For engineers selecting components for medical devices or analysis equipment, a detailed comparison of available micro pumps is essential. Both established models like the 1410 series and newer designs from Chinese manufacturers offer distinct specifications.
A side-by-side technical review shows comparable performance in areas like vacuum level and motor type between models like the 1410V and the BODENFLO BD-05TVB-S. Differences emerge in pressure capabilities, operational temperature ranges, and physical dimensions, which are critical factors for specific application requirements.

The process of selecting a miniature diaphragm pump or compressor involves a careful review of datasheets. This allows for a preliminary assessment of a component's suitability for a given application, such as gas detection or compression therapy. This article provides a direct comparison of key technical data for models from the 1410 series and comparable pumps from BODENFLO to facilitate an informed engineering decision.
What are the specifications of the 1410V and the BODENFLO BD-05TVB-S?
When selecting a vacuum pump, engineers often evaluate models based on flow, vacuum level, and motor life. The 1410V and BD-05TVB-S are two options with brushless DC motors.
The 1410V (14100210/14100211) and the BODENFLO BD-05TVB-S are both brushless micro vacuum pumps. They share similar material constructions, such as PPS pump heads and EPDM diaphragms, and offer comparable maximum vacuum levels, making both suitable for gas sampling or monitoring systems.

A detailed look at the specifications shows that both pumps are engineered for long-life applications, utilizing brushless DC motors1. The choice of PPS for the pump head and EPDM for the diaphragm in both models indicates suitability for a wide range of neutral gases. While the listed maximum flow rates differ slightly, it is important to note that measurement methodology (e.g., float vs. electronic flow meter) can influence these values.
The BD-05TVB-S is specified for a wider ambient operating temperature range and has a lower weight and power consumption, which can be relevant factors in portable or battery-operated systems. Both pumps provide high vacuum capabilities2 suitable for their intended applications.
Specification Comparison: Vacuum Pumps
| Parameter | 1410V (14100210/14100211) | BODENFLO BD-05TVB-S |
|---|---|---|
| Max Flow | 5.5 l/min | 4.6 l/min |
| Max Vacuum | -75 kPa (75%) | -70 kPa |
| Motor | Brushless DC | High-end Brushless DC |
| Power | 6.3 W | 5 W |
| Weight | 170 g | 148 g |
| Operating Temp. | 15 to 40 °C | -20 to 50 °C |
| Materials | PPS Head, EPDM Diaphragm | PPS Head, EPDM Diaphragm |
How do the pressure-focused 1410VD and BD-05TR5LB compare?
For applications requiring positive pressure, such as compression therapy, the maximum pressure rating is a primary consideration. The 1410VD and BD-05TR5LB are two such options.
The BODENFLO BD-05TR5LB is a micro piston pump offering a max pressure of 2-3 Bar. The 1410VD is a diaphragm pump with a listed intermittent max pressure of 1.9 bar and a continuous pressure of 0.7 bar. Both utilize brushless DC motors for long operational life.

The design architecture of these two pumps differs, leading to distinct pressure performance profiles. The BD-05TR5LB is a piston pump3, a design often used for achieving higher pressures, and is rated for 2-3 Bar. The 1410VD is a diaphragm pump4, with separate ratings for intermittent (1.9 bar) and continuous (0.7 bar) operation.
The BD-05TR5LB specifies a higher maximum flow rate. Both pumps are designed with long-life brushless motors. In terms of materials, the BD-05TR5LB uses PTFE for its piston cup, a material known for its low friction and durability. The BD-05TR5LB also offers a wider operational temperature range but comes with an IP00 rating, indicating it is intended for integration within a larger, protective enclosure.
Specification Comparison: Pressure Pumps
| Parameter | 1410VD (14100216/14100217) | BODENFLO BD-05TR5LB |
|---|---|---|
| Max Flow | 4.3 l/min | 5.5 l/min |
| Max Pressure | 1.9 bar (intermittent) / 0.7 bar (continuous) | 2~3 Bar |
| Motor | Brushless DC | Brushless DC |
| Power | 7.0 W | 8 W |
| Weight | 170 g | 153 g |
| Operating Temp. | 15 to 40 °C | -20 to 50 °C |
| Materials | PPS Head, EPDM Diaphragm | PPS Head, EPDM/FKM Valve, PTFE Piston |
What are the common applications for these diaphragm and piston pumps?
Choosing the right micro pump requires understanding its intended function. A mismatch between pump capabilities and application needs can result in suboptimal system performance.
These types of micro pumps are commonly found in medical devices, gas detection, and analysis instruments. Specific uses include compression therapy systems like edema sleeves, gas analyzers, environmental monitoring systems, and other battery-operated portable devices where compact size and efficiency are critical design factors.

The specific requirements of an application determine which pump function—pressure or vacuum5—is needed. A pump's ability to generate strong positive pressure is crucial for therapeutic devices, while a consistent vacuum is necessary for analytical sampling instrumentation.
The compact footprint and low power consumption of these pumps make them well-suited for integration into portable, battery-operated equipment where space and energy efficiency are primary engineering constraints. The selection process involves matching the pump's performance profile, such as the high pressure of a piston pump or the steady vacuum of a diaphragm pump, to the demands of the end-use application.
Application and Required Pump Function
| Application Area | Required Function | Example Use Cases |
|---|---|---|
| Medical Devices | Pressure or Vacuum | Compression Therapy (Edema Sleeve), Monitoring Systems |
| Gas Detection & Analysis | Vacuum (for sampling) | Portable Gas Analyzers, Environmental Monitors |
| Battery-Operated Systems | Pressure or Vacuum | Handheld diagnostic tools, portable analysis equipment |
What are other factors to consider in pump selection?
Beyond core performance specifications, factors like model availability and supply chain logistics are practical considerations in project planning.
Manufacturers offer different ranges of products and operate with distinct supply chain models. BODENFLO, for instance, provides a broad catalog of specialized micro pumps, while pricing and delivery schedules can vary significantly between any two suppliers depending on their production and distribution strategies.
When selecting a pump, access to a wide variety of models can be beneficial, as it allows engineers to find a component that closely matches the specific needs of an application. A manufacturer focused exclusively on micro pumps may offer a more diverse and specialized catalog. Additionally, logistical factors play a role in component selection.
The pricing structure for a component can influence the final bill of materials (BOM) cost of a product. Similarly, the lead time quoted by a supplier for delivery of components is a critical variable for managing prototyping and production schedules. These business and logistical factors are often considered alongside the technical specifications during the component selection process.
Logistical and Portfolio Factors
| Factor | Description |
|---|---|
| Model Variety | The breadth of a manufacturer's catalog can provide more options to find an optimal technical fit. |
| Pricing | Different manufacturers have different pricing models that affect the overall BOM cost. |
| Lead Time | The time from order to delivery is a key factor for project scheduling and supply chain management. |
How can engineers validate pump performance for an application?
Datasheets provide specifications, but confirming long-term reliability within a specific system requires empirical testing.
A common engineering practice for validating component reliability is to conduct a head-to-head longevity test. Running different pumps under the same real-world load conditions provides objective data on long-term performance and stability, complementing the information found on datasheets.
To build full confidence in a component, setting up a validation test6 is a recommended step. This involves creating a test rig that accurately simulates the operational load of the final product, including any tubing, filters, or orifices. By running two or more different pump models simultaneously on this rig, engineers can collect real-world data over an extended period.
Key parameters such as flow rate, power consumption, and temperature can be logged at regular intervals. Analyzing this data after hundreds or thousands of hours of continuous operation allows for a direct comparison of performance stability7 and wear characteristics. This methodology provides objective, data-driven insights that are crucial for making a final selection for a critical component.
A General Validation Test Protocol
- Build a Test Rig: Replicate the application's pneumatic load and system resistance.
- Instrument Pumps: Set up monitoring for key parameters (e.g., flow, pressure, current) for all pumps being tested.
- Run Continuously: Operate the pumps under a 24/7 duty cycle to accelerate aging.
- Log Data: Record performance data automatically at set intervals.
- Analyze and Compare: Evaluate the collected data to compare performance trends and long-term stability.
Conclusion
The 1410 series and comparable BODENFLO micro pumps each offer distinct technical specifications. Reviewing datasheet parameters and conducting validation testing are standard engineering practices for selecting the optimal component for an application.
At BODENFLO, we specialize in custom micro vacuum, pressure, and liquid pumps designed for OEM integration in medical, analytical, and automation systems. Our engineering team provides full technical support, from parameter customization to product validation testing, ensuring every pump meets your precise performance requirements.
📩 Contact us today: info@bodenpump.com
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