lends:
renders accessible on the spot:
makes
We invite you to use the catalogue OPAC WWW of the Institute Technical Library
Roadheaders; roadheading systems.
Support: steel; mesh; bolting; face-ends; temporary; individual props; mechanized support; bolters; equipment for support installation.
Loaders: gripping; bucket-side-discharge; for ripping the floor and overhead; arm; scraper.
Shearers; ploughs; saws for coal; hammers; cutters.
Cuttability of coal and rocks; cutting: with roof fall, with stowing; with blasting; forcing-in water; water jet cutting; cutting tools; bits; drill bits; drilling teeth.
Mechanized roof support: chock, shield; chock-and-shield; frame; hanging; for stowing; for sandy floor; individual support.
Systems for thick, medium, thin and steep seams. Shearer longwall systems; plough longwall systems.
Scraper buckets; conveyors: scraper; belt; loading elevators; belt conveyors flights; other conveyors; crushing equipment; dischargers equipment; loading spots; surge tanks; pushers; loading and unloading equipment; additional equipment for adaption of belt conveyors for men riding.
Rail-mounted mine cars-universal and special; locomotives; electric traction; self-propelled cars; chain railways; track barriers; track brakes.
Jet pumps; injectors; feeding and collecting devices; pipelines.
Underground railways – monorails and floor-mounted; winches; rope-pulling device; pallets; containers; special cars.
Stowing materials; filling: hydraulic, dry, pneumatic – slung; filling pipelines; transport of filling material; stowing machines; stowing dams.
Hammers; manual saws; chisels; bolters, shifters; wedges; pushers; disassembly pullers, hoists, horseheads; safety winches; devices fixing machines and equipment; legs; sprags; machines for assembly and disassembly; mobile cranes.
Drills; drill rigs; drilling jumbos; sprag pillars; extension arms; manipulators; drill pumps.
Ventilation and air-conditioning of mines; fans; ventilation reverse; ventilation pipes; ventilation pipelines; blowers; coding devices.
Pumps: for central dewatering; face; for heavily contaminated liquids; pump systems.
Winding machines; winding equipment; conveyances; winding ropes; suspension gears; rope pulleys; shaft towers; equipment for shaft top and shaft bottom – batchers, scales, shaft sinking equipment.
Crushers; mills; sieves; floatation machines, dust collectors; jigs; concentration tables; picking tables; drivers; air classifiers; centrifuges; drum; hydrocyclone; stream and heavy medium separators.
Hydraulic pumps; hydraulic engines; hydraulic cylinders; connectors; manipulators; hydraulic accumulators; glands; valves; seals; hydraulic oils; emulsions; pneumatic drives; compressors; pneumatic engines; dewaterers; oil separators; filters; dividers; fittings.
Parts of machines; elements of drives; control; strength control; construction materials; wear of materials; energy consumption.
Work Safety and Hygiene; accident rate; protection against noise and vibration; protectors, protecting clothing; lighting of machines; dust control; fire hazards caused by mining machines.
Reliability theory; reliability systems; developing software of failure-less operation time and of repair time; attestation; life tests; approvals for exploitation; ageing processes; lubrication; friction; wear. Technical diagnostics.
Reports on business trips abroad; conferences; meetings; fairs and exhibitions; general descriptions of machines and equipment.
Descriptions of plants; technological, economical and organizational progress; unmanned mining; production rates of mines; scientific-and-technical information; forecasting; patents; rationalization; inventiveness; know-how; licenses; work and salaries; finances; personnel.
Mathematics; Physics; Chemistry; branches of knowledge connected with the mining industry; designing and constructing; history of mining mechanization; tests; data processing; optimization.
Articles in Polish Magazines
Monographs
Chapters in Monographs
Papers in Conference Proceedings
Papers in Conference Proceedings on Web of Science and Scopus
Articles in Polish Magazines
Articles in foreign magazines
Monographs
Chapters in Monographs
Papers in Conference Proceedings
Papers in Conference Proceedings on Web of Science
The KOMAG Institute protects innovative solutions in the Patent Office of the Republic of Poland. In over 65 years of KOMAG's history, about 4,500 inventions were submitted for protection.
The patents obtained in 2018 year:
The utility models obtained in 2018 year:
The patents obtained in 2017 year:
The utility models obtained in 2018 year:
Broad, international relations and an interdisciplinary collaboration with foreign scientific and research institutes, technical universities, companies and enterprises, activities aiming at an integration with the European Research Area, extending traditional forms and scopes of collaboration, a generation of new projects, in particular within the scope of the priority fields of activity, specified by the European Union in the Framework Programmes and also a participation in international organizations, collaborative networks and technology platforms are measures of KOMAG's successes.
KOMAG takes an active part in the activities of three European Networks of Excellence:
(Polish Academy of Sciences)
(Institute for Ecology of Industrial Areas)
VITO Flemish Institute for Technological Research).
A European Commission's nomination of KOMAG to the role of he Centre of Excellence within the 5th Framework Programme in the scope of advanced, safe and reliable mechanical systems confirms a high, scientific position of KOMAG in the European Research Area. The experience, gained during a realization of that project and new partners, representing the leading research institutes in Europe, have had a strong impact on the subject matter and scope of scientific and research projects, developed by KOMAG and connected, among others, with the research on he relationship: man-machine-environment and a development of new generation mechanical systems.
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The main objective of activities, undertaken by KOMAG and in particular connected with a realization of the basic, strategic tasks, is an integration with the European Research Area in the scope of designing, testing and production of machines as well as an increase in the competitiveness of Polish solutions in the European market. |
The international activity of the KOMAG Institute is dominated by the problems resulting from its general strategy, according to which a participation in the European Union research programmes is one of top priorities. Activities oriented onto broadening traditional subjects and forms of collaboration and a realization of new research programmes are undertaken on a large scale. That in particular refers to the following domains: health, power-engineering, mechatronics, new materials and technologies as well as ecology.
A collaboration within the Research Fund for Coal and Steel develops in a very interesting way. Since 2008 KOMAG has been taking an active part in its activities, participating in the actions co-ordinated by the EURACOAL European Association for Coal and Lignite and also by the EUROMINES - European Mineral Resources RTD Council.
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Specialist in 3D printing - specialized training in application of 3D printing and practical use of acquired knowledge. |
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The coordinator: KOMAG Institute of Mining Technology The consortium members:
The implementation period: September 2016 – August 2019 The goal of the project: 3DSPEC Specialist in 3D printing - specialized training in application of 3D printing and practical use of acquired knowledge. The project’s goal is to provide a comprehensive training in use of 3D printing technology in the following areas: education, design, healthcare, SMEs’ operation. There are two main elements of the training: i) online 3DSPEC course which provides solid theory regarding 3D prinitng as well as application examples and instructions to follow, ii) Internet platform for ordering 3D printing on 3D printers available in 3D Printing Centre (3D printers located at project partners’ facilities) via which trainees will have opportunity to make sample printouts and this way practice what they’ve learned. |
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Methods and tools for efficient use of existing resources and for support of development of effective training content by VET Teachers. |
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The coordinator: KOMAG Institute of Mining Technology The consortium members:
The implementation period: Semptember 2017 – August 2019 The goal of the project: E-MOTIVE Methods and tools for efficient use of existing resources and for support of development of effective training content by VET Teachers. The project’s goal is to provide VET teachers with easy-to-use training materials which will enable them to acquire knowledge and skills necessary for carrying out ICT-enhaced teaching. The training materials will cover in particular the following issues:
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Increase Efficiency and Safety Improvement in Underground Mining Transportation Routes. |
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The coordinator: KOMAG Institute of Mining Technology The consortium members:
The implementation period: July 2017 – June 2020 The goal of the project: There has been a rapid development of auxiliary transportation systems in the European mines in the last two decades. It mainly concerned the solutions, in which the auxiliary transportation means were equipped with their own drives. It has been observed that at the same time the length of tracks on which people are transported is all-time extended. Such situation leads to reduction of effective work time of miners during one shift. There is also necessity to equip people and equipment/material with tracking systems in dangerous environments. Efficiency and Safety Improvement in Underground Mining Transportation Routes” project are as follows: increasing the speed and safety of underground auxiliary transportation systems; development and testing of transportation systems adapted to increased speed; elaboration of low energy consumption ventilation of underground transportation routes; development of fully automated system for identification of human’s presence on underground conveyors; development of process optimization with persons and equipment tracking. |
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Productivity and safety of shield support. |
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The coordinator: KOMAG Institute of Mining Technology The consortium members:
The implementation period: July 2017 – June 2020 The goal of the project: Deeper and deeper mining of hard coal seams causes that mining crew and equipment are exposed to greater natural hazards. At present progress in the field of automation of mechanized longwall systems does not include monitoring of roof behaviour and preventing against disadvantageous phenomena associated with roof behaviour, such as roof falls to the longwall face or lack of roof fall beyond the shield support leading to local dynamic loading to the working. It is assumed that by monitoring both shield support behaviour (leg pressures, geometry and tip to face distance) and geotechnical conditions in longwall in real time, warnings about significant improper shield support behaviour and formation of roof instabilities, such as roof cavities/falls or shield closure, will be given several hours in advance. This advance warning allows miners to take preventive action which in turn can reduce longwall downtime and exposure to hazards. Such on-line solutions are not used at present. Development of Shield Support Monitoring System (SSMS), which will enable monitoring of roof condition in real time, through monitoring the parameters of shield support, as well as development of Longwall Mining Conditions Prediction System (LMCPS) for prediction of roof falls hazards and generation of information about indispensable corrective measures, is the project objective. LMCPS will be developed on the basis of the geomechanical models and tests of SSMS in real conditions. Geomechanical models are developed from three sources. The physical models, the numerical models (to date with qualitative aspects) and the underground measurement data, which hitherto should not be at variance with the developed theory. The suggested research work will be undertaken by a well-balanced, interdisciplinary consortium of underground control system developers and manufacturers, shield support designers, mining institutes and mining company complemented by assistance of one University. |
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Information Driven Incident RESponse. |
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The coordinator: Uniwersytet Exeter United Kingdom The consortium members:
The implementation period: July 2017 – June 2020 The goal of the project: It is addresses the crucial issue of rapidly acquiring and providing information which is a key necessity in the effective response to a serious mining incident. As such, it will facilitate Information Driven Incident Response. The primary objective is to enable information to be gathered and exchanged, without reliance on a mine's fixed power or communication networks, while planning, and during the execution of, a response to an incident that could jeopardize the lives of personnel and the future operation and profitability of the mine. Research will be conducted into two resilient and novel methods of communications that are independent of fixed networks, one operating through rock, the other using a readily deployable cable. These will be key enablers of other technologies developed in INDIRES and will also provide a vehicle for person-to-person voice or textual exchanges for rescue personnel, mine management and trapped miners. Environmental sensors will be developed that are resilient to incidents such as explosions or fires and which can provide immediate access to environmental data in the aftermath of the accident. Small unmanned vehicles – employing a flying, climbing and/or crawling concepts – will be developed for very early reconnaissance of areas affected by an incident before deploying personnel. These vehicles will carry environmental sensors plus thermal imaging cameras for detecting life signs. Highly efficient drilling technology using a torsional torque converter will be researched and props produced using new composite materials. These will provide a self-contained, lightweight solution for drilling exploratory tunnels to facilitate communication with affected areas and access to robotic vehicles, and could potentially allow trapped minders to be released. Simulations will be used to augment live data with information on environmental conditions and probable escape routes. |
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Reducing risks from Occupational exposure to Coal Dust. |
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The coordinator: UNEXE - Uniwersytet w Exeter – United Kingdom The consortium members:
The implementation period: July 2017 – June 2020 The goal of the project: Despite international efforts to limit worker exposure, coal mine dusts continue to impact the health of thousands of miners across Europe. Modern, practicable assessment tools and devices are urgently needed to improve risk models, control dusts and protect workers, particularly from the fine fraction (PM2.5) which is increasingly implicated in human disease. These issues will be addressed through 5 integrated work packages by a world-leading interdisciplinary consortium of 10 institutions from 5 European countries. Global dissemination of developed protocols and training modules, and production of new monitoring and suppression devices will greatly reduce incidences of coal mining-related disease. |
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