BOSCH REXROTH
R190511900
$223.80 USD
- BOSCH REXROTH
- Material:R190511900
- Model:LR-WAGEN U-FORM AL LWA-020-SNS-FN-E-0
Quantity in stock: 0
The Bosch Rexroth LR-WAGEN U-FORM AL LWA-020-SNS-FN-E-0 (R190511900) is a high-performance cam roller runner block designed for use in handling and automation technology applications. This U-type runner block boasts a slimline width and standard length and height, making it a compact yet robust component for linear motion systems. Constructed from aluminum, the runner block offers an economic accuracy class E, ensuring cost-efficient operation without compromising on quality. The LR-WAGEN U-FORM AL LWA-020-SNS-FN-E-0 is designed to work with size E profiled rail systems and is capable of enduring standard load capacities. It features a dynamic load capacity in the z-direction and y-direction, as well as static load capacities in both directions, ensuring reliable performance under various loading conditions. The unit's maximum operating temperature range extends from -20°C to 80°C, accommodating a variety of environmental conditions. This model comes without initial lubrication or preservation, allowing for customization based on the specific lubrication needs of the application. It also excludes attachment elements on both left and right front reference edges for streamlined integration into existing systems. A lube nipple is included for maintenance ease. The Bosch Rexroth LR-WAGEN U-FORM AL LWA-020-SNS-FN-E-0 has been engineered to provide smooth motion with its cam roller guides while maintaining durability and reliability over time. Its self-aligning capabilities allow it to compensate for any misalignments in the system, ensuring consistent operation and extending the lifespan of both the runner block and rail system. With its economic precision and robust construction, this runner block is an essential component for various linear motion applications within automation technology.
The cam roller runner block (U-type) is characterized by the following product features: Format SNS, size 20, aluminum, accuracy economic, load class FN
The cam roller runner block (U-type) is characterized by the following product features:
Size 20
Format SNS: width = slimline, length = standard, height = standard
Runner block body made of aluminum
Standard load carrying capacity
Accuracy class E: economic
Without preservation
Without initial lubrication
Without attachment element, left (front reference edge)
Without attachment element, right (front reference edge)
Lube nipple included
Standard version
Overall length of the runner block = 66
Interchangeable element
Unpacked Weight: 0.0983 kg
Rexroth cam roller guides were specially developed for handling and automation technology.
Product overview
| Data Sheet | Download Data Sheet |
| 2D CAD | Download 2D CAD |
| 2D CAD | Download 2D CAD |
| 3D CAD | Download 3D CAD |
| 3D CAD | Download 3D CAD |
| Manual | Download Manual |
| Manual | Download Manual |
| Manual | Download Manual |
| Manual | Download Manual |
| Manual | Download Manual |
| Maximum static load due to a resulting force in the y-direction F0y max | 350 |
| Height of runner block | 8.5 |
| Size SW2 | 7 |
| Size E3 (profiled rail systems) | 3 |
| Dynamic load capacity in z-direction Cz | 668 |
| Maximum operating temperature | |
| Static load capacity in z-direction C0z | 392 |
| Size E2 (profiled rail systems) | 33 |
| Maximum dynamic load in y-direction Fy max | 350 |
| Dynamic load capacity in y-direction Cy | 1150 |
| Max. acceleration amax | 50 |
| Minimum operating temperature | |
| Static load capacity in y-direction C0y | 800 |
| Size A (profiled rail systems) | 28 |
| Size SW1 | 2 |
| Self-aligning for compensation of misalignments | Without self-alignment |
| Maximum permissible linear speed vmax | 10 |
| Static torsional moment about the y-axis M0y | 6,6 |
| Lubrication | Without initial lubrication and without preservation |
| Ball chain | Without roller chain |
| Operating temperature | -20 °C ... +80 °C |
| Dynamic torsional moment around the z-axis Mz | 19,5 |
| Static torsional moment about the z-axis M0z | 13,5 |
| Maximum permissible dynamic torsional moment about the x-axis Mx max | 1,4 |
| Maximum permissible static torsional moment about the x-axis M0x max | 2,2 |
| Height of runner block with guide rail | 28 |
| Dynamic torsional moment around the y-axis My | 11,3 |
| Dynamic torsional moment around the x-axis Mx | 4,8 |
| Static torsional moment about the x-axis M0x | 2,8 |
| Maximum dynamic load in z-direction Fz max | 200 |
| Size B (profiled rail systems) | 66 |
| Note: Maximum permissible speed vmax | For average load. |
| Preload class | C0 – Without preload (clearance) |
| Maximum static load due to a resulting force in the z-direction F0z max | 300 |
| Maximum permissible dynamic torsional moment about the z-axis Mz max | 6,1 |
| Maximum permissible static torsional moment about the z-axis M0z max | 6,1 |
| Size B1 (profiled rail systems) | 56 |
| Size H (profiled rail system) | 28 |
| Size H3 (profiled rail systems) | 20 |
| Productgroup ID | 17 |
| Maximum permissible dynamic torsional moment about the y-axis My max | 3,4 |
| Size H2 (profiled rail systems) | 13 |
| Maximum permissible static torsional moment about the y-axis M0y max | 5,1 |
| Size A1 (profiled rail systems) | 33 |
| Size E4 | 34 |
| Runner block or guide rail | Runner block |
| Width of runner block | 28 |
| Length of runner block | 66 |
| Linear guide type | Cam roller guides |
| Size E1 (profiled rail systems) | 20 |
| Weight | 0.0983 |
| Nominal size | 20 |
| Size H1 (profiled rail systems) | 8.5 |
Technical data
|
Size |
20 | |
|
Fy max |
N |
350 |
|
F0y max |
N |
350 |
|
Fz max |
N |
200 |
|
F0z max |
N |
300 |
|
Mx max |
Nm |
1,4 |
|
M0x max |
Nm |
2,2 |
|
My max |
Nm |
3,4 |
|
M0y max |
Nm |
5,1 |
|
Mz max |
Nm |
6,1 |
|
M0z max |
Nm |
6,1 |
|
vmax 1) |
m/s |
10 |
|
amax |
m/s² |
50 |
|
Temperature stability |
-20 °C ... +80 °C | |
|
Weight |
kg |
0.08 |
| 1) | For average load. |
| Attention: Not to be used for the life expectancy calculation! | |
| For service life calculations use the load ratings and moments given in the tables for service life calculations. |
Load ratings and moments for calculating the service life
|
Size |
20 | |
|
Cy |
N |
1150 |
|
C0y |
N |
800 |
|
Cz |
N |
668 |
|
C0z |
N |
392 |
|
MX |
Nm |
4,8 |
|
M0x |
Nm |
2,8 |
|
My |
Nm |
11,3 |
|
M0y |
Nm |
6,6 |
|
Mz |
Nm |
19,5 |
|
M0z |
Nm |
13,5 |
| Observe maximum permissible loads due to forces and moments as shown in the "Technical data” table! |
Legend
|
Symbol |
Description |
Unit |
Picture |
|
Cy |
Dynamic load capacity in y-direction |
N |
|
|
C0y |
Static load capacity in y-direction |
N |
|
|
Cz |
Dynamic load capacity in z-direction |
N |
|
|
C0z |
Static load capacity in z-direction |
N |
|
|
Fy max |
Maximum dynamic load in y-direction |
N |
|
|
F0y max |
Maximum static load due to a resulting force in the y-direction |
N |
|
|
Fz max |
Maximum dynamic load in z-direction |
N |
|
|
F0z max |
Maximum static load due to a resulting force in the z-direction |
N |
|
|
Mx max |
Maximum permissible dynamic torsional moment about the x-axis |
Nm |
|
|
M0x max |
Maximum permissible static torsional moment about the x-axis |
Nm |
|
|
My max |
Maximum permissible dynamic torsional moment about the y-axis |
Nm |
|
|
M0y max |
Maximum permissible static torsional moment about the y-axis |
Nm |
|
|
Mz max |
Maximum permissible dynamic torsional moment about the z-axis |
Nm |
|
|
M0z max |
Maximum permissible static torsional moment about the z-axis |
Nm |
|
|
vmax |
Maximum permissible speed |
m/s |
|
|
amax |
Maximum acceleration travel |
m/s2 |
|
|
MX |
Dynamic torsional moment about the x-axis |
Nm |
|
|
M0x |
Static torsional moment about the x-axis |
Nm |
|
|
My |
Dynamic torsional moment about the y-axis |
Nm |
|
|
M0y |
Static torsional moment about the y-axis |
Nm |
|
|
Mz |
Dynamic torsional moment about the z-axis |
Nm |
|
|
M0z |
Static torsional moment about the z-axis |
Nm |
Rigidity
An increased rigidity can be achieved with higher pre-tensioning force by using eccentric setting.
Acceleration
High accelerations are permitted if slippage is avoided. For this, the pre-tensioning force FV by increasing the eccentric setting; see diagram.
Attention: The maximum permissible load is reduced by the increase of the pre-tensioning force.
| 1) | Permissible range |
| 2) | a = acceleration |
| 3) | Fv/Cy = standard setting |
Centric pins are already tightened when delivery.