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Master Thesis Projects - Landskrona, Spring 2027

Bygg, teknik och hantverk · Bygg- och industriteknik · Maskinteknik · Elektroteknik · Robotik och automation · Mjukvaruutveckling

I korthet

ASSA ABLOY is offering Master Thesis projects at their Landskrona site for Spring 2027. Students will work on real-world challenges in areas like product development, automation, and AI. This is a great opportunity to gain practical experience with a global leader in access solutions and potentially kickstart a career.

Ansvarsområden

  • Deep dive into new Machinery regulation to understand requirements.
  • Investigate the market for cost-efficient technical solutions.
  • Calculate required data storage.
  • Create a working prototype and validate the proposed technical solution.
  • Collect needs and requirements for technical solutions.
  • Ideate to find technical solutions and validate the most promising ones.
  • Investigate current retail market needs and ASSA ABLOY's potential solutions.
  • Set up a suggested business proposal based on a clear business case.
  • Analyze existing panel designs and production methods.
  • Identify strengths and weaknesses of different concepts.
  • Develop a unified panel platform suitable for multiple factories.
  • Evaluate manufacturing, performance, and cost implications.
  • Investigate interchangeable embossing designs for local branding.
  • Define recommendations for long-term product ownership and development.
  • Develop concepts for separate panel joint systems.
  • Investigate manufacturing and assembly implications.
  • Evaluate cost, material usage, and production complexity.
  • Assess effects on thermal insulation and energy efficiency.
  • Analyze structural performance and load transfer.
  • Explore reinforced joint designs using trusses or other strengthening features.
  • Analyze sales data and door size distributions.
  • Develop and evaluate optimal panel height concepts.
  • Assess impact on production and inventory complexity.
  • Investigate installation and handling considerations.
  • Evaluate effects on strength, insulation, and overall door performance.
  • Recommend the best solution based on technical and business value.
  • Analyze current roller and bracket designs and their usage.
  • Investigate load limits and key performance constraints.
  • Evaluate whether multiple roller sizes would be beneficial.
  • Identify opportunities for cost and material reduction.
  • Develop concepts for more compact brackets with maintained adjustability.
  • Assess effects on durability, installation, and overall door performance.
  • Investigate how current panels resist crowbar attacks.
  • Identify alternative materials and reinforcement concepts.
  • Explore solutions integrated into the panel, insulation, or joint design.
  • Evaluate effects on weight, cost, manufacturability, and performance.
  • Assess burglary resistance through analysis and testing.
  • Compare concepts and recommend the most promising design.
  • Analyze the limitations of current glass solutions.
  • Investigate ultra-thin and high-strength glass technologies.
  • Evaluate structural performance and impact resistance.
  • Assess weight reduction and thermal performance benefits.
  • Study manufacturing, handling, and cost implications.
  • Develop and compare concepts for future door designs.
  • Evaluate wireless alternatives to CAN communication.
  • Define requirements for latency, reliability, and safety.
  • Investigate cybersecurity and communication robustness.
  • Design and test a wireless communication architecture.
  • Assess performance under industrial operating conditions.
  • Compare installation, service, and cost implications.
  • Compare BLDC and AC motor performance in spring-balanced doors.
  • Determine practical limits regarding door size and weight.
  • Evaluate safety functions based on force detection and motor current monitoring.
  • Develop concepts for highly integrated motor and gearbox solutions.
  • Explore innovative designs such as motors integrated into cable drums.
  • Assess cost, efficiency, installation, and maintenance implications.
  • Create proof-of-concept designs and recommendations for future platforms.
  • Analyze motor, gearbox, and brake performance variations.
  • Investigate the impact of manufacturing tolerances.
  • Evaluate the effects of temperature and operating conditions.
  • Measure friction and efficiency losses in complete door systems.
  • Develop methods for screening motor systems before delivery.
  • Identify root causes and propose design improvements or proof-of-concept solutions.
  • Identify and evaluate available open-source CAN stacks.
  • Assess compliance with safety requirements and machinery regulations.
  • Benchmark performance, reliability, and maintenance implications.
  • Investigate CAN solutions already used within the company.
  • Develop a migration strategy from the current licensed solution.
  • Create a proof-of-concept or prototype implementation.
  • Recommend the most suitable solution for future products.
  • Compare historical and current spring designs and calculations.
  • Investigate spring wire materials and supplier differences.
  • Analyze the factors limiting spring performance today.
  • Evaluate opportunities to reduce spring count and material usage.
  • Develop improved spring calculation methods and specifications.
  • Recommend an optimized strategy for future spring design and sourcing.
  • Analyze cases where standard drum solutions are insufficient.
  • Develop concepts for locally manufactured and 3D-printed drums.
  • Evaluate material options and manufacturing methods.
  • Assess strength, durability, and safety requirements.
  • Compare production cost and lead time against traditional solutions.
  • Define the practical limits regarding door size and weight.
  • Analyze sales data to identify the most valuable built-in features.
  • Gather requirements from stakeholders across the business.
  • Challenge existing architecture and identify unnecessary complexity.
  • Develop concepts for door and loading bay controller platforms.
  • Evaluate module strategies that minimize base-unit cost.
  • Investigate compatibility with current and future motor technologies.
  • Ensure compliance with upcoming machinery regulations and connected-product requirements.
  • Analyze the current software testing process and its limitations.
  • Investigate how AI can generate, execute, and evaluate test cases.
  • Develop concepts for autonomous overnight system testing.
  • Identify software and architecture changes needed to support automation.
  • Evaluate risks, limitations, and maintenance requirements.
  • Create recommendations for a scalable AI-driven testing framework.
  • Find suitable manufacturing methods for the expected volume.
  • Adapt the “rack” design for the manufacturing methods.
  • Visiting our production in Lidköping.
  • Use FEM analysis and other simulations for quick testing.
  • Test using real prototypes to verify functionality.
  • Evaluating solution concepts.
  • Making sure the machine works, which requires mechanical and electrical solutions.
  • Building the machine, which functions as its own prototype.
  • Programming the machine.
  • Ergonomic and usability analysis and testing.
  • Visiting our production in Lidköping.
  • Use and evaluate relevant AI components.
  • Define evaluation criteria, such as answer quality, cost, and latency.
  • Investigate and compare evaluation methods.
  • Build representative evaluation datasets.
  • Work in a cloud environment and develop an understanding of its services and capabilities.
  • Analyse and communicate the results.
  • Understand the cloud environment and its services.
  • Evaluate the current document-understanding solution.
  • Analyse accuracy, cost, and information gaps.
  • Compare alternative document-understanding approaches.
  • Explore improvements through tuning and training.
  • Recommend the most practical and cost-effective approach.
  • Design, build and validate a mechatronic system by combining mechanical design, control systems, sensors, software and automation.
  • Push or pull a door to initiate opening or closing.
  • Move the door to an exact predefined position before a test starts.
  • Stop the door at any point during movement.
  • Accurately measure and verify the door position.
  • Hold the door in position and resist movement when required.
  • Interface with existing HIL hardware using analog and digital I/O.
  • Investigate how AI agents can leverage standardized tool interfaces to access requirements, source code and existing test assets.
  • Generate regression test specifications and test code from requirements and code.
  • Evaluate and compare the quality, coverage and maintainability of regression tests generated by different AI workflows.
  • Deliver a complete workflow from Jira requirement to generated regression test running on real embedded hardware.

Krav

  • Master’s student in engineering.
  • Ability to work physically at the Landskrona site.
  • Indicate project number(s) of interest.
  • Share initial thoughts on how to approach the project.
  • Indicate if planning to write thesis with a classmate.
  • Both applicants should submit individual applications and mention each other as thesis partner if applying as a team.
  • Ability to work independently or with a classmate.

Önskade kvalifikationer

  • Interest in collaboration with a global innovation leader.
  • Understanding of current retail market.
  • Knowledge of existing panel designs and production methods.
  • Familiarity with manufacturing processes and cost implications.
  • Understanding of thermal insulation and energy efficiency.
  • Knowledge of structural performance and load transfer.
  • Experience with joint designs and reinforcement features.
  • Familiarity with door height distributions and optimization.
  • Knowledge of production and inventory complexity.
  • Understanding of installation and handling considerations.
  • Familiarity with strength, insulation, and door performance.
  • Understanding of roller and bracket designs and their usage.
  • Knowledge of load limits and performance constraints.
  • Experience with cost and material reduction.
  • Understanding of compact bracket designs and adjustability.
  • Familiarity with durability, installation, and door performance.
  • Knowledge of how panels resist crowbar attacks.
  • Familiarity with alternative materials and reinforcement concepts.
  • Understanding of solutions integrated into panel, insulation, or joint design.
  • Knowledge of weight, cost, manufacturability, and performance implications.
  • Ability to assess burglary resistance through analysis and testing.
  • Understanding of current glass solutions and their limitations.
  • Knowledge of ultra-thin and high-strength glass technologies.
  • Familiarity with structural performance and impact resistance.
  • Understanding of weight reduction and thermal performance benefits.
  • Knowledge of manufacturing, handling, and cost implications.
  • Understanding of wireless communication alternatives to CAN.
  • Ability to define requirements for latency, reliability, and safety.
  • Knowledge of cybersecurity and communication robustness.
  • Experience designing and testing communication architectures.
  • Understanding of performance under industrial operating conditions.
  • Familiarity with installation, service, and cost implications.
  • Knowledge of BLDC and AC motor performance in spring-balanced doors.
  • Understanding of practical limits regarding door size and weight.
  • Familiarity with safety functions based on force detection and motor current monitoring.
  • Experience developing concepts for integrated motor and gearbox solutions.
  • Knowledge of innovative designs like motors integrated into cable drums.
  • Understanding of cost, efficiency, installation, and maintenance implications.
  • Experience creating proof-of-concept designs.
  • Familiarity with motor, gearbox, and brake performance variations.
  • Understanding of the impact of manufacturing tolerances.
  • Knowledge of the effects of temperature and operating conditions.
  • Ability to measure friction and efficiency losses in complete door systems.
  • Experience developing methods for screening motor systems.
  • Ability to identify root causes and propose design improvements.
  • Knowledge of available open-source CAN stacks.
  • Familiarity with compliance with safety requirements and machinery regulations.
  • Understanding of performance, reliability, and maintenance implications.
  • Knowledge of CAN solutions used within the company.
  • Experience developing migration strategies.
  • Ability to create proof-of-concept or prototype implementations.
  • Familiarity with historical and current spring designs and calculations.
  • Knowledge of spring wire materials and supplier differences.
  • Understanding of factors limiting spring performance.
  • Experience evaluating opportunities to reduce spring count and material usage.
  • Ability to develop improved spring calculation methods and specifications.
  • Familiarity with cases where standard drum solutions are insufficient.
  • Experience developing concepts for locally manufactured and 3D-printed drums.
  • Understanding of material options and manufacturing methods.
  • Knowledge of strength, durability, and safety requirements.
  • Ability to compare production cost and lead time.
  • Familiarity with door and loading bay controller platforms.
  • Understanding of module strategies that minimize base-unit cost.
  • Knowledge of compatibility with current and future motor technologies.
  • Familiarity with upcoming machinery regulations and connected-product requirements.
  • Understanding of the current software testing process and its limitations.
  • Familiarity with how AI can generate, execute, and evaluate test cases.
  • Experience developing concepts for autonomous overnight system testing.
  • Knowledge of software and architecture changes needed for automation.
  • Understanding of risks, limitations, and maintenance requirements.
  • Familiarity with manufacturing methods for expected volume.
  • Experience adapting designs for manufacturing methods.
  • Ability to use FEM analysis and simulations.
  • Experience building and testing prototypes.
  • Familiarity with evaluating solution concepts.
  • Ability to ensure machine functionality with mechanical and electrical solutions.
  • Experience building machines and programming them.
  • Familiarity with ergonomic and usability analysis and testing.
  • Ability to use and evaluate relevant AI components.
  • Experience defining evaluation criteria.
  • Familiarity with investigating and comparing evaluation methods.
  • Ability to build representative evaluation datasets.
  • Familiarity with cloud environments and services.
  • Experience analyzing and communicating results.
  • Understanding of the cloud environment and its services.
  • Familiarity with evaluating document-understanding solutions.
  • Ability to analyze accuracy, cost, and information gaps.
  • Experience comparing alternative document-understanding approaches.
  • Familiarity with improving solutions through tuning and training.
  • Ability to design, build, and validate mechatronic systems.
  • Familiarity with mechanical design, control systems, sensors, software, and automation.
  • Ability to push or pull a door to initiate opening or closing.
  • Ability to move the door to a predefined position.
  • Ability to stop the door during movement.
  • Ability to measure and verify door position.
  • Ability to hold the door in position and resist movement.
  • Familiarity with interfacing with existing HIL hardware.
  • Ability to investigate how AI agents leverage standardized tool interfaces.
  • Experience generating regression test specifications and test code.
  • Ability to evaluate and compare the quality, coverage, and maintainability of regression tests.

Förmåner

  • Opportunity to work on projects that matter and contribute to real solutions.
  • Shape the future of access.
  • Be part of a large international group.
  • Build a career to be proud of.
  • Supportive student community, buddy system, and regular social activities.
  • Many students go on to join ASSA ABLOY full-time.
  • Your thesis could be the first step in a long and exciting journey.
  • Hands-on learning and richer understanding of technologies and culture.

Färdigheter

RFIDNFCCAN communicationAIFEM analysisMechatronicsControl systemsSensorsSoftwareAutomationJiraEmbedded software developmentCloud environmentDocument Intelligence
#engineering#thesis#innovation#automation#AI#software#robotics#mechatronics#mechanical#electronics
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Om ASSA ABLOY Group

Let’s create a safer and more open world – together! ASSA ABLOY is the global leader in access solutions with sales of SEK 121 billion and 52,000 employees. The Group has operations in over 70 countries and sales worldwide. ASSA ABLOY’s innovations enable safe, secure and convenient access to physical and digital places. Every day, we help billions of people experience a more open world. We have a feeling of discovery and urge to innovate by working together and telling it like it is, enabling us to be always growing, never boring and leading right. Do you want to be encouraged to act, have…

Publicerade jobb

för 4 dagar sedan

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Arbetsform

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Erfarenhetsnivå

Student

Platser

Landskrona, Sweden

Kvalifikation

Kandidatexamen, Masterexamen

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