Process of manufacture of basaltic antiabrasive hybrid plates

Information

  • Patent Grant
  • 12280561
  • Patent Number
    12,280,561
  • Date Filed
    Monday, December 19, 2016
    8 years ago
  • Date Issued
    Tuesday, April 22, 2025
    6 months ago
  • Inventors
  • Original Assignees
    • AB3 Administração e Projetos Ltda.
  • Examiners
    • Tucker; Philip C
    • Slawski; Brian R
    Agents
    • BACON&THOMAS, PLLC
Abstract
PROCESS OF MANUFACTURE OF BASALTIC ANTIABRASIVE HYBRID PLATES it's a process of manufacture of plates with basalt coating that will be applied to elements in contact with highly abrasive products for a higher resistance to abrasion wear, thus increasing useful life and as a result reducing industrial processes that stand still, with expressive increase in productivity, with applications in mining industries, steel mill, “chutes”, stock houses, silos, machines and transport systems, storage and motion subject to abrasive action through contact between intake or product with motion surface and/or storage, therefore it will be composed by steel plate SAC 50 (1); special glue cement (2); steel screen (3); basalt plates (4); and screws (5) forming a basaltic coating hybrid plate which resist traction and corrosion.
Description

The current patent of invention refers to a process from manufacture of basaltic antiabrasive hybrid plates. More precisely with the use of melted basalt to the more resistence to abrasive in places that demand such efficiency in systems of transport, storage and motion of inputs/intake or abrasive products in the industry, in mining, on conveyors and freight elevators.


Many types of plates are utilized and substituted in areas subject to wear through abrasion, these plates made too by forging in steel plates or same ingots, parts that despite of apparent resistance, when installed in areas subject to abrasion suffer constant wear waste, and in one advanced phase of wear are necessarily replaced with the consequent stop of production to execution of such task.


It is known that the transport in bulk of materials in many industries, steel mills, mining companies and coal fired thermoelectrics is associated to the high wear of components. Beyond of lost in investment from original equipment, the combination from stops of factories and lost of production, destroy the base from capital of enterprise. This is not acceptable in the current markets, so competitives.


The solution of this problem is the use of protection anti-wear reliable. The choice of adequate material is from vital importance, thus as your correct application. Since was developed the molten basalt that serve to promote the reduction of waste and maintenance costs.


The existing solutions today don't utilize the concept from creation of products with application of different materials for maximum optimization and utilization of yours functional characteristics.


With the intention to continue with the utilization of basalt for coating from equipments of transport in bulk of materials in many industries and coal fired thermoelectrics, having in question your anti-wear properties, was developed the PROCESS OF MANUFACTURE OF BASALTIC ANTI ABRASIVE HYBRID PLATES that will allow through the aggregation of some materials as well as consecutive arrangement of each component, showing an increase of useful life due to high abrasion resistance, namely, the wear plate, and consequently the significant reduction or paralysations of industrial processes with a significant increase of productivity.


The great advantage too, of utilization from plates hybrid here requested is that the same allow a minimum duration to the resistance of abrasion of 5 (five years) with guarantee, being that only with this advantage the reduction of costs due the stops and paralysations is 5 times minor than the utilized in the market, having in view that today the change of plates utilized are made in intervals from maximum of 1 (one year).





The manufacturing process of basaltic antiabrasive hybrid plates will be better understood through of the detailed description in line with the following figures attached, where:



FIG. 01 Presents a view in perspective from hybrid plate of process from manufacturing of hybrid plates antiabrasives basaltics with folded edge.



FIG. 02 Presents a side view from hybrid plate of process from manufacturing of hybrid plates antiabrasives basaltics with folded edge.



FIG. 03 Presents a front view from hybrid plate of process from manufacturing of hybrid plates antiabrasives basaltics with folded edge.



FIG. 04 Presents an upper view from hybrid plate of process from manufacturing of hybrid plates antiabrasives basaltics with folded edge.



FIG. 05 Presents an exploded perspective view of process from manufacturing of hybrid plates antiabrasives basaltics with screws.



FIG. 06 Presents a view in perspective from hybrid plate of process from manufacturing of hybrid plates antiabrasives basaltics with screws.



FIG. 07 Presents an upper view from hybrid plate of process from manufacturing of hybrid plates antiabrasives basaltics with screws.



FIG. 08 Presents an upper view from hybrid plate of process from manufacturing of hybrid plates antiabrasives basaltics with screws.



FIG. 09 Presents a view in perspective approximate from hybrid plate of process from manufacturing of hybrid plates antiabrasives basaltics with screws.





With reference to these figures can observe that the process from manufacturing of hybrid plates antiabrasives basaltics is understood as a product that will be offered to the industries of mining, steel mills and any others that have yours facilities subject to high levels of abrasion.


The basaltic plate here described refers to a hybrid plate made of steel plate SAC 50 (1) in yours diverses gauges which will be the face for support of the plate, soon will be aggregated a special glue cement (2), jointly with steel screen (3); and by end will be fixed the basaltic plates (4) comprising thus the other face of plate for abrasion resistance.


The steel plate SAC 50 (1) will may consist in screws (5). DIN standard in the diverses gauges, allowing that the hybrid plates fix in the surfaces that will be implanted. Or too, which still allow the not utilization of screws (5); being fixed through Anchorage.


The special glue cement (2) comprises in a mixture that will involve the steel screen (3) in such way that this set will allow the property from shock absorber of impact thus as to unite the steel plate SAC 50 (1) to the basaltic plates (4). Such as, being a mixture that will result in an alloy, it will allow still the functionality of flexibility, compression and compressibility.


Such hybrid plates still will may receive galvanizing treatment, aiming to ensure still more the protection against the rust.


CHARACTERISTICS OF MEANS
Basalt: Physical Characteristics of Molten Basalt














Category
Property



















Density
3
g/cm3



Compressive resistance
300
MPa



Bending resistance
≥60
MPa



Impact resistance
1.76
KJ/m2



Abrasion resistance
0.07
g/cm2



Vickers hardness scale
≥720
kg/mm2



Modulus of elasticity
1.67 × 10
MPa










Coefficient of expansion
8.92 × 10−6



Chemical attack resistance




95%-98% H2SO4
≥98%



20% H2SO4
≥94%



20% NaOH
≥98%









CHARACTERISTICS OF STEEL SAC 50
General Characteristics of Thick Plates


















Resistance to



Current
Previous
Flow limit
atmospheric
Fire


generation
generation
(MPa)
corrosion
resistance







USI-CIVIL-300
ASTM-A36MGM
λ Min 300
λ
λ


USI-CIVIL-350
ASTM-A572-50-1
v Min 350
λ
λ


USI-SAC-300
USI-SAC-41-MG
σ Min 300
v
λ


USI-SAC-350
USI-SAC-50
v Min 350
v
λ


USI-FIRE-350
USI-FIRE-490
v Min 325
v
v




(Room






Temperature)






Min 217






(600° C.)





*Legends:


λ - low,


σ - médium,


v - high






Similarity to the Thick Plates













Similar Rules












Quality
ASTM
EM
JIS
NBR
Mercosul





USI-
ASTM-A-36
10025-
G3101-
6650-
02-131-


CIVIL-300

S235J0
SS400
CF26
ED24


USI-
ASTM-
10025-
G3101-
5000
02-102-MCF-


CIVIL-350
A572-50-1
S355J0
SS490
5004
345







02-101-MCG-







360


USI- SAC-
A709W-
10155-
G3114-
5921-CFR-
02-103-GRAU-


41
GR36
S235J0
SMA400
400
400






5008-CGR-







400



USI- SAC-
A709W-


5921-CFR-
NM-140-98-


41MG
GR50


400
GRAU-400






5008-CGR-







400



USI- SAC-
A588 (CG)
10155-
G3114-
5921-CFR-
NM-140-98-


50
A606-2 (TQ)
S355J0W
SMA490
500
GRAU-500






5008-CGR-







500



USI- SAC-
A242-1 (CG)
10155-
G3125-




350
A606-4 (TQ)
S355J0WP
SPA-H









Characterization of Steels Regarding Their Chemical Systems











DU











Application
Nomenclature
Chemical system






Structural
ASTM-A-36-MG
C e Mn




ASTM-A-36





ASTM-A-572-50-1





USI-CIVIL-300





USI-CIVIL-350




Corrosion
USI-SAC-300
Si, P, Cu e Cr



resistance
USI-SAC-350




Fire resistance
USI-FIRE-300,
Mo e Cu




USI-FIRE-350









Specified Chemical Compound (% in Mass)—Thick Plates


















Steel
Thickness
C
Mn
Si
P
S
Nb






















ASTM-
6.0 to
0.26
0.80 to
0.15 to
0.04
0.05



A36-MG
75.00

1.35
0.30


ASTM-
6.0 to
0.25

0.4


A36
19.1

0.80 to
max



19.1 to
0.26
1.20
0.15 to



38.1
0.27

0.4



38.1 to



63.5



63.5 to



101.6


ASTM-
until 9.53
0.23
0.50 to
0.4


0.005 to


A572-
9.53 to
0.2
1.35
max.


0.050


50-1
38.10

0.80 to
0.15 to



38.1 to

1.50
0.40



50.00









Specified Mechanical Properties















Traction (cross)
Bending (1)










Lengthening (2)
(Longitudinal)















LE
LR
Thickness
BM
%
Thickness



Steel
(MPa)
(MPa)
(min)
(min)
(min)
(mm)
Diameter

















ASTM-
Min
Min
6.00 to
50
18
Below 19.05
0.5E


A36-MG
300

75.00
200
0.18
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-
Min
400 to
6.00 to
200
20
Below 19.05
0.5E


A36
250
550
70.00


19.05 to 25.40
1.0E








25.40 to 38.10
1.5E





70.00 to
50
23
38.10 to 50.80
2.5E





101.6


Above 50.80
3.0E


ASTM-
Min
Min
<50.00
200
16
Below 19.05
1.0E


A572-
345
450



19.05 to 25.40
1.5E


50-1





25.40 to 38.10
2.5E





1 - Carried out when requested by the client.


2 - The lengthening values must be reduced according to the following table;






Quality for General Uses















Thickness
Chemical Compound (%)













Specification
range
C
Mn
Si
P
S


(SAE)
(mm)
(max)
(max.)
(max.)
(max.)
(max.)
















1010
5.0 < e ≤
0.08-
0.30-
0.35
0.04
0.05



152.4
0.13
0.60


1020

0.17-




0.23


1045

0.42-
0.60-
0.10-




0.50
0.90
0.35










Equipment Needed for Manufacturing:
    • Plasma cutting equipment for steel and screen plates;
    • Equipment for welding type mig;
    • Bend equipment for steel plate;
    • Special tables for cutting the molten Basalt;
    • Press for casting steel and basalt plates.


      Stage of Productive Process:
    • Basalt casting in order to prepare the pieces: in this stage, the cutting, the shape cutting, the mounting teeth and the cast basalt plates finishing is carried out, according to the dimensions of the steel plate to be coated;
    • Electrolytic galvanizing of the steel plates: galvanizing of plates on specified measurements (when plates are subjected to humidity conditions and/or environmental corrosion);
    • Doubling of plates: the plate bend in its greater dimension is carried out forming a cross section in L;
    • Cutting: plasma cutting and punching of steel plates USI SAC 350 (old SAC 50) is carried out;
    • Cutting on steel screen: cutting on screen in galvanized steel 14 is carried out and it will be scaled on glue cement between the steel plate and the basalt coating;
    • Preparation of a special glue cement: a proportioning plaster with a mixture of special cement ARI(high initial resistance) is done+grit+crushed basalt;
    • Plates casting using hydraulic press: the application of the basalt pieces on the plates, is done mounted among themselves and stuck with a special glue cement;
    • Painting, finishing and codification of the end product: it is carried out the procedure for final surfacing, serial number with barcode for identifying lot number and date of manufacturing.


Components and characteristics of the products (steel, electrolytic galvanizing, screen, cast basalt, special cement, screws, welding, cuttings): Type of products.

    • Standard plates;
    • Hybrid plates;
    • Formed plates;
    • Ducts Coating;
    • Customized plates.


      Benefits Identified with the Use from Process of Manufacture in Basaltic Antiabrasive Hybrid Plates:
    • Increase of useful life;
    • Operation without maintenance;
    • Operation without interruption;
    • Eliminates production losses;
    • There is no contamination of the product resulting from abrasion, mixture or corrosion;
    • Physiologically harmless, because this is indicated to the food industry;
    • Smooth contact área, that promotes good fluidity and avoiding accumultation of material;
    • Reduce the pression loss and, consequently decrease the energy consumption.


      Afterwards, it Will be Indicated Some Areas where can be Applied the Process:
    • Cement plants;
    • Breweries, malt houses;
    • Chemical industries;
    • Gas plants;
    • Foundries;
    • Glass plants;
    • Steel mills and rolling mills;
    • Lime plants, sand and potassium;
    • Mineral extraction and coal;
    • Coke plants;
    • Mills and incineration plants and residual recycling;
    • Paper plants.


In this process, we have observed that only in the restriction of temperature in the operational environment must not exceed 350 degrees Celsius and the limitation of straight impacts and sharp charges act directly on the plates surfasse, this is the only disadvantage of the material due to its crystalline structure.


As it was shown above, the preferential embodiments given to the measurement of hybrid plates, concerning thickness, shapes, and bends on steel plates, so that the application process for transport equipment coating described here are a feasible alternative. All references to antiabrasive hybrid plates, shall not limit the current invention; it may have constructive variants equivalent, but it cannot escape from scope of protection of the invention.

Claims
  • 1. A process for manufacturing a basaltic antiabrasive hybrid plate, comprising steps of: providing a steel plate to form a first layer of the hybrid plate;providing a cast basalt plate for abrasion resistance;joining the cast basalt plate to the steel plate by a glue cement layer that contains a steel screen and that provides shock absorbing properties to protect the hybrid plate from impacts.
  • 2. The process for manufacturing a basaltic antiabrasive hybrid plate as claimed in claim 1, further comprising the step of fixing screws to the steel plate so the screws extend from the steel plate in order to secure the steel plate to equipment.
  • 3. The process for manufacturing a basaltic antiabrasive hybrid plate as claimed in claim 1, wherein the step of joining the cast basalt plate to the steel plate is carried out by using a hydraulic press to press the cast basalt plate against the steel plate with the glue cement layer in between.
  • 4. The process for manufacturing a basaltic antiabrasive hybrid plate as claimed in claim 1, wherein the glue cement layer includes crushed basalt.
  • 5. The process for manufacturing a basaltic antiabrasive hybrid plate as claimed in claim 1, further comprising the step of electrolytic galvanizing the steel plate.
  • 6. The process for manufacturing a basaltic antiabrasive hybrid plate as claimed in claim 1, wherein the step of providing the steel plate includes the step of bending the steel plate to have an L-shaped cross-section.
Priority Claims (1)
Number Date Country Kind
1020150316470 Dec 2015 BR national
PCT Information
Filing Document Filing Date Country Kind
PCT/BR2016/000160 12/19/2016 WO
Publishing Document Publishing Date Country Kind
WO2017/100881 6/22/2017 WO A
US Referenced Citations (10)
Number Name Date Kind
1108007 Ribbe Aug 1914 A
3345734 Sowko Oct 1967 A
3855029 Sabel Dec 1974 A
4430221 Spiewok Feb 1984 A
5367007 Richards Nov 1994 A
20040234821 Majagi Nov 2004 A1
20070172641 Serwin Jul 2007 A1
20070224401 Telander Sep 2007 A1
20100326336 Struthers Dec 2010 A1
20120128926 Ohishi May 2012 A1
Related Publications (1)
Number Date Country
20240227352 A1 Jul 2024 US