ATBECHDEDKESFRGBGRITLILUNLSEMCPTIESILTLVFIROMKCYALTRBGCZEEHUPLSKBAHRIS..MTNORSMESMMA....MD..........
J
BDM Ver 0.1.63 (23 May 2017) - 1100000/0
3392407
EUROPEAN PATENT APPLICATION
published in accordance with Art. 153(4) EPC
A1
20181024
EP
16874164.3
20161219
20180717
pt
en
en
102015316470
20151217
BR
20181024
201843
20181024
201843
E01C 5/22 20060101AFI20170712BHEP
E04F 15/00 20060101ALI20170712BHEP
E04C 2/28 20060101ALI20170712BHEP
E04B 1/62 20060101ALI20170712BHEP
E04B 5/44 20060101ALI20170712BHEP
B32B 15/04 20060101ALI20170712BHEP
de
VERFAHREN ZUR HERSTELLUNG VON HYBRIDEN ABRIEBFESTEN BASALTPLATTEN
en
METHOD FOR MANUFACTURING HYBRID ABRASION-RESISTANT BASALT PLATES
fr
PROCÉDÉ DE FABRICATION DE PLAQUES HYBRIDES ANTI-ABRASIVES BASALTIQUES
2
AB3 Group S.A.
101762019
BR1-2PEP
R. Horizonte N.12 ResidencialCoqueiral
29102-845 Vila Velha
BR
MAINARD JUNIOR, Fernando
Av. Otavio Borín Residencial Vila Bela bloco G Apt° 101 Cobilândia
CEP: 2001-205 Vila Velha - ES
BR
Felber, Josef
100030294
Felber & Partner AG Dufourstrasse 116
8008 Zürich
CH
AL
AT
BE
BG
CH
CY
CZ
DE
DK
EE
ES
FI
FR
GB
GR
HR
HU
IE
IS
IT
LI
LT
LU
LV
MC
MK
MT
NL
NO
PL
PT
RO
RS
SE
SI
SK
SM
TR
BA
ME
MA
MD
BR2016000160
20161219
pt
WO2017100881
20170622
201725
Summary
The Manufacturing Process of Hybrid Anti-Abrasive Basaltic Plates is a basalt coating manufacturing process that will be applied to elements that come into contact with highly abrasive products for increased abrasion resistance, resulting in the increased useful life and the consequent significant reduction in the shutdown of industrial processes and therefore significantly increasing productivity, with applications in industries such as mining, steel, chutes, stock houses, silos, machinery and transportation systems, storage and handling subject to the action of abrasion by contact between the input or product with the surface of movement and or storage thereof, therefore it will be composed of a steel plate SAC 50 (1); special cement glue (2); a steel screen (3); basalt plates (4) and screws (5) forming a basaltic coated hybrid plate that is resistant to traction and corrosion.
The present patent is for the invention of a process for the manufacture of hybrid anti-abrasive basaltic plates, more precisely the manufacture of plates with a cast basalt coating for improved resistance to abrasion for places requiring such efficiency, as well as in transportation systems, storage and handling of raw materials or abrasive products in industry, mining, transport carriers and cargo lifts.
Numerous types of plates are used and replaced in areas subject to abrasion wear, plates which are also manufactured by the forging of steel sheets or even ingots; parts that despite their apparent resistance, when installed in areas subject to abrasion, suffer constant wear, and at an advanced stage of wear are then necessarily replaced which causes a consequent stop in production to be able to perform this task.
It is known that the bulk transportation of materials in many industries, steel making, mining and coal-fired power plants is associated with high component wear. In addition to the loss of investment from the original equipment, the combination of plant shutdowns and production losses, destroys the company's capital base. This is unacceptable to today's competitive markets.
The solution to this problem is the use of reliable anti-wear protection. The choice of the right material is of vital importance as well as its correct application. Since it was developed the cast basalt serves to promote the reduction of wear and maintenance costs.
Existing solutions do not use the concept of product creation with the application of different materials for optimization and maximum use of its functional characteristics.
With the intent to proceed with the use of basalt for the coating of bulk material transport equipment in various industries and coal-based thermoelectric plants, considering its anti-abrasive properties, the Process for the Manufacture of Hybrid Anti-Abrasive Basaltic Plates that will allow through the aggregation of some materials as well as the consecutive arrangement of each component, evidencing an increase in the useful life due to the high resistance to abrasion, that is, the wear of the plate, consequently a significant reduction in the industrial process stoppages with an expressive increase in productivity.
Another great advantage of the utilization of the hybrid plates claimed here is that they allow for a minimum duration of 5 (five years) with guarantee of resistance to abrasion, just with this advantage the reduction of costs due to the stops and shutdowns are 5 times more than those used in the market currently, considering that today plate exchanges are carried out in intervals of no more than 1 (one year).
The process of manufacturing hybrid anti-abrasive basaltic plates may be better understood through the detailed description in accordance with the following attached figures, where:
Figure 01
presents a perspective view of the hybrid plate from the manufacturing process of the hybrid basaltic anti-abrasive plates with a folded edge.
Figure 02
presents a side view of the hybrid plate from the manufacturing process of the hybrid basaltic anti-abrasive plates with a folded edge.
Figure 03
presents a front view of the manufacturing process of the hybrid basaltic anti-abrasive plates with a folded edge.
Figure 04
presents a top view of the manufacturing process of the hybrid basaltic anti-abrasive plates with a folded edge.
Figure 05
presents a exploded perspective view of the manufacturing process of the hybrid basaltic anti-abrasive plates with screws.
Figure 06
presents a perspective view of the manufacturing process of the hybrid basaltic anti-abrasive plates with screws.
Figure 07
presents a top view of the manufacturing process of the hybrid basaltic anti-abrasive plates with screws.
Figure 08
presents a back view of the manufacturing process of the hybrid basaltic anti-abrasive plates with screws.
Figure 09
presents a close-up perspective view of the manufacturing process of the hybrid basaltic anti-abrasive plates with screws.
With reference to these figures it can be seen that the manufacturing process of hybrid anti-abrasive basaltic plates produces a product that will be offered to mining industries, steel mills and any others that have their facilities subject to high levels of abrasion.
The basaltic plate described herein refers to a hybrid plate, composed of a steel plate SAC 50 (1) in its various gauges, which will be the base for supporting the plate; then a special cement glue (2) will be added together with a steel screen (3); and finally the basalt plates (4) will be fixed, thus making up the face of the plate to be used for abrasion resistance.
The SAC 50 steel plate (1) may contain DIN standard screws (5) in their various gauges, allowing the hybrid plates to be attached to the surfaces to which they will be implanted. Or also, in situations where the screws (5) can not be used, they can then be secured by anchoring.
The special cement glue (2) is a blend which will surround the steel screen (3) in such a way that this assembly will allow for an impact damper property, as well as that of joining the steel plate SAC 50 (1) to the basalt plates (4). As it is a mixture that will result in an alloy, it will also allow for a flexing, compression and compacting functionality.
These hybrid plates may also receive a galvanizing treatment in order to further ensure protection against corrosion.

Characteristics of the inputs:
- Basalt: Physical characteristics of cast basalt.
Category | Attribute
Density | 3g/cm^3
Compressive strength | 300 MPa
Flexural strength | ≥60 MPa
Impact Strength | 1,76 KJ/m^2
Resistance to abrasion | 0.07 g/cm^2
Vickers hardness test | ≥720 kg/mm^2
Module of Elasticity | 1.67 x 10 MPa
Expansion Coefficient | 8.92 x 10^2
Resistance to chemical attack |
95% - 98% H2SO4 | ≥98%
20% H2SO4 | ≥94%
20% NaOH | ≥98%
Characteristics of SAC 50 Steel

General characteristics of thick plates:
Current generation | Previous generation | Yield point (Mpa) | Resistance to Atmospheric Corrosion | Resistance to Fire
USI-CIVIL-300 | ASTM-A36MGM | Min 300 | |
USI-CIVIL-350 | ASTM-A572-50-1 | Min 350 | |
USI-SAC-300 | USI-SAC-41-MG | σ Min 300 | |
USI-SAC-350 | USI-SAC-50 | min 350 | |
USI-FIRE-350 | USI-FIRE-490 | Min 325 (Ambient Temp.) Min 217 (600°C) | |
* Key: - low, σ - medium, - high

Similarity of thick plates:
Quality | Similar Standards
ASTM | EN | JIS | NBR | Mercosur
USI-CIVIL-300 | ASTM-A-36 | 10025-S235J0 | G3101-SS400 | 6650-CF26 | 02-131-ED24
USI-CIVIL-350 | ASTM-A572-50-1 | 10025-S355J0 | G3101-SS490 | 5000 5004 | 02-102-MCF=345 02-101-MCG-360
USI-SAC-41 | A709W-GR36 | 10155-S235J0 | G3114-SMA400 | 5921-CFR-400 5008-CGR-400 | 02-103-GRAU-400
USI-SAC-41MG | A709W-GR50 | - | - | 5921-CFR-400 5008-CGR-400 | NM-140-98-GRAU-400
USI-SAC-50 | A588 (CG) | 10155-S355JOW | G3114-SMA490 | 5921-CFR-500 5008-CGR-500 | NM-140-98-GRAU-500
A606-2 (TQ)
USI-SAC-350 | A242-1 (CG) | 10155-S355J0WP | G3125-SPA-H | - | -
A606-4 (TQ)

Characterization of steels in relation to their chemical system:
Application | Nomenclature | Chemical System
Structural | ASTM-A-36-MG | C and Mn
ASTM-A-36
ASTM-A572-50-1
USI-CIVIL-300
USI-CIVIL-350
Corrosion Resistant | USI-SAC-300 | Si, P, Cu and Cr
USI-SAC-350
Fire Resistant | USI-FIRE-300 | Mo and Cu
USI-FIRE-350

Specified Chemical Composition (% by mass) - Thick Plate:
Steel | Thickness | C | Mn | Si | P | S | Nb
ASTM-A36-MG | 60 to 75.00 | 0.26 | 0.80 to 1.35 | 0.15 to 0.30 | 0.04 | 0.05 |
ASTM-A36 | 6.0 to 19.1 | 0.25 | - | 0.4 max
19.1 to 38.1 | - | 0.80 to 1.20 | 015 to 0.4
| 38.1 to 63.5 | 0.26 | | | | |
63.5 to 101.6 | 0.27 | |
ASTM-A572-50-1 | Up to 9.53 | 0.23 | 0.50 to 1.35 | 0.4 max | 0.005 to 0.050
9.53 to 38.10 | 0.2 | 0.80 to 1.50 | 0.15 to 0.40
38.1 to 50.00 | - | - |

Specified mechanical properties:
Steel | Traction (Transverse) | Folding (1) (longitudinal)
LE (MPa) | LR (MPa) | Stretching (2)
Thickness (min) | BM (min) | % (min) | Thickness (min) | Diameter
ASTM-A36-MG | Min 300 | Min | 6.00 to 75.00 | 50 200 | 18 0.18 | Below 19.05 | 0.5E
19.05 to 25.40 | 1.0E
25.40 to 38.10 | 1.5E
38.10 to 50.80 | 2.5E
Above 50.80 | 3.0E
ASTM-A36 | Min 250 | 400 to 550 | 6.00 to 70.00 | 200 | 20 | Below 19.05 | 0.5E
19.05 to 25.40 | 1.0E
25.40 to 38.10 | 1.5E
70.00 to 101.6 | 50 | 23 | 38.10 to 50.80 | 2.5E
Above 50.80 | 3.0E
ASTM-A572-50-1 | Min 345 | Min 450 | < 50.00 | 200 | 16 | Below 19.05 | 1.0E
19.05 to 25.40 | 1.5E
25.40 to 38.10 | 2.5E
1 - Performed when requested by the client; 2 - The stretching values should be reduced according to the following table;

General Purpose Quality:
Specification SAE) | Thickness Range (mm) | Chemical composition (%)
C (Max.) | Mn (Max.) | Si (Max.) | P (Max.) | S (Max.)
1010 | 5.0< and ≤ 152.4 | 0.08 - 0.13. | 0.30 - 0.60 | 0.35 | 0.04 | 0.05
1020 | 0.17 - 0.23
1045 | 0.42 - 0.50 | 0.60 - 0.90 | 0.10 - 0.35

Equipment Required for Fabrication
- Plasma cutting equipment for sheet steel and screens;
- Mig welding equipment;
- Bending equipment for sheet steel;
- Special tables for cutting the cast Basalt;
- Press for casting of steel and basalt plates;

Stages of the Productive Process:
- Preparation of the cast basalt parts: in this step the cutting, the cutting out of the coupling grooves and the finishing of the cast basalt plates is carried out according to the dimensions of the steel sheet to be coated;
- Electrolytic galvanizing of the steel plates: galvanizing the plates according to the specified measurements; (When the plates are subjected to humidity and / or environmental oxidation conditions)
- Folding of the sheets: the folding of the sheet is performed along its largest dimension, creating a cross-section in an L shape;
- Cutting: plasma cutting and drilling of the USI SAC 350 steel plates (former SAC 50);
- Cutting of the steel screens: Cutting of the galvanized steel screens 14 is carried out, which will be embedded in the cement glue between the steel plate and the basalt coating;
- Special Cement Glue Preparation: mortar is mixed with a special cement made up of ARI (initial high strength) + granular elements + ground basalt;
- Joining of the plates with the use of the hydraulic press: the basalt pieces are applied to the plates, set to each other and glued with the special cement glue;
- Painting, Finishing and coding of the final product: the final finishing procedure is carried out, serial numbering with bar code for batch identification and date of manufacture is applied.
Components and product characteristics (steel, electrolytic galvanizing, screen, cast basalt, special cement, screws, welds, cuts): Product typology.
- Standard plates;
- Hybrid plates;
- Shaped plates;
- Duct linings;
- Customized plates.
Advantages found with the use of the manufacturing process of anti-abrasive basaltic plates;
- Increased useful life;
- Operation without maintenance;
- Operation without interruption;
- Eliminates production losses;
- There is no contamination of the product resulting from abrasion, mixing or oxidation;
- Physiologically harmless, so it is recommended for the food industry;
- Smooth contact area, which promotes good flow and prevents accumulation of material;
- Reduces pressure loss and consequently decreases energy consumption.
Here are some areas where you can apply the process:
- Cement factories;
- Breweries, malt houses;
- Chemical industry.
- Gas plants;
- Foundries;
- Glass factories;
- Steel mills and rolling mills;
- Lime, sand and potassium plants;
- Mineral extraction and coal;
- Coke plants;
- Waste incineration plants and recycling plants;
- Paper manufacture plants.
The disadvantage observed in the use of this process is only in the restriction of the temperature of the environment that should not exceed 350 degrees Celsius and the limitation of direct Impacts and of sharp edged loads acting directly on the surface of the plates, in a certain way, it is the only disadvantage of the material due to its crystalline structure.
As seen above, the preferred embodiments given to the dimensioning of the hybrid plates are through the thickness, shapes and folds of the steel plates, so that the application of the process of coating transport equipment described herein is a viable alternative, in addition all references to anti-abrasive hybrid plates follow in a manner that do not tend to limit the present invention, there may be constructive variations which are equivalent without, however, departing from the scope of protection of the invention.
1. The manufacturing process of the Hybrid Anti-Abrasive Basaltic Plates enables the production of a hybrid plate which will has anti-abrasive characteristics, that is it has abrasion, stress and corrosion resistive properties, it is composed of a steel plate SAC 50 (1) which makes up the first layer of the plate, then a special cement glue (2) is applied that will surround the steel screen (3) in such a way that this assembly will allow the joining of the steel plate SAC 50 (1) to the cast basalt plates (4); the SAC 50 (1) steel plate can be fixed using DIN standard screws (5) in their various gauges, which will allow the hybrid plate to be attached to the equipment where it will be applied, or the SAC 50 (1) steel plate can come without these screws (5) and can be secured by anchoring, forming a basaltic coating covering on the elements that come into contact with highly abrasive products.