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TMOTOR VL1028 Drone Power System Kit

  • $120.00
  • $2,258.00
  • Availibility: In Stock

VL1028 Power System for VTOL Drones Core Overview The VL1028 is a member of the T-MOTOR VL series power system, specifically designed for the rotor power needs of Vertical Take-Off and Landing (VTOL) unmanned aerial vehicles. The kit, in a quadrotor config

SKU:  MVX3196055064 Category:
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VL1028 Power System for VTOL Drones

Core Overview

The VL1028 is a member of the T-MOTOR VL series power system, specifically designed for the rotor power needs of Vertical Take-Off and Landing (VTOL) unmanned aerial vehicles. The kit, in a quadrotor configuration, is recommended for a takeoff weight of 45~50kg, with a maximum single-axis thrust of 25.6kg. It provides stable, intelligent vertical takeoff and landing power for 45~50kg class VTOL fixed-wing or multi-rotor drones, ensuring flight safety throughout all phases from takeoff, mode transition, to landing.

Core Technology Advantages

Built for VTOL Fixed-Wing: Mag-Coded Prop Braking, Energy-Saving, Reliable

Fast (Second-Level Braking): Supports 360 customizable angle propeller braking, effectively avoiding airflow disturbance caused by rotor rotation, ensuring the aerodynamic layout of the fixed-wing aircraft is unaffected, thereby enhancing flight safety.

Economical (Adaptive Braking): According to changes in external force, the ESC automatically adjusts the current to control the braking torque, reducing power consumption and heat generation, achieving energy-saving effects.

FOC Vector Control

Adopts FOC (Field-Oriented Control) technology, achieving more delicate and precise control, thereby ensuring highly stable power output, offering comprehensive advantages of responsive, precise control, efficient drive, and low-noise operation.

Small Thrust Drop Ratio Under Voltage Drop

In the face of voltage drop, it can maintain small thrust fluctuations, demonstrating excellent stability. This keeps the throttle increase amplitude at a lower level, thus providing larger control redundancy, significantly improving safety during landing.

Supports CAN2.0 Protocol, Intelligent and Convenient

Plug and Play: This ESC supports the DroneCAN/CAN2.0 protocol, fully compatible with the PX4 flight control system, offering plug-and-play convenience.

Remote Monitoring: Remote real-time monitoring of the ESC’s working status through the flight control system ensures the system is always in optimal working condition.

Usage Recommendations

  • Accurate Model and Weight Matching: This kit is designed for VTOL drones. In a quadrotor configuration, strictly control the entire aircraft’s takeoff weight within the recommended range of 45~50kg to match its single-axis maximum thrust of 25.6kg and ensure a safety margin.
  • Pay Attention to Cooling Conditions: Both the “Maximum Current (10s) 220A” and “Maximum Continuous Current 120A” in the ESC parameters are marked as achieved “under certain cooling conditions.” Ensure the power system is installed in a well-ventilated location within the aircraft; otherwise, continuous performance will be compromised, and lifespan will be affected.
  • Make Good Use of Propeller Braking: For VTOL fixed-wing aircraft, make full use of its 360 propeller braking function. After transitioning to fixed-wing mode, locking the propellers in the direction of least drag can significantly improve aerodynamic efficiency and endurance.

Product Parameters

Basic Parameters

Parameter Item Parameter Value
Motor Model VL1028
Magnet Temperature Rating 180
Motor Dimensions 109.6 * 52.5mm
Wire Gauge * Length Enameled Wire 150mm
Stator Process 150 High-Temperature Coating
Enameled Wire Temp. Rating 220
Slot/Pole Count 24N28P
Coil Withstand Voltage 1000V/5s
Shaft Diameter IN:12mm OUT:10mm
Rotor Dynamic Balance Standard 15mg
Bearing Model Imported 6901 Bearing
Protection Level IPX5
Centrifugal Cooling Yes
Package Dimensions 190 * 140 * 80mm
Model VL1028
KV (RPM/V) 190
Recommended Battery 12S
No-load Current (15V) 3.8A
Internal Resistance (25) 8m
Maximum Current 180A
Maximum Continuous Power 2312W
Operating Environment Temp. -30~55
Maximum Thrust 25.6kg
Motor Weight (with wires) 940g

ESC Parameters

Parameter Item Parameter Value
Model V200A
Control Method PWM / CAN
Maximum Voltage 60V
Communication Method DRONE CAN / UAV CAN
Maximum Current (10s) 220A (under certain cooling conditions)
Propeller Braking Method Electronic Braking
Maximum Continuous Current 120A (under certain cooling conditions)
Encoder Wire Shielded Wire-Black-24AWG-5C -42010mm-M6 Aviation Plug
Standby Power Consumption 50mA
Output Wire Silicone Wire-Orange-14AWG -21010mm
Throttle Range 1100~1940us (Fixed)
Input Wire Silicone Wire-Red/Black-12AWG -114010mm
Throttle Refresh Frequency 50~500Hz
Signal Wire -77010mm-JP-3P*2
Black White Green Yellow Gray
Throttle Response Time 300ms
Weight (with wires) 49510g

Propeller Parameters

Parameter Item Parameter Value
Model G29 * 9.5 inch (736.6 * 241.3mm)
Weight 955g

VL1028 Kit Test Data Tables

VL1028 Kit Test Data (KV190 + V200A 14S + G29 * 9.5, Test Voltage 44.4V)

Throttle Voltage (V) Thrust (g) Torque (N*m) Current (A) RPM Power (W) Efficiency (g/W) Motor Temp. ()
40% 44.71 5565 1.82 14.61 2743 653 8.52
42% 44.67 6080 1.98 16.62 2879 742 8.19
44% 44.64 6664 2.18 18.92 3011 844 7.89
46% 44.61 7279 2.37 21.37 3143 953 7.64
48% 44.59 7893 2.56 24.00 3273 1070 7.37
50% 44.57 8603 2.79 27.01 3398 1204 7.15
52% 44.54 9236 3.01 30.10 3526 1341 6.89
54% 44.51 9881 3.22 33.33 3649 1484 6.66
56% 44.47 10574 3.45 36.82 3768 1637 6.46
58% 44.42 11284 3.68 40.61 3885 1804 6.25
60% 44.36 12071 3.93 44.66 3999 1981 6.09
62% 44.30 12814 4.18 48.95 4107 2168 5.91
64% 44.25 13501 4.40 53.14 4217 2351 5.75
66% 44.18 14222 4.64 57.76 4324 2552 5.57
68% 44.11 14949 4.89 62.59 4430 2761 5.41
70% 44.04 15640 5.14 67.69 4532 2981 5.25
80% 43.74 19280 6.35 96.45 5021 4219 4.57
90% 43.88 22918 7.58 135.09 5466 5928 3.86
100% 43.31 24564 8.13 177.33 5638 7679 3.20

Note: Motor temperature 68 is the motor case temperature after running at 44.4V, 75% throttle for 10 minutes.

VL1028 Kit Test Data (KV190 + V200A 14S + G29 * 9.5, Test Voltage 50V)

Throttle Voltage (V) Thrust (g) Torque (N*m) Current (A) RPM Power (W) Efficiency (g/W)
40% 50.25 7075 2.31 18.25 3089 917 7.72
42% 50.21 7766 2.54 20.91 3238 1050 7.39
44% 50.16 8472 2.77 23.76 3384 1192 7.11
46% 50.11 9199 3.01 26.89 3532 1348 6.82
48% 50.07 10007 3.27 30.21 3672 1512 6.62
50% 50.02 10786 3.53 33.84 3808 1693 6.37
52% 49.97 11579 3.79 37.76 3944 1887 6.13
54% 49.92 12431 4.07 41.97 4075 2095 5.93
56% 49.85 13296 4.35 46.38 4203 2312 5.75
58% 49.78 14139 4.63 51.02 4330 2540 5.56
60% 49.72 14996 4.91 55.88 4452 2778 5.40
62% 49.65 15826 5.20 60.98 4577 3028 5.23
64% 49.59 16622 5.47 66.30 4693 3288 5.05
66% 49.53 17552 5.77 72.19 4802 3575 4.91
68% 49.46 18445 6.07 78.32 4910 3874 4.76
70% 49.40 19313 6.36 84.64 5016 4181 4.62
80% 49.07 23351 7.74 120.83 5495 5929 3.94
90% 49.21 24306 8.11 152.31 5600 7495 3.24
100% 49.23 25609 8.54 158.17 5735 7787 3.28

Frequently Asked Questions (FAQ)

Q: What is the main application scenario for the VL1028 power system kit?

A: This kit is specifically designed for Vertical Take-Off and Landing (VTOL) unmanned aerial vehicles. It is particularly suitable for VTOL fixed-wing or multi-rotor drones with a takeoff weight of 45~50kg in a quadrotor configuration, providing core power for the vertical takeoff and landing phases.

Q: What exactly does “Mag-Coded Prop Braking” in the promotion mean, and what are the benefits?

A: “Mag-Coded Prop Braking” refers to electronic propeller braking achieved through a magnetic encoder. Its benefits are: 1) Fast: Enables second-level 360 locking at any angle, avoiding rotor airflow interference during cruise; 2) Economical: The ESC can adaptively adjust the braking current, reducing power consumption and heat generation. This enhances the safety and overall efficiency of the VTOL aircraft’s mode transition.

Q: How to understand “Maximum Continuous Current 120A (under certain cooling conditions)” in the ESC parameters?

A: This means the ESC can stably output 120A current for a long period, provided that the cooling conditions are met (e.g., installed in a well-ventilated location). If cooling is insufficient, the continuous current capability will decrease, potentially leading to overheating protection or damage. In the actual aircraft design, sufficient cooling space must be reserved for the ESC.

Q: Should I use PWM or CAN to connect to the flight controller?

A: It is strongly recommended and prioritized to use CAN (DRONE CAN/UAV CAN) connection. The CAN method enables all advanced functions such as remote monitoring, intelligent propeller braking, and provides more reliable communication. PWM mode is only a basic control backup. Using CAN requires ensuring the flight controller (e.g., PX4) supports the corresponding protocol.

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