PROFESSIONAL PRODUCTION OF LINEAR GUIDE SYSTEM
ABOUT JINSHANMEN
As a professional company in the field of linear guide slide, Zhejiang JINSHANMEN Transmission Technology Co., Ltd. has been committed to providing customers with high quality and high performance linear guide slide products since its establishment. With years of technological accumulation and innovative development, our products have been widely used in automation equipment, precision instruments, CNC machine tools and other fields, well received by customers.
Our linear sliders have excellent load bearing capacity, high rigidity and low coefficient of friction to provide stable, accurate linear motion for our customers' equipment. In order to ensure product quality, we have adopted advanced production technology and strict quality control system to ensure that every product can meettheneedsofcustomers.
In addition to providing high quality products, we also focus on providing customers with perfect pre-sale, sale and after-sales service.Our professional team will provide you with selection advice,technical support and solutionstoensureyougetthebestexperienceduringuse.
In the future, we will continue to adhere to the "customer first, quality first" business philosophy, and constantly innovate and improve the product line to meet the growing needs of customers. We look forward to workingwithyoutocreateabetterfuture!
EXQUISITECRAFTSMANSHIP ANDINTELLIGENTMANUFACTURING
We provide innovative design solutions for the special needs of our customers, and new solutions come from innovative thinking.
We persistently develop more advanced connections for our customers.
ATTHEFOREFRONTOFTHEINDUSTRY,CREATINGVALUEAND UNLIMITEDPOSSIBILITIESABOVECUSTOMERNEEDS.
PRODUCT CATALOG
Preface 04
1. Basic Information 05
1-1 Advantages of the JSM linear guide rail 05
1-2 Usage Scenario 06
1-3 Selection criteria 07
1-4 Rated load 08
1-5 linear guide rail life 09
1-6 Work load 11
1-7 Friction force 14
1-8 Lubrication 15
1-9 Guide Rail attachment 15
1-10 Configuration of the linear guide rail 16
1-11 Installation of the linear guide rail- 17
2. Product series 24
2-1 HB series-heavy load Rolling bead linear guide rail-- 25
2-2 EB series-low assembled Rolling bead linear guide rail- 46
2-3 MB series-micro small Rolling bead linear guide rail--- 61
The company advocates a working relationship of unity and cooperation. We firmly believe that only by working together and keeping a unified pace can the team move forward courageously. Therefore, excellent cooperation spirit and good communication skills are the top standards for us to choose talents. Our team has α group of vibrant young talents, not only in terms of education and qualifications, but also in terms of performance, which is the source of our vitality.
PREFACE
THE LINEAR GUIDE RAIL SYSTEM is a kind of rolling guide, which is infinite rolling loop between the slide and the guide rail, and the load platform can easily make linear motion with high precision. Compared with the traditional sliding guide, the friction coefficient of the rolling guide can be reduced to 1/50 of the original. Because the starting friction is greatly reduced, relatively less ineffective motion occurs, so it can easily reach \upmu m level feed and positioning. In addition, the design of the beam making unit between the slider and the guide rail makes the linear guide rail can bear the load of the upper, lower, left and right directions at the same time. The above display characteristics are not comparable to the traditional sliding guide. Therefore, if the machine can cooperate with the ball screw and use the linear guide rail as the guide, the accuracy and mechanical efficiency of the equipment will be greatly improved.
1-1 Advantages of the JSM linear guide rail
1. High positioning accuracy
The linear guide rail adopts rolling friction mode with low friction coefficient, which can realize high precision positioning motion and achieve the micron-level positioning accuracy.
2.High stiffness
The linear guide rail uses the ball or rolling steel ball as the rolling element, can withstand multiple directions of the load, with high stiffness, suitable for use in high speed movement or heavy load conditions.
3.Low friction and high efficiency
The rolling friction of the linear guide rail is small, which can reduce the energy loss, improve the transmission efficiency, and reduce the impact and vibrationphenomenonof the movement.
4.High-speed sports ability
Linear guide rail is suitable for high-speed movement, which can achieve fast feed speed and improve the production efficiencyoftheequipment.
5.Long-term life and stability
Linear guide rail adopts high quality materials and precision machining technology, with long service life and stability, and canmaintain high precision and reliability.
6.Adjustment
The linear guide rail has the ability of automatic centering,which can automatically absorb the deviation of the mounting surface and achieve a smooth motion with high accuracy.
7.High-load capacity
The linear guide rail can withstand large loads and is suitable for various engineering and mechanical equipment.
8.Dustproof and sealing capacity
The linear guide rail has a good dustproof seal design, which can effectively prevent dust and pollutants from entering the guide rail and prolong the service life.
1-2 Usage scenario
Linear guide rail is widely used in CNC machine tools, grinding machine, milling machine, lathe and other machine tools, which can provide high precision and stable motion control, improve machining accuracyandefficiency.
2.Automatic production line
Linear guiderail plays an importantrole in the automaticproduction line, used in material handling, assembly, packaging and other links, which can realize high-speed and accurate motion control and improve productionefficiency.
3.Electronic equipment
1.Machine tool industry
Linear guiderail is widely used in semiconductor manufacturing equipment, LCD panel production equipment, optical instruments and other electronic equipment,whichcan provide highprecision motion control, to ensure product quality.
4.Medical equipment
Linear guide rail is widely used in the field of medical equipment, such as surgical robot, CT scanner,medical bed,etc., which can achieve precise positioning and motion control, and improve surgical accuracy and patient comfort.
5.Transportation
Linear guide rail is applied in high-speed rail, subway, tram and other transportation equipment,whichcan provide smooth movement and accurate positioning,to ensure the safety and comfort of passengers.
1-3 Selection criteria
Use condition setting
Choose a series of products
⊚ HB series: grinding machine, milling machine. lathe, drill machine, integrated processing machine, discharge processing machine, bed bed, wire cutting machine, precision measuring instrument, woodworking machine, handling machine, transport device.
⊚ EB series: industrial automation machine, semiconductor machinery, laser engraving machine, packaging machine. MB N/M BW series: printer, robotic arm, electronic instrument equipment, semiconductor equipment.
⊚ RB series: CNC machining machine, heavy chip processor, CNC grinding machine, shot forming machine, large gantry machine tool
Choose the accuracy level
⊚ C.H,P.SP.UP Grade depends on the accuracy requirements of the equipment
Assuming slider size and number
⊚ Chooseaccordingtoexperience
OLoadconditions
⊚ If used with the ball screw,the linear guide gauge used is similar to the outer diameter of the screw, such as the outer diameterofthescrewis 32\mathsf{mm} pickthesimilarspecificationofHG35.
Calculate themaximum slider load
⊚ Themaximum equivalent load for individual liders
⊚ Confirm that the static safety factor of the selected linear guide rail shall exceed the value listed in the static safety factor use table
Select pre-pressure
⊚ According to therigid requirements and theinstallation surface accuracy selection
Confirm rigidity
OCalculate the deformation amount according to the rigid table O Increase the prepressure, increase the size or the number of sliders to improve the rigidity
Calculate the service life
⊚ Calculate thelife distancerequirementsaccording to theuse speed and frequency ⊚ Calculatethelifedistanceoftheselectedlinearguiderailaccording tothelifeformula
Lubrication selection
⊚ Lubricant selection,according tothe equipment requirements canchoose grease,lubricant oil orspeciallubricant lubrication Regularly inject lubricating grease or automaticoil supply
The selection of the linear guide rail is completed
1-4 Rated load
1-4-1 Basic static rated load
(1)Definition of basic dynamic rated load (CO)
If the linear guide bears too much load during rest or moving, the contact surface and the local permanent deformation will exceed a certain limit, which will prevent the smoothness of the linear guide movement. The basic static rated load is the limit load allowed for this permanent deformation. According to the definition: when the direction and size of the load remain the same, the total permanent deformation of the steel bead and the surface of the bead path is the static load at 1/10,000 ofthediameterofthesteelbead.
The value of basic static rated load is detailed in the table of each specifications; users can select suitable linear guide, but it must be noted that the maximum static load of the selected linear guide in operation shall not exceed the basic static ratedload.
(2)Definition of the allowable static moment (MO)
When the maximum stress in the slider reaches the static rated load defined above, the moment carried by the slider is called thestaticrated moment.Inthelinearrail movement,MR,MPandMYaredefined:
(3)Static safety factor
When the linear guide rail is used in slow motion or low movement frequency, the static safety factor should be considered. According to the different use conditions, the calculation of the static load must be considered with different safety factors,especially when the guide rail is affected by the impact load, the need to use a larger safety factor.
| loading condition | fsL、 floor SM |
| Generalhealth | 1.0-3.0 |
| Impact and vibration during operation | 3.0-5.0 |
\boldsymbol{\mathsf{f}}_{{s_{L}}} :static safety factor \mathsf{C}_{\circ} :Basic static rated load (kN) P :Workload (kN) \boldsymbol{\mathsf{f}}_{\mathsf{s w}} :Static safety factor (moment load) \mathsf{M}_{\mathsf{o}} :allowable static moment IkNm) M :Static moment load (kNom)
1-4-2 Basic dynamic-rated load
(1)Definition of basic dynamic load (C)
The basic dynamic rated load is used for the life calculation when the linear guide rail bears the load and makes the rolling movement. It is defined as the maximum load when the rated life of the linear rail is 50\mathsf{k m} undertheconstantdirectionand sizeoftheload (100k m for the roller linear rail). This value is detailed in the size table of each specification. The user can estimatetherated lifeof theselected linearrail inadvance.
1-5 Linear guide rail life
1-5-1 life span
When the linear guide rail bears the load and moves, the surface of the bead path and the steel bead are constantly subjected to the cyclic stress.Once it reaches the criticalvalue of rollingfatigue,the contact surface will begin toproduce fatigue damage, and the peeling phenomenon of fish scale sheet occurs on part of the surface. This phenomenon is called surface stripping. Life is defined as the total operating distance between the surface of the bead path and the steel bead due tomaterialfatigue.
1-5-2 Rated life span
The life of the linear guide is very dispersed, even in the same batch; this is mostly attributed to the inherent change in the fatigue characteristics of the material itself. Therefore, to define the life of the linear rail,the rated life is generally used; it is defined as the same products operating under the same conditions and rated load, of which 90% ofthetotaloperating distance can be achieved without surface stripping.
1-5-3 Lifetime calculation
The life of the linear guide rail will vary according to the actual working load, and the service life can be calculated according to the basic dynamic rated load and workingload of the selected linear guiderail.
gardless of environmental factors,thelife span calculation is show
L :rated life span
C :Basic dynamic rated load
P:working load
(2)If the environmental factors used by the linear guide rail are considered, its life will change with the moving state, the surface hardness of the bead path and the system temperature.
L=((\rho_{\mathsf{h}}*\rho_{\mathsf{t}}* C)/(\rho_{\mathsf{w)}* P_{\mathsf{c}}}\ )^{s*50k m=((\rho_{\mathsf{h}}*\rho_{\mathsf{t}}* C)/(\rho_{\mathsf{w)}* P_{\mathsf{c}}}\ )^{s}*31m\mathsf{i}\verte}
L :life span
\mathsf{f}_{\mathsf{h}} :Coefficient of hardness
C:Basic dynamic rated load
\boldsymbol{\mathsf{f}}_{\mathfrak{t}} :Temperature coefficient
\mathsf{P}_{c} :Working load
\boldsymbol{\mathsf{f}}_{w} :Load factor
1-5-4 lifetime coefficient
(1)Hardness coefficient (f_{\mathfrak{h}})
The hardness of the bead path contact surface of the linear rail should be HRC 58\~62 at a certain hardening depth. If the hardness value cannot reach the required level, the rated load and service life of the linear rail will be reduced. At this time, the dynamic and static rated load is the size table value and then multiplied by the corresponding hardness coefficient. The hardness of straight rail of JSM is aboveHRC58,sofh is 1.
(2)Temperature coefficient (ft)
The temperature of the system will have animpact on the materialof the linearrail.When the temperature is higher than 100°C_{i} therated load and service life of the linear rail will bereduced.At this time,the dynamic and static rated load is the size table and multiplied by the corresponding temperature coefficient. Because some accessories are plastic material is not resistant tohightemperature, so it is recommended that the use temperature should belower than 100°C
Temperature
(3)Load coefficient (fw)
Function on the linear rail load, in addition to the device itself weight, stop the inertia load and the suspension from the load, and movement with vibration and impact load, this type of load is not easy to calculate, according to the load condition and use speed, it is recommended to calculate the load value multiplied by the corresponding load coefficient.
| Loadstatus | The speed ofuse | + W |
| No impact force and smooth | V≤15m/min | 1 ~ 1.2 |
| Small impact | 15 m/min | 1.2 ~ 1.5 | |
| Ordinaryloadforce | 60 m/min | 1.5~2.0 | |
| Impactforceandvibration | V>120m/min | 2.0~3.5 |
1-5-5 Conversion of the lifetime time
The life distance is converted to the life time according to the service speed and frequency.
L_{h} :Life time (hr) L :lifespan(km) \mathsf{V_{e}} :Running rate(m/min) {\mathsf{C}}/{\mathsf{P}} :turndownratio
1-6 Workload
1-6-1 Workload calculation
Work load calculation method will change with the actual force distribution situation, such as the position of the center of gravity, the force position, and running start, stop the acceleration of inertia force affect the load calculation, so the use of linear rail must carefully consider all kinds of load condition, to calculate the most correct load value.
(1) Inertial force load
Table4.Exampleof inertialforceloadcalculation
(2) A single slider to bear the load
| Linearguideconfigurationdiagram | Forcedistributionmap | A singleslider load F·a F·b 2c 2d | |
| Z/p | W 4 4 W F F·a F·b 4 4 2c 2d F·b 2c 2d F F·b 4 2c 2d | ||
| P4 | F d/2 d/2 | 2c 2d F F·b 4 2c 2d W F F·a F·b 4 2c 2d W F F·a F·b 4 4 2c 2d W F·1 4 2d | |
| P2= P4= W.F·I 2d | |||
| .W·h. F·1 P,~P= - 2d | |||
| W·h F·| | |||
| 2C 2c | |||
| F·k | |||
| W | |||
| 4 | |||
| 4 | |||
| 2d | |||
| P4 | |||
| P4 | |||
| F | |||
| F·k | |||
| 4 2d | |||
1-6-2 Mean load calculation
In operation, the load of the slider is sometimes not equal., for example, in the operation of the delivery device, it bears the extra weight of the goods when advancing, and only bears the weight of the device itself when returning. The load presents a step change. Therefore, the average load in operation must be calculated to calculate the life. The average load is defined as an equivalent load value equal to the life under load changes.
| Typeof load change | Averageloadforce |
| Step change | 1/L(P3·L,+P3·L2+...+P3·L) Pm:Average load P,:variable load L:totaloperating distance L,:operating distance subject to p load |
| Monotonic changep, | Pm=1/3(Pmin+2·Pmg Pm:Average load |
| Pm=0.65·P max | |
| Sine type change p | Pmin :minimum load Pmax:maximum load Pm:Average load :maximumload |
3 Equivalent load calculation in both direc
The linear guide can bear the upper, lower, left and right direction load, so when using the linear guide, it may be both the vertical direction load (Ps) and the side direction load (Pl), so the equivalent load (Pe) can be converted according to the following formula.
P=Ps+P,
When P,>P, P=P,+0.5·P, When P,>Ps P_{e}{=}P_{l}{+}0.5* P_{s}
1-6-4 Example of service life of linear rail
According to the experience, the type and specifications of the linear guide rail are selected, and then the maximum working load of a single slider is estimated according to the actual use situation, and the load ratio between the dynamic rated load and the working load is calculated to calculate its service life.
| Usespecificationofthelinearguiderail | Equipment size | Processing conditions |
| Form:HB 30 CA C :38.74kN C.:52.19 kN prepressure:Z0 P2 P4 | d:600 mm The weight of the device itself c:400 mm Drilling force h:200 mm Systemtemperature:roomtemperature |:250 mm Load status: normal load C c/2c/2 | |
| 推力 Z/P | ||
| P,~P= O Calculation of Life L | Sliderbearingloadcalculation Wxh.Fxl +15x200_1x250 =2.29(kN) 2d 2d 2x6002x600 Pmax=|P,~P4|=2.29(kN) Z0 precompression,therefore P=Pmax=2.29(kN) Note:A heavier prepressure(ZA,ZB)will increaserigidity,but reduce its servicelife f,xf.xo 1x1x38.74 x50=30,258(km) fxP 2x2.29 |
1-7 Friction force
The linear guide is guided by steel beads, so the friction can be reduced to 1/ 50 of the traditional sliding guide, especially the static friction is very small, and there is no big difference between the dynamic friction, so the phenomenon of idling slip and the micron motion accuracy; generally speaking, the friction coefficient of the linear guide is about 0.oo4. The resistance of the oil scrapervaries according to different specifications,and its value is listed in thefriction section of each specification
F :friction force (kN) μ:Friction force coefficient S :Scrapper resistance(kN) W :Movement vertical direction load(kN)
If the linear guide is not properly lubrication, the friction of the rolling part will increase, and long-term use will become the main reason for shortening the life. Lubricant provides the following effects:
⊚ Reduce friction in the rolling part, prevent burns, and reduce wear.
⊚ Oil film is formed between the rolling surface, which can prolong the rolling fatigue life.
⊚ Preventrust.
1-8-1 Lube oil grease
Each group of straight guide rail should lubricate the bead groove track. Although the lubricating grease is not easy to lose,in order to avoid insufficient lubrication caused by lubrication loss, it is suggested that the lubricating grease is 100~\mathsf{k m} again. At this time, the oil injection gun can be used by the oil nozzle attached to attach the slider to push the oil into the slider. Lubricating grease is suitable for situations where the speed does not exceed 60m / min and has no cooling requirement
T :Injection frequency(hour) \mathsf{V_{e}} :velocity(m/min)
1-8-2 Lubricating oil
It isrecommended that the customer uselubricating oilwithoilviscosityabout 32~150 cst.JSMcaninstallthetubing connector at the original location of the nozzle as the customer needs, so the customer only needs to connect the preset tubing to the tubing connector. The loss of lubricating oil is faster than that of lubricating oil, and attention must be paid to whether the oil supply is sufficient when using. If the lubrication is insufficient, the abnormal wear of the linear guide rail can reduce itslife.It isrecommended that the oil drillingfrequencyis about 0.3\mathsf{cm}\mathsf{3} /hr,andcustomerscanuseitaccordingto their use conditions.Lubricating oil is suitable for various loads and speed occasions, but it is not suitable for high temperaturelubrication.
1-9 Guide rail connecting tooth piece
The tooth of the guide railmust be installed in accordancewiththemarked sequence on the guide rail to ensuretheaccuracyofthe linear guide rail, and it is recommended thatthetooth position of the paired guide rail should be staggered to avoid the poor accuracy of the bed to the connecting tooth
1-10 Configuration of the linear guide rails
The linear rail can withstand the load in the upper, lower, left and right direction, so the linear rail group can be configured according to themachine structureand working load direction.
Two guide slide movement configuration
Two guide slide movement configuration
Relative two guide rail configurations
Back-facing two guide rail configuration
HB sliderassemblyboltsin different directions
1-11 Installation of the linear guide rails
The installation method of the linear guide rail must be set according to the use condition of the machine, such as the degreeofvibrationandimpactforce,therequiredwalkingaccuracyandthelimitationofthemachine.
1-11-1 Benchmark rail and slave rail
When the non-interchangeable linear guide rail is paired, note the difference between the base rail and the driven rail. The accuracy of the side reference rail is higher than the driven rail, which can be used as the bearing surface of the bed table. The MA marker is engraved on the reference track, as shown in Fig.
1.Fixed method
When the bed table is affected by the vibration and impact force, the guide rail and the slider are likely to deviate from the original fixed position, and affect the accuracy. In order to avoid similar conditions, it is recommended to fix the guide rail and slide with the four fixed modes listed in the following figure, so as to ensure the operation accuracy of the machine.
Use the needle roller to fix
2.Guide rail installation
1. Remove the dirt from the bed and table assembly surface.
4. Use the side fixing screw to press the guide rail side base surface to the bed table side assembly surface in order to
5. Use the torsion plate hand, lock the assembly screw in order with a specific torque,and force the base surface of the bottom of the guide rail to the bottom assembly surface of the bed table
6. Install the remaining paired guides in steps 1 to 5.
4.Slider installation
⊚ Use the assembly screw to attach the bearing platform to theslider
⊚ With the fixing screws, tighten the slider side datum to theplatformside
⊚ Assembly surface to determine the slide position. The locking assembly screw holds the bearing platform in a1-4diagonal order On the slider.
1-11-3 There is no lateral screw mounting on the guide rail
In an installation without fixed screws to ensure parallelism between the driven side guide rail and the reference side guide rail, the guide rail may be installed as indicated below and the slider is the same as in the preceding example.
1.lnstallation of the Benchmark side guide rail
⊚ Tiger clamptighteningmethod Firstuse the assemblyscrewtofixthebase surface of the guiderail at the bottom of the bed table,and then use thevice topress theside basesurfaceof the guiderail to the side of the bed table.After determining the position of the guiderail, use the torsion plate hand, lock the fixed screw inorder with a certaintorque,andforce thebase surfaceofthebottomofthebottomofthebedtable.
2.lnstallation of the slave side guide rail
⊚ Straight-lineblockrules Place the linear block gauge between the two guide rails, calibrate the linear block gauge to make the component gauge parallel to the side base plane of the reference side guide rail, calibrate the driven side guide rail according to the linear block gauge, calibrate from one end of the guide rail and lock the assembly screw with specifictorsionforce in order.
⊚ Mobileplatformmethod The two sliders on the base side are fixed on a measuring platform, and only one slider is installed on the driven side,the guiderail and the slider have not been fastened to the bed and platform, using the driven side slide, measuring the side datum of the driven side slide, calibration from the end of the guide and locking the assemblyscrewinsequence.
⊚ Referencesideguidemethod The two sliders of the base side rail and one of the driven side rail fixed on the platform, then the driven side rail and the bed platform and platform respectively,to the base side of the mobile platform, starting from the rail end, side confirm the driven side straight rail rolling resistance,sidetolock theassemblyscrewwithspecific torque.
⊚ Specialtoolmethod Use special tools to determine the position of the driven siderails andlock the assembly screws withspecific torque.
1-11-4 Installation of assembly surface
In the installation example without lateral positioning assembly surface, in order to ensure parallelism between the driven side guide rail and the reference side guide rail, the guide rail can be installed as shown below, and the slider is the same as intheprecedingexample.
1. Installation of the bunchmark side guide rail ⊚ Falsebenchmarksurfacemethod Two sliders are closely joined to fix them to the measuring plate. According to the base plane near the assemblyof thebedtable guiderail,use thesidebase plane of the reference side guide rail, start from one end of the guiderail and lock the assembly screw with specifictorsionforceinorder.
⊚ Straight-lineblock rules According to thelinearblockrule,usetheside baseofthereferencerail,startthecalibration fromoneendoftherail and locktheassembly screwwithspecifictorqueinorder.
2.lnstallation of the slave side guide rail
memethodaslisted intheno-lateralfixationscrewinstallationexc
1-11-5 Precautions for linear guide rail installation
1. The linear guide rail products should be shipped with appropriate anti-rust oil. Before installation and use, please wipe the anti-rust oil of theguiderailbeforethe slider canbemoved.
2. Confirm the reference rail and the driven rail: when the non-interchangeable straight guide rail is paired, pay attention to the difference between the reference rail and the driven rail. The accuracy of the side reference rail is higher than the driven rail, which can be used as the bearing surface of thebed table.The MA mark is engraved on thebase track.Moreover,when the double track is used, the reference track number is odd, while the guide track number of the driven rail is even. Installation, please follow the symbols(for example,001 and 002,003 and 004.),as shown in Figure 1. For a multi-track installation,please dothisandsoon.
3.Confirmation of installation datum:the guide rail datum is the side plane (B) indicated by the arrow beside the word JSM, and the slider datum is the ground smooth surface (D).(Figure 2)
4. Guide rail tooth piece: the guide railtooth must be installed in accordance with the sequence marked on the guide railto ensure the accuracy of the straight guide rail. The tooth mark is on the upper surface of the tooth end. Please connect the two ends of the same tooth mark together, as shown in Figure 3. Moreover, it is suggested that the tooth position of the
5.When installing thelinear guiderail,do notremove the slider unless necessary.If it is necessary toremove orinstall the slider from the guide rail,please use the attached cliprail as shown in Figure 5.
6. When installing the linear guide rail, do not use the slider of the non-interchangeable guide rail arbitrarily, so as not to affect theaccuracy.
7. When installing the linear guide rail, please use the torsion plate hand, and lock the bolts in order according to the company's recommendationstoensuretherigidityoftheguide
1-11-6 Precautions for linear guide rail maintenance
1. The standard product of linear guide has sealed the good lubricant (lubricating oil or lithium soap base grease) into the slider before shipment. After installation and trial operation, please lubrication the slider again, and use the same lithium soap base lubricant for lubrication.
2. Before the shipment of standard linear guide rails, coating antirust oil around the guide surface; During installation, if it is possible to clean the guide rails, please coat the surface of the guide with the same kind of lubricating oil (please use compatible lubricant).
3. Because the slider of the linear guide rail is composed of many plastic material parts, please avoid contacting or soaking these parts with organic solvents when cleaning, so as to avoid causing damage to the product.
4. The foreign body entering the slider is one of the causes of the failure and damage of the slider, so attention should be paid to avoid it.
5. Any disassembly of the spare parts of the linear guide rail may cause foreign bodies to enter the slider or reduce the accuracy of the linear guide rail. Do not disassemble the linear guide rail.
6. Improper inclined linear guide rail may cause the slide to slide out of the guide rail due to its dead weight. Please keep the linear guide rail horizontal when moving the straight guide rail.
7. The fallor impact of the linear guide rail will damage the normal function. Please avoid the improper fallor impact of the linear guiderail.
8. For use in a special environment, please use the appropriate surface treatment or contact with JSM
Product line 2
In order to meet customers' demand for product diversity, in addition to HB series suitable for general tool machine industry, we also researched and developed EB series suitable for automation industry; and developed RB series suitable for high rigidity demand industry and MB N/M BW series suitable for small mechanical semiconductor industry;
| Series | Combination height | Loadform | Quadrangle | Flange type | ||
| Up Lock type | Up Locktype | DownLock type | Upper/owerlocktype | |||
| HB | High type | Heavy load | HBH-CA | |||
| Overweight load | HBH-HA | |||||
| Low type | Heavy load | HBL-CA | HBW-CA | HBW-CB | HBW-CC | |
| Overweightload | HBL-HA | HBW-HA | HBW-HB | HBW-HC | ||
| EB | Low type | Medium load | EBH-SA | EBW-SA | EBW-SB | |
| Heavy load | EBH-CA | EBW-CA | EBW-CB | |||
| MBN | normalized form | MBN-C | ||||
| Extended type | MBN-H | |||||
| MBW | normalized form | MBW-C | ||||
| Extended type | MBW-H | |||||
| MBN-O | normalized form | MBN-C-0 | ||||
| Extended type | MBN-H-0 | |||||
| MBW-O | normalized form | MBW-C-0 | ||||
| Extended type | MBW-H-0 | |||||
| Series | Non-interchangeablelinearguide | Interchangeablelinearguide | ||||||
| General (C) | High (H) | Precision (P) | Ultra Precision (SP) | Ultra HighPrecision(UP) | General(C) | High (H) | Precision (P) | |
| HB | ||||||||
| EB | ||||||||
| MBN | ||||||||
| MBW | ||||||||
| MBN-O | ||||||||
| MBW-O | ||||||||
| Series | Non-interchangeablelinearguide | Interchangeablelinearguide | ||||
| Ordinary clearance(ZO) | Light precompression(ZA) | Intermediate precompression(ZB) | No precompression(Z0) | Light precompression(ZA) | ||
| HB | ||||||
| EB | ||||||
| Series | Non-interchangeablelinearguide | Interchangeablelinearguide | ||||
| Ordinary clearance(ZF) | No precompression(ZO) | Light precompression(Z1) | Ordinary clearance(ZF) | No precompression(Z0) | Light precompression(Z1) | |
| MBN | ||||||
| MBW | ||||||
| MBN-O | ||||||
| MBW-O | ||||||
2-1 HB series-heavy load ball straight guide rail
HB series linear railis a four-column single circular arc tooth contact linear guide, and integrates the best structure design of overweight load precision linear rail, compared with other straight rails, improves the load and rigidity capability, with the function of automatic centering, and obtain high precision demands. The concept of high speed, high load, high rigidity and highprecisionhasbecomethe trendofindustrialproduct developmentintheworld inthefuture.JSMfour-line overweight load linear guide rail is the product developed based on this concept.
2-1-1 HB series linear guide rail features
1.Automatic heart tuning ability
DF (45°-45°) combination from the arc groove, by the elastic deformation of the steel bead and the transfer of contact points, even if the installation surface is somewhat deviation, it can be absorbed by the rail slide, producing the effect of automatic centering ability and get high precision and stable smooth movement.
2.Having interchangeability
Due to the strict control of production and manufacturing accuracy, the size of linear guide rail can be maintained within a certain level, and the slider has a holder design to prevent steel beads from falling off, so part of the series accuracy is interchangeability, customers can order the guide rail or slide block, or also store the guide rail and slide separately to reduce thestoragespace.
3. All directions have high rigidity
Using four circular arc groove, with the contact Angle of four steel beads, the steel beads can achieve the ideal two-point contact structure, can withstand the load from up and down and left and right directions; if necessary, prepressure can be appliedtoimproverigidity.
2-1-2 HB body structure
⊚ Rolling cycle system: slide block, guide rail, end cover, steel bead, steel bead holder. ⊚ Lubrication system: oil nozzle, oil pipe joint ⊚ Dust prevention system: oil scraper, bottom dust dust filter, guide rail bolt cover, metal scraper
2-1-3 Product Specifications
HB series is divided into the interchangeability and interchangeability type two straight rail, the same size, the main difference lies in the interchangeability type of slider, guide rail can be single swap use, more convenient, but the combined precision of the lack of interchangeability type of high precision, but because our company has good size control and strict quality requirements, interchangeability type of combined precision has reached a certain level, for do not need to pair to install straight rail customers, is a good choice. The product specifications and models of the linear guide rail mainly indicate the size, type, accuracy grade, prepressure and other specifications of the linear guide rail, so as to facilitate the product confirmation by both parties when ordering.
2-1-4 HB series type
(1)Slider type
Our company provides two kinds of linear rails: flange and square, square linear rail is divided into H and L, L is the low assembly linear rail of H, its combination height is consistent with flange linear rail.
| Type | Specifica -tions | Form | Height size (mm) | Guiderail length (mm) | Utility unit |
| Quartet type | HBH-CA HBH-HA HBL-CA HBL-HA | 28 90 24 | 100 4000 100 | OMechanical processing center O machinetool O Precision machining machine O Heavy cutting machine tool Marble cutting machine grindingmachine O The shooting machine punch O Automation device conveyer Measurement instrument | |
| HBW-CA HBW-HA | 70 24 90 | 4000 100 4000 | |||
| Flange type | HBW-CB HBW-HB | 24 90 | 100 4000 | ||
| HBW-CC HBW-HC | 24 90 | 100 4000 |
(2)Guide rail type
In addition to the general lock type bolt hole guide rail, our company also provides the lower lock type screw hole guide rail, convenient for customers to installand use.
2-1-5 Accuracy level
The accuracy of HB series linear guide rail is divided into five levels: ordinary, high, precision, ultra-precision and ultra-high precision level. Customers can choose the accuracy according to the accuracy requirements oftheequipment.
1.Accuracy of non-interchangeable linear rail
unit:mm
| model | HB-15,20 | ||||
| accuracyclass | Common level(C) | High level(H) | Precision level(P) | Super precision level(SP) | Ultra precision level (UP) |
| Tolerance size errorforheightH | ± 0.1 | ±0.03 | 0 -0.03 | 0 -0.015 | 0 -0.008 |
| TolerancesizeerrorforwidthN | ± 0.1 | ±0.03 | 0 0.03 | 0 -0.015 | 0 -0.008 |
| Mutualerrorof thepairwiseheightH | 0.02 | 0.01 | 0.006 | 0.004 | 0.003 |
| Mutualerrorof thepairwisewidthN | 0.02 | 0.01 | 0.006 | 0.004 | 0.003 |
| Slide C faces the walking parallelism of the guide railplane A | WalkparallelismSee the form2-1-11 | ||||
| The lide D faces the guide B | WalkparallelismSeetheform2-1-11 | ||||
unit:mm
| model | HB-25,30,35 | ||||
| accuracyclass | Commonlevel(C) | High level(H) | Precision level(P) | Superprecision level(SP) | Ultra precision level (UP) |
| Tolerance size error forheight H | ± 0.1 | ± 0.04 | 0 0.04 | 0 -0.02 | 0 -0.01 |
| Tolerancesizeerrorforwidth N | ± 0.1 | ±0.04 | 0 0.04 | 0 0.02 | 0 -0.01 |
| Mutualerror of the pairwise heightH | 0.02 | 0.015 | 0.007 | 0.005 | 0.003 |
| Mutualerror of thepairwisewidth N | 0.03 | 0.015 | 0.007 | 0.005 | 0.003 |
| Slide C faces the walking parallelism of the guiderailplane A | WalkparallelismSee the form2-1-11 | ||||
| ThelideDfacestheguideB | WalkparallelismSee the form2-1-11 | ||||
unit:mm
| Model | HB-45,55 | ||||
| Accuracyclass | Commonlevel(C) | High level(H) | Precision level(P) | Superprecision level(SP) | Ultra precision level (UP) |
| TolerancesizeerrorforheightH | ± 0.1 | ± 0.05 | 0 -0.05 | 0 -0.03 | 0 0.02 |
| TolerancesizeerrorforwidthN | ± 0.1 | ± 0.05 | 0 0.05 | 0 -0.03 | 0 0.02 |
| MutualerrorofthepairwiseheightH | 0.03 | 0.015 | 0.007 | 0.005 | 0.003 |
| MutualerrorofthepairwisewidthN | 0.03 | 0.02 | 0.01 | 0.007 | 0.005 |
| Slide C faces the walking parallelism of the guide rail plane A | WalkparallelismSee the form2-1-11 | ||||
| ThelideDfacestheguideB | WalkparallelismSeetheform2-1-11 | ||||
unit: mm
| Model | HB-65 | ||||
| Accuracyclass | Common level(C) | High level(H) | Precision level(P) | Super precision level(SP) | Ultra precision level (UP) |
| Tolerance size errorforheight H | ± 0.1 | ± 0.07 | 0 -0.07 | 0 -0.08 | 0 -0.03 |
| TolerancesizeerrorforwidthN | ± 0.1 | ± 0.07 | 0 -0.07 | 0 -0.08 | 0 0.03 |
| Mutualerrorof thepairwiseheightH | 0.03 | 0.02 | 0.01 | 0.007 | 0.008 |
| Mutualerror of thepairwisewidth N | 0.03 | 0.025 | 0.015 | 0.01 | 0.007 |
| SlideCfaces thewalkingparallelism of theguiderail planeA | WalkparallelismSeethe form2-1-11 | ||||
| ThelideDfacestheguideB | WalkparallelismSeetheform2-1-11 | ||||
2.Exchangeability linear rail accuracy
unit:mm
| Model | HB-15,20 | ||
| Accuracyclass | Common level(C) | High level(H) | Precision level(P) |
| TolerancesizeerrorforheightH | ± 0.1 | ±0.03 | ± 0.015 |
| TolerancesizeerrorforwidthN | ± 0.1 | ±0.03 | ±0.015 |
| Mutualerror of thepairwiseheight H | 0.02 | 0.01 | 0.003 |
| MutualerrorofthepairwisewidthN | 0.02 | 0.01 | 0.005 |
| Slide C faces the walking parallelism of the guide rail plane A | WalkparallelismSee the form2-1-11 | ||
| ThelideDfaces theguideB | WalkparallelismSee the form2-1-11 | ||
unit:mm
| Model | HB-25,30,35 | ||
| Accuracyclass | Common level(C) | High level(H) | Precision level(P) |
| TolerancesizeerrorforheightH | ± 0.1 | ± 0.04 | ± 0.02 |
| TolerancesizeerrorforwidthN | ± 0.1 | ± 0.04 | ± 0.02 |
| MutualerrorofthepairwiseheightH | 0.02 | 0.015 | 0.007 |
| Mutualerrorofthepairwisewidth N | 0.03 | 0.015 | 0.007 |
| Slide C faces the walking parallelism of the guide rail plane A | WalkparallelismSeethe form2-1-11 | ||
| ThelideDfacestheguideB | WalkparallelismSeetheform2-1-11 | ||
unit:mm
| Model | HB-45,55 | ||
| Accuracyclass | Commonlevel(C) | High level(H) | Precisionlevel(P) |
| Tolerance size error for height H | ± 0.1 | ±0.05 | ±0.025 |
| Tolerance sizeerror forwidth N | ± 0.1 | ±0.05 | ±0.025 |
| Mutual error of the pairwise height H | 0.03 | 0.015 | 0.007 |
| Mutualerrorof thepairwisewidth N | 0.03 | 0.01 | 0.01 |
| Slide C faces the walking parallelism of the guide rail plane A | Walk parallelismSee the form2-1-11 | ||
| ThelideD faces theguideB | WalkparallelismSee the form2-1-11 | ||
unit:mm
| Model | HB-65 | ||
| Accuracyclass | Common level(C) | High level(H) | Precision level(P) |
| Tolerance size error for height H | ± 0.1 | ± 0.07 | ±0.035 |
| Tolerance size error forwidth N | ± 0.1 | ± 0.07 | ±0.035 |
| Mutual error of the pairwise height H | 0.03 | 0.02 | 0.01 |
| Mutual errorof thepairwisewidth N | 0.03 | 0.025 | 0.015 |
| Slide C faces the walking parallelism of the guide rail plane A | Walk parallelism See the form2-1-11 | ||
| ThelideDfacestheguideB | WalkparallelismSee the form2-1-11 | ||
3.Walking parallelism accuracy
| Lengthofguide(mm) | Precision class(μm)C | H | P | SP | UP | ||
| 100 | 12 | 7 | 3 | 2 | 2 | ||
| 100 | 200 | 14 | 6 | 4 | 2 | 2 | |
| 200 | 300 | 15 | 10 | 5 | 3 | 2 | |
| 300 | 500 | 17 | 12 | 6 | 3 | 2 | |
| 500 | 700 | 20 | 13 | 7 | 4 | 2 | |
| 700 | 900 | 22 | 15 | 8 | 5 | 3 | |
| 900 | 1,100 | 24 | 16 | 9 | 6 | 3 | |
| 1,100 | 1,500 | 26 | 18 | 11 | 7 | 4 | |
| 1,500 | 1,900 | 28 | 20 | 13 | 8 | 4 | |
| 1,900 | 2,500 | 31 | 22 | 15 | 10 | 5 | |
| 2,500 | 3,100 | 33 | 25 | 18 | 11 | 6 | |
| 3,100 | ne | 3,600 | 36 | 27 | 20 | 14 | 7 |
| 3,600 | 4,000 | 37 | 28 | 21 | 15 | 7 | |
2-1-6 Prepressure
(1) Prepressure definition
The prepressure is to advance the steelbead load force,that is, increase the diameter of the steel bead,using the negative clearance between the bead and the prepressure, which can improve the rigidity of the linear rail and eliminate the clearance;In the right picture,increasing the prepressure can increase the rigidity of the linear rail.However, it is recommended to avoid the heavyprepressure to reduce itsservicelife.
(2) Prepressure grade
The HB series linear guide rail provides three standard prepressure, and the appropriate prepressure can be selected accordingtotheuse.
| Prepressuregrade | Marking | Prepressure | Conditionofuse | Scopeofapplication |
| Noprepressure | ZO | 0-0.02C | Fixed load direction and small impact,low precision requirements. | Delivery device,automatic packaging machine,automatic industrial machinery,XY shaft of general industrial machinery,welding machine, fuse machine,tool switching device |
| Light precompression | ZA | 0.05C-0.07C | Light load and thehigh precision isrequired. | Z axis of general industrial machinery, discharge machining machine, NC lathe,precision XYplatform,tester,machining center,vertical machining center,industrial robot,automatic coating installation,a variety of high-speed material supplydevice |
| Mediumprepress | ZB | 0.10C-0.12C | Rigid requirements,always have vibration,impact of theuseoftheenvironment | Mechanical center,grinding machine,NC lathe,vertical or horizontal milling machine,Zaxisofmachine tool,heavy cutting machine |
| Grade | Interchangeabilitylinerail(singleoutpiece) | Non-interchangeablelinerail(assembly) | ||
| Pre-pressure grade | ZO | ZO,ZA,ZB | ||
2-1-7 Lubrication mode
(1)Lubricating grease
⊚ Nozzle type
| HB20 HB25 HB30 M6x0.75P HB35 NO.34310001 | HB45 HB55 PT1/8 HB65 | |
| NO.34320003 | ||
| HB20 HB25 | HB45 | |
| HB15 M4x0.7P NO.34310002 | HB30 M6x0.75P HB35 NO.34310003(0PTION) | HB55 PT1/8 HB65 NO.3431000B(0PTION) |
⊚ The position of the nozzle
According to the customer, install the front or back end of the slider for manual oil drilling. HB series specially sets the side oil hole position on the side of the end cover(generally the straight oil nozzle)to provide side oil drilling.The side oil drilling position is recommended, but it can also be placed on the side base side for special needs.If the customer has the above side oil demand, please contact us. For the linear guide rail that automatically supplies lubricating grease, the tubing joint can be ⊚ The single slide shallfill with the amount of lubricating grease
| Specification | O-RingSpecification | Maximumallowable depthofperforation Tmax(mm) | ||
| do (mm) | W(mm) | |||
| 2.5±0.15 | 1.5±0.15 | 3.75 | ||
| HB15 HB20 | 4.5±0.15 | 1.5±0.15 | 5.7 | dia.0.8 |
| HB25 | 4.5±0.15 | 1.5±0.15 | 5.8 | |
| HB30 | 4.5±0.15 | 1.5±0.15 | 6.3 | |
| HB35 | 4.5±0.15 | 1.5±0.15 | 8.8 | Tmax |
| HB45 | 4.5±0.15 | 1.5±0.15 | 8.2 | |
| HB55 | 4.5±0.15 | 1.5±0.15 | 11.8 | |
| HB65 | 4.5±0.15 | 1.5±0.15 | 10.8 | |
Table 2-1-14 The single slide shall fill with the amount of lubricating grease
| Specifications | Heavyload(cm3) | Superheavyload(cm3) | Specifications | Heavyload(cm3) | Superheavyload(cm3) |
| HB15 | 1 | HB35 | 10 | 12 | |
| HB20 | 2 | HB45 | 17 | 21 | |
| HB25 | 5 | 6 | HB55 | 26 | 33 |
| HB30 | 7 | 8 | HB65 | 50 | 61 |
⊚ Lubrication frequency
Every 100\mathsf{k m} run, or every 3-6 months confirm grease.
⊚ Oil supply rate
| Specification | Oilsupplyrate (cm3/hr) | Specification | Oilsupplyrate (cm3/hr) |
| HB15 | 0.2 | HB35 | 0.3 |
| HB20 | 0.2 | HB45 | 0.4 |
| HB25 | 0.3 | HB55 | 0.5 |
| HB30 | 0.3 | HB65 | 0.6 |
(2)Lubricating oil
It is recommended to use lubricating oil guide with oil viscosity of about 30~150 cSt.The customer can explain to us that oil lubrication is needed, and the shipped straight rail will not be sealed in lubricating grease.
2-1-8 Dust-proof accessories
(1)Standard dust-proof equipment code
Generally, it is used in the working environment without special requirements. If there are the following requirements for dustproof accessories,please add thecode after the product model.
(2)High Dust-proof accessories code
Our company has developed dust-proof accessories with enhanced high dust-proof function.If the following requirements for high dust-proof accessories are available,please add the code after the product model
(3)Ultra high dust proof code
Our company especially for the harsh working environment with dust particles, such as woodworking machinery, glass / graphite processing and other equipment,to develop special accessories with ultra-high dust control function, to achieve ultra-high dust prevention performance.If the following high dustproof accessories are required, please add the code after theproductmodel.
(4)Dust-proof accessories instructions
⊚ Oil scraper and bottom dustproof sheet
Prevent processing iron chips or dust particles from entering the slider, destroy the surface of the bead path and reduce thelifeof thelinearguiderail.
⊚ Double scraper
n in a heavy cutting environment, the foreign matter is completely
| specification | increasethethickness(t1)(mm) | specification | increasethethickness(t1)(mm) |
| HB 15 ES | 3 | HB35ES | 3.2 |
| HB 20 ES | 3.5 | HB 45 ES | 4.5 |
| HB 25 ES | 3.5 | HB 55 ES | 4.5 |
| HB30ES | 3.2 | HB65ES | 6 |
⊚ Metal scraper
Can isolate high temperature iron chips or processing sparks, and eliminate large volume impurities.
| specification | increasethethickness(t2)(mm) | specification | increasethethickness(t2)(mm) |
| HB 15CS | 1.5 | HB35CS | 1.5 |
| HB20CS | 1.5 | HB 45 CS | 1.5 |
| HB25CS | 1.5 | HB55CS | 1.5 |
| HB30CS | 1.5 | HB65CS | 1.5 |
⊚ Upper dustproof sheet
It can effectively prevent dust from entering the inside of the slide from the upper surface of the guide rail or the bolt hole.
⊚ Guide rail bolt cover
In order toprevent the cutting powder or foreignbody into the slide through the bolt hole,the customer must insert the bolt coverintotheboltholewheninstallingtheguiderail,andeach guiderail isequipped withabolt cover atthefactory.In order to prevent the cutting powder orforeignbodyinto the slide through thebolthole,thecustomermustinserttheboltcoverintothebolt hole when installing the guiderail, and each guide rail is equipped with a bolt cover at thefactory.
| HBR 15 | M4 | 7.65 | 1.1 | HBR 35 | M8 | 14.20 | 3.5 |
| HBR 20 | M5 | 9.65 | 2.5 | HBR 45 | M12 | 20.25 | 4.5 |
| HBR 25 | M6 | 11.15 | 2.5 | HBR 55 | M14 | 23.25 | 5.0 |
| HBR3O | M8 | 14.20 | 3.5 | HBR65 | M16 | 26.35 | 5.0 |
(5)Total length of slider for dustproof code
unit:mm
| Spcification | Total length of slider (L) | |||||
| SS/SH | ZZ/ZH | DD/DH | KK/KH | SW | ZW | |
| HB15C | 61.4 (61.8) | 69.0 (69.4) | 68.0 (68.4) | 75.6 (76.0) | 63.2 (63.2) | 71.0 (7 1.4) |
| *HB20C | 77.5 (79.3) | 82.5 (84.5) | 82.5 (84.3) | 87.5 (89.5) | 78.5 (79.3) | 86.3 (88.3) |
| *HB20H | 92.2 (94.0) | 97.2 (99.2) | 97.5 (99.0) | 102.2 (104.2) | 93.2 (94.0) | 101.0 (103.0) |
| *HB25C | 84.0 (85.0) | 89.0 (91.0) | 89.0 (90.0) | 94.0 (96.0) | 85.0 (86.0) | 92.8 (94.8) |
| *HB25C | 104.6 (105.6) | 109.6 (111.6) | 109.6 (110.6) | 114.6 (116.6) | 105.6 (106.6) | 113.4 (115.4) |
| *HB30C | 97.4 (99.4) | 105.4 (107.4) | 104.8 (106.8) | 112.8 (110.8) | 99.0 (101.0) | 107.2 (109.2) |
| *HB30H | 120.4 (122.4) | 128.4 (130.4) | 127.8 (129.8) | 135.8 (133.8) | 122.0 (124.0) | 130.2 (132.2) |
| *HB35C | 112.4 (114.4) | 120.4 (122.4) | 119.8 (121.8) | 127.8 (129.8) | 115.2 (116.0) | 123.4 (125.4) |
| *HB35H | 138.2 (140.2) | 146.2 (148.2) | 145.6 (147.6) | 153.6 (155.6) | 141.0 (141.8) | 149.2 (151.2) |
| *HB45C | 139.4 (139.4) | 150.0 (150.0) | 149.4 (149.4) | 160.0 (160.0) | 140.0 (140.0) | 148.8 (148.8) |
| HB45H | 171.2 (171.2) | 181.8 (181.8) | 181.2 (181.2) | 191.8 (191.8) | 171.8 (171.8) | 180.6 (180.6) |
| HB55C | 166.7 (166.7) | 177.1 (177.1) | 177.1 (177.1) | 187.5 (187.5) | ||
| HB55H | 204.8 (204.8) | 215.2 (215.2) | 215.2 (215.2) | 225.5 (225.6) | ||
| HB65C | 200.2 (200.2) | 208.2 (208.2) | 209.2 (209.2) | 217.2 (217.2) | ||
| HB65H | 259.6 (259.6) | 267.6 (267.6) | 268.6 (268.6) | 276.6 (276.6) | ||
2-1-9 Friction force
This resistance value is the maximum resistance of a single oil scraper.
| Specifications | ScrapperresistanceN(kgf) | Specifications | Scrapperresistance N(kgf) |
| HB 15 | 1.18 (0.12) | HB 35 | 3.04 (0.31) |
| HB 20 | 1.57 (0.16) | HB 45 | 3.83 (0.39) |
| HB 25 | 1.96 (0.2) | HB 55 | 4.61 (0.47) |
| HB 30 | 2.65 (0.27) | HB 65 | 5.79(0.59) |
2-1-10 Error in the installation plane
HB series isa circular arc two-point contactlinear guide rail, whose automatic centering characteristics can absorb some errors of the mounting surface without affecting the smooth performance of the linear movement; the allowable error value of the installation planeisindicated inthefollowingtable
unit: μm
| Specifications | Pre-compaction | ||
| Z0pre-compaction | ZApre-compaction | ZBpre-compaction | |
| HB 15 | 25 | 18 | 13 |
| HB 20 | 35 | 20 | 18 |
| HB 25 | 30 | 22 | 20 |
| HB30 | 40 | 30 | 27 |
| HB 35 | 50 | 35 | 30 |
| HB 45 | 60 | 40 | 35 |
| HB55 | 70 | 50 | 45 |
| HB65 | 80 | 60 | 55 |
| Specifications | Pre-compaction | ||
| Z0pre-compaction | ZApre-compaction | ZBpre-compaction | |
| HB 15 | 130 | 85 | 35 |
| HB 20 | 130 | 85 | 50 |
| HB 25 | 130 | 85 | 70 |
| HB30 | 170 | 110 | 90 |
| HB35 | 210 | 150 | 120 |
| HB 45 | 250 | 170 | 140 |
| HB55 | 300 | 210 | 170 |
| HB65 | 350 | 250 | 200 |
2-1-11 Notes for installation
(1)lnstall the face with the shoulder heiqht and chamfer
When installing the linear guide rail, we mustpay attention towhether the condition of the shoulder of the installationsurface is appropriate. If the chamfering is too large, the protruding place is easy to cause the poor accuracy of the linear guiderail,and if the height is too high, it will interfere with the slider.Therefore,if the surfaceand shoulder canbeinstalled accordingto therecommended requirements,the poor installation accuracy canbe eliminated.
| Specifications | Maximumcircularradius ofrailendr,(mm) | Maximumroundedangle radiusof the sliderendr(mm) | Shoulderheightof theguide railendE,(mm) | Sderendshoulder heightE(mm) | Runningnetheightof the sliderH,(mm) |
| HB 15 | 0.5 | 0.5 | 3.0 | 4.0 | 4.3 |
| HB 20 | 0.5 | 0.5 | 3.5 | 5.0 | 4.6 |
| HB 25 | 1.0 | 1.0 | 5.0 | 5.0 | 5.5 |
| HB30 | 1.0 | 1.0 | 5.0 | 5.0 | 6.0 |
| HB35 | 1.0 | 1.0 | 6.0 | 6.0 | 7.5 |
| HB 45 | 1.0 | 1.0 | 8.0 | 8.0 | 9.5 |
| HB55 | 1.5 | 1.5 | 10.0 | 10.0 | 13.0 |
| HB 65 | 1.5 | 1.5 | 10.0 | 10.0 | 15.0 |
(2)Torsion force value of the guide rail assembly screw
Whether the installation of the guide rail is close to the flat datum affects the accuracy of the straight guide rail, so in order to achieve the purpose of locking each screw, it is recommended to use the following torsion value lock to assemble the screw.
| Specifications | Screwspecification | TorsionalvalueN-cm(kgf-cm) | ||
| lronmaterial | Castingmaterial | Aluminumalloymaterial | ||
| HB15 | M4x0.7Px16L | 392 (40) | 274 (28) | 206 (21) |
| HB20 | M5x0.8Px16L | 883 (90) | 588 (60) | 441 (45) |
| HB25 | M6x1Px20L | 1373 (140) | 921 (94) | 686 (70) |
| HB30 | M8x1.25Px25L | 3041 (310) | 2010 (205) | 1470 (150) |
| HB35 | M8x1.25Px25L | 3041 (310) | 2010 (205) | 1470 (150) |
| HB45 | M12x1.75Px35L | 11772(1200) | 7840(800) | 5880 (600) |
| HB55 | M14×2Px45L | 15696 (1600) | 10500(1100) | 7840 (800) |
| HB65 | M16x2Px50L | 19620(2000) | 13100(1350) | 9800(1000) |
2-1-12 Standard length and maximum length of a single guide rail
We have a guide rail standard length inventory to supply customer demand. If the customer orders the non-standard length rail, the size of the end face distance E should not be greater than 1/ 2P, so as to prevent the instability of the rear endoftherailassemblyandreducetheprecisionofthelinearrail.
L=(n-1)x P+2x E
L :Guide length (mm) P:Distance between bolt holes (m) n :Number of bolt holes E :Distance from bolt hole to end face (m)
unit:mm
| Project | HB15 | HB20 | HB25 | HB30 | HB35 | HB45 | HB55 | HB65 |
| full-length L(n) | 160 (3) | 220 (4) | 220 (4) | 220 (4) | 220 (4) | 570 (6) | 780 (7) | 1,270 (9) |
| 220 (4) | 280 (5) | 280 (5) | 440 (6) | 440 (6) | 885 (9) | 1,020 (9) | 1,570 (11) | |
| 280 (5) | 340 (6) | 340 (6) | 600 (8) | 600 (8) | 1,200 (12) | 1,260 (12) | 2,020 (14) | |
| 340 (6) | 460 (8) | 460 (8) | 760 (10) | 760 (10) | 1,620 (16) | 1,500 (13) | 2,620 (18) | |
| 460 (8) | 640 (11) | 640 (11) | 1,000 (13) | 1,000 (13) | 2,040 (20) | 1,980 (17) | ||
| 640 (11) | 820 (14) | 820 (14) | 1,640 (21) | 1,640 (21) | 2,460 (24) | 2,580 (22) | ||
| 820 (14) | 1,000 (17) | 1,000 (17) | 2,040 (26) | 2,040 (26) | 2,985 (29) | 2,940 (25) | ||
| 1,240 (21) | 1,240 (21) | 2,520 (32) | 2,520 (32) | |||||
| 1,600 (27) | 3,000 (38) | 3,000 (38) | ||||||
| GAP (P) | 60 | 60 | 60 | 80 | 80 | 105 | 120 | 150 |
| Standard end distance (Es) | 20 | 20 | 20 | 20 | 20 | 22.5 | 30 | 35 |
| Standard end distance to the maximumlength | 4,000 (67) | 4,000 (67) | 4,000 (67) | 3,960 (50) | 3,960 (50) | 3,930 (38) | 3,900 (33) | 3,970 (27) |
| extremelength | 4,000 | 4,000 | 6,000 | 6,000 | 6,000 | 6,000 | 6,000 | 6,000 |
HB series
Heavy load type rolling ball linear slide rail
2-1-13 Size Table of the HB series linear guide rail
HB series
Heavy load type rolling ball linear slide rail
2-1-13 Size Table of the HB series linear guide rail (2)HBL-CA/HBL-HA
| Model | Component size (ww) | Guiderailsize (mm) | Fixed bolt size of the guide rail | Basic Basic dynamic static ratedloadrated lood | Allowthe staticmoment | weight | ||||||||||||||||||||
| H | HN | W | B B | C | Slidersize (mm) L | K, K2 | G | Mxl | T | H2 H | W | D h | d | P | E (mm) | C(kN) | C。(kN) | MR kN-m | Mp kN-m | M kN-m | slider kg | Guide rail kg/m | ||||
| HBL15CA | 24 | 4.39.5 | 34 | 26 4 | 26 | 39.4 | 61.4 10 | 4.85 | 5.3 | M4x4 | 3.95 | 3.7 | 15 | 15 7.5 | 5.3 | 4.5 60 | 20 | M4x16 | 13.97 | 22.30 | 0.11 | 0.10 | 0.10 | 0.14 | 1.45 | |
| HBL25CA | 5.512.548 | 35 6.5 | 35 | 58 | 84 15.7 | 6 | M6x6 8 | 6 | 5 | 11 | 9 | 7 60 | 20 | M6x20 | 33.16 | 50.18 | 0.40 | 0.31 | 0.31 | 0.42 | 3.21 | |||||
| HBL25HA | 36 | 50 | 78.6 | 104.6 18.5 | 12 | 23 | 22 | 40.09 | 65.62 | 0.53 | 0.54 | 0.54 | 0.57 | |||||||||||||
| HBL30CA | 42 6 | 16 | 60 | 40 10 | 40 | 70 | 97.4 20.25 | 6 | 12 | M8x10 | 8.5 6.5 | 10.8282614 | 12 | 6 80 | 20 | M8x25 | 46.08 | 68.28 | 0.63 | 0.50 | 0.50 | 0.78 | 4.47 | |||
| HBL30HA | 60 | 93 | 120.4 21.75 | 55.67 | 89.29 | 0.84 | 0.87 | 0.87 | 1.03 | |||||||||||||||||
| HBL35CA | 48 | 37.518 | 70 50 | 10 | 50 | 80 | 112.4 20.6 | 7 | 12 | M8x12 10.2 | 9 | 12.634291412 | 6 | 80 | 20 | M8x25 | 61.37 74.01 | 89.19 116.63 | 1.10 1.46 | 0.77 1.33 | 0.77 1.33 | 1.14 | 6.30 | |||
| HBL35HA | 72 | 105.8 138.2 97 | 22.5 | 98.61 | 139.37 | 1.88 | 1.47 | 1.47 | 1.52 2.08 | |||||||||||||||||
| HBL45CA | 60 | 09.520.586 | 60 | 13 | 60 | 139.4 128.8 | 23 28.9 | 10 | 12.9M10x17 | 8.5 | 8.520.545 | 38 | 17 14 | 10522.5M12x35 | 119.04 | 182.26 | 2.50 | 2.55 | 2.55 | 2.75 | 10.41 | |||||
| HBL45HA | 80 | 117.7 | 171.2 27.35 | 145.54 | 200.67 | 3.51 | 2.51 | 2.51 | 3.25 | |||||||||||||||||
| HBL55CA | 70 | 1323.510075 | 12.5 | 75 | 166.7 | 11 | 12.9M12x18 | 17.5 | 12 | 19 | 53 44 | 23 | 20 16 | 120 | 30 M14x45 | 15.08 | ||||||||||
| HBL55HA | 95 | 155.8 | 204.8 36.4 | 175.66 | 262.42 | 4.64 | 4.34 | 4.34 | 4.27 | |||||||||||||||||
HB series
Heavy load type rolling ball linear slide rail
2-1-13 Size Table of the HB series linear guide rail
(3)HBW-CA/HBW-HA
HB series
Heavy load type rolling ball linear slide rail
2-1-13 Size Table of the HB series linear guide rail
(4)HBW-CB/HBW-HB
| Model | Component size (mm) | Guiderailsize | Fixed bolt Basic size of the dynamic guiderail ratedload | Basic static rated load | Allowthe staticmoment | weight | ||||||||||||||||||||||
| H | H | N W | B | B | (mm) K, | Slidersize | M | T | T, T | H | HWHR | D | (mm) h | d | P E | (mm) | C(KN) | C。(kN) | MR kN-m | Mp kN-m | M kN-m | slider kg | Guide rail | |||||
| HBW15CB | 24 4.3 | 16 | 47 | 38 4.5 | 30 | 39.4 | 61.4 | 8 | 4.855.34.56 | 8.96.95 3.95 | 53.7 | 15 | 15 | 7.5 | 5.3 4.5 | 60 | 20 | M4x16 | 13.97 | 22.30 | 0.11 | 0.10 | 0.10 | 0.17 | kg/m 1.45 | |||
| HBW20CB | 304.621.563 | 5 40 | 50.5 | 77.5 | 10.25 6 | 12 | Φ6 | 109.5 | 6 | 2017.59.5 | 58.5 | 6 | 60 | 20 | 25.75 M5x16 | 34.85 | 0.26 | 0.20 | 0.20 | 0.40 | 2.21 | |||||||
| HBW20HB | 65.2 | 92.2 84 | 17.6 10.7 | 31.07 | 45.56 33.16 | 50.18 | 0.33 0.40 | 0.35 0.33 | 0.35 0.33 | 0.52 0.59 | ||||||||||||||||||
| HBW25CB HBW25HB | 36 | 5.523.57057 | 6.5 | 45 | 58 78.6 | 104.6 | 6 21 | 12 | 7 | 8 14 | 10 | D 23 | 22 | 11 6 | 60 | 20 M6x20 | 40.09 | 65.62 | 0.53 | 0.57 | 0.57 | 0.80 | 3.21 | |||||
| HBW30CB | 42 6 | 31 | 06 | 72 | 9 52 | 70 | 97.4 | 14.25 6 | 12 | 98.5 | 16 | 106.510.828 | 26 | 14 12 | 6 | 80 | 20 M8x25 | 46.08 | 68.28 | 0.63 | 0.53 | 0.53 | 1.09 | 4.47 | ||||
| HBW30HB | 93 80 | 120.4 112.4 | 25.75 14.6 | 55.67 61.37 | 89.29 89.19 | 0.84 1.10 | 0.92 0.81 | 0.92 0.81 | 1.44 1.56 | |||||||||||||||||||
| HBW35CB HBW35HB | 48 37.53310082 | 9 | 62 | 105.8 | 138.2 | 7 27.5 | 12 | Φ910.1 | 18 | 6 | 12.6 34 | 29 | 14 12 | 6 | 80 | 20 M8x25 | 74.01 | 116.63 | 1.46 | 1.40 | 1.40 | 2.06 | 6.30 | |||||
| HBW45CB | 97 | 139.4 | 13 | 98.61 | 139.37 | 1.88 | 1.55 | 1.55 | 2.79 | |||||||||||||||||||
| HBW45HB | 609.537.5120100 | 10 | 80 | 128.8 | 171.2 | 28.9 | 1012.91115.122158.520.545 | 3820 | 17 | 1410522.5M12x35 | 119.04 | 182.26 | 2.50 | 2.68 | 2.68 | 3.69 | 10.41 | |||||||||||
| HBW55CB | 1343.5140116 | 12 | 95 | 117.7 | 166.7 | 17.35 11 | 12.914 17.526.517 | 12 | 16 | 12030 | M14x45 | 145.54 | 200.67 | 3.51 | 2.64 | 2.64 | 4.52 | 15.08 | ||||||||||
| HBW55HB | 70 | 155.8 | 204.8 | 36.4 | 4423 | 20 | 175.66 | 262.42 | 4.64 | 4.57 | 4.57 | 5.96 | ||||||||||||||||
| HBW65CB | 1553.5170142 | 14 | 110 | 144.2 | 200.2 | 23.1 | 12.9162537.523 | 15 | 15 | 563 | 22 | 18 | 81503 35 | M16x50 | 202.54 | 273.11 | 6.32 | 4.27 | 4.27 | 9.17 | ||||||||
| HBW65HB | 90 | 203.6 | 259.6 | 52.8 | 53 26 | 263.91 | 399.16 | 8.91 | 7.38 | 7.38 | 12.89 | 21.18 | ||||||||||||||||
HB series
Heavy load type rolling ball linear slide rail
2-1-13 Size Table of the HB series linear guide rail (5)HBW-CC/HBW-HC
| Model | Component size (ww) | Guiderailsize (ww) | Fixed bolt Basic sizeof the dynamic guiderail ratedload | Basic static ratedload | Allowthe staticmoment | weight | |||||||||||||||||||||
| H H | N W | B | B | C | Slidersize | (mm) K, | G | M T | T, | T | HWHR | D h | d | P | E | (ww) | C(KN) | C。(kN) | MR kN-m | Mp kN-m | M kN-m | slider kg | Guide rail kg/m | ||||
| HBW15CC | 24 4.3 | 16 47 | 38 | 4.5 30 | 39.4 | 61.4 | 8 | 4.855.3 M4.56 | 8.96.95 3.95 | 53.7 | 15 15 | 7.5 | 5.3 | 4.5 60 | 20 | M4x16 | 13.97 | 22.30 | 0.11 | 0.10 | 0.10 | 0.17 | 1.45 | ||||
| HBW20CC | 30 | 4.621.563 | 50.5 | 77.5 | 10.25 6 | 12 M6 | 8 | 10 9.5 | 58.5 | 6 60 | 20 | M5x16 | 25.75 | 34.85 | 0.26 | 0.19 | 0.19 | 0.40 | 2.21 | ||||||||
| HBW20HC | 53 | 5 40 | 65.2 | 92.2 | 17.6 | 6 | 2017.59.5 | 31.07 | 45.56 | 0.33 | 0.33 | 0.33 0.31 | 0.52 | ||||||||||||||
| HBW25CC | 36 | 5.523.570 | 57 | 6.5 45 | 58 78.6 | 84 104.6 | 10.7 6 21 | 12 | M8 8 | 14 | 10 | LO | 23 22 | 1 | 6 | 7 60 | 20 | M6x20 | 33.16 40.09 | 50.18 65.62 | 0.40 0.53 | 0.31 0.54 | 0.54 | 0.59 0.80 | 3.21 | ||
| HBW25HC HBW30CC | 6 | 31 | 72 | 6 | 70 | 97.4 | 14.25 | 12M108.5 | 16 | 20 | 46.08 | 68.28 | 0.63 | 0.50 | 0.50 | 1.09 | 4.47 | ||||||||||
| HBW30HC | 42 | 06 | 52 | 93 | 120.4 | 6 25.75 | 106.510.828 | 26 | 14 | 12 6 | 80 | M8x25 | 55.67 | 89.29 | 0.84 | 0.87 | 0.87 | 1.44 | |||||||||
| HBW35CC | 48 | 7.533 | 10082 | 6 62 | 80 | 112.4 14.6 | 7 | 12M1010.118 | 13 | 6 | 12.634 | 29 | 14 | 12 6 | 80 | 20 | M8x25 | 61.37 | 89.19 | 1.10 | 0.77 | 0.77 1.33 | 1.56 | 6.30 | |||
| HBW35HC | 105.8 | 138.2 27.5 | 74.01 | 116.63 | 1.46 | 1.33 1.47 | 1.47 | 2.06 2.79 | |||||||||||||||||||
| HBW45CC | 60 9.537.5120100 | 10 80 | 97 | 139.4 | 13 1012.9M1215.122158.520.545 28.9 | 5382017 | 1410522.5M12x35 | 98.61 119.04 | 139.37 182.26 | 1.88 2.50 | 2.55 | 2.55 | 3.69 | 10.41 | |||||||||||||
| HBW45HC | 128.8 117.7 | 171.2 166.7 | 17.35 | 145.54 | 200.67 | 3.51 | 2.51 | 2.51 | 4.52 | ||||||||||||||||||
| HBW55CC | 70 | 1343.5 140116 | 12 95 | 155.8 | 204.8 | 11 | 12.9M1417.526.517 | 12 | 19 53 | 23 20 | 16 | 12030 | M14x45 | 175.66 | 262.42 | 4.64 | 4.34 | 4.34 | 5.96 | 15.08 | |||||||
| HBW55HC | 144.2 | 200.2 | 36.4 | 202.54 | 273.11 | 6.32 | 4.06 | 4.06 | 9.17 | ||||||||||||||||||
| HBW65CC HBW65HC | 90 | 1553.5170142 | 14 110 | 203.6 | 259.6 | 23.1 14 52.8 | 12.9M162537.523 | 15 | 15 | 53 | 26 | 22 18 | 150 | 35 | M16x50 263.91 | 399.16 | 8.91 | 7.01 | 7.01 | 12.89 | 21.18 | ||||||
HB series
Heavy load type rolling ball linear slide rail
2-1-13 Size Table of the HB series linear guide rail (6) HBR-T down locking type guide rail dimension table
| Specification | Guiderailsize(mm) | Weight | |||||
| WR | HR | S | h | P | E | (kg/m) | |
| HBR15T | 15 | 15 | M5x0.8P | 8 | 60 | 20 | 1.48 |
| HBR20T | 20 | 17.5 | M6x1P | 10 | 60 | 20 | 2.29 |
| HBR25T | 23 | 22 | M6x1P | 12 | 60 | 20 | 3.35 |
| HBR30T | 28 | 26 | M8x1.25P | 15 | 80 | 20 | 4.67 |
| HBR35T | 34 | 29 | M8x1.25P | 17 | 80 | 20 | 6.51 |
| HBR45T | 45 | 38 | M12x1.75P | 24 | 105 | 22.5 | 10.87 |
| HBR55T | 53 | 44 | M14×2P | 24 | 120 | 30 | 15.67 |
| HBR65T | 63 | 53 | M20x2.5P | 30 | 150 | 35 | 21.73 |
2-2 EB series-low assembled rolling ball linear guide rail
2-2-1 EB series linear guide rail features
EB series uses four columns of steel beads to withstand the load design, so that it has the characteristics of high rigidity, high load, and the function of automatic centering, which can absorb the assembly error of installation surface and obtain the demand of high precision. Besides, reducing the combination height and shortening the length of slider, it is very suitable for small equipment with machinery and spacerequirements of high-speed automation industry.The slider is equipped with a steel bead holder to prevent the steel bead from falling off. This design is not only convenient for customers to install the linear guide rail, but also convenient for taking the slide block, and has interchangeability under the accuracy allowed.
2-2-2 EB Ontology structure
⊚ Rolling cycle system: slider, guide rail, end cover, steel bead, steel bead holder. ⊚ Lubrication system: oil nozzle, oil pipe joint ⊚ Dust prevention system: oil scraper, bottom dustproof sheet, guide rail bolt cover, metal scraper
2-2-3 product requirement specification
EB series is divided into the non-interchangeability and interchangeability type two straight rail, the same size, the main difference lies in the interchangeability type of slider and rail changeable use separately,more convenient,but its combined precision cannot achieve the super precision level, but because of our interchangeability type of combined precision has reached a certain level, for do not need to pair to install straight rail customers, is a convenient choice.The product specifications and models of the linear guide rail mainly indicate the size, type, accuracy grade, prepressure and other specifications of the linear guide rail, so as to facilitate the product confirmation by both parties when ordering.
(2)Product model of interchangeable linear guide rail
⊚ Interchangeable slider product model
⊚ Product model of interchangeable linear guide
2-2-4 EB series type
(1)Slider type
JSM provides two linear guides: flange type and square type.
| Type | Specifica -tions | Form | Height size (mm) | Guide rail length (mm) | Utility unit |
| Quartet type | EBH-SA EBH-CA | 24 48 | 100 6000 | O Automaticdevice O High-speed transport equipment Precisionmeasuring instruments Semiconductor equipment | |
| Flange type | 24 48 | 100 6000 | |||
| EBW-SB EBW-CB | 24 48 | 100 6000 |
(2)Guide rail type
In addition to the general upper lock bolt hole guide rail, JSM also provides the down lock screw hole guide rail for easy customerinstallationanduse.
Table 2-2-2 Guide rail type
| Upperlockbolthole | Downlockscrewhole |
2-2-5 Accuracy class
The accuracy of EB series linear guiderail is divided intofive levels: common, high, precision, super precision and ultra precision level. Customers can choose the accuracy according to the accuracy requirements of the equipment.
(1)Accuracy of non-interchangeability linear guide rails
unit: mm
| Model | EB-15,20 | ||||
| Accuracyclass | Commonlevel(C) | High level(H) | Precisionlevel(P) | Super precision level(SP) | Ultra precision level (UP) |
| Tolerance size error forheight H | ± 0.1 | ±0.03 | 0 -0.03 | 0 -0.015 | 0 -0.008 |
| TolerancesizeerrorforwidthN | ± 0.1 | ±0.03 | 0 -0.03 | 0 -0.015 | 0 -0.008 |
| Mutual error of thepairwiseheight H | 0.02 | 0.01 | 0.006 | 0.004 | 0.003 |
| Mutualerrorof thepairwisewidthN | 0.02 | 0.01 | 0.006 | 0.004 | 0.003 |
| Slide C faces the walking parallelism of the guide rail plane A | WalkparallelismSee the form2-2-7 | ||||
| ThelideDfacestheguideB | WalkparallelismSeetheform2-2-7 | ||||
unit:mm
| Model | EB-25,30,35 | ||||
| Accuracyclass | Commonlevel(C) | High level(H) | Precisionlevel(P) | Super precision level(SP) | Ultra precision level (UP) |
| TolerancesizeerrorforheightH | ± 0.1 | ±0.04 | 0 -0.04 | 0 -0.02 | 0 -0.01 |
| Tolerance sizeerrorforwidth N | ± 0.1 | ± 0.04 | 0 -0.04 | 0 -0.02 | 0 -0.01 |
| Mutual error of thepairwiseheight H | 0.02 | 0.015 | 0.007 | 0.005 | 0.003 |
| Mutualerrorof thepairwisewidthN | 0.03 | 0.015 | 0.007 | 0.005 | 0.003 |
| Slide C faces the walking parallelism of the guide rail plane A | WalkparallelismSeetheform2-2-7 | ||||
| The lide D faces the guide B | WalkparallelismSeetheform2-2-7 | ||||




