Modern electric bikes offer much more than basic pedal assistance. Many models allow riders to customize motor power, speed limits, pedal-assist sensitivity, acceleration response, torque output, throttle behavior, and display preferences.
Understanding these advanced e-bike settings can help you achieve a smoother ride, extend battery range, improve hill-climbing performance, and make your electric bike more comfortable to control.
What are the best e-bike advanced settings? For most riders, a good starting point is moderate pedal assistance, smooth acceleration, a legally appropriate speed limit, and low-to-medium motor output for everyday travel. Higher assistance is useful for hills, heavy loads, and demanding terrain, but it generally consumes more battery energy.

This guide explains the most important advanced settings, offers recommended configurations for different riding conditions, and provides a real-world example using the Himiway D5 2.0 20" electric bike .
1. What Are E-Bike Advanced Settings?
E-bike advanced settings are configurable parameters that control how the bike's electric drive system responds to the rider.
Depending on the manufacturer, these settings may be accessible through:
- The handlebar-mounted LCD or color display.
- A password-protected settings menu.
- A smartphone application.
- Manufacturer-approved diagnostic or configuration software.
For example, Bosch supports customization of motor assistance, dynamics, power, torque, and maximum assisted speed through compatible eBike Flow systems. Himiway's D5 2.0 20" also offers configurable assistance and speed settings through its onboard display.
E-Bike Advanced Settings Chart
|
Advanced setting |
What it controls |
Recommended approach |
|---|---|---|
|
Pedal Assist Level (PAS) |
How much assistance the motor provides |
Low to medium for daily riding |
|
Speed Limit |
Maximum motor-assisted speed |
Follow local laws and bike classification |
|
Motor Power |
Available electrical motor output |
Moderate for normal riding |
|
Torque Output |
Maximum motor pulling force |
Lower for smooth riding; higher for hills |
|
Assist Ratio |
Motor assistance relative to rider input |
Lower for exercise and range |
|
Acceleration Response |
How quickly assistance builds |
Smooth or gradual |
|
Torque/Cadence Mode |
How the motor responds to pedaling |
Torque for natural control; cadence for easy cruising |
|
Throttle Settings |
Throttle availability and response |
Controlled, predictable operation |
|
Walk Assist |
Low-speed powered assistance while walking |
Manufacturer-default range |
|
Wheel Size Calibration |
Speed and distance calculation |
Match the specified tire configuration |
|
Backlight Brightness |
Screen visibility |
Adapt to ambient lighting |
|
Auto Power-Off |
Automatic display shutdown |
Approximately 5–10 minutes, if supported |
|
Battery Voltage |
Battery-system configuration |
Keep manufacturer-specified value |
|
Controller Current Limit |
Electrical current available to the motor |
Keep factory-approved setting |
|
Low-Voltage Cutoff |
Battery discharge protection |
Never lower below manufacturer specification |
Important: Not every e-bike supports these adjustments. Settings names, ranges, and functions vary between manufacturers and even between different display models. Some parameters are fixed by the controller or firmware.
2. E-Bike P Settings Explained (P01–P20)
Many electric bikes with generic LCD controllers use numbered parameters such as P01, P02, P03, and P04. These are commonly called e-bike P settings.
However, there is no universal P-setting standard. An SW900 display, LCD-D1 display, KT controller, and proprietary brand display may use entirely different menu structures.
The following chart describes one commonly documented P-setting layout found on certain SW900-style displays. It is not a universal chart and does not apply to the Himiway D5 2.0's proprietary menu.
|
P Setting |
Common Function |
Best Setting / Recommendation |
|---|---|---|
|
P01 |
Display brightness |
Medium for everyday use |
|
P02 |
MPH/KPH selection |
MPH for U.S. riders |
|
P03 |
Battery voltage |
Match the actual battery rating |
|
P04 |
Automatic shutdown timer |
5–10 minutes, if available |
|
P05 |
Number of PAS levels |
5 levels for flexible control |
|
P06 |
Wheel diameter |
Match manufacturer calibration |
|
P07 |
Speed sensor magnet count |
Factory setting |
|
P08 |
Maximum assisted speed |
Legal limit for bike and location |
|
P09 |
Zero-start / non-zero-start |
Non-zero start where supported |
|
P10 |
Pedal assist / throttle modes |
Follow the bike's legal configuration |
|
P11 |
PAS sensitivity |
Factory default, then adjust cautiously |
|
P12 |
PAS starting strength |
Lower setting for smoother acceleration |
|
P13 |
PAS sensor magnet configuration |
Factory setting |
|
P14 |
Controller current limit |
Factory-approved value |
|
P15 |
Reserved or battery protection |
Check model-specific manual |
|
P16 |
Odometer reset or factory reset |
Only when necessary |
|
P17 |
Cruise control or reset function |
Verify manufacturer function; leave cruise off unless needed |
|
P18 |
Speed display correction or another function |
Factory setting |
|
P19 |
Zero-assist configuration or another function |
Preserve safe PAS 0 operation |
|
P20 |
Communication protocol or another function |
Do not change without manufacturer instructions |
Notice that P15–P20 are especially inconsistent across displays. Even some earlier P numbers differ between systems.
For accurate information, consult the manual for your exact controller rather than copying an online P-setting chart from another e-bike.
3. Best E-Bike Advanced Settings Explained
3.1 Pedal Assist Levels: What Is the Best PAS Setting?
Pedal Assist System (PAS) settings determine how much electrical assistance the motor provides while you pedal.
On many five-level systems, the general progression is:
|
PAS Level |
Typical Riding Feel |
Best Use |
|---|---|---|
|
PAS 0 |
No pedal assistance |
Walking through crowded areas, exercise |
|
PAS 1 |
Minimal assistance |
Long-distance riding, flat roads |
|
PAS 2 |
Light assistance |
Relaxed cruising |
|
PAS 3 |
Moderate assistance |
Daily commuting, gentle hills |
|
PAS 4 |
Strong assistance |
Hill climbing, headwinds |
|
PAS 5 |
Maximum assistance |
Short demanding climbs, heavy loads |
These are functional descriptions, not standardized power percentages. Different controllers distribute motor assistance differently.
Best recommendation: Use PAS 1–2 for maximizing range, PAS 2–3 for typical commuting, and higher levels only when additional power is useful.
3.2 Maximum Speed Limit: 20 MPH vs. 28 MPH
The speed limit parameter controls the maximum speed at which the motor provides assistance.
In the United States, the widely used three-class framework generally distinguishes the following configurations:
|
E-Bike Class |
Pedal Assistance |
Throttle Operation |
|---|---|---|
|
Class 1 |
Up to 20 mph |
No independent throttle propulsion |
|
Class 2 |
Up to 20 mph |
Motor-only propulsion up to 20 mph |
|
Class 3 |
Up to 28 mph |
Requirements vary by jurisdiction; often pedal-assist-only |
For example, Washington law specifies that Class 3 assistance must occur only while pedaling and stop at 28 mph. Other states and local jurisdictions may differ in their definitions and permitted riding locations.
For everyday riding, a 20 mph motor-assist limit is a practical starting point, provided it matches the legal classification and intended operating conditions of the bike.
Do not assume that selecting 28 mph automatically makes any electric bike legally Class 3. The throttle configuration, labeling, equipment, and applicable laws also matter.
3.3 Motor Power and Controller Current
Motor power settings determine the amount of electrical power available for propulsion.
Electrical input power can be approximated using:
Power (W) = Voltage (V) × Current (A)
For example, a nominal 48V system drawing 15A has an approximate electrical input of:
48 × 15 = 720W
This calculation describes electrical input at the stated voltage and current. It is not the same as the motor's rated mechanical output, and actual battery voltage changes during use.
Increasing controller current may improve acceleration, but it also increases the electrical and thermal load on the battery, motor, controller, and connectors.
Best recommendation: Keep the factory controller current limit. Adjust riding-mode assistance rather than increasing hardware current limits to obtain stronger performance.
3.4 Torque Settings: How Much Torque Is Best?
Torque is the rotational force produced by the motor, commonly measured in newton-meters (Nm).
Higher available torque can help an electric bike accelerate or maintain assistance while climbing. However, actual hill-climbing performance also depends on gearing, wheel size, traction, motor characteristics, and operating speed.
|
Riding Condition |
Recommended Torque Profile |
|---|---|
|
Flat city roads |
Low to moderate |
|
Daily commuting |
Moderate |
|
Steep hills |
High, as needed |
|
Heavy cargo |
Moderate to high |
|
Wet or slippery roads |
Gentle response and controlled torque |
|
Loose gravel |
Progressive power delivery |
|
Long-distance touring |
Low to moderate |
For riders seeking predictable control, lowering the available assistance in lower riding modes is generally more useful than setting maximum torque for every mode.
3.5 Torque Sensor vs. Cadence Sensor
Two common pedal-assistance technologies are torque sensing and cadence sensing.
Torque sensor
Measures rider pedaling force. More pedal pressure generally produces more assistance, making control feel natural and proportional.
Cadence sensor
Detects pedal rotation. Depending on controller programming, the motor may provide a preset assistance level when pedaling is detected.
|
Feature |
Torque Sensing |
Cadence Sensing |
|---|---|---|
|
Motor response |
Proportional to pedaling effort |
Triggered by pedaling rotation |
|
Riding experience |
Natural, bicycle-like |
Consistent, easy assistance |
|
Power control |
Responsive to leg effort |
Depends more on selected PAS level |
|
Exercise |
Encourages active pedaling |
Allows relatively light pedaling effort |
|
Battery efficiency |
Can be efficient with moderate rider input |
Depends heavily on assist settings |
|
Best for |
Active riders, variable terrain |
Relaxed cruising, steady assistance |
Best recommendation: Choose torque sensing for natural pedal control, varied terrain, and active riding. Cadence sensing can be preferable when you want consistent assistance without needing to push hard on the pedals.
Neither system automatically guarantees longer battery life. Energy consumption depends on the actual power delivered.
3.6 Acceleration and Power Response
Acceleration response determines how aggressively the motor engages after detecting pedal or throttle input.
Typical configuration choices may include:
- Smooth or gradual response.
- Standard response.
- Fast or aggressive response.
Smooth acceleration is generally the best starting point because it helps reduce unexpected surges, especially in traffic and on low-traction surfaces.
Aggressive response may feel more powerful but can make the bicycle harder to control and increase short bursts of electrical demand.
3.7 Throttle Settings
Some e-bikes allow throttle behavior to be configured independently of pedal assistance.
Options may include throttle enable/disable, start behavior, and throttle speed restrictions.
For everyday riding, prioritize predictable throttle engagement and compliance with the bike's legally permitted class.
A non-zero-start throttle, where available, can reduce accidental acceleration from a standstill. Riders should not disable brake-cutoff protections or other safety interlocks.
3.8 Walk Assist, Display and Battery Settings
Walk assist provides limited motor power to help move a heavy electric bike while walking beside it.
Useful display settings include MPH/KPH selection, automatic power-off, brightness, voltage information, and trip data.
Battery-related values are different: nominal battery voltage, low-voltage protection, battery-management settings, and motor communication parameters should remain at their approved values.
These settings protect system compatibility and battery operation, so changing them simply to obtain additional speed or range is not recommended.
4. Best E-Bike Advanced Settings for Different Riding Conditions
There is no single configuration that provides maximum speed, minimum energy consumption, maximum hill-climbing performance, and maximum comfort simultaneously.
Instead, riders should choose settings that match their environment and priorities.
|
Riding Scenario |
PAS |
Sensor Preference |
Torque/Power |
Acceleration |
|---|---|---|---|---|
|
Daily commuting |
2–3 |
Torque or cadence |
Medium |
Smooth |
|
Maximum battery range |
1–2 |
Torque |
Low |
Smooth |
|
Steep hills |
3–5 |
Torque |
High when needed |
Controlled |
|
Heavy riders or cargo |
2–4 |
Torque |
Medium to high |
Smooth |
|
Beginners |
0–1 initially |
Torque |
Low |
Smooth |
|
Senior riders seeking easy assistance |
1–3 |
Depends on preference |
Low to medium |
Gentle |
|
Gravel and light trails |
2–3 |
Torque |
Medium |
Progressive |
|
Wet or slippery surfaces |
1–2 |
Torque |
Low |
Gentle |
|
Exercise and fitness |
0–2 |
Torque |
Low |
Smooth |
These are general starting points for five-level systems, not manufacturer-issued presets. Always test changes in a safe, open area.
Best Settings for Maximum Battery Range
If distance is your priority, choose lower assistance, accelerate gradually, and contribute more pedaling effort.
A lower speed can also reduce the energy required to overcome aerodynamic drag, particularly at higher riding speeds.
Best Settings for Hill Climbing
Use a higher PAS level when needed and select an appropriate mechanical gear. Avoid forcing the motor to maintain high power at very low speeds for extended periods, particularly if it becomes unusually hot.
Best Settings for Beginners and Seniors
Choose a gentle starting response and low initial assist. Increase assistance only after becoming comfortable with starting, turning, and braking.
For riders who prefer less physical effort, cadence mode may feel more comfortable; for those who prioritize precise pedal control, torque mode may be preferable.
5. Himiway D5 2.0 20" E-Bike Advanced Settings: Real Example
Himiway D5 2.0 20-Inch Electric Bike
The D5 2.0 20" provides a practical example of an electric bike with customizable riding modes and an advanced display.
Key specifications
- 750W geared hub motor
- 90 Nm maximum torque
- 48V 15Ah battery (720Wh)
- Five manual pedal-assist levels plus Auto mode
- Switchable torque/cadence sensing
- Adjustable motor assistance and speed
- 3.5-inch color display
Specifications: Himiway's official U.S. product page.
5.1 How to Access Advanced Settings on the Himiway D5 2.0 20"
Unlike generic P-setting displays, the Himiway D5 2.0 20" uses a named settings menu.
According to the official D5 2.0 20" U.S. owner's manual:
- Power on the e-bike while it is stationary.
- Press and hold the M (Function) button for approximately two seconds.
- Enter the documented settings password: 0510.
- Use the + and − buttons to select the digits, pressing M to advance and confirm.
- Choose the relevant settings category and adjust only the parameters you understand.
The main settings categories include General Settings, Assist Speed Setting, Assist Mode Setting, Safety Setting, and System and OTA.
Official reference: Himiway D5 2.0 20" Owner's Manual (PDF)
5.2 Himiway D5 2.0 20" Advanced Settings Chart
The official manual identifies these adjustable functions:
|
Settings Menu |
Available Options |
Recommendation |
|---|---|---|
|
General Settings |
Default assist level |
Start at low assistance |
|
General Settings |
Auto Assist |
Use for convenient automatic adjustment |
|
General Settings |
Screen brightness |
Comfortable visibility |
|
General Settings |
Unit setting |
MPH for U.S. riders |
|
General Settings |
Auto power-off time |
Enable a convenient timeout |
|
Assist Speed Setting |
E-Bikes Class |
Match local laws |
|
Assist Speed Setting |
Maximum assist speed |
Stay within permitted speed |
|
Assist Speed Setting |
Walk assist speed |
Keep a safe low-speed setting |
|
Assist Speed Setting |
Throttle setting |
Maintain legal operation |
|
Assist Mode Setting |
Assist torque |
Factory default initially |
|
Assist Mode Setting |
Assist ratio |
Factory default initially |
|
Assist Mode Setting |
Power response tuning |
Smooth for daily use |
|
Assist Mode Setting |
Torque/cadence switch |
Select preferred riding feel |
|
Assist Mode Setting |
Cruise control |
Keep disabled unless specifically needed |
|
System and OTA |
System information |
Check when troubleshooting |
|
System and OTA |
Factory reset |
Use only when necessary |
The manual also specifies a maximum assist-speed adjustment range dependent on classification and a walk-assist range of approximately 3–6 km/h. Menu availability can change with hardware or firmware versions.
5.3 Official Himiway Torque Settings: ECO+ to TURBO
One particularly useful feature is the ability to customize the maximum torque associated with each assistance level.
The following values are taken directly from the D5 2.0 20" U.S. owner's manual.
|
Assist Mode |
Default Max Torque |
Adjustable Choices |
|---|---|---|
|
ECO+ |
18 Nm |
18, 23, 27 Nm |
|
ECO |
36 Nm |
32, 36, 41, 45 Nm |
|
TOUR |
54 Nm |
50, 54, 59, 63 Nm |
|
SPORT |
72 Nm |
68, 72, 77 Nm |
|
TURBO |
90 Nm |
81, 86, 90 Nm |
These values describe the configurable torque limits for the listed riding modes, not the torque produced continuously throughout a ride.
For most owners, the factory configuration is a sensible starting point. Riders seeking gentler assistance can experiment with lower approved values in the modes they use most frequently.
5.4 Himiway Assist Ratio Settings
The D5 2.0 20" also allows riders to adjust assistance ratios. In torque-sensing operation, these represent the relationship between rider pedaling torque and motor assistance.
|
Assist Mode |
Factory Ratio |
Adjustable Range |
|---|---|---|
|
ECO+ |
100% |
80–150% |
|
ECO |
200% |
160–250% |
|
TOUR |
300% |
260–350% |
|
SPORT |
400% |
360–450% |
|
TURBO |
500% |
460–550% |
Source: Himiway D5 2.0 20" official owner's manual .
A 200% assist ratio represents a nominal motor torque contribution twice the rider's input torque, subject to the motor's programmed torque, power, and speed limitations.
It does not mean that the motor continuously operates at twice its rated wattage.
Suggested approach: Begin with the factory ratios. If the assistance feels too strong in ECO or TOUR, reduce that specific ratio within the manufacturer-approved range and test the result.
5.5 Best Himiway Advanced Settings by Riding Style
|
Riding Style |
Preferred Mode |
Main Recommendation |
|---|---|---|
|
Daily commute |
ECO / TOUR |
Factory torque and smooth response |
|
Long-distance ride |
ECO+ / ECO |
Lower available torque and assistance |
|
Hills |
TOUR / SPORT |
Increase assistance only as needed |
|
Gravel and light trails |
ECO / TOUR |
Torque sensing and progressive response |
|
Comfortable cruising |
ECO / TOUR |
Try cadence mode |
|
Beginner riding |
PAS 0–1 |
Gentle engagement and low power |
|
Automatic assistance |
Auto |
Let the bike adapt assistance to conditions |
These are suggested riding profiles, not Himiway-certified performance presets.
The D5 2.0 20" supports switching between torque and cadence sensing with a long press of M while riding. The manual also allows a persistent preference to be selected in the settings menu. Temporary switching may revert to that saved preference after restarting.
6. Best E-Bike Settings for Maximum Battery Range
The most effective way to extend e-bike range is to manage how much electrical energy is consumed per mile.
Battery capacity is commonly expressed in watt-hours (Wh).
Battery Capacity (Wh) = Voltage (V) × Capacity (Ah)
For the Himiway D5 2.0 20":
48V × 15Ah = 720Wh
A simple estimate of theoretical riding distance is:
Estimated Range (miles) = Battery Capacity (Wh) ÷ Average Energy Use (Wh/mile)
The table below illustrates how energy consumption influences potential distance.
|
Average Energy Use |
Theoretical Range With 720Wh |
|---|---|
|
10 Wh/mile |
72 miles |
|
15 Wh/mile |
48 miles |
|
20 Wh/mile |
36 miles |
|
25 Wh/mile |
28.8 miles |
|
30 Wh/mile |
24 miles |
These are mathematical examples, not measured performance results. Real-world usable capacity and range vary with speed, terrain, rider weight, tire pressure, temperature, wind, and battery condition.
Himiway advertises up to 70 miles with pedal assistance and up to 40 miles using the throttle for the D5 2.0 20". Actual results depend on riding conditions.
To improve range, prioritize lower assistance on flat terrain, smoother acceleration, appropriate tire inflation, and consistent pedaling. Avoid relying on maximum power throughout the ride.
7. How to Optimize Your E-Bike Advanced Settings Safely
Changing too many settings simultaneously makes it difficult to understand how each adjustment affects performance.
A safer tuning process is:
- Read the correct manual. Confirm your bike model, display version, and settings definitions.
- Record the original values. Photograph each screen before making adjustments.
- Choose one riding goal. For example, smoother acceleration, easier climbing, or more range.
- Change one supported parameter. Start with a small change within the manufacturer-approved range.
- Test on a safe route. Verify acceleration, braking response, speed display, and motor-assist cutoff.
- Monitor battery use and ride quality. Compare similar routes under similar conditions.
- Restore the original value if necessary. Do not continue using a setting that produces unexpected behavior.
Avoid unofficial firmware modifications, speed-sensor manipulation, or changes that defeat battery, braking, or motor protections. Bosch specifically warns that unauthorized tuning can introduce mechanical, electrical, legal, and warranty risks.
8. Common E-Bike Advanced Settings Problems and Fixes
|
Problem |
Possible Cause |
Recommended Action |
|---|---|---|
|
E-bike accelerates too aggressively |
High starting assistance |
Lower PAS or response setting |
|
Battery drains quickly |
High motor assistance or sustained high speeds |
Reduce PAS and monitor consumption |
|
Motor assistance feels weak |
Low PAS, power limit, or system issue |
Check settings and battery state |
|
Displayed speed is inaccurate |
Incorrect wheel calibration or sensor problem |
Verify against the manufacturer's configuration |
|
PAS feels delayed |
Sensor settings or system fault |
Check approved sensitivity settings |
|
Throttle does not work |
Throttle disabled, brake cutoff active, or fault |
Check permitted configuration and troubleshooting guide |
|
Bike shuts down unexpectedly |
Battery, wiring, temperature, or electrical fault |
Stop riding and diagnose safely |
|
Cannot open advanced settings |
Incorrect menu procedure or firmware differences |
Refer to the exact display manual |
|
Motor keeps assisting unexpectedly |
Sensor or controller issue |
Stop riding and have the system checked |
Some apparent settings problems are actually hardware faults. An error code, intermittent power loss, or abnormal motor behavior should not be treated as a reason to raise controller current or change battery protection settings.
9. Best E-Bike Advanced Settings vs. Factory Settings: Should You Change Them?
Factory settings are typically designed to balance performance, safety, reliability, and compliance for the intended market.
Advanced customization is most valuable when it helps the bike better match the rider's actual needs.
|
Factor |
Factory Settings |
Custom Advanced Settings |
|---|---|---|
|
Ease of use |
Ready to ride |
Requires adjustment and testing |
|
Power delivery |
Manufacturer-selected |
Can be adapted within allowed limits |
|
Comfort |
General-purpose behavior |
More personalized response |
|
Battery efficiency |
Balanced by design |
Can improve with restrained assistance |
|
Technical risk |
Generally lower |
Depends on what is changed |
|
Legal compliance |
Intended for specified market |
Must be rechecked after changes |
Best practice: Keep protected system values at their factory settings and prioritize rider-accessible adjustments such as PAS, assist response, and approved torque or support levels.
10. Choosing an E-Bike With Customizable Settings: Himiway Black Friday 2026
Advanced settings are worth considering when shopping for a new electric bike, especially if you expect to use it for commuting, recreation, and longer rides.
The Himiway D5 2.0 20" is one option for riders who want configurable assistance, switchable pedal-sensor modes, full suspension, and wide tires for mixed terrain.
Himiway Black Friday E-Bike Deals 2026
$1,999
D5 2.0 20" advertised price, compared with a listed price of $2,199.
The 2026 Black Friday promotion includes selected e-bike discounts and limited qualifying free-gift offers. Offers and inventory may change, and discounts cannot necessarily be combined with gifts.
The official collection lists the event throughout November 2026. Check the current product and campaign terms before ordering.
11. Frequently Asked Questions About E-Bike Advanced Settings
What are the best advanced settings for an e-bike?
For most riders, moderate PAS, gentle acceleration, factory-approved torque limits, and a legally appropriate speed limit are a good combination.
What is the best PAS level for an e-bike?
PAS 2–3 on a typical five-level system is a practical starting point for commuting. Lower assistance generally favors range, while higher assistance is useful for hills or additional load.
How do I unlock the advanced settings on my e-bike?
The process depends on the display. Some generic LCD controllers use button combinations, while proprietary systems use dedicated menus. The Himiway D5 2.0 20" uses its M button and a password-protected menu, as documented in its official manual.
Can I make my e-bike faster through advanced settings?
Some e-bikes allow adjustments to motor-assist cutoff speed within approved limits. However, any change must comply with the bike's legal classification and the rules of the location where it is used. Raising the displayed speed limit does not necessarily increase the motor's physical capability.
Does changing advanced settings affect battery life?
Yes, indirectly. Higher assistance and aggressive acceleration can increase energy consumption and reduce range per charge. Excessively increasing electrical current beyond approved specifications can also place additional stress on the system.
Should I change the controller current limit?
Generally, no. Unless the manufacturer specifically authorizes it, retain the factory current limit. Controller current is a hardware protection and performance parameter, not a normal rider comfort adjustment.
Is torque mode better than cadence mode?
Torque mode offers more proportional pedal assistance, while cadence mode can provide consistent motor support with relatively little pedaling effort. The better choice depends on the rider's comfort, terrain, and goals.
Can I reset my e-bike to factory settings?
Many displays support a factory reset. Before resetting, record your current configuration and consult the correct manual. A reset may erase customized settings and may not repair an underlying hardware fault.