Basic content of elevator shaft measurement
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1、 Basic content of elevator shaft measurement
1. Shaft width: Facing the elevator hall door, measure the clearance size between the walls on both sides of the shaft. Depth of shaft: The clearance dimension between the inner wall of the hall entrance and the back wall of the shaft. The width and depth of the shaft should be measured for each layer to prevent excessive vertical deviation of the shaft. Use a slender wooden rod to probe into the inner wall of the shaft from the entrance of the hall door, and then pull out the wooden rod to measure the length of the penetrated part with a ruler. A steel tape measure is sufficient for measuring the width of the shaft. If the depth of the shaft is not large, a steel tape measure can also be directly used to probe into the shaft for measurement. Note that some shaft walls are designed to be thick at the bottom and thin at the top, resulting in narrow at the bottom and wide at the top.
2. Entrance: Measure the width and height of the door opening, as well as the position and size of the call hole. Also, measure the width of the left and right wall stacks to determine whether the center of the entrance is located at the center of the shaft and how much deviation it has. Survey the reinforced concrete lintel above the door opening, generally requiring a height of 300mm equal to the thickness of the wall and the width of the shaft, for the installation of the landing door device. There must be reinforced concrete beams below each floor's door opening to install the hall door sill device, and any cow legs must be recorded. The height of the opening at the entrance is generally: from the completion of the decoration on the ground, the net height of the elevator door opening+100mm
3. Floor height: Measure the vertical distance between the finished floors of adjacent floors at the entrance of the hall. A wooden pole can be used to measure the net size from the lower skin of the previous floor slab to the ground of the foot station in sections, and the sum of the dimensions plus the thickness of the floor slab is the height of that floor. The floor height can also be measured at the entrances and exits of stairs at the same height as the hall door.
4. Top height: The net size between the completed ground of the top decoration and the lower skin of the shaft top plate.
5. Pit depth: The depth from the finished floor of the lower floor decoration to the bottom of the pit. Pay attention to observing whether there are any building foundations or other structures protruding into the shaft in the pit. If there are any, their dimensions must be measured and recorded.
6. Wall structure: Brick concrete structure shafts must be surveyed for the presence of ring beams. If there are any, the center spacing of the ring beams must be recorded (generally requiring a height of 300mm, up to 200mm). If there are embedded parts, the size and spacing of the embedded parts must be recorded. Note that in many cases, if the shaft is not designed according to the manufacturer's drawings you represent, there may be deviations in the position of the embedded parts. The elevator shaft of the rear counterweight must be equipped with beams (or embedded parts) on three sides, while the elevator shaft of the side counterweight only needs to be equipped with beams (or embedded parts) on the left and right sides. Also, pay attention to whether there are protruding pillars at the four corners of the shaft, and whether there are protruding beams and other structures on the inner wall of the shaft, and keep records. The position of the embedded parts is determined by the elevator manufacturer based on the welding and fixing position between the guide rail bracket and the shaft wall. The embedded parts are generally made of 12-16mm thick steel plates.
7. Machine room: Measure the plane length and width dimensions of the machine room, mark the relative position between the machine room and the shaft, the height of the lifting platform (if any), the height between the lower edge of the hook and the upper surface of the shaft roof, the position and size of the machine room door, and record the presence or absence of a support platform. Whether the computer room has a high platform and its height size determine the length of the wiring box and the configuration of the emergency stop switch when the factory ships. Additionally, attention should be paid to the distance between the machine beam support platforms (usually equal to the width or depth of the shaft) to avoid shortening the machine beams when the factory ships them.
2、 Handling of general civil engineering issues in elevator shafts
1. If the shaft is too large or too small: When the distance between the inner walls on both sides of the elevator shaft and the centerline of the hall door, and the depth of the shaft is within 200mm of the standard layout drawing, it is possible to install the elevator without changing the civil engineering, but the actual size should be indicated on the drawing for the manufacturer to extend the guide rail support accordingly. If the width or depth of the shaft is too large, remedial measures such as adding steel beams should be taken, or the manufacturer's design personnel should be consulted whether it is possible to use the method of lengthening and strengthening the support bracket. The standard civil engineering layout drawings provided by elevator manufacturers are generally in small sizes to save building area and improve product adaptability. Therefore, if the shaft is smaller than the standard size, the factory should be consulted. Special attention should be paid to the civil deviation of high-rise buildings. The vertical deviation of the inner wall of the shaft on one side of the hall door should be ensured to be within 0~+25mm, and the vertical deviation of the inner wall of the other three shafts should be ensured to be within 0~+50mm.
2. There are pillars at the four corners of the shaft: If there are pillars protruding from one corner on the left and right sides of the shaft, it should not exceed 200mm x 200mm, which generally does not affect the installation of the elevator. But if there are protruding pillars at the corners of the shaft on both sides of the hall door, it is not allowed within the standard shaft width range. In building structures, columns are sometimes thicker at the bottom and thinner at the top, so special attention should be paid to the bottom layer.
3. Insufficient top height (oh): In this case, the machine room shaft should be partially raised to meet the standard size of the top height, that is, "lifting the kang". After lifting the kang, the distance from the upper surface of the shaft top plate to the lower edge of the lifting hook must meet the installation space requirements of the traction machine, generally greater than 2200mm. If the height of the "kang" is greater than or equal to 500mm, the user must install a high platform guardrail and climb the elevator (sometimes the user may also entrust the elevator manufacturer to do so).
4. Pit too deep or too shallow: If the pit is too deep, it must be backfilled to the standard depth or a depth within 100mm greater than the standard depth. If the pit is too shallow, the user should first be advised to dig deep to the standard depth, then consider raising the ground height of the first floor, that is, raising the slope or platform at the entrance of the first floor hall, and then consider reducing the elevator speed.
5. If there are protruding structures such as building foundations in the pit, they must be measured truthfully, and the elevator manufacturer must calculate and make equipment or civil engineering rectification plans. If it is necessary to damage the foundation structure, it must be approved by the building design department.
6. Space below the pit that can be reached by anyone: In this case, it is recommended that the user first close the space below the shaft. Otherwise, the load on the shaft bottom plate must be designed at 5000 n/m2 or more, and solid pile piers extending all the way to a solid ground must be installed in areas below the counterweight. According to the national standard, this situation can also be solved by installing counterweight safety clamps, but generally elevator manufacturers will not easily accept it because installing counterweight safety clamps will make the mechanical structure of the elevator more complex and the price will also increase significantly.
7. Brick concrete structure hall entrance problem: If there is only a small section of lintel above the entrance, which cannot meet the installation requirements of elevator hall doors, users need to make two steel splints above the entrance. The position and size of the clamp plate are determined by the manufacturer based on the selected door machine model.
8. Brick concrete structure elevator shaft: For unfinished brick structure shafts, users can be required to make a circle of beams at a certain height, arranged on three sides, and disconnected on one side of the elevator entrance. The height spacing between the beam centers depends on the manufacturer's product model, and should not exceed 2500mm at most. The beam height should be 300mm, and it should be the same thickness as the wall. The lowest ring beam is 500-1500mm away from the bottom of the pit, and the highest ring beam is 200-500mm away from the lower surface of the shaft top plate. The completed framework with solid brick structure shaft can be equipped with steel clamps at the position of the fixed guide rail support frame. The position and size of the clamps are provided by the elevator manufacturer, and the user is responsible for providing materials and construction. If the shaft structure is made of hollow bricks without ring beams, steel beams can be considered to be added between the frames for rectification.
9. Multiple elevator shafts can be connected, and an 18-20 # I-shaped steel beam can be fixed at a certain height between each adjacent elevator shaft, with the same position as the ring beam. The pit must be equipped with an isolation net and raised 2500mm above the ground level.
10. Requirements for the inner wall of the shaft: The inner wall of the shaft should not be plastered, which is beneficial for reducing noise, but there should be no foreign objects protruding.
11. Power supply for the computer room: The power supply should be three-phase 380V, 50Hz, and the lighting power supply should be single-phase 220V, 50Hz. The power supply should be connected to the vicinity of the computer room entrance and equipped with an inlet socket.
3、 Several Methods of Well Measurement under Different Field Conditions
1) Elevator shaft in new construction projects: When the architectural design is not yet completed, the salesperson only needs to provide the user with the standard elevator layout diagram of the required elevator specifications, and the user can entrust the design department to design the elevator shaft. When the architectural design has been completed, but the site has not yet been constructed, is under construction, or has been completed, the manufacturer must produce drawings based on the current construction drawings or measured dimensions. If it is necessary to modify the original civil design of the shaft, the user should entrust the architectural design department to make modifications to the shaft design based on the layout drawings provided by the elevator manufacturer.
2) The shaft for updating the old elevator: The measurement method for the shaft that has been removed from the old elevator is the same as for the shaft that has just been constructed. When the old elevator has not been dismantled, try to obtain relevant data outside the shaft, such as the size of the machine room, floor height, and net size of the door opening. When the old elevator has not been dismantled, there are two situations: a. When the old elevator can be started: in this case, the measurement shaft must be cooperated with the elevator technician! And be sure to pay attention to safety! The elevator technician opens the hall door on the first floor, initiates maintenance operations, and drives the car to the second floor or above. The measurement personnel measure the pit data on the first floor, paying attention to recording the pit size and the structure of the first floor shaft wall, such as whether the hall door is centered, whether there are cow legs, whether there are special structures on the shaft wall, the spacing between ring beams, and the position of embedded parts. Then the measurement personnel will go to the entrance of the second floor hall, and the elevator will stop at a maintenance speed when the car roof is slightly lower than the sill of the second floor hall. The elevator technician will open the hall door from inside the shaft, measure and observe the second floor of the shaft, and then measure layer by layer to the top floor using this method. b. When the old elevator cannot be started: due to the inability to enter the shaft, limited data can only be obtained from the outside of the shaft to determine whether it is non-standard (if there is a high platform in the machine room, the plane size of the shaft can be measured in the machine room, but it is not accurate enough) for elevator quotation negotiation reference. In this case, the contract should state that the shaft rectification and cost are the responsibility of the user. For uncertain shaft structures and dimensions, users should be reminded to provide them to the elevator manufacturer or notify the elevator manufacturer to measure them before the old elevator is dismantled or the new elevator is put into operation.
3) Elevator shafts that create something out of nothing: This type of situation is often seen in old buildings or newly built buildings where users change their minds and request the installation of elevators inside or outside the building. The salesperson first conducts a preliminary inspection to see if the site has the space required for the shaft and machine room. Then, the user provides the standard elevator layout plan with the required specifications as design conditions to the architectural design department. The architectural design department analyzes the depth of the pit, top floor height, reaction force, etc. on site based on the elevator layout plan to determine whether they can meet the elevator installation requirements, as well as which building structures need to be damaged (such as smashing stairs or floors), and formulates a renovation construction plan. If it is indeed necessary to change the elevator structure (such as car size, door opening width, etc.) due to limitations in civil engineering conditions, the elevator manufacturer will consider the non-standard design of the elevator.
4、 Basic content of escalator shaft measurement
1. Measure the lifting height. Strictly speaking, the lifting height of the escalator is the vertical distance between the finished floor of the upper and lower support beams, which is the same as the height of the straight ladder. When using the suspension line method to measure, attention should be paid to whether there is a drop between the positioning point of the plumb line and the decoration surface of the lower support beam of the escalator.
2. Measure the beam edge distance between the upper and lower support beams. The measurement method is to suspend the line from the upper support point to the ground for positioning, and then measure the horizontal distance from the positioning point to the edge of the lower support beam.
3. The effective support width of the upper and lower support beams should be greater than the width of the escalator truss, and there should be embedded steel plates.
4. Measure the length, width, and depth of the pit (if any), and observe whether there are grooves and embedded parts at the support beam.
5. Note that there should be a space of 350mm or more on both sides of the escalator, and when arranged in parallel, there should be no restriction between the two escalators.
6. It is necessary to implement the arrangement of escalators and provide feedback to the manufacturer, so that the manufacturer can determine the configuration of certain shared devices, the order of shipment, and the alignment of handrail turns during continuous arrangement.
7. For escalators that require intermediate support, it is necessary to determine whether the site has the conditions for adding support, as well as the range of support that can be added. The specific location and parameters such as the height and load size of the support platform should be determined by the manufacturer.
5、 Handling of general civil engineering issues on escalator sites
1. Excessive distance between beam edges: In this case, the actual dimensions of civil engineering can be met by increasing the length of the upper and lower platforms of the escalator. One side platform can be extended, or both sides can be extended simultaneously. The total extension of the upper and lower platforms should generally not exceed 1000mm. When extending the platform, attention should be paid to the length of the pit or the opening of the floor slab, which should also be extended at the same time. After the escalator is extended, the force on the upper and lower support points will also increase. If the edge distance of the beam increases too long, support needs to be added in the middle of the escalator truss. In addition, changing the angle of the escalator from 35 degrees to 30 degrees can also increase the distance between the beam edges.
2. The beam edge distance is too small: The total length of the escalator is shortened by shortening the lower platform, but the range of shortening is limited, generally not exceeding 200mm. Generally, the platform cannot be shortened as it includes control cabinets and motors. Changing the angle of the escalator from 30 degrees to 35 degrees can also shorten the beam edge distance.
3. There is a beam or other obstacle directly above the escalator: Can the beam or other obstacle be judged by the following formula (in mm): (length of the opening -50- length of the upper platform) 732 or 1.428- beam height ≥ 2300, where: the length of the opening and beam height (including decoration thickness) are measured on-site or provided by the user; 50 is the gap between the escalator truss and the upper support beam edge (some manufacturers have a value of 40); The constant 1.428 is used for a 35 degree escalator; 1.732 for 30 degree escalators; The length of the platform shall be determined according to the manufacturer's standard layout diagram; 2300 is the minimum height specified by the national standard. Note: The inclination angle of shopping mall escalators is generally not allowed to exceed 30 degrees.
4. Insufficient transportation channels, doorway height, or turning space inside the building: In this case, if the civil engineering cannot be modified, the escalator must be transported in sections (usually divided into 2 sections) when leaving the factory, and it should be noted when signing the sales contract. The overall truss cannot be segmented after leaving the factory, and the escalator equipment is not allowed to be transported horizontally.
5. Power supply setting for escalators: three-phase 380V, 50Hz should be led to the exit of the escalator.
6. Measurement of moving sidewalks: The method is basically similar to that of escalators, measured according to the manufacturer's standard layout diagram.
6、 Preparation before on-site measurement
1. Appointment: Before going to the construction site, it is necessary to schedule a time with the user or construction unit, which can provide good cooperation on site. If there are lifting equipment on site, the machine room and top floor can be measured first to save energy.
2. Clothing: If the building is under construction, try not to wear sandals when entering the construction site. The soles of the shoes should not be too hard or too soft to prevent sprains or punctures. Try to wear long sleeved tops and pants as much as possible to avoid scratching your skin with building materials. You should also borrow a safety helmet from the construction unit to wear.
3. Measurement tools: It may be inconvenient to borrow them on site, so try to bring them yourself. Generally, a 5-meter steel tape measure is required for measuring straight ladders, and a 20 meter leather tape measure is required for escalators. If the on-site lighting is dim, a flashlight is essential. Large construction sites should try to bring their own compass to avoid getting lost in the building or complex (the total price of the above tools does not exceed 40 yuan). Climbing high-rise stairs consumes a lot of physical energy, so you can bring a bottle of water. Don't forget to bring paper and pen!
4. Cooperation: Try to have someone to cooperate with when measuring the shaft, especially when it is inconvenient to measure the escalator shaft alone. You can take a colleague or ask the user to send someone to cooperate.
5. Understanding the site: Before measurement, it is necessary to consult with the technical personnel of the user or construction unit to understand the situation on site, in order to prepare tools purposefully and focus on measuring special structures. For large-scale projects with a large land area, a large number of elevators, and scattered shafts, users can request a general layout plan or draw a sketch of elevator location distribution before entering the site, in order to smoothly find the position of each shaft.
7、 Other matters
1. For civil engineering structures that cannot be determined temporarily and data that cannot be measured (such as debris or water accumulation in the shaft) that cannot be estimated or guessed, users should be reminded to notify the manufacturer in a timely manner after the data is confirmed, or to measure again after the measurement conditions are available on site.
2. The engineering contact person and phone number of the user or construction unit should be recorded, so that the manufacturer's design personnel can directly contact the on-site technical personnel in case of technical problems.
3. The measurement and confirmation of civil engineering parameters of the shaft should be accurately implemented before the contract is signed, in order to avoid discovering that the actual situation of the shaft does not match the contract specifications or drawings, resulting in costs due to shaft rectification or elevator specification changes, which may cause disputes with users. This is generally detrimental to elevator manufacturers.
4. After the contract is signed, sales personnel should also pay attention to tracking the progress of the project. If any changes are found in the design or construction, or if the project is delayed, they should promptly request the user to make contract changes to avoid disputes in the future.
5. For special types of elevators such as sightseeing elevators, inorganic room elevators, hydraulic elevators, and car elevators, there is a significant difference in the size of each manufacturer's shaft. The confirmation of civil engineering should be based on the manufacturer's layout plan, but the principle is the same.
6. The reference standards for civil engineering design of escalator shafts are GB 7588-2003 "Safety Code for Elevator Manufacturing and Installation" and GB 16899-1997 "Safety Code for Manufacturing and Installation of Escalators and Moving Walkways". The specific conditions and data should be based on the layout drawings of each manufacturer.
8、 Elevator shaft size table
500KG cargo elevator single channel parameters National standard area 1.38 ㎡ Car net size 1.10m x 1.15m x 2.2m Door net size 900mm x 2100mm Traction machine power 7.5kw Shaft size 2.00m x 1.75m Pit depth 1400mm Top floor height 4500mm Machine room height 3000mm
500KG cargo elevator, cargo elevator, dual channel parameters, national standard area 1.38 ㎡, net size of elevator car 1.11m x 1.10m x 2.2m, net size of door opening 900mm x 2100mm, traction machine power 7.5wk, shaft size 2.00m x 1.87m, pit depth 1400mm, top height 4500mm, machine room height 3000mm
1000KG cargo elevator single channel parameters National standard area 2.4 ㎡ Car net size 1.41m x 1.60m x 2.2m Door net size 1100mm x 2100mm Traction machine power 7.5kw Shaft size 2.30m x 2.20m Pit depth 1400mm Top floor height 4500mm Machine room height 3000mm
1000KG cargo elevator, cargo elevator, dual channel parameters, national standard area 2.4 ㎡, net size of car 1.41m x 1.55m x 2.2m, net size of door opening 1100mm x 2100mm, traction machine power 7.5kw, shaft size 2.30m x 2.32m, pit depth 1400mm, top height 4500mm, machine room height 3000mm
1600KG cargo elevator single channel parameters National standard area 3.56 ㎡ Car net size 1.91m x 1.75m x 2.2m Door net size 1500mm x 2100mm Traction machine power 11kw Shaft size 2.80m x 2.35m Pit depth 1400mm Top floor height 4500mm Machine room height 3000mm
1600KG cargo elevator, cargo elevator, dual channel parameters, national standard area 3.56 ㎡, net size of elevator car 1.91m x 1.70m x 2.2m, net size of door opening 1500mm x 2100mm, traction machine power 11kw, shaft size 2.80m x 2.47m, pit depth 1400mm, top height 4500mm, machine room height 3000mm
2000KG cargo elevator single channel parameters National standard area 4.2 ㎡ Car net size 1.91m x 2.10m x 2.2m Door net size 1500mm x 2100mm Traction machine power 11kw Shaft size 2.80m x 2.70m Pit depth 1400mm Top floor height 4500mm Machine room height 3000mm
2000KG cargo elevator, cargo elevator, dual channel parameters, national standard area 4.2 ㎡, net size of car 1.91m x 2.05m x 2.2m, net size of door opening 1500mm x 2100mm, traction machine power 11kw, shaft size 2.80m x 2.82m, pit depth 1400mm, top height 4500mm, machine room height 3000mm
3000KG cargo elevator, single channel parameters, national standard area 5.8 ㎡, net size of elevator car 2.41m x 2.25m x 2.2m, net size of door opening 1800mm x 2100mm, traction machine power 15kw, shaft size 3.45m x 2.85m, pit depth 1600mm, top height 4600mm, machine room height 3000mm
3000KG cargo elevator, cargo elevator, dual channel parameters, national standard area 5.8 ㎡, net size of car 2.41m x 2.25m x 2.2m, net size of door opening 1800mm x 2100mm, traction machine power 15kw, shaft size 3.45m x 3.02m, pit depth 1600mm, top height 4600mm, machine room height 3000mm
5000KG cargo elevator, single channel parameters, national standard area 9.0 ㎡, net size of elevator car 2.41m x 3.55m x 2.5m, net size of door opening 1800mm x 2100mm, traction machine power 22kw, shaft size 3.56m x 4.15m, pit depth 1600mm, top height 4600mm, machine room height 3000mm
5000KG cargo elevator, cargo elevator, dual channel parameters, national standard area 9.0 ㎡, net size of elevator car 2.41m x 3.50m x 2.5m, net size of door opening 1800mm x 2100mm, traction machine power 22kw, shaft size 3.56m x 4.27m, pit depth 1600mm, top height 4600mm, machine room height 3000mm
3000KG Car Elevator Dual Channel Parameters National Standard Area 15 ㎡ Car Net Size 2.51m x 5.10m x 2.5m Door Net Size 2400mm x 2400mm Traction Machine Power 22kw Shaft Size 4.00m x 5.86m Pit Depth 1600mm Top Floor Height 4800mm Machine Room Height 3000mm
5000KG Car Elevator Dual Channel Parameters National Standard Area 25 ㎡ Car Net Size 2.91m x 5.60m x 2.5m Door Net Size 2400mm x 2400mm Tractor Power 22kw Shaft Size 4.36m x 6.38m Pit Depth 1600mm Top Floor Height 4800mm Machine Room Height 3000mm
A 320KG residential elevator carrying 4 people, with a national standard area of 0.97 ㎡. The net size of the elevator car is 1.13m x 0.92m x 2.2m, and the net size of the door is 700mm x 2000mm. The power of the traction machine is 2.5kw. The shaft size is 1.70m x 1.60m, and the pit depth is 1400mm. The top floor height is 3800mm, and the machine room height is 2500mm
A 400KG residential elevator carrying 5 people, with a national standard area of 1.17 square meters. The net size of the elevator car is 1.13m x 1.02m x 2.2m, and the net size of the door is 700mm x 2000mm. The power of the traction machine is 3.3kw. The shaft size is 1.70m x 1.70m, and the pit depth is 1400mm. The top floor height is 3800mm, and the machine room height is 2500mm
630KG residential elevator carrying 8 people, with a national standard area of 1.66 ㎡. The net size of the car is 1.23m x 1.22m x 2.2m, and the net size of the door is 800mm x 2000mm. The traction machine has a power of 4.5kw. The shaft size is 1.80m x 1.95m, and the pit depth is 1400mm. The top floor height is 3800mm, and the machine room height is 2500mm
800KG residential elevator carrying 10 people, national standard area 2.00 ㎡, net size of elevator car 1.43m x 1.42m x 2.3m, net size of door opening 800mm x 2000mm, traction machine power 5.5kw, shaft size 1.85m x 2.00m, pit depth 1400mm, top height 4500mm, machine room height 3000mm
1000KG residential elevator carrying 13 people, with a national standard area of 2.4 ㎡. The net size of the elevator car is 1.7m x 1.42m x 2.3m, and the net size of the door is 900mm x 2000mm. The power of the traction machine is 6.7kw. The shaft size is 2.15m x 2.20m, and the pit depth is 1400mm. The top floor height is 4500mm, and the machine room height is 3000mm
1600KG residential elevator carrying 21 people, with a national standard area of 3.56 square meters. The net size of the elevator car is 1.93m x 1.82m x 2.3m, and the net size of the door is 1100mm x 2000mm. The power of the traction machine is 18.5kw. The shaft size is 2.50m x 2.55m, and the pit depth is 1400mm. The top floor height is 4500mm, and the machine room height is 3000mm
800KG sightseeing elevator carrying 10 people, with a national standard area of 2.00 ㎡. The net size of the car is 1.25m x 1.64m x 2.3m, and the net size of the door is 800mm x 2000mm. The traction machine has a power of 5.5kw. The shaft size is 2.35m x 2.18m, and the pit depth is 2000mm. The top floor height is 5000mm, and the machine room height is 3000mm
A 1000KG sightseeing elevator carrying 13 people, with a national standard area of 2.4 square meters. The net size of the car is 1.35m x 1.84m x 2.3m, and the net size of the door is 900mm x 2000mm. The power of the traction machine is 6kw. The shaft size is 2.60m x 2.38m, and the pit depth is 2000mm. The top floor height is 5000mm, and the machine room height is 3000mm
1600KG sightseeing elevator carrying 21 people, with a national standard area of 3.56 square meters. The net size of the car is 1.60m x 2.34m x 2.3m, and the net size of the door is 1100mm x 2000mm. The traction machine has a power of 17.5kw. The shaft size is 2.50m x 2.55m, and the pit depth is 2000mm. The top floor height is 5200mm, and the machine room height is 3000mm
1600KG hospital bed elevator single channel national standard area 3.56 ㎡, net size of elevator car 1.43m x 2.35m x 2.3m, net size of door opening 1200mm x 2100mm, traction machine power 19kw, shaft size 2.40m x 2.95m, pit depth 1600mm, top height 4500mm
1600KG hospital bed elevator dual channel national standard area 3.56 ㎡, net size of elevator car 1.43m x 2.20m x 2.3m, net size of door opening 1200mm x 2100mm, power 19KW, shaft size 2.40m x 2.96m, pit depth 1600mm, top height 4500mm, machine room height 3000mm
