Information about the Call for Papers
As usual, Recy & DepoTech 2024 addresses the entire spectrum of waste management and waste technology. However, we would like to highlight certain topics as focal points and set up separate blocks for each:
- Circular economy
- Sensor-based sorting including robotics
- Artificial intelligence
- Case studies and best practice
- Eco-design and recyclability
- Mineral waste, by-products and industrial residues
- In-situ remediation of contaminated sites
- Climate protection
- Deposit systems
However, we also welcome all other submissions beyond the above-mentioned focal points and will again put together an interesting program covering all aspects of waste management and waste technology in the broadest sense.
Contributions in German and English, from Austria and abroad are equally welcome in all areas.
Submission deadline
Submissions must be made online by January 21, 2024 (extended deadline).
ATTANTION: Due to high demand, the original deadline (January 14, 2024) has been extended once.
Submissions after January 21, 2024 can unfortunately only be accepted as posters.
Topic overview
A suggestion of the variety of topics can be found on the following pages, with the above-mentioned focal points marked in bold:
1. Recycling and waste management
a. Artificial intelligence
i. Smart waste management logistics
ii. Innovative collection systems
iii. Digitalization of facilities
iv. Sensor-based material flow characterization, monitoring and quality control
v. Cross-plant characterization
b. Circular economy
i. Strategies
ii. Waste prevention and reuse
iii. Extended producer responsibility and systems
iv. Deposit systems
v. Internal recycling management
vi. Preparation for reuse
vii. Targets and quotas
viii. Harmonised separate collection of packaging
ix. Circular cities and regions
c. Eco-design and recyclability
i. Product passports (e.g. battery passport)
d. Municipal waste management
i. Regional concepts
ii. New services
iii. PPP models (public private partnership)
e. International circular economy
i. International cooperation and technology transfer
ii. Investigation of waste management systems
iii. Informal waste management
iv. Country specific case studies
v. Waste incineration in an international context
vi. New waste-to-energy facilities
f. Evaluation methods for waste management
i. Material cycles and material flow analysis
ii. Quality and quality assurance
iii. Risk analysis and safety engineering
iv. Life cycle assessment and life cycle analysis
v. Economic evaluations
vi. Qualitative and quantitative waste forecasts
vii. Emissions reduction and climate change mitigation
g. Economic aspects and instruments of waste management
i. Waste economic models
ii. EU taxonomy
iii. Steering measures and incentive systems
iv. Waste market developments
v. Single-use deposit and deposit systems
vi. Reusable quotas
h. Waste management and climate protection
i. Dealing with consequences of climate change (e.g. disaster waste)
i. Waste legislation
i. New challenges in waste classification
ii. Producer responsibility
iii. Steering measures
iv. Product-waste delineation
v. End of waste
vi. Implementation of the circular economy strategy
vii. EU battery regulation NEW
j. PFAS in waste management
k. Psychological and social science aspects of waste management
l. Best practice examples
2. Recycling and waste recovery
a. Treatment of special material streams
i. Mineral wastes, by-products and industrial residues
1. Slags
2. Sludges
3. Dusts
4. Glass and ceramics
5. Construction waste including mineral wool
6. Excavated soil and tunnel excavation materials
7. Waste incineration residues
ii. Municipal and household-type commercial waste
iii. Biological waste
1. Paper
2. Wood
3. Biogenic waste including food
4. Sewage sludge
iv. Plastics and waste containing plastics
v. Old textiles
vi. Composite materials
vii. Metals and critical raw materials, including batteries
viii. Hazardous waste
b. New process engineering approaches
i. Sensor-based (indirect) sorting including robotics
ii. Case studies of waste engineering facilities
iii. Chemical recycling
iv. Innovative shredding technology
v. Microbiological processes (e.g., bioleaching)
vi. Future of mechanical-biological waste treatment
vii. Wet mechanical processes
viii. Thermochemical processes
1. Waste incineration
2. Co-incineration including refuse derived fuels
3. Recycling by thermal treatment
4. Vitrification
5. Slag conditioning
ix. Alkali activation
c. Safety engineering
i. Fire safety
ii. Risk management
iii. Technical solutions
d. Climate protection in recycling and waste utilization
i. CCS and CCU
ii. Decarbonization in waste management
iii. Use of renewable energy sources (e.g., hydrogen)
e. Best practice examples and case studies of waste management facilities
3. Landfill technology and contaminated sites
a. Contaminated sites
i. In-situ remediation of contaminated sites (innovative methods and case studies)
ii. On-site and off-site remediation of contaminated sites (innovative methods and case studies)
iii. Research projects on innovative remediation methods
iv. Sampling and monitoring concepts
v. Hazard and risk assessment of contaminated sites
vi. Brownfield recycling
b. Landfills
i. Landfill construction
ii. Landfill operations
iii. Landfill gas
iv. Landfills as carbon sinks
v. Leachate including upgrading of collection systems
vi. Landfill Mining
vii. Landfill on landfill
viii. Landfill aftercare
ix. Subsequent use of landfills