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Ergonomics at the standing workstation: how to plan ergonomic workstations

Written by
Jana Steinmetzger
|
Jun 8, 2025

Summary

Ergonomics at the standing workstation determines health, quality, and cycle stability in assembly. Even a few millimeters of working height, grasping area, and line of sight noticeably change shoulder and trunk angles, fatigue, and error rates.

Ergonomics at the standing workstation determines health, quality, and cycle stability in assembly. Even a few millimeters of working height, grasping area, and line of sight noticeably change shoulder and trunk angles, fatigue, and error rates. If you plan working heights relative to elbow height, separate reach zones clearly, and limit loads according to the relevant standards, complaints go down, cycle time becomes more stable, and the process becomes safer. In VR, you check variants early and bring adjustments forward while they still cost little.

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Why is ergonomics at the standing workstation so important in assembly?

Standing work puts strain on the back, neck, shoulders, legs, and feet through repeated grasping movements, awkward angles, and long periods of static standing. Static holding causes fatigue faster than movement, because blood flow is restricted. Short micro-breaks of 20 to 30 seconds every 20 to 30 minutes keep performance stable, especially when combined with small changes in posture. When employees alternate between tasks with different demands (job rotation), strain is distributed better and monotony decreases.

Ergonomics has a direct effect on quality and cycle stability. If the working height is too high, the shoulder gets raised. If it is too low, the trunk bends forward and the risk of errors rises. Grasping paths outside the primary area cost seconds and encourage overload. Anti-fatigue mats and suitable shoes relieve the leg muscles and make standing more comfortable over the shift. DIN EN 1005 and ISO 6385 provide guidance with design principles, and ISO 11228 covers manual handling of loads.

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How do you plan working heights, grasping zones, and visual zones in a traceable way?

The central reference is elbow height when standing:

  • Precision work: work surface about 50 to 100 mm above elbow height
  • Light assembly: about at elbow height, with up to 50 mm deviation
  • Rough or heavy tasks: about 100 to 200 mm below elbow height

This avoids unnecessary shoulder raising and keeps trunk flexion low. Grip heights between 900 and 1,200 mm above the floor are usually favorable. For reach: the primary area ends at a grasping distance of about 450 mm, the secondary area at around 700 mm. Frequently used parts belong in the primary area, rarely used parts in the secondary area. Target values for posture are shoulder flexion below 60 degrees and trunk flexion below 20 degrees. You limit heavy lifting according to ISO 11228-1: avoid regular lifting above 15 kg, and for higher loads use aids or shorten grasping distances and lifting heights.

Here's how to proceed:

  1. Measure elbow height: standing, with a relaxed upper arm and a 90-degree angle at the elbow joint.
  2. Classify the task: precise, light, or rough and heavy.
  3. Set the work surface: relative to elbow height according to the guide values, then make trial grasps with real parts and tools.
  4. Check angles: Observe shoulder and trunk angles and readjust in steps of 50 mm until the target angles are reliably met.
  5. Sort material: by frequency of access, with the most important parts in the primary area, and align displays so that nobody has to overextend their head.

For lines of sight, avoid glare and shadows and place inspection features in the direct field of view. Rotating or tilting fixtures bring components into a favorable position so that wrists stay neutral. Plan adjustment ranges for the 5th to 95th percentile so that short and tall people can work ergonomically. This saves retrofits and keeps assembly cycle-stable even during variant changes.

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How do you assess and improve your standing workstation pragmatically?

For the assessment, you combine standards and screening methods:

  • DIN EN 1005 and ISO 6385: design principles for adaptability, information display, and load management.
  • ISO 11228: limit and guide values for lifting, carrying, pulling, and pushing.
  • RULA and REBA: RULA (Rapid Upper Limb Assessment) and REBA (Rapid Entire Body Assessment) rate the posture of trunk, neck, arms, and legs as well as the load, so you can prioritize ergonomic risks quickly.
  • Key indicator methods: They complement screening for entire processes with frequencies and distances.

Document measurements, photos or videos, and results transparently so that decisions remain traceable.

Effective measures are usually simple:

  • Height-adjustable tables accommodate different body heights.
  • Grasping and lifting aids reduce peak loads.
  • Rotating fixtures avoid trunk rotation.
  • Anti-fatigue mats and good shoes provide relief when standing.
  • A small footrest allows alternating standing postures and relieves the lower back.

Material close to the body, clear routing, and balanced work content stabilize the cycle time. Make micro-breaks a fixed part of the plan and define job rotation between tasks with different strain.

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How does VR help with validation?

Checking in VR speeds up coordination. Halocline is the planning platform for production layouts and workstations. With no training required and without CAD data, you build the standing workstation from library elements and check working heights, grasping areas, and lines of sight at 1:1 scale. Grasping area avatars show the optimal and maximum grasping area and the working planes for the gender and body height you set, calculated according to DIN 33402-2 and DIN EN ISO 14738. This lets you check the same workstation for short, medium-height, and tall people.

You vary table and grip heights in 50 mm steps as planning variants and try out material positions. You measure distances with the measuring tool and spot collisions early. If you run through the workflow in VR and record it, the spaghetti diagram shows the routes, and the ergonomics analysis based on the key indicator method marks problematic object movements. During the walkthrough, one person walks through the workstation in VR while colleagues follow along in spectator mode on screen. This makes improvements measurable and speeds up approval.

Siemens in Karlsruhe shows how much time this saves: there, workstation design with Halocline became 4x faster.

Want to plan your standing workstation ergonomically before you rebuild? Get started for free with Halocline Free and build your first workstation in 3D. For process analysis and the ergonomics check, get in touch and we'll show you the right scope.

Jana Steinmetzger

With her extensive sales experience, Jana Steinmetzger, Sales Engineer at Halocline, shows the value that VR-based factory planning creates for modern production environments.

Ein Mann mit VR Brille vor einem Monitor, auf dem dieLayoutplanungssoftware Halocline zu sehen ist.

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