RGS08 RGS08 Non-Motorized With and Without Guide RGS08 Non-Motorized Linear Rails RG Series linear rails are available: RGS08 Non-Motorized, -driven linear rail RGS08 Non-Motorized linear rail without screw Non-motorized RGS linear rails feature standard wear-compensating, anti-backlash driven carriages to insure repeatable and accurate positioning. All moving surfaces include Kerkite engineered polymers running on Kerkote TFE coating, providing a strong, stable platform for a variety of linear motion applications. To determine what is best for your application see the Linear Rail Applications Checklist on page 4. RGS08 non-motorized with drive screw Identifying the Non-Motorized RGS part number codes when ordering RG S 08 K A 0200 XXX Prefix RG = Rapid Guide Frame Style S = Standard Frame Size Load 08 = 50 lbs (222 N) (Maximum static load) Coating K = TFE Kerkote X = Special (example: Kerkote with grease Carriage holes available in Metric sizes M3 M4 M5 M6 Drive / Mounting A = None Nominal Thread Lead Code 0000 = No screw 0100 =.100-in (2.54) 0200 =.200-in (5.08) 0500 =.500-in 1000 = 1.000-in Unique Identifier Suffix used to identify specific features or a proprietary suffix assigned to a specific customer application. The identifier can apply to either a standard or custom part. NOTE: Dashes must be included in Part Number ( ) as shown above. For assistance or order entry, call our engineering team at 603 213 6290. 1
RGS08 RGS08 Non-Motorized Rapid Guide Rail RGS08 screw-driven linear rail WITHOUT MOTOR Specifications Inch Lead Thread Lead Code Nominal Rail Diam. Nominal Diam. Typical Drag Torque oz - in (NM) Life @ 1/4 Design (cm) Torque-to- Move oz-in/lb (NM/Kg) Design lbs (N) Inertia oz-in sec 2 /in (KgM 2 /M) RGS08 Non- Motorized with Guide.100 (2.54).200 (5.08).500 1.000 (25.40) 0100 0200 0500 1000 0.8 0.8 0.8 0.8 1/2 1/2 1/2 1/2 5.0 (.04) 6.0 (.04) 7.0 (.05) 8.0 (.06) NOTE: RGS assemblies with lengths over 36-in. (914.4 mm) and/or leads higher than.5-in (12.7 mm) will likely have higher drag torque than listed values. * Determined with load in a horizontal position 1.1 (.018) 1.7 (.027) 3.0 (.047) 6.0 (.096) 50 (222) 50 (222) 50 (222) 50 (222) 5.2 x 10-5 (20.0 x 10-6 ) 5.2 x 10-5 (20.0 x 10-6 ) 5.2 x 10-5 (20.0 x 10-6 ) 5.2 x 10-5 (20.0 x 10-6 ) Dimensional Drawings: RGS08 screw-driven linear rail WITHOUT Motor Recommended for horizontal loads up to 50 lbs (222 N) Dimensions = es N +.0000.0005 (+0.0 0.013) A B C D D1 E F G H K L1 L2 N RGS08.80 1.50 (38.1).2500 (6.350) 1.60 (40.6) 1.60 (40.6) 1.06 (26.9) 2.7 (69) 1.750 (44.45) 1.000 10-24 1.3 (33) 1.09 (27.7).77 (19.6).625 (15.88) RGS08 P Q R S T U V X Y Z1 Z2 Z3 1.250 (31.75) 1.00 1.04 (26.4).74 (18.8).30 (7.6).51 (13.0) 1.47 (37.3).70 (17.8).220 (5.59).20 (5.1).33 (8.4).19 (4.8) * Metric carriage hole sizes available: M3, M4, M5 and M6 2
RGS08 RGS08 Non-Motorized RGS08 without Guide Dimensional Drawings: RGS08 WITHOUT motor and WITHOUT Guide Recommended for horizontal loads up to 50 lbs (222 N) Dimensions = es A D D1 E F G H N P Q S T U V Z1 Z2 Z3 RGS08.80 1.60 (40.6) 1.60 (40.6) 1.06 (26.9) 2.7 (69) 1.750 (44.45) 1.00 10-24.625 (15.88) 1.250 (31.75) 1.0.74 (18.8).30 (7.6).51 (13.0) 1.47 (37.3).20 (5.1).33 (8.38).19 (4.82) * Metric carriage hole sizes available: M3, M4, M5 and M6 3
Information needed to properly size a linear rail system Haydon Kerk Linear s are designed to be precision motion devices. Many variables must be considered before applying a particular rail system in an application. The following is a basic checklist of information needed that will make it easier for the Haydon Kerk engineering team to assist you in choosing the proper linear rail. Linear Rail Application Checklist 1) Maximum Load? (N or lbs.) 2) Load Center of Gravity (cg) Distance and Height (mm or es)? See illustrations (A) (B) (C) below. Dimensions ( mm / ): (A)... OR... (B) AND... (C) (A) (C) (B) 3) Rail Mount Orientation? The force needed to move the load is dependent on the orientation of the load relative to the force of gravity. For example, total required force in the horizontal plane (D) is a function of friction and the force needed for load acceleration (F f + F a ). Total force in the vertical plane is a function of friction, load acceleration, and gravity (F f + F a + F g ). Orientation: (D) (E) (F) (G) (H) 4
Linear Rail Application Checklist (Continued) 4) Stroke Length to Move Load? (mm or es) Overall rail size will be a function of stroke length needed to move the load, the rail frame size (load capability), the motor size, and whether or not an integrated stepper motor programmable drive system is added. 5) Move Profile? A trapezoidal move profile divided into 3 equal segments (J) is a common move profile and easy to work with. Another common move profile is a triangular profile divided into 2 equal segments (K). (J) (K) If using a trapezoidal (J) or triangular (K) move profile, the following is needed a) Point to point move distance (mm or es) b) Move time (seconds) including time of acceleration and deceleration c) Dwell time between moves (seconds) The trapezoidal move profile (J) is a good starting point in helping to size a system for prototype work. A complex move profile (L) requires more information. a) Time (in seconds) including: T 1, T 2, T 3, T 4, T 5 T n and T dwell b) Acceleration / Deceleration (mm/sec. 2 or es/sec. 2 ) including: A 1, A 2, A 3 A n For more information call Haydon Kerk Motion Solutions Engineering at 203 756 7441. (L) 5
Linear Rail Application Checklist (Continued) 6) Position Accuracy Required? (mm or es) Accuracy is defined as the difference between the theoretical position and actual position capability of the system. Due to manufacturing tolerances in components, actual travel will be slightly different than theoretical commanded position. See figure (M) below. 7) Position Repeatability Required? (mm or es) Repeatability is defined as the range of positions attained when the rail is commanded to approach the same position multiple times under identical conditions. See figure (M) below. (M) 8) Positioning Resolution Required? (mm/step or es/step) Positioning resolution is the smallest move command that the system can generate. The resolution is a function of many factors including the drive electronics, lead screw pitch, and encoder (if required). The terms resolution and accuracy should never be used interchangeably. 9) Closed-Loop Position Correction Required? YES NO In stepper motor-based linear rail systems, position correction is typically accomplished using a rotary incremental encoder (either optical or magnetic). 10) Life Requirement? (select the most important application parameter) a) Total mm or es... or... b) Number of Full Strokes... or... c) Number of Cycles 11) Operating Temperature Range ( C or F) a) Will the system operate in an environment in which the worst case temperature is above room temperature? b) Will the system be mounted in an enclosure with other equipment generating heat? 12) Controller / Drive Information? a) Haydon Kerk IDEA Drive (with Size 17 Stepper Motors only) b) Customer Supplied Drive... Type? Chopper Drive L / R Drive Model / Style of Drive: 13) Power Supply Voltage? (VDC) 14) Step Resolution? a) Full Step b) Half-Step c) Micro-Step 15) Drive Current? (A rms / Phase) and (A peak / Phase) 16) Current Boost Capability? (%) 6
RGS06 RGS06 Non-Motorized Rail without Guide Dimensional Drawings: RGS04 WITHOUT MOTOR and WITHOUT GUIDE SCREW Recommended for horizontal loads up to 15 lbs (67 N) Dimensions = es * Metric carriage hole sizes available: M3, M4, M5 and M6 Dimensions: RGS04 Standard, non-motorized without guide screw A D D1 E F G H N P Q S T U V Z1 Z2 Z3 RGS06.60 (15.2) 1.25 (31.8).75 (19.1).53 (13.5) 1.4 (36) 1.000.500 (25.40) 4-40.375 (9.53).600 (15.24).50.37 (9.4).15 (3.8).23 (5.8).73 (18.5).11 (2.8).20 (5.1).09 (2.3) Rapid Guide Inch Lead Thread Lead Code Nominal Rail Diam. Nominal Diam. Typical Drag Torque oz - in (NM) Life @ 1/4 Design (cm) Torque-to- Move oz-in/lb (NM/Kg) Design lbs (N) Inertia oz-in sec 2 /in (KgM 2 /M) RGS06 Non- Motorized.100 (2.54).200 (5.08).500 1.000 (25.40) 0100 0200 0500 1000 0.4 (10.2) 0.4 (10.2) 0.4 (10.2) 0.4 (10.2) 3/8 (9.5) 3/8 (9.5) 3/8 (9.5) 3/8 (9.5) 4.0 (.03) 5.0 (.04) 6.0 (.04) 7.0 (.05) 1.0 (.016) 1.5 (.023) 2.5 (.039) 4.5 (.070) 35 (156) 35 (156) 35 (156) 35 (156) 1.5 x 10-5 (4.2 x 10-6 ) 1.5 x 10-5 (4.2 x 10-6 ) 1.5 x 10-5 (4.2 x 10-6 ) 1.5 x 10-5 (4.2 x 10-6 ) 7
RGS06 RGW04 Non-Motorized Wide Rail without Guide Dimensional Drawings: RGS04 WITHOUT MOTOR and WITHOUT GUIDE SCREW Recommended for horizontal loads up to 15 lbs (67 N) A D D1 E F G H N P Q S T U V Z1 Z2 Z3 RGS06.60 (15.2) 1.13 (28.6) 1.13 (28.6).79 (20.1) 2.0 (51) 1.500 (38.10).750 (19.05) 6-32.500.900 (22.86).74 (18.8).55 (14.0).22 (5.6).35 (8.9) 1.10 (27.9).14 (3.6).25 (6.4).13 (3.3) Dimensional Drawings: RGS06 WITHOUT MOTOR and WITHOUT GUIDE SCREW RGW Motor Mount Series Recommended for horizontal loads up to 15 lbs (67 N) Dimensions = es Dimensions Wide No-Mo RGW06 A D D1 F G H.60 (15.2) 2.00 (50.8) 1.13 (28.6) 2.0 (51) 1.500 (38.10).750 (19.05) 6-32 N P Q S1 T U V Z1 Z2 Z3.500 1.460 (37.08) 1.04 (26.4).83 (21.2).51 (13.0).63 (16.0) 1.39 (35.3).14 (3.6).25 (6.4).14 (3.6) RGW10 1.00 A D D1 F G H 3.38 (85.7) 2.00 (50.8) 3.3 (83) 2.250 (57.15) 1.250 (31.75) 1/4-20 N P Q S1 T U V Z1 Z2 Z3.500 2.600 (66.04) 1.56 (39.6) 1.22 (31.0).69 (17.5) 1.33 (33.8) 2.15 (54.6).26 (6.6).40 (10.2).43 (10.9) Dimensions = es A D D1 E F G H N P Q S T U V Z1 Z2 Z3 RGS06.60 (15.2) 1.25 (31.8).75 (19.1).53 (13.5) 1.4 (36) 1.000.500 (25.40) 4-40.375 (9.53).600 (15.24).50.37 (9.4).15 (3.8).23 (5.8).73 (18.5).11 (2.8).20 (5.1).09 (2.3) RGW06 Sensor Mount Kit Part No. RGW06SK Sensor mounting kits, based on a U-channel optical sensor, are available for the RGW Series. Each kit includes one flag, three sensor mounts, and all mounting hardware. Sensors are not included in the kit and must be ordered separately from the sensor manufcturer. FLAG mounts to side of carriage SENSOR MOUNT inserts into slot of RGW base
Information needed to properly size a linear rail system Haydon Kerk Linear s are designed to be precision motion devices. Many variables must be considered before applying a particular rail system in an application. The following is a basic checklist of information needed that will make it easier for the Haydon Kerk engineering team to assist you in choosing the proper linear rail. Linear Rail Application Checklist 1) Maximum Load? (N or lbs.) 2) Load Center of Gravity (cg) Distance and Height (mm or es)? See illustrations (A) (B) (C) below. Dimensions ( mm / ): (A)... OR... (B) AND... (C) (A) (C) (B) 3) Rail Mount Orientation? The force needed to move the load is dependent on the orientation of the load relative to the force of gravity. For example, total required force in the horizontal plane (D) is a function of friction and the force needed for load acceleration (F f + F a ). Total force in the vertical plane is a function of friction, load acceleration, and gravity (F f + F a + F g ). Orientation: (D) (E) (F) (G) (H) 8
Linear Rail Application Checklist (Continued) 4) Stroke Length to Move Load? (mm or es) Overall rail size will be a function of stroke length needed to move the load, the rail frame size (load capability), the motor size, and whether or not an integrated stepper motor programmable drive system is added. 5) Move Profile? A trapezoidal move profile divided into 3 equal segments (J) is a common move profile and easy to work with. Another common move profile is a triangular profile divided into 2 equal segments (K). (J) (K) If using a trapezoidal (J) or triangular (K) move profile, the following is needed a) Point to point move distance (mm or es) b) Move time (seconds) including time of acceleration and deceleration c) Dwell time between moves (seconds) The trapezoidal move profile (J) is a good starting point in helping to size a system for prototype work. A complex move profile (L) requires more information. a) Time (in seconds) including: T 1, T 2, T 3, T 4, T 5 T n and T dwell b) Acceleration / Deceleration (mm/sec. 2 or es/sec. 2 ) including: A 1, A 2, A 3 A n For more information call Haydon Kerk Motion Solutions Engineering at 203 756 7441. (L) 9
Linear Rail Application Checklist (Continued) 6) Position Accuracy Required? (mm or es) Accuracy is defined as the difference between the theoretical position and actual position capability of the system. Due to manufacturing tolerances in components, actual travel will be slightly different than theoretical commanded position. See figure (M) below. 7) Position Repeatability Required? (mm or es) Repeatability is defined as the range of positions attained when the rail is commanded to approach the same position multiple times under identical conditions. See figure (M) below. (M) 8) Positioning Resolution Required? (mm/step or es/step) Positioning resolution is the smallest move command that the system can generate. The resolution is a function of many factors including the drive electronics, lead screw pitch, and encoder (if required). The terms resolution and accuracy should never be used interchangeably. 9) Closed-Loop Position Correction Required? YES NO In stepper motor-based linear rail systems, position correction is typically accomplished using a rotary incremental encoder (either optical or magnetic). 10) Life Requirement? (select the most important application parameter) a) Total mm or es... or... b) Number of Full Strokes... or... c) Number of Cycles 11) Operating Temperature Range ( C or F) a) Will the system operate in an environment in which the worst case temperature is above room temperature? b) Will the system be mounted in an enclosure with other equipment generating heat? 12) Controller / Drive Information? a) Haydon Kerk IDEA Drive (with Size 17 Stepper Motors only) b) Customer Supplied Drive... Type? Chopper Drive L / R Drive Model / Style of Drive: 13) Power Supply Voltage? (VDC) 14)* Step Resolution? a) Full Step b) Half-Step c) Micro-Step 15)* Drive Current? (A rms / Phase) and (A peak / Phase) 16)* Current Boost Capability? (%) * If the Haydon Kerk IDEA Drive is used disregard items 14, 15, and 16. 10