our expertise
We are a multidisciplinary team of experts, bringing together mechanical, electrical, material, and production engineers alongside embedded hardware, software, and cybersecurity specialists. Our team consists of engineers, scientists and researchers blending deep academic knowledge with hands-on industry experience.
TIZ Glagol is a rapidly growing development hub with strong engineering, design and manufacturing knowledge and the fastest working team you’ll work with.
services
mechanical engineering
Rapid mechanical prototyping
Structure design and analysis
DFM – design for manufacturing
Vehicle engineering and design
Pneumatic and electric machine design
Sheetmetal forming tool design
High-level surface design
Micro-machines and assemblies development
materials engineering
Examination of physical and chemical properties of materials
Targeting specific characteristics
Characterization of materials
Mechanical, chemical, electrical, thermal, optical, magnetic properties
Processing of materials
Metals, ceramics, polymers, composites
Multifunctional materials
Recycling
electrical engineering
PCB design (schematic, PCB layout)
Power electronics design
High speed layout
Design for mass production
System wide simulations (electronics, thermal, control loop)
Component obsolescence management
EMC / Safety compliance consulting
Test automation platforms
Functional safety for HW
Requirements management
mechanical engineering capacities
3D printing (any material any size)
Sheetmetal forming (all small series processes)
Vacuum plastic forming (1500x1500mm, ~5mm thickness)
TIG/MIG welding
Composite parts manufacture
QC and measuring station
Product assembly lines
Electrical testing
Machining of all types
Laser cutting of sheetmetal and profiles
Powder coating
Success Stories
bespoke designer e-bikes
Goal
Transform a startup-level project into a fully developed engineering initiative and launch small-scale production.
Activities and Technologies
- Complete Digitalization: Convert all existing parts and drawings into an integrated, structured CAD project.
- Design Optimization: Refine the bike’s design and develop new components and assemblies.
- Tooling & Manufacturing Setup: Design and produce welding jigs and specialized tooling.
- Small-Series Production of Designer E-Bikes, including:
- Full preparation for production.
- Precision manufacturing of complex steel tube components.
- Welding and post-processing of all frames and parts.
- Fabrication of intricate components using SLA resin 3D printing.
Results
Production and delivery of the first units within four months of project initiation.
Six-Axis Phone Testing Robot
Goal
Execute a two-phase project:
- Phase 1 – Production and assembly of 25 units based on the client’s existing design.
- Phase 2 – Complete redesign of the machine for optimized medium-series production.
Phase 1 activities
- Establishment of a production and assembly line.
- In-house 3D printing of:
- 150+ kg of standard plastic components.
- 20+ kg of high-strength resin parts.
- Manufacturing and testing of low-voltage cables.
- Ad-hoc design improvements during production.
- Quality control, testing, and delivery of 25 units.
Phase 2 activities
- Full machine redesign, transitioning to manufacturing methods suited for medium-series production:
- Laser cutting.
- Sheet metal forming.
- Vacuum forming.
- Extensive prototyping and testing.
- Final optimized solution delivered to the client.
Results
- ~10x reduction in total part count.
- 50% cost reduction per unit.
- Production time per unit reduced from 30 hours to just 7 hours.
bmw 1 race suspension
Goal
Develop a new, adjustable inboard pushrod-rocker suspension to enhance track performance, incorporating feedback from professional racers.
Activities and Technologies
- 3D Scanning & Digitization: Capture and extract all relevant vehicle geometry.
- Suspension Analysis: Evaluate the existing system using multi-body dynamic simulations.
- Advanced Suspension Design:
- Implement cutting-edge design techniques, rarely utilized in Serbia.
- Optimize geometry for improved handling and performance.
- Structural Calculations & Simulations: Ensure optimal strength-to-weight ratio.
- Prototyping & Testing:
- Iterative development with real-world vehicle testing.
- Manufacturing in-house (machining & welding).
- Final installation and track testing with the client.
Results
Testing is currently in progress.
racing peugeot system upgrade
Goal
Design and manufacture completely new wheel uprights and optimize the steering system for enhanced racing performance.
Activities & Technologies
- 3D Scanning & Digitization: High-precision scanning of the car segment, converted into a detailed CAD model.
- Suspension & Steering Analysis: Extracting and analyzing critical geometry to optimize performance.
- Topology Optimization:
- Redesigning the wheel uprights for maximum strength and minimal weight.
- Preparing components for CNC milling.
- Manufacturing & Testing:
- Precision machining and assembly.
- On-track testing to fine-tune the steering system.
Results
- New uprights are 2× lighter and stronger than the originals.
- Steering system optimized for peak racing performance.
composite wing for audi tt
Project Goal
Design and develop a high-performance, regulation-compliant composite rear wing for an Audi TT, tailored to the client’s specifications.
Activities & Technologies
- CAD Design & Simulations: Optimizing aerodynamics and structural integrity.
- Composite Engineering: Developing a lightweight yet durable wing using advanced composite materials.
Results
The final product was technically successful.
Simulations
Testing&Validation
