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Wireless Vacuum Cleaner PCB | 2-Layer FR-4 Control Board | Soluciones PCBA - UGPCB

Placa PCB estándar/

Wireless Vacuum Cleaner PCB – High-Reliability 2-Layer FR-4 Control Board Solution

Nombre: Wireless Vacuum Cleaner PCB

Hoja: FR-4

Espesor de la placa: 1.0milímetros

capas: 2l

Tamaño: 86.37*72.6milímetros

Apertura mínima: 0.45milímetros

Ancho de línea/momento: 0.45*0.391milímetros

Espesor de la lámina de cobre: 1/1ONZ

Tratamiento superficial: lata de pulverización sin plomo

Máscara de soldadura/personaje: Aceite verde carácter blanco

  • Detalles del producto

1. Descripción general del producto: What Is a Wireless Vacuum Cleaner PCB?

A wireless vacuum cleaner PCB (Placa de circuito impreso) is the core electronic component responsible for motor drive control, power management, user interaction, and safety protection inside a cordless vacuum cleaner. In simple terms, it serves as the “brain” and “nerve center” of the device. It receives button commands, controls brushless motor speed, manages battery charging and discharging, monitors operating status, and implements multiple safety protections.

UGPCB introduces this Wireless Vacuum Cleaner PCB – a 2-layer rigid printed circuit board designed specifically for portable cleaning equipment. It uses FR-4 glass epoxy copper-clad laminate as the base material. The board thickness is 1.0mm, and the dimensions are 86.37 × 72.6mm. This compact size fits perfectly into the tight internal spaces of handheld and stick-style cordless vacuums.

Per IPC-6012F Especificación de calificación y rendimiento para tableros impresos rígidos, this product falls under the rigid double-sided printed board (with plated-through holes) category. As a key part of UGPCB’s one-stop tarjeta de circuito impreso soluciones, this product meets IPC international standards from design through manufacturing and quality control. It provides vacuum cleaner manufacturers with a high-reliability, rentable tarjeta de circuito impreso solución.

High-Reliability 2-Layer FR-4 Control Board

2. Clasificación de productos: Scientific Positioning and Industry Categorization

Per IPC-6012F and PCB estándar industry classification systems, this product can be scientifically categorized as follows:

Classification DimensionCategoría
Por estructuraRigid double-sided printed board (with plated-through holes)
Por material baseFR-4 epoxy woven glass copper-clad laminate (compliant with IPC-4101)
Por recuento de capas2-layer board (PCB de doble cara)
Por acabado superficialHASL sin plomo (Nivelación de soldadura por aire caliente)
Por clasificación de inflamabilidadUL 94 V-0
Por aplicaciónElectrónica de consumo / small appliance control board (vacuum cleaner PCBA)

Within the vacuum cleaner electronics industry, this product belongs to themotor drive and control PCBA category. Together with the main control board and power management board, it forms the three core circuit modules of a wireless vacuum cleaner.

3. Key Technical Parameters

3.1 Base Material and Board Thickness

  • Materia prima: FR-4 (glass fiber reinforced epoxy copper-clad laminate)
  • Grosor del tablero: 1.0milímetros

FR-4 is the most widely used rigid substrate in the PCB industry. Per IPC-4101, FR-4 offers excellent electrical insulation, resistencia mecánica, y resistencia al calor. Standard FR-4 has a glass transition temperature (tg) of 130–140°C. Per IPC-6012, the tolerance range for 1.0mm board thickness is ±0.1mm.

3.2 Layer Count and Dimensions

  • Recuento de capas: 2 capas (tablero de doble cara)
  • Dimensiones: 86.37 × 72.6 milímetros

The 2-layer structure effectively controls manufacturing cost while delivering solid electrical performance. This makes it the mainstream choice for wireless vacuum cleaner control boards. The compact 86.37 × 72.6mm dimensions are optimized for the limited space inside vacuum cleaners.

3.3 Trace Width/Spacing and Minimum Hole Size

  • Tamaño mínimo de agujeros: 0.45milímetros
  • Ancho/Espaciado del trazo: 0.45milímetros / 0.391milímetros

Per IPC-2221CNorma genérica sobre diseño de tableros impresos, trace width and spacing design must consider electrical performance, current-carrying capacity, and manufacturing capability. The 0.45mm minimum hole size supports reliable soldering of conventional DIP components and through-hole parts.

For current-carrying capacity, the industry-standard formulaI = k·ΔT^0.44·A^0.725 (where A is the trace cross-sectional area) shows that with 1oz copper, a 0.45mm (aprox. 18mil) trace can carry about 1.8–2.0A. The wireless vacuum cleaner PCB uses this trace width for motor drive signals and control signals, ensuring long-term stable operation.

3.4 Espesor de lámina de cobre

  • Espesor de lámina de cobre: 1/1 ONZ (1 ounce on both outer layers)

1oz de lámina de cobre (aprox. 35μm) is the standard configuration for consumer electronics PCBs. It strikes an excellent balance between current-carrying capacity, conductividad térmica, y costo.

3.5 Acabado superficial

  • Acabado superficial: HASL sin plomo (Nivelación de soldadura por aire caliente)

HASL is a mature and economical PCB surface finish. Lead-free HASL meets RoHS environmental requirements. Según los estándares IPC, lead-free HASL typically has a tin layer thickness of 1–40μm, with conventional processes控制在 5–25μm. This finish offers excellent solderability (wettability) and a good storage life of up to 12 meses.

3.6 Máscara de soldadura y leyenda

  • Color de máscara de soldadura: Green ink
  • Legend Color: Blanco

Green solder mask is the industry’s most popular choice. It provides excellent insulation protection and high contrast for AOI (Inspección óptica automatizada). White legends are clear and easy to read, facilitating component placement and future maintenance.

4. Pautas de diseño: Following IPC-2221C Standards

A well-designed wireless vacuum cleaner PCB must follow these core principles (per IPC-2221C):

4.1 Electrical Performance Design

  • Power Trace Width: Calculate using the formula I = k·ΔT^0.44·A^0.725 to ensure temperature rise stays below 10°C at maximum operating current.
  • Integridad de señal: Use 0.45mm trace width for control signals to guarantee complete transmission of PWM speed control signals and sensor signals.
  • Grounding Design: Use single-point grounding or split grounding strategies to prevent power loop interference with the control loop.

4.2 Thermal Management Design

Wireless vacuum cleaners generate significant heat from MOSFETs during operation. El diseño de PCB must address this by:

  • Placing thermal via arrays under power devices.
  • Widening high-current traces or adding exposed copper for better heat dissipation.
  • Using 1.0mm board thickness to balance thermal conductivity and mechanical strength.

4.3 Mechanical Structure Design

El 86.37 × 72.6mm dimensions must precisely match the vacuum cleaner housing. Mounting hole positions and connector locations must meet structural design requirements. The 0.45mm minimum hole size supports through-hole soldering for various DIP components and connectors.

5. Principio de trabajo

The wireless vacuum cleaner PCB operates through the following core processes:

① Power Input and Management: The lithium battery pack (typically 21.6V or 25.2V) passes through the power management circuit on the PCB. This provides stable voltages to the main control chip and driver circuits.

② Main Control Chip Computation: The MCU (microcontrolador) on the PCB receives button commands. It calculates and outputs three-phase drive signals using FOC (Field-Oriented Control) or square-wave control algorithms.

③ Motor Drive: The drive signals are amplified by MOSFET power devices. These signals then drive the brushless DC motor (BLDC) to rotate at high speed, generating the airflow needed for suction.

④ Feedback and Protection: The PCB continuously monitors motor current, battery voltage, temperatura, and other parameters. When it detects abnormal conditions such as overcurrent, overtemperature, undervoltage, or rotor lock, it immediately executes protection actions.

6. Materiales utilizados

ComponenteMaterialDescripción
sustratoFR-4 glass epoxyCompliant with IPC-4101
Conductive LayerElectrolytic copper foil (1onz)1oz on both outer layers
Máscara de soldaduraGreen photoimageable inkInsulation protection, oxidation resistance
Acabado superficialLead-free HASL alloyCumplimiento de ROHS
Tinta de leyendaWhite epoxy inkHigh contrast, heat resistant

FR-4 substrate carries a UL 94 V-0 calificación de inflamabilidad. En la prueba de quemado vertical, the flame extinguishes within 10 seconds after removal, with no burning drips. This feature is critical for high-power, battery-powered devices like wireless vacuum cleaners. It significantly reduces the risk of fire caused by circuit faults.

7. Especificaciones de rendimiento

7.1 Rendimiento eléctrico

ParámetroEspecificaciónReference Standard
Insulation Resistance≥10^6 MΩIPC-6012F
Dielectric Withstand VoltageUp to 500V (design-dependent)IPC-2221C
Conduction Resistance≤50mΩ (típico)IPC-6012F
Impedancia característicaControllable on request (50Ω/90Ω/100Ω)IPC-2221C

7.2 Rendimiento térmico

ParámetroEspecificaciónReference Standard
Temperatura de transición vítrea (tg)≥135°C (DSC method)IPC-TM-650 2.4.25
Solder Heat Resistance288°C / 10s, Sin delaminaciónIPC-4101
CTE del eje z (CTEz)≤65 ppm/°C (50–260°C)IPC-4101

7.3 Mechanical Performance

ParámetroEspecificaciónReference Standard
Board Thickness Tolerance±0.1mmIPC-6012
Hole Size Tolerance±0,05 mmIPC-6012F
Calificación de inflamabilidadUL 94 V-0UL 94

7.4 Fiabilidad

  • Prueba de soldabilidad: Compliant with IPC-J-STD-003
  • Aging Test: 500 hours under double-85 conditions (85°C / 85%RH) with no abnormalities

8. Características estructurales

8.1 2-Layer Board Advantages

The top layer carries the main components and signal traces. The bottom layer handles auxiliary components and ground/power copper pours. The 2-layer design achieves thebest cost yhighest reliability balance for wireless vacuum cleaner control functions.

8.2 Plated-Through Hole (PTH) Proceso

All through-holes use the plated-through hole process. This ensures reliable interconnection between top and bottom layers. It also provides solid mechanical support and electrical connection for DIP components.

8.3 Solder Mask Bridge Process

Green solder mask forms bridges between adjacent pads. This prevents soldering shorts and improves SMT placement yield.

9. Flujo del proceso de fabricación

UGPCB strictly follows IPC-6012F standards to control every production step:

① Incoming Material Inspection →② Inner Layer Circuit Creation (for 2-layer boards, this is directly the outer layer) →③ Lamination (not applicable for 2-layer boards) →④ Drilling (minimum hole size 0.45mm) →⑤ Electroless Copper Deposition / Panel Plating →⑥ Outer Layer Circuit →⑦ Pattern Plating →⑧ Etching →⑨ Solder Mask (green ink) →⑩ Surface Finish (lead-free HASL) →⑪ Legend (white characters) →⑫ Profile Routing (86.37 × 72.6mm) →⑬ Electrical Test →⑭ Final Inspection (per IPC-A-600) →⑮ Packaging and Shipping

Every batch undergoesPrueba de sonda voladora odedicated fixture testing to ensure 100% no open or short circuits.

10. Escenarios de aplicación

10.1 Aplicaciones primarias

  • Handheld cordless vacuums: Motor drive and control in compact spaces
  • Stick-style cordless vacuums: Battery management and brushless motor drive
  • Robot vacuums: Navigation control and motor drive
  • Car vacuums: 12V/24V power adaptation and control
  • Smart cleaning devices: IoT connectivity and intelligent control

10.2 End-Product Examples

This PCB can be widely used in control boards and driver boards for cordless vacuums and similar cleaning devices from brands such as Xiaomi, Dyson, Tineco, and Leifheit.

11. Why Choose UGPCB’s Wireless Vacuum Cleaner PCB?

International Standards Compliance: Diseño, fabricación, and inspection fully comply with IPC-6012F, IPC-A-600, IPC-2221C, and other international standards

UL 94V-0 Fire Safety: FR-4 substrate achieves the highest vertical burn rating, ensuring device safety

UL 94 V-0 Requisitos de prueba para materiales de PCB retardantes de llama

Lead-Free Eco-Friendly Process: Lead-free HASL surface finish meets RoHS and REACH environmental directives

Proven Manufacturing Capability: UGPCB provides one-stop services from PCB design and manufacturing to PCBA assembly

Strict Quality Control: Visual inspection per IPC-A-600 and 100% electrical testing ensure shipment quality

Compact Optimized Dimensions: El 86.37 × 72.6mm size perfectly fits the internal space of various wireless vacuum cleaners

12. Get a Quote and Samples Today

UGPCB is committed to providing high-precision, high-reliability PCB and PCBA solutions to electronics manufacturers worldwide. Si necesitas bare PCBs, fully assembled PCBA, o one-stop services from design to mass production, UGPCB has the expertise to support you.

📧Contact UGPCB for a custom quote today →

  • Website: www.ugpcb.com
  • Custom design modifications and optimizations available
  • Free DFM (Diseño para la fabricación) revisar
  • Quick-turn prototyping and volume production both available

Data Source Declaration

The technical standards and data cited in this article come from the following authoritative organizations:

  1. PCI (Asociación que conecta industrias electrónicas): IPC-6012F Especificación de calificación y rendimiento para tableros impresos rígidos, IPC-A-600 Acceptability of Printed Boards, IPC-2221C Norma genérica sobre diseño de tableros impresos, IPC-4101 Specification for Base Materials for Rigid and Multilayer Printed Boards, IPC-TM-650 Test Methods Manual
  2. UL (Laboratorios aseguradores): UL 94 Standard for Safety of Flammability of Plastic Materials for Parts in Devices and Appliances – V-0 clasificación
  3. Industry Standard Engineering Formula: PCB current-carrying capacity formula I = k·ΔT^0.44·A^0.725

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