[0001] The subject of the invention is the reinforcing profile of the vault or safe security
armour, or more precisely, it is the reinforcing profile lath for the security armour,
being in common with mineral or any other special filler and additional filling elements
built in the external wall and door, or in the vault or safe or similar security device
casing respectively.
[0002] The invention belongs to the E 05G 1/024 class of the international patent classification.
[0003] The technical problem solved by this invention is such a construction of the reinforcing
profile cross section, which will provide higher reinforcement of the filler inside
the wall and door elements of the vault or safe or similar security device casing.
In this way, their burglar proof safety will likewise be enhanced, or forcible braking
in through the door or walls by boring or damaging them in any other way will be made
highly difficult and will require more time.
[0004] There are quite some known ways or types respectively of the filler reinforcement
of the vaults or safes or similar security devices wall elements. According to the
patent FR 1.317.984, there are several known constructions of reinforcing profile
insertions placed inside the walls of aforesaid security devices. These profile insertions
are made of oblong laths, which in their cross section can have the U, W, Z letters
form and their mirror-inverted form, and the Ω letter form. In another version, the
profile insertions are made as strips of optional twisted and crooked forms.
[0005] The next known solution is made pursuant to the patent CH 437 045, according to which
thermally insulating bodies are inserted into the walls of vaults, and particularly
of safes, made as fixed and hollow insertions of plaster filled up with water. The
insertions cross section can be of circular or elliptical form.
[0006] Another known solution is made pursuant to the patent GB 2101173, according to which
corrugated reinforcing elements are inserted into the walls and doors of safes, the
folds of which can be of various forms. They are intended for making a forcible braking
in by drilling difficult.
[0007] The next known solution is made according to the patent CZ 293 498 and according
to the patent application EP 03008528.6 (publication number EP 1 365 096 A1). According
to the aforesaid, the armour is made of steel profiles, being in their horizontal
section of the Ω letter form, and whereby angles between adjacent legs are between
60° and 75°. These profiles are partitioned to two virtual but completely congruent
halves by a vertical central axis.
[0008] According to the patent application PCT/GB02/02019, there is known a security panel
inside which there are circular interactively chain-linked security elements filled
up by polyurethane and wood pieces.
[0009] According to the patent GB 1450091, the armour is made as a steel net constructed
of four-cornered section steel bars linked in a spiral.
[0010] According to the patent EP 0 348 556, the armoured mass consists of a concrete mixture
and additional compounds and hard substances not linked among them.
According to the patent EP 0 587 956, the armoured mass consists of a concrete mixture
and pieces of car tyres.
[0011] A common characteristic of all aforesaid known solutions are the armour elements
in the mentioned security devices walls and doors filler. Distinguishing variants
are in their form, above all in the form of their cross sections. The problem that
has remained unresolved is above all in the fact that known forms of reinforcing profiles
inside armours fail to provide sufficient burglar proof safety in case of forcible
braking in by various tools and devices.
[0012] According to the invention, the problem is resolved by the reinforcing profile of
the vault or safe security armour or any other security device of this type, the main
characteristic of which is in the construction of its cross section, whereby there
are holes in its legs, as well as the mode of its installation inside the casing walls.
The invention will further be presented in details and described following an example
of its feasibility and figures, which show
- Fig. 1
- Casing schematic section of one of the vault or safe walls or doors with built-in
security armour and special filler
- Fig. 2
- Reinforcing profile in axonometric projection
- Fig. 3
- Reinforcing profile in A-A cross section
[0013] It is evident from Fig. 1 that the casing 1 of the vault or safe or similar security
device respectively comprises an internal wall 2 and external wall 3 and security
armour 6, installed in the empty space between the wall 1 and wall 2 and welded or
otherwise fixed to the internal wall 2 and cast-in by special filler 5. The security
armour 6 comprises the reinforcing profiles 4, which run parallel one to another,
they are as a rule all turned to the same direction and distant from each other by
an optional spacing. It is however in force that reinforcing profiles 4 are as a rule
distant from each other by one width of a single reinforcing profile 4 at the most.
The minimum spacing between reinforcing profiles 4 is as a rule the spacing where
the fold-up 7 of one reinforcing profile 4 is not covered over by the fold-up 8 of
the adjacent reinforcing profile 4.
Reinforcing profiles between the internal wall 2 and external wall 3 are installed
in the way that they lie with the horizontal leg 10 on the internal wall 2, and with
the fold-up 8 on the external wall 3, and they are as a rule all turned to the same
direction. On the internal wall 2, the reinforcing profiles 4 are welded through or
at holes 13 respectively, constructed in the horizontal leg 10 along the entire reinforcing
profile 4. Holes 13 are of optional forms and can optionally be positioned, and their
number is likewise optional.
[0014] Optimal casting in the space between the internal plate 2 and external plate 3 by
special filler 5, including the security armour 6 inserted into it, is enabled by
the difference in height between fold-ups 7 and 8 and holes 14 and 15, constructed
in the oblique leg 12 or oblique leg 11 respectively of the reinforcing profile 4,
shown in Fig. 2. Holes 14 and 15 can be of optional forms and can optionally be positioned,
and their number is likewise optional. In some other feasibility example, the reinforcing
profiles 4 can also be constructed without holes 14 and/or 15.
[0015] As evident from Fig. 2, the reinforcing profile 4 is constructed as an oblong lath
of characteristic profile construction whereto previously described holes 13, 14 and
15 are made. This characteristic profile construction is evident from Fig. 3, wherein
the reinforcing profile 4 is shown in cross section, being completely identical to
its front view. Basically, the reinforcing profile 4 is of such a construction or
form respectively, which associates with a joint of two mirror-inverted opposite to
each other lying Latin letters Z of different sizes and heights respectively. Thereby,
the horizontal leg 10 of the reinforcing profile 4 links up oblique legs 11 and 12
in the way that on one side it proceeds into the oblique leg 12, and on the opposite
side it proceeds into the oblique leg 11, which is a bit shorter or lower respectively
than the oblique leg 12. It is preferentially in force that the shorter oblique leg
11 height is equal to half the height of the longer oblique leg 12, and in some other
feasibility example their length ratio can likewise be different. Crossings between
the horizontal leg 10 and oblique legs 11 and 12, and further into the convexity 9
and fold-ups 7 and 8, are preferentially rounded off, but they can also be implemented
otherwise. The convexity 9 is constructed in or on the longer oblique leg 12, and
optionally located. The oblique leg 12 finishes the fold-up 8, which is as a rule
parallel to the horizontal leg 10. The oblique leg 11 finishes the fold-up 7, which
is as a rule also parallel to the horizontal leg 10 and to the fold-up 8 on the oblique
leg 12. The fold-up 7 is preferentially a bit shorter than the fold-up 8. In some
other feasibility example, being not presented, the fold-ups 7 and 8 can also be implemented
otherwise, and can also be of equal or inversely proportioned different lengths.
[0016] On one side, the horizontal leg 10 clasps by its oblique leg 12 the interactive interior
angle α, which is as a rule larger than 75°, and on the other side it clasps by its
oblique leg 11 the interior angle β, which is as a rule smaller than 60°. Ensuing
from the aforesaid, the size of the interior angle between the oblique leg 12 and
its fold-up 8 and the interior angle between the oblique leg 11 and its fold-up 7
depends on angles α and β.
[0017] It is in force for the convexity 9 on the longer oblique leg 12 that it is preferentially
implemented on half its length and that it clasps the interior angle γ, which can
be of an optional size, but it is recommended to be larger than 40° and smaller than
135°. The convexity 9 is preferentially implemented continually along the entire length
of the reinforcing profile 4, and can be of an optional section. In some other feasibility
example, it can also be implemented in the way that it is shorter than the length
of the reinforcing profile 4, and can likewise be implemented with intermediate breaks
or spacing.
[0018] As already described above, the holes 13 are constructed in the horizontal leg 10
of the reinforcing profile 4, but there is also possible an implementation with holes
14 in the oblique leg 12 and/or in the oblique leg 11 in the way likewise described
above. Thereby, it is in force for holes 14 that they can be constructed over or under
the convexity 9 on the oblique leg 12.
[0019] The construction of the vault or safe or other similar security device casing 1 with
the security armour 6, which comprises the reinforcing profiles 4 according to the
invention, enhances the burglar proof safety and above all due to the construction
of the reinforcing profile 4 with the convexity 9, holes 14 and 15, and the difference
in height between their fold-ups 7 and 8, respectively. The reinforcing profile 4
mechanical strength is increased by the convexity 9, and likewise, in case of forcible
braking in the security device, it is difficult to remove special filler 5 from it.
The difference in height between oblique legs 11 and 12, or between their fold-ups
7 and 8, enables more simple and optimal casting in each single reinforcing profile
4 in the security armour 6, and consequently the entire interior of the vault or safe
or other similar security device casing 1 with special filler 5, and which is additionally
facilitated by the holes 14 and 15.
[0020] According to the invention, by using reinforcing profiles the forcible braking in
the vault, safe or other similar security device is made highly difficult and requires
more time, as in this case threefold cutting of their casing 1 is required. Thus,
it is first required to cut its external wall 3 and remove special filler 5 all the
way to the lower oblique leg 11 of the reinforcing profile 4 or their fold-up 7, respectively.
It is followed by cutting the fold-up 7 and repeated removal of special filler 5 all
the way to the internal wall 2. Finally, it is also required to cut the internal wall
2.
1. The reinforcing profile of the vault or safe security armour built in between the
casing internal and external wall and cast-in by special filler, is characterised by the fact that the reinforcing profile (4) in its cross section is constructed as
two mirror-inverted opposite to each other lying and joined letters Z of different
heights in the way that its oblique leg (11) with fold-up 7 is a bit shorter or lower
respectively than the oblique leg (12) with fold-up (8); that in the longer or higher
respectively oblique leg (12) of the reinforcing profile (4) a convexity (9) is implemented
at an optional height, a convexity (9), which runs along the entire length of the
reinforcing profile (4).
2. The reinforcing profile according to Claim 1, is characterised by the fact that reinforcing profiles (4) in the security armour (6) and consequently
inside the walls (2, 3) of the casing (1) are installed parallel, in the equal position,
and all turned to the same direction, and welded or otherwise fixed to the internal
wall (2) through or at holes (13) constructed in the horizontal leg (10).
3. The reinforcing profile according to Claim 1, is characterised by the fact that the horizontal leg (10) with oblique leg (12) clasps the interior angle
(α), which is larger than 75°, and with the oblique leg (11) it clasps the interior
angle (β), which is smaller than 60°.
4. The reinforcing profile according to Claim 1, is characterised by the fact that the interior angle (γ) of the convexity (9) is of optional size and
preferentially between 40° and 135°.
5. The reinforcing profile according to Claim 1, is characterised by the fact that the convexity (9) is preferentially continually implemented, and can
also be implemented with intermediate breaks of optional lengths and at optional spacing.
6. The reinforcing profile according to Claim 2, is characterised by the fact that reinforcing profiles (4) are distant from each other by one width of
a single reinforcing profile (4) at the most, or at least by the width, where the
fold-up (7) of one reinforcing profile (4) is not covered over by the fold-up (8)
of the adjacent reinforcing profile (4).
7. The reinforcing profile according to Claim 1, is characterised by the fact that the reinforcing profile (4) can be constructed with or without holes
(14) and/or (15) along oblique legs (12) and/or (11).