Source Combined Excavating Shovel Potato Harvester for Rice Wheat Corn

Find 30 units of combined excavating shovel potato harvester machines with varying working widths and power ratings. Compare specifications for forestry, agriculture, and livestock applications to select the right model for your needs.

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Comprehensive Sourcing Guide

Strategic Sourcing Guide for Combined Excavating Shovel Potato Harvesters

The global agricultural machinery market presents a complex landscape for buyers seeking specialized equipment, particularly for tuber harvesting. The core keyword "combined excavating shovel potato harvester" refers to a specific class of agricultural machinery designed to efficiently lift, separate, and collect potatoes and similar tubers. These machines integrate excavation and cleaning functions into a single operational unit, significantly reducing labor costs and increasing throughput compared to manual or semi-mechanized methods. For procurement professionals, understanding the nuanced specifications, compliance requirements, and cost structures of these machines is essential for making informed purchasing decisions. This guide provides a comprehensive framework for evaluating potential suppliers and selecting the right equipment based on verified market data and technical realities.

Technical Specifications and Operational Capabilities

When evaluating a combined excavating shovel potato harvester, the primary focus must be on the mechanical configuration that enables efficient tubers extraction. The defining characteristic of these units is the excavating shovel type, which is often described as a "combined excavating shovel." This design typically integrates digging elements with a conveying mechanism to minimize crop damage. The supply data indicates that these machines often utilize a "Conveyor Chain Type" for both the conveying device and the cleaning and separating device, featuring a grate screen to separate soil from the tubers.

The physical dimensions and working width are critical variables that determine the machine's suitability for specific farm layouts. Market observations show a significant variance in working widths, ranging from compact units with a width of 900mm to larger models reaching 1760mm. Specific model data highlights dimensions such as 4100 * 2100 * 1300mm for certain configurations, while others may extend to 7810 * 3310 * 3000mm, reflecting the difference between portable and larger stationary or towed units. The excavation depth adjustment range is another vital specification, with observed data suggesting an operational range of 150 to 250mm. This adjustability allows operators to adapt to different soil conditions and potato planting depths.

Power requirements are equally significant for operational efficiency. The matching power for these harvesters varies based on the model and intended application. Data points indicate power ranges from greater than 59kw to as high as 95.6kw, with some specifications listing a horsepower range of 90-120 HP. The drive type is consistently noted as a "Gear Drive," and the transmission system often employs a "Soft Shaft" to manage torque and reduce vibration transmission to the operator or tractor. The output rotational speed of the match power is typically standardized at 540r/Min, ensuring compatibility with standard tractor PTO systems.

Compliance, Certification, and Material Standards

In the B2B procurement of agricultural machinery, compliance with international standards and local regulations is a non-negotiable prerequisite. The supply data explicitly lists "CE" and "ISO9001" as observed certifications for specific product listings. While these certifications indicate a baseline commitment to safety and quality management, buyers must verify the current validity of these documents. The presence of "ISO9001:Color:Red" in the data suggests a specific product variant, but the underlying standard is the ISO 9001 quality management system. It is crucial to distinguish between the certification of the manufacturer and the certification of the specific machine model.

Material selection directly impacts the durability and longevity of the harvester. The observed data identifies "High-Strength Sheet Metal" and "Alloy Steel" as the primary materials used in construction. These materials are selected to withstand the abrasive nature of soil and the mechanical stress of harvesting operations. The structural type is generally described as a "Structural Type," implying a rigid frame designed for heavy-duty field work. Buyers should request material test reports to confirm the grade of the alloy steel and the thickness of the sheet metal, as these factors directly influence the machine's resistance to wear and tear.

Furthermore, the product standard is listed as "Standard" or "Standard Specifications or Customized." This indicates that while baseline specifications exist, there is room for customization to meet specific regional or operational needs. The origin of these machines is frequently noted as Shandong, China, a major hub for agricultural machinery manufacturing. Understanding the regulatory environment of the destination country is essential, as import regulations may require additional certifications beyond the CE mark, such as specific emission standards or noise level certifications.

Cost Drivers and Pricing Structures

The pricing of combined excavating shovel potato harvesters is influenced by a complex interplay of factors, including working width, power capacity, material quality, and customization levels. The observed listed price range in the market spans from $383 to $82,000 USD. This vast disparity reflects the difference between small, portable backpack-type units and large, high-capacity combine harvesters. For instance, a portable harvester with a working width of 900mm and lower power requirements will naturally fall on the lower end of the spectrum, whereas a large combine harvester with a working width of 1760mm and a 95.6kw engine will command a premium price.

Minimum Order Quantity (MOQ) is another critical cost driver. The observed MOQ range is between 1 and 50 units. This flexibility allows buyers to procure single units for pilot testing or small farms, while larger agricultural cooperatives or distributors can negotiate bulk pricing for orders approaching the upper limit. Customization is a significant factor in cost escalation. The data confirms that "Customization" is available and that OEM & ODM services are accepted. Buyers seeking specific color schemes, custom branding, or modified mechanical configurations should anticipate a price premium and a longer lead time.

Packaging standards also affect the final landed cost. Options range from "Standard Export Packaging" to "Unpacked" configurations. Standard export packaging typically includes protective wrapping and crating to prevent damage during international shipping, which adds to the unit cost but reduces the risk of transit damage. Unpacked units may be cheaper but require the buyer to arrange for their own packaging and protection, potentially increasing logistics costs and risk.

Typical Applications and Field Versatility

The application scope of combined excavating shovel potato harvesters is broad, extending beyond simple potato harvesting. The observed data lists applications for Rice, Wheat, Corn, and Tubers, indicating that these machines are often multi-purpose or adaptable to various crop types. The primary application field is categorized as Agriculture, but the data also includes Forestry, Livestock, and Aquaculture. This suggests that the machinery may be used for clearing land, harvesting fodder, or managing vegetation in diverse agricultural settings.

The harvesting range is specified as 165-190 cm, which is a critical metric for determining the machine's coverage per pass. A wider harvesting range generally translates to higher efficiency, reducing the time required to harvest a given area. The machine type is identified as a "Portable Harvester" or "Combine Potato Harvester," suggesting versatility in deployment. Some models are designed as backpack units for small-scale or difficult terrain, while others are larger, tractor-mounted units for expansive fields. The grass cutting disc size, observed at 750mm, further highlights the machine's capability to handle vegetative debris alongside tuber harvesting.

Supplier Evaluation and Verification Protocols

Evaluating suppliers requires a rigorous approach to verify claims against the provided data. Buyers should prioritize suppliers who can provide concrete evidence of the specifications listed, such as the exact model numbers (e.g., 4u-180d, 4u-165lh, 4U-170MLH) and matching power ranges. The presence of "OEM & ODM Custom" acceptance indicates a supplier's capability to tailor products, but buyers must assess the supplier's engineering capacity to ensure they can deliver on these promises without compromising quality.

The origin location, specifically Shandong, China, is a common source for these machines. Buyers should verify the specific factory location within this region to assess logistics and supply chain reliability. Supplier evaluation should also include a review of their production capacity and lead times, although specific lead time data is not provided in the source material. Buyers should inquire about the supplier's track record in exporting to their specific region and their ability to provide after-sales support, including spare parts availability and technical training.

Quality Control and Long-Term Procurement Considerations

Quality control in the procurement of agricultural machinery involves more than just inspecting the final product. Buyers should establish a quality assurance protocol that includes pre-shipment inspections, verification of material certifications, and testing of critical components like the gear drive and conveyor chain systems. The "High-Strength Sheet Metal" and "Alloy Steel" used in construction must be verified for their mechanical properties to ensure they meet the demands of heavy-field use.

Long-term procurement considerations include the availability of spare parts and the durability of the machine. The "Conveyor Chain Type" and "Grate Screen" are high-wear components that will require regular replacement. Buyers should negotiate service level agreements that guarantee the availability of these parts for a specified period, typically five to ten years. The "Depth-Limiting Wheel" and "Excavating Shovel" are also critical components that should be inspected for wear and tear during routine maintenance.

Furthermore, the "Standard Export Packaging" should be evaluated for its ability to protect the machine during long-distance shipping. Buyers should consider the total cost of ownership, including fuel consumption, maintenance costs, and potential downtime. The "Matching Power" and "Output Rotational Speed" should be matched precisely with the tractor or power source to ensure optimal performance and fuel efficiency. By focusing on these long-term factors, buyers can secure a reliable supply of high-quality potato harvesters that deliver value over the life of the equipment.

Comparative Analysis of Key Models

To facilitate decision-making, buyers can compare models based on the observed specifications. The following table summarizes key differences between common model configurations found in the market data.

FeatureModel 4u-180dModel 4u-165lhModel 4U-170MLHModel 4u-160d
Working Width1760mm900mm90-170 Cm1600mm
Matching Power73.5 - 95.6kw80.9-95.6kw90-120 HP>59kw
Dimensions410021001300mm781033103000mmN/A270021001650mm
Excavation Depth150-250mmN/AN/AN/A
Harvesting Range165-190 CmN/AN/AN/A
MaterialHigh-Strength Sheet MetalAlloy SteelAlloy SteelHigh-Strength Sheet Metal
TypePortable HarvesterPortable HarvesterPortable HarvesterPortable Harvester

This comparison highlights the diversity in the product line. The 4u-180d and 4u-160d offer wider working widths suitable for large-scale operations, while the 4u-165lh, despite its larger dimensions, has a narrower working width, suggesting a different design focus, possibly for specific terrain or crop types. The 4U-170MLH emphasizes horsepower, indicating a high-power requirement for heavy-duty applications. Buyers must align these specifications with their specific operational needs, soil conditions, and crop varieties to select the most appropriate model.

In conclusion, sourcing a combined excavating shovel potato harvester requires a meticulous approach that balances technical specifications, compliance requirements, and cost considerations. By leveraging the verified data points regarding power, dimensions, and materials, buyers can make informed decisions that ensure operational efficiency and long-term value. The availability of customization and the range of models provide flexibility, but rigorous supplier evaluation and quality control remain paramount to successful procurement.

FAQs

What certifications do combined excavating shovel potato harvesters have?

These machines typically hold CE and ISO9001 certifications. Buyers should verify the specific validity of these documents as the data lists them as observed attributes for certain product variants rather than universal guarantees for every unit.

Which working widths are available for these harvesters?

Working widths range from 900mm to 1760mm depending on the model. Compact units often feature 900mm widths while larger combine harvesters can reach up to 1760mm to accommodate different field layouts.

How is the power requirement defined for these machines?

Matching power varies from over 59kw to 95.6kw, with some models requiring 90-120 HP. The output rotational speed is standardized at 540r/Min to ensure compatibility with standard tractor PTO systems.

Can these harvesters be customized for specific needs?

Yes, customization is available and OEM & ODM services are accepted. Buyers seeking specific configurations should anticipate a price premium and potentially longer lead times due to the tailored engineering requirements.

What material is used to construct these harvesters?

The primary materials include High-Strength Sheet Metal and Alloy Steel. These materials are selected to withstand abrasive soil conditions and the mechanical stress inherent in heavy-duty harvesting operations.

Where are these potato harvesters typically manufactured?

The origin is frequently noted as Shandong, China, a major manufacturing hub for agricultural machinery. Buyers should verify the specific factory location within this region to assess logistics and supply chain reliability.