer journeys by adding as much range as possible in the shortest amount of time. Charging power will decrease significantly after 80% state-of-charge has been reached. A typical rapid charge therefore rarely exceeds 80% SoC. The rapid charge rate of an EV depends on the charger used and the maximum charging power the EV can handle. The table below shows all details for rapid charging the Nissan Leaf.
Leaf V4 5 Mod
- Max. Power: maximum power provided by charge point
- Avg. Power: average power provided by charge point over a session from 10% to 80%
- Time: time needed to charge from 10% to 80%
- Rate: average charging speed over a session from 10% to 80%
Europe
CHAdeMO |
---|
Charging Point | Max. Power | Avg. Power | Time | Rate |
---|---|---|---|---|
CHAdeMO (50 kW DC) | 46 kW † | 40 kW † | 40 min | 230 km/h |
Charge Curve |
---|
Data made available by Fastned |
† = Limited by charging capabilities of vehicle Typerider 1 0 1.
Actual charging rates may differ from data shown due to factors like outside temperature, state of the battery and driving style.
Preceding model
The model shown on this page is the successor of the Nissan Leaf 24 kWh, which was available from June 2013 until February 2018. The previous model had 90 km less range, 46% slower acceleration and was 3% less energy efficient.
Preceding model
The model shown on this page is the successor of the Nissan Leaf 30 kWh, which was available from September 2015 until February 2018. The previous model had 50 km less range, 46% slower acceleration and was similar in energy consumption.