Product Description

 

Product Description

 

Cross roller bearing

In crossed cylindrical roller bearings, the cylindrical rollers are arranged in two 90° V-shaped raceways at a 90°included angle 1:1, and the cylindrical rollers are separated by the spacer block. This structure makes a set of bearings It can bear radial  load, axial load and overtuming load at the same time.
       This kind of combined bearing has a compact structure, and at the same time greatly simplifies the structure design of the bearing under the premise of ensuring structural rigidity. Most bearings can be pre-loaded before leaving the factory, which further facilitates installation and maintenance work. Therefore, cross cylindrical roller bearings.  It has the characteristics of high precision,high load and high rigidity,which is very suitable for the occasions where the space size is clearly restricted,such as the rotating  part  of  the  robot,the  joint  part  of  the  manipulator,the numerical  control  inHangZhou  table,the  medical  equipment,and  the measuring  instrument.

 

Rotary table bearing

In the rotary table bearing, the radial raceway of a thrust/centripetal   Lshaped inner ring, the radial raceway of a thrust/centripetal seat ring  and  a set of radial cylindrical rollers form the radial part of the rotary  table bearing. The axial raceway of the thrust/centripetal Lshaped  
inner ring, the two axial raceways of the thrust/centripetal seat ring, 
and two sets of thrust cylindrical rollers and their retainers form the axial part of the rotary table bearing. The radial and axial combined structure of this series enable it to withstand radial load, bidirectional 
axial load and overturning moment. This series of bearings can be 
preloaded and can achieve high rotation accuracy, so it is particularly
suitable for CNC rotation workbenches, swing-angle milling heads, 
gear grinding machine workbenches and other workplaces that 
require high precision.
The inner ring and outer ring of this series of bearings are designed with   screw mounting holes, which makes the installation and fixing
very simple; at the same time, the bearing preload is adjusted according to the working conditions at the factory, so there is no need to adjust the installation preload during installation.
The inner ring and outer ring of the bearing are designed with lubricating oil holes, through which lubricating grease can be conveniently added and replenishing the inside of the bearing.
 

Harmonic reducer bearings

Harmonic reducer is mainly composed of harmonic generator, flexible wheel, rigid wheel 3 basic components, in addition to rigid bearing (cross roller bearing) and flexible bearing (thin wall deep groove ball bearing).
The inner hole of the flexible bearing is matched with the elliptical cam outer ring. The outer ring is elastically deformed by the ball to match the inner diameter of the opening of the flexspline.The gear on the outer periphery of the opening of the flexspline meshes with  the teeth of the rigid gear.The number of teeth of the rigid wheel is more than that of the flexible wheel.The flexible wheel and the rigid wheel are meshed on the long axis and separated on the short axis.The bottom of the flexible wheel is fixed at the output end, and the rigid bearing is installed at the output end of the reducer to connect with the outside. Harmonic reducer is usually used in robotics,machine tools,aerospace and other industries.Accuracy, rigidity and bearing capacity and other requirements are very high. So the processing accuracy and installation accuracy of each part of the harmonic reducer are very high,the same requirements for bearings are also very high. The most important things for a rigid bearing are its rigidity, reliability and precision of rotation. Before the rigid bearing delivering to customer, the bearing will be adjusted to a certain preload to ensure that the bearing is sufficiently rigid;The most important thing maximum radial deformation of the bearing.

 

Product Parameters

Product Specification

Model Inside Diameter Tolerance Outer diameter Tolerance Inner ring width Tolerance Outer ring width Tolerance Pitch diameter Inner ring shaft shoulder Outer ring shaft shoulder
d(mm) δd(mm) D (mm) δD(mm) B(mm) δB(mm) B1(mm) δB1(mm) Dpw(mm) ds(mm) Dh(mm)
ERBC2008 20 0/-0.006 36 0/-0.007 8 0/-0.075 8 0/0.100 27 23.5 30.5
ERBC2508 25 0/-0.006 41 0/-0.007 8 0/-0.075 8 0/0.100 32 28.5 35.5
ERBC3571 30 0/-0.006 55 0/-0.009 10 0/-0.075 10 0/0.100 41.5 37 47
ERBC3510 35 0/-0.008 60 0/-0.009 10 0/-0.075 10 0/0.100 46.5 41 51.5
ERBC4571 40 0/-0.008 65 0/-0.009 10 0/-0.075 10 0/0.100 51.5 47.5 57.5
ERBC4510 45 0/-0.008 70 0/-0.009 10 0/-0.075 10 0/0.100 56.5 51 61.5
ERBC5013 50 0/-0.008 80 0/-0.009 13 0/-0.075 13 0/0.100 64 57.4 72
ERBC6013 60 0/-0.009 90 0/-0.571 13 0/-0.075 13 0/0.100 74 68 82
ERBC7013 70 0/-0.009 100 0/-0.571 13 0/-0.075 13 0/0.100 84 78 92
ERBC8016 80 0/-0.009 120 0/-0.571 16 0/-0.075 16 0/0.100 98 91 111
ERBC9016 90 0/-0.571 130 0/-0.011 16 0/-0.075 16 0/0.100 108 98 118
ERBC10016 100 0/-0.571 140 0/-0.011 16 0/-0.075 16 0/0.100 119.3 109 129
ERBC1571 100 0/-0.571 150 0/-0.011 20 0/-0.075 20 0/0.100 123 113 133
ERBC11016 110 0/-0.571 135 0/-0.011 16 0/-0.075 16 0/0.100 121.8 117 127
ERBC10015 110 0/-0.571 145 0/-0.011 15 0/-0.075 15 0/0.100 126.5 122 136
ERBC11571 110 0/-0.571 160 0/-0.013 20 0/-0.075 20 0/0.100 133 120 143
ERBC12016 120 0/-0.571 150 0/-0.011 16 0/-0.075 16 0/0.100 134.7 127 141
ERBC12571 120 0/-0.571 180 0/-0.013 25 0/-0.075 25 0/0.100 148.7 133 164
ERBC13015 130 0/-0.013 160 0/-0.013 15 0/-0.100 15 0/0.120 144.5 137 152
ERBC13571 130 0/-0.013 190 0/-0.015 25 0/-0.100 25 0/0.120 158 143 174
ERBC14016 140 0/-0.013 175 0/-0.013 16 0/-0.100 16 0/0.120 154.8 147 162
ERBC14571 140 0/-0.013 200 0/-0.015 25 0/-0.100 25 0/0.120 168 154 185

Model Basic staic load rating Basic dynamic load rating Inner ring runout accuracy P5 Inner ring runout accuracy P4 Inner ring  runout accuracy P2 Preload Positive clearance Large clearance Weight
Cor(KN) Cr(KN) Kia (mm) Kia (mm) Kia (mm) CC0(mm) C0(mm) C1(mm) m(Kg)
ERBC2008 3.1 3.23 0.004 0.003 0.0571 0/-0.008 0/0.015 0.015/0.035 0.04
ERBC2508 3.83 3.63 0.004 0.003 0.0571 0/-0.008 0/0.015 0.015/0.035 0.05
ERBC3571 8.36 7.35 0.004 0.003 0.0571 0/-0.008 0/0.015 0.015/0.035 0.12
ERBC3510 9.12 7.64 0.005 0.004 0.0571 0/-0.008 0/0.571 0.571/0.050 0.13
ERBC4571 10.6 8.33 0.005 0.004 0.0571 0/-0.008 0/0.571 0.571/0.050 0.16
ERBC4510 11.3 8.62 0.005 0.004 0.0571 0/-0.008 0/0.571 0.571/0.050 0.17
ERBC5013 20.9 16.7 0.005 0.004 0.0571 0/-0.008 0/0.571 0.571/0.050 0.27
ERBC6013 24.3 18 0.005 0.004 0.0571 0/-0.571 0/0.030 0.030/0.060 0.3
ERBC7013 27.7 19.4 0.005 0.004 0.0571 0/-0.571 0/0.030 0.030/0.060 0.35
ERBC8016 42.1 30.1 0.005 0.004 0.0571 0/-0.571 0/0.030 0.030/0.060 0.7
ERBC9016 45.3 31.4 0.006 0.005 0.0571 0/-0.571 0/0.040 0.040/0.070 0.75
ERBC10016 48.6 31.7 0.006 0.005 0.0571 0/-0.571 0/0.040 0.040/0.070 0.83
ERBC1571 50.9 33.1 0.006 0.005 0.0571 0/-0.571 0/0.040 0.040/0.070 1.45
ERBC11016 24.1 12.5 0.006 0.005 0.0571 0/-0.571 0/0.040 0.040/0.070 0.4
ERBC10015 41.5 23.7 0.006 0.005 0.0571 0/-0.571 0/0.040 0.040/0.070 0.75
ERBC11571 54 34 0.006 0.005 0.0571 0/-0.571 0/0.040 0.040/0.070 1.56
ERBC12016 43.2 24.2 0.006 0.005 0.0571 0/-0.571 0/0.040 0.040/0.070 0.72
ERBC12571 100 66.9 0.006 0.005 0.0571 0/-0.571 0/0.040 0.040/0.070 2.62
ERBC13015 46.7 25 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.080 0.72
ERBC13571 107 69.5 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.080 2.82
ERBC14016 50.1 25.9 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.080 1
ERBC14571 121 75.8 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.080 2.96

 

 

Model Basic staic load rating Basic dynamic load rating Inner ring runout accuracy P5 Inner ring runout accuracy P4 Inner ring  runout accuracy P2 Preload Positive clearance Large clearance Weight
Cor(KN) Cr(KN) Kia (mm) Kia (mm) Kia (mm) CC0(mm) C0(mm) C1(mm) m(Kg)
ERBC15013 53.5 27 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.090 0.68
ERBC15571 128 76.8 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.090 3.16
ERBC15030 156 100 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.090 5.3
ERBC16571 135 81.7 0.008 0.006 0.005 0/-0.571 0/0.040 0.040/0.090 3.14
ERBC17571 62.1 29 0.571  0.006 0.005 0/-0.571 0/0.050 0.050/0.100 2.21
ERBC18571 143 84 0.571  0.006 0.005 0/-0.571 0/0.050 0.050/0.100 3.44
ERBC18571 82.9 41.7 0.571  0.008 0.005 0/-0.571 0/0.050 0.050/0.110 2.99
ERBC20571 157 84.2 0.571  0.008 0.005 0/-0.571 0/0.050 0.050/0.110 4
ERBC20030 200 114 0.571  0.008 0.005 0/-0.571 0/0.050 0.050/0.110 6.7
ERBC20035 252 151 0.571  0.008 0.005 0/-0.571 0/0.050 0.050/0.110 9.6
ERBC22571 171 92.3 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.120 4.1
ERBC24571 145 68.3 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.130 4.5
ERBC25571 150 69.3 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.130 5
ERBC25030 244 126 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.130 8.1
ERBC25040 348 195 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.130 14.8
ERBC30571 178 76.3 0.013 0.571  0.006 0/-0.015 0/0.100 0.100/0.170 5.9
ERBC30035 367 183 0.013 0.571  0.006 0/-0.015 0/0.100 0.100/0.170 13.4
ERBC30040 409 212 0.013 0.571  0.006 0/-0.015 0/0.100 0.100/0.170 17.2
ERBC35571 143 54.1 0.015 0.012 0.007 0/-0.015 0/0.110 0.110/0.190 3.9
ERBC40035 370 156 0.015 0.012 0.007 0/-0.015 0/0.120 0.120/0.210 14.5
ERBC40040 531 241 0.015 0.012 0.007 0/-0.015 0/0.120 0.120/0.210 23.5
ERBC45571 182 61.7 0.018 0.014 0.009 0/-0.571 0/0.130 0.130/0.230 6.6
ERBC50571 201 65.5 0.018 0.014 0.009 0/-0.571 0/0.130 0.130/0.250 7.3
ERBC50040 607 239 0.018 0.014 0.009 0/-0.571 0/0.130 0.130/0.250 26
ERBC50050 653 267 0.018 0.014 0.009 0/-0.571 0/0.130 0.130/0.250 41.7
ERBC60040 721 264 0.571  0.016 0.571  0/-0.571 0/0.170 0.170/0.310 29
ERBC70045 836 281 0.571 0.018 0.011 0/-0.571 0/0.190 0.190/0.350 46
ERBC80070 1330 468 0.571 0.018 0.011 0/-0.030 0/0.210 0.210/0.390 105
ERBC90070 1490 494 0.571 0.571  0.012 0/-0.030 0/0.230 0.230/0.430 120
ERBC1000110 3220 1220 0.571 0.571  0.012 0/-0.030 0/0.260 0.260/0.480 360
ERBC1250110 3970 1350 0.571 0.571 0.016 0/-0.030 0/0.320 0.320/0.580 440

Model Basic staic load rating Basic dynamic load rating Inner ring runout accuracy P5 Inner ring runout accuracy P4 Inner ring  runout accuracy P2 Preload Positive clearance Large clearance Weight
Cor(KN) Cr(KN) Kia (mm) Kia (mm) Kia (mm) CC0(mm) C0(mm) C1(mm) m(Kg)
ERBC15013 53.5 27 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.090 0.68
ERBC15571 128 76.8 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.090 3.16
ERBC15030 156 100 0.008 0.006 0.0571 0/-0.571 0/0.040 0.040/0.090 5.3
ERBC16571 135 81.7 0.008 0.006 0.005 0/-0.571 0/0.040 0.040/0.090 3.14
ERBC17571 62.1 29 0.571  0.006 0.005 0/-0.571 0/0.050 0.050/0.100 2.21
ERBC18571 143 84 0.571  0.006 0.005 0/-0.571 0/0.050 0.050/0.100 3.44
ERBC18571 82.9 41.7 0.571  0.008 0.005 0/-0.571 0/0.050 0.050/0.110 2.99
ERBC20571 157 84.2 0.571  0.008 0.005 0/-0.571 0/0.050 0.050/0.110 4
ERBC20030 200 114 0.571  0.008 0.005 0/-0.571 0/0.050 0.050/0.110 6.7
ERBC20035 252 151 0.571  0.008 0.005 0/-0.571 0/0.050 0.050/0.110 9.6
ERBC22571 171 92.3 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.120 4.1
ERBC24571 145 68.3 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.130 4.5
ERBC25571 150 69.3 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.130 5
ERBC25030 244 126 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.130 8.1
ERBC25040 348 195 0.571  0.008 0.005 0/-0.571 0/0.060 0.060/0.130 14.8
ERBC30571 178 76.3 0.013 0.571  0.006 0/-0.015 0/0.100 0.100/0.170 5.9
ERBC30035 367 183 0.013 0.571  0.006 0/-0.015 0/0.100 0.100/0.170 13.4
ERBC30040 409 212 0.013 0.571  0.006 0/-0.015 0/0.100 0.100/0.170 17.2
ERBC35571 143 54.1 0.015 0.012 0.007 0/-0.015 0/0.110 0.110/0.190 3.9
ERBC40035 370 156 0.015 0.012 0.007 0/-0.015 0/0.120 0.120/0.210 14.5
ERBC40040 531 241 0.015 0.012 0.007 0/-0.015 0/0.120 0.120/0.210 23.5
ERBC45571 182 61.7 0.018 0.014 0.009 0/-0.571 0/0.130 0.130/0.230 6.6
ERBC50571 201 65.5 0.018 0.014 0.009 0/-0.571 0/0.130 0.130/0.250 7.3
ERBC50040 607 239 0.018 0.014 0.009 0/-0.571 0/0.130 0.130/0.250 26
ERBC50050 653 267 0.018 0.014 0.009 0/-0.571 0/0.130 0.130/0.250 41.7
ERBC60040 721 264 0.571  0.016 0.571  0/-0.571 0/0.170 0.170/0.310 29
ERBC70045 836 281 0.571 0.018 0.011 0/-0.571 0/0.190 0.190/0.350 46
ERBC80070 1330 468 0.571 0.018 0.011 0/-0.030 0/0.210 0.210/0.390 105
ERBC90070 1490 494 0.571 0.571  0.012 0/-0.030 0/0.230 0.230/0.430 120
ERBC1000110 3220 1220 0.571 0.571  0.012 0/-0.030 0/0.260 0.260/0.480 360
ERBC1250110 3970 1350 0.571 0.571 0.016 0/-0.030 0/0.320 0.320/0.580 440

 

Company Profile

HangZhou solarich machinery Co., Ltd. located in China’s bearing manufacturing base —HangZhou.
Our company specializes in R&D and manufacturing of precision cross roller bearings,rotary table bearings and various non-standard bearings.The machining accuracy is P5,P4 and P2.
Benefits from HangZhou’s unique bearing industry foundation,our company has established a complete quality management system and has an excellent technical team.
At the same time,sophisticated production process equipment and perfect test equipment are necessary conditions for the production of precision bearings, and the high
precision,high reliablity of products are guaranteed.All kinds of bearings produced by our company are widely used in the automation industry,CNC machine tool industry
and robot industry.
 

Solutions

Our Advantages

1. World-Class Bearing: We provide our customers with all types of indigenous bearing with world-class quality.
2. OEM or Non-Stand Bearings: Any requirement for Nonstandard bearings is Easily Fulfilled by us due to its vast knowledge and links in the industry.
3. Genuine products With Excellent Quality: The company has always proved the 100% quality products it provides with genuine intent.
4. After Sales Service and Technical Assistance: The company provides after-sales service and technical assistance as per the customer’s requirements and needs.
5. Quick Delivery: The company provides just-in-time delivery with its streamlined supply chain. 
 

Packaging & Shipping

 

FAQ

 

Q: Are you trading company or manufacturer?
A: We are bearing manufacturer.

Q: How do you control quality of bearing?
A: All products and services passed ISO9001-2008 Quality Certificate.

Q: What is the MOQ?
A: It depends on the bearing type. You can send inquiry or send e-mail  for more information.

Q: How about the package?
A: Industrial packing in general condition (Plastic tube+ carton+ pallet). Accept design package when OEM.

Q: How long is the delivery time?
A: The lead time for sample orders is 3-5 days, for bulk orders is 5-15 days., depends on the model and quantity.

Q: How about the shipping?
A: We can arrange the shipment or you may have the forwarder.

Q: Is sample avaiable?
A: Yes, sample order is acceptable.

Q: Can we use our own LOGO or design on bearings?
A: Yes. OEM is acceptable. We can design the bearing with your requirements and use your own LOGO and package design.

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Precision Rating: P5 P4 P2
Hardness: 60-64
Samples: Available
Warranty: 12 Months
Application: Automation Industry, CNC Machine Tool, Robert
Cage: Steel Cage and Nylon Cage
Samples:
US$ 2/Piece
1 Piece(Min.Order)

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Request Sample

Customization:
Available

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Customized Request

cross roller bearing

Are there specific maintenance practices that can extend the life of cross roller bearings?

Implementing proper maintenance practices is essential for extending the life of cross roller bearings. Regular maintenance helps prevent premature wear, minimize downtime, and ensure optimal performance. Here are specific maintenance practices that can contribute to extending the life of cross roller bearings:

  • Regular Inspection:
  • Perform regular inspections of cross roller bearings to detect any signs of wear, damage, or abnormal operating conditions. Visual inspections can identify visible damage, such as cracks, pitting, or corrosion. Additionally, monitoring noise, vibration, and temperature levels during operation can help identify potential issues early on.

  • Lubrication:
  • Proper lubrication is crucial for the smooth operation and longevity of cross roller bearings. Follow the manufacturer’s recommendations regarding the type and quantity of lubricant to use. Establish a regular lubrication schedule and ensure that the bearings are adequately lubricated. Monitor the lubricant condition and replenish or replace it as needed to maintain optimal lubrication levels.

  • Contamination Control:
  • Preventing contamination is essential for the longevity of cross roller bearings. Implement measures to control and minimize the ingress of contaminants, such as dust, dirt, or moisture. Use appropriate sealing or shielding mechanisms to protect the bearing from external particles. Clean the surrounding area regularly and ensure that the bearing housing and mounting surfaces are free from debris.

  • Proper Mounting:
  • Ensure proper mounting and alignment of cross roller bearings to avoid unnecessary stress or misalignment that can lead to premature wear. Follow the manufacturer’s guidelines for mounting procedures, including the use of suitable tools and torque values. Ensure that the mounting surfaces are clean, flat, and perpendicular to minimize stress concentrations.

  • Load and Speed Considerations:
  • Be mindful of the recommended load and speed limits specified by the bearing manufacturer. Avoid exceeding these limits as it can accelerate wear and decrease the bearing’s lifespan. If operating conditions change, such as increased load or speed, consult the manufacturer for guidance on appropriate bearing selection or additional maintenance measures.

  • Periodic Reassessment:
  • Periodically reassess the operating conditions and performance of cross roller bearings. As equipment and usage patterns may change over time, it is essential to periodically review the bearing’s performance and consider reevaluating maintenance practices. This can help identify potential improvements or adjustments to ensure continued reliability and longevity.

  • Training and Documentation:
  • Provide training to personnel responsible for the maintenance and operation of equipment that utilizes cross roller bearings. Ensure they are familiar with proper maintenance procedures and understand the importance of adhering to maintenance schedules. Maintain documentation of maintenance activities, including inspection reports, lubrication records, and any interventions or replacements performed.

By implementing these specific maintenance practices, it is possible to extend the life of cross roller bearings, optimize their performance, and minimize the risk of premature failures. Regular inspections, proper lubrication, contamination control, proper mounting, considering load and speed limits, periodic reassessment, and training and documentation are all key aspects of effective maintenance for cross roller bearings.

cross roller bearing

Can you provide insights into recent advancements in cross roller bearing technology?

Recent advancements in cross roller bearing technology have brought significant improvements in performance, reliability, and application versatility. Ongoing research and development efforts have led to innovative designs and materials, enhanced manufacturing processes, and improved functionality. Here are some key insights into the recent advancements in cross roller bearing technology:

  • Advanced Materials:
  • New materials and alloys have been developed to enhance the performance of cross roller bearings. For example, the use of high-strength steels and advanced ceramics has improved the bearing’s load-carrying capacity, durability, and resistance to wear and fatigue. These materials offer better mechanical properties, increased hardness, and improved corrosion resistance, making them suitable for demanding applications in industries such as aerospace, automotive, and robotics.

  • Improved Sealing and Lubrication:
  • Advancements in sealing and lubrication technologies have addressed challenges related to contamination, maintenance, and operating conditions. Innovative sealing solutions, such as integrated seals and multi-lip designs, provide better protection against contaminants, extending the bearing’s service life. Additionally, advancements in lubrication techniques, such as solid lubricants and advanced greases, offer improved performance in high-temperature, high-speed, and harsh environments.

  • Enhanced Precision and Accuracy:
  • Recent advancements have focused on improving the precision and accuracy of cross roller bearings. Manufacturers have developed new manufacturing processes and technologies to achieve tighter tolerances and reduce dimensional variations. This results in improved positioning accuracy, smoother motion, and enhanced repeatability. These advancements are particularly beneficial in applications that require high precision, such as machine tools, robotics, and optical systems.

  • Intelligent Monitoring and Condition Assessment:
  • The integration of sensors, data acquisition systems, and advanced analytics has enabled intelligent monitoring and condition assessment of cross roller bearings. These advancements allow real-time monitoring of bearing performance, temperature, vibration, and other operating parameters. By collecting and analyzing data, it is possible to detect early signs of wear, identify potential faults, and optimize maintenance strategies. This proactive approach helps prevent unexpected failures, reduce downtime, and improve overall operational efficiency.

  • Application-Specific Designs:
  • Manufacturers are developing cross roller bearings with application-specific designs to meet the unique requirements of various industries. Customized bearing geometries, configurations, and mounting options are being developed to optimize performance in specific applications. For instance, specialized designs for robotics offer increased rigidity and compactness, while bearings for medical equipment prioritize cleanliness and corrosion resistance. These application-specific designs enable better integration, improved performance, and enhanced reliability in specific industries and applications.

  • Simulation and Virtual Testing:
  • Advancements in simulation and virtual testing techniques have played a significant role in cross roller bearing development. Computer-aided design (CAD) software and finite element analysis (FEA) tools allow engineers to simulate the behavior and performance of bearings under various operating conditions. Virtual testing helps optimize designs, evaluate different materials and configurations, and shorten the development cycle. This approach enables more efficient and cost-effective product development while ensuring performance and reliability.

In summary, recent advancements in cross roller bearing technology have brought about significant improvements in materials, sealing and lubrication, precision, monitoring capabilities, application-specific designs, and simulation techniques. These advancements have expanded the capabilities and performance of cross roller bearings, enabling their use in a wide range of industries and applications. With ongoing research and innovation, cross roller bearings are expected to continue evolving to meet the ever-increasing demands of modern machinery and equipment.

cross roller bearing

What factors should be considered when selecting a cross roller bearing for a specific application?

When selecting a cross roller bearing for a specific application, several factors need to be carefully considered. These factors ensure that the chosen bearing meets the requirements of the application in terms of performance, reliability, and longevity. Here are the key factors to consider when selecting a cross roller bearing:

  • Load Requirements:
  • First and foremost, the load requirements of the application must be assessed. Consider the magnitude and direction of the loads, including radial, axial, and moment loads. Determine the maximum load capacity needed and ensure that the selected cross roller bearing can handle the anticipated loads without excessive deflection or premature failure.

  • Precision and Accuracy:
  • If the application requires precise positioning or motion control, the level of required precision and accuracy should be evaluated. Cross roller bearings are known for their excellent rotational accuracy, but the specific requirements of the application should be matched with the bearing’s precision level. Consider factors such as the permissible deviation, repeatability, and smoothness of operation.

  • Space Limitations:
  • Assess the available installation space in the application. Cross roller bearings are compact and space-saving, making them suitable for applications with limited space. Measure the dimensions and ensure that the selected bearing can be accommodated without interference or compromising other components.

  • Environmental Conditions:
  • Consider the environmental conditions in which the cross roller bearing will operate. Evaluate factors such as temperature, humidity, dust, chemicals, and potential exposure to contaminants. Choose a bearing that is designed to withstand the specific environmental conditions to ensure optimal performance and longevity.

  • Speed and Acceleration:
  • Assess the required speed and acceleration parameters of the application. Cross roller bearings have speed limitations, and exceeding these limits can lead to increased friction, heat generation, and premature wear. Consider the rotational speed and acceleration requirements and select a bearing that can operate within the desired speed range without compromising performance or reliability.

  • Mounting and Integration:
  • Consider the mounting and integration aspects of the cross roller bearing. Evaluate the mounting method, available space for mounting components, and the overall system design. Ensure that the selected bearing can be easily integrated into the application with appropriate mounting options and compatibility with other system components.

  • Maintenance and Service Life:
  • Assess the maintenance requirements and expected service life of the cross roller bearing. Consider factors such as lubrication needs, accessibility for maintenance, and the desired operating lifespan. Choose a bearing that aligns with the maintenance capabilities and longevity expectations of the application.

  • Cost and Availability:
  • Evaluate the cost-effectiveness and availability of the cross roller bearing. Consider the budget constraints of the application and compare the pricing of different bearing options. Additionally, ensure that the selected bearing is readily available from reliable suppliers to avoid delays or difficulties in sourcing replacements or spare parts.

By carefully considering these factors, it is possible to select the most suitable cross roller bearing for a specific application. Taking into account the load requirements, precision needs, space limitations, environmental conditions, speed and acceleration parameters, mounting considerations, maintenance requirements, and cost-effectiveness ensures that the chosen bearing will deliver optimal performance, reliability, and longevity in the intended application.

China supplier Precision Bearings Erbc3510 Erbc4010 Erbc4510 Thin Wall Cross Roller Rotary Table Bearings   connecting rod bearingChina supplier Precision Bearings Erbc3510 Erbc4010 Erbc4510 Thin Wall Cross Roller Rotary Table Bearings   connecting rod bearing
editor by CX 2024-02-20