[0001] The present invention is an anti-burglary system (1) for cable-holder and/or duct-holder
channels (2) and the related industrial manufacturing and assembly process, the latter
greatly simplifying and facilitating the operations known up to now in the field.
The present system (1) includes a plurality of duct-holder channels (2), individually
constituted by a base (B) and the relative cover (C), where the latter is characterized
by the fact that it is further equipped with at least one pipe (3) burglar-proof mini-cable
holder (4). The latter, in other preferred solutions, can be replaced by fluids under
pressure or depression. Said anti-burglary means (4) can also be inserted between
the base (B) and the cover (C) to guarantee anti-burglary monitoring of the channel
(2) even in the event of failure of said means (4) installed in the pipes (3) of the
same coverage (C).
FIELD OF THE INVENTION
[0002] The present invention concerns an anti-burglary system for cable-holder channels
and/or duct holders and the related industrial manufacturing and on-site assembly
process, the latter greatly simplifying and facilitating the operations known up to
now.
[0003] The present invention is completely innovative, as to date there are no cable-holder
channels and/or duct holders equipped with a similar anti-burglary system and it is
also inventive, since with the application of said innovative anti-burglary system
the following are solved in a very simple, not expansive, brilliant way respect to
the current problems and disadvantages presented by the prior art.
TECHNICAL BACKGROUND
[0004] Some definitions currently used in the prior art are introduced below:
> Ducting system is a set of straight or curved elements and accessories necessary
to install the "cable ways" or ducts in all the foreseen ways.
> Walkways mean products made up of straight elements with perforated or non-perforated
base and related accessories, installed without covers; if some sections of the route
require the use of covers (e.g. for the fall of water or other), these do not actually
transform the walkway into a canal.
> Cable channels or ducts mean products made up of straight elements with a perforated
(IP 20, with IP that is International Protection Rating) or non-perforated (IP 40)
base and related accessories, installed with a cover; the absence of a cover, even
for short stretches, compromises the IP protection degree of the ducting for the entire
installation.
> T.U.A. (Theoretical Usable Area) means the "Theoretical Usable Area" or geometric
section, understood as the area delimited by the internal walls of the "cable route"
or duct which, for example for channels, can characterize the maximum quantity of
cables that can be contained or section of the containable pipeline.
> The fundamental function of a cable channel or duct or of a ducting system in general
is to support, contain and possibly protect the cables and/or ducts over time.
[0005] The factors that guarantee the most satisfactory technicaleconomic result are based
on the careful selection of the "channeling product" based on:
- I. Quality, quantity and dimensions of the cables or conduit to contain.
- II. Geometry and type of structure of the prefabricated channel that will contain
them.
- III. Environmental conditions and expected duration.
[0006] The quality, quantities, dimensions of the cables, in turn, depend on:
- a. Type of ducting, whether walkway (perforated, non-perforated, with crosspieces,
grilled) for ventilation or duct for their protection.
- b. Size of the canalizations.
- c. Height of the edge to contain the cable or bundle of cables or the duct of maximum
diameter and from the width sufficient to lay a few layers of cables, all with an
adequate section (with the caveat of using a filling coefficient less than 50% of
the useful section of the cable route).
- d. Radius of curvature of the ducting accessories, such as not to cause the cables
to bend too much during installation (with the warning to check that the average radius
of curves, "T" elements, slopes, etc., is at least equal to six-eight times the external
diameter of the cable with the largest diameter.
- e. Mechanical resistance of the ducting, which must have an adequate capacity to support
the weight of the cables contained and possibly that of the person laying them, making
sure, however, what the declared flow rates are and to respect them.
- f. Geometry and type of ducting, which can be achieved both with a few accessories
and with many accessories, in correlation with the length and complexity of the route.
- g. Size of the ducting, whether narrow with a high edge for long spans or wide with
a low edge to arrange the cables well in a few layers, with due consideration as to
whether it is better to simplify the assembly of the ducting or the laying of the
cables.
- h. Ducting accessories, providing for the complete ducting of all the accessories,
with the due evaluation of whether the entire route is already planned in every detail
or whether it will be identified during assembly.
- i. Mechanical resistance of the ducting, which can be robust to reduce the number
of supports or light if equipped with a plurality of fixing points.
- j. Type and quality of the canalization supports.
- k. Environmental conditions, on which the following in turn depend:
> Type of ducting (whether closed or drilled to avoid any external contact and protect
the cables from any accidental events.
> Whether the cable ways can be drilled.
> If it is necessary IP protection degrees.
> Mechanical resistance of the ducting, against any actions of wind, rain, snow, etc.
➢ Corrosion protection of the pipeline, for example if "Sendzimir" galvanized steel,
or hot dip galvanized after processing, or INOX to guarantee sufficient durability
in relation to environmental corrosivity.
[0007] From the above it is easy to understand how taking into account all those variables
are not at all simple, just as it is difficult to extricate oneself from mainly mechanical
and structural problems, which are also related to shape, dimensions, thicknesses,
load capacities, mechanical resistance and bending, assembly, characteristics of the
materials and relative protection against corrosion, predictable durability.
[0008] In addition to these problems related to design, we must now also consider the increasingly
serious and relevant phenomenon of the theft of copper cables from cable ducts or
ducts, which are growing and cause considerable damage, especially to public bodies
(in Italy, for example, State Railways first and foremost), but also for those traveling
by train, forced to suffer delays and cancellations, as well as private individuals,
due to the unexpected stoppage of the railway line, in order to restore its new functionality.
[0009] For protection purposes only, we would like to remind that to date it is still not
easy to estimate the phenomenon, even if since 2013 there has been greater attention
on this crime in Italy by the National Observatory on Copper Theft, which aims to
encourage synergies between Forces of the Order, Customs Agency, companies most exposed
to the phenomenon of theft. For purely informative purposes, in Italy, State Railways,
TIM, Enel and Federation of Electrical and Electronic Companies, given that in 2020
the numbers relating to the results of the activities to combat this phenomenon, according
to this table of jobs were impressive: 4'163 copper deposits checked, 191'703 kg of
stolen material recovered, 802 people investigated, of which 171 arrested.
[0010] And this is only the tip of the iceberg (from the website: https://www.g4vigilanza.it/furti-di-rame-perche-sono-cosi-diffusi/),
because copper thefts are many times carried out on a small scale and it is rarely
possible to trace those responsible.
[0011] In addition to the problems of inefficiencies and repair costs, copper theft is now
increasingly a real problem, less and less confined to public services alone.
[0012] Obviously, said problems entails a significant increase in the current costs of managing
the channels, as well as an extension of production times, further presenting the
following obvious and unwanted disadvantages:
> Problems still unresolved today and present both in the design phase and in the
construction phase of the current cable ducts and ducting systems in general due to
the considerable lengths of the sections to be monitored.
> High extraordinary maintenance costs, unpredictable and not always easily quantifiable
ex ante, even if the latter are mainly related to the impact of the dissuasive protections
adopted subsequently to the thefts themselves.
> Difficulty in visually inspecting the same channels internally, to check for possible
theft of copper cables, which is why it is often necessary to use probes to inspect
the same channels from the outside.
> Further difficulties related to the difficulty of inspecting the internal surfaces
of the canals or of promptly identifying the area or precise point in which the break-in
is taking place or has taken place shortly before.
SUMMARY OF THE INVENTION
[0013] The main purpose of the invention is to resolve said disadvantages and limitations
of the current known technique.
[0014] One aspect of the invention is therefore proposing to find a definitive solution
to the problem of breaking into cable ducts and ducting systems in general, for the
purposes of constituting a valid deterrent against the theft of copper cables.
[0015] According to another embodiment of the invention, an object of the invention is to
create an anti-burglary system for cable ducts and ducting systems in general that
can be adopted on any type of cable duct, oil pipelines, etc., to be built on site
or prefabricated, such as to be able to alarm the surveillance personnel regarding
attempts to break into a duct or cable duct even times before it is sabotaged.
[0016] Another embodiment of the invention is providing an anti-burglary system for all
cable ducts and ducting systems which is easy to produce and install, minimizing both
production and transport costs.
[0017] These objectives are achieved by creating an anti-burglary system for cable ducts
and ducting systems in general, as described and claimed below.
DESCRIPTION OF THE FIGURES
[0018] In the following the invention is described in more detail in reference to the attached
figures and drawings. Similar or corresponding details in the figures are marked with
the same reference numerals, as specific legend that is at the bottom of the description.
➢ Fig.1 shows a schematic view of an anti-burglary system 1 for cable-holder channels 2 and/or
duct holders and ducting systems in general 2 according to the present invention,
shown in cross-section, from which it is possible to deduce its main component parts,
consisting of a base B of the channel 2 and the relative covering element C, enclosing
within them one or more cavities or compartments 5 with a bottom 7, even if only a
pair of cavities 5 is schematically represented in the figure; said cavities 5 are
created thanks to the presence of one or more axial baffles 6; with said lid or covering
element C further equipped inside with several highly hermetic sealing pipes 3, constituting
the first peculiar characteristic of the present anti-burglary system 1 for cable-holder
channels 2.
➢ Fig.2 shows the view of Section A-A of the burglar-proof system 1 for cable holder channels
2 traced in Fig.1, from which it is possible to deduce the longitudinal development
of the single modular element of channel 2, consisting of the base element or base
B and the relative cover C, with said cover or covering element C further equipped
inside with a double line of pipes 3, the latter connected to the base B.
➢ Fig.3 shows a two-dimensional schematic view of the longitudinal section of the present
system 1 from which it is possible to deduce the configuration of a section of the
cablecarrying channel line 2 according to the present system 1, consisting of a plurality
of basic elements or bases B with the relative covers C placed in series one after
the other and connected to each other; with said channel elements 2, connected in
series to each other, it is possible to cover the kilometric distances necessary to
create the line of cablecarrying channels 2, with said lid or covering element C further
equipped inside it with a double line of pipes 3 equipped with anti-burglary means
4, such as copper mini-cables.
> Fig.4 shows a schematic view of the same Fig.3, where the break-in of a cover C, present
along said line of cable channels 2, has been represented, for the purposes of making
it clear how, through the present system 1, it's possible to solve the problem of
carrying out instant monitoring of the precise location where the theft of copper
cables is taking place.
> Fia.5 shows a two-dimensional schematic view of the longitudinal section of the line of
cable-holder channels 2, according to the present invention, from which it is possible
to deduce the procedure and the relative methods of sequential connection of the covers
C, with said covers C further equipped internally with a double line of pipes 3.
➢ Fig.6 shows a two-dimensional schematic view of the cross-section of the pipe 3, in which
said control means 4 is inserted, the presence of continuity of which causes instant
alerting of the break-in of the cover C; the control means 4 in this case is made
up of copper mini-cables 4 or fibre 4, or other solid means 4 capable of creating,
with its interruption, via a sensor 8, an instant signal of break-in of the cover
C.
➢ Fig.7 shows a two-dimensional schematic view of the cross-section of the pipe 3, in which
said control means 4 is inserted which in this case is constituted by a fluid medium
4, such as compressed air or another type of liquid or gaseous fluid, under pressure
or depression, and capable of creating, with its pressure variation, via a sensor
8, an instant signal of break-in of the covering C.
➢ Fig.8 shaws a two-dimensional and enlarged schematic view of the assembly detail P of the
pipe 3 carrying the fluid solution 4 shown in the previous Fig.5, where the joining
means 9 equipped with special quick-fit seals 10 for facilitate and speed up the assembly
of the pipes 3, pre-installed in pairs in the individual covers C.
➢ Fig.9 shows a two-dimensional schematic view of a top view of a rectilinear and exemplifying
configuration of the present system 1 from which it is easy to deduce how it comprises
a channel consisting of a plurality of channels 2 installed in series, one adjacent
to the other, along an axis 12 and equipped with their relative special covering elements
C and said sensors 8, suitable for instantly and wirelessly transmitting any alarm
of a break-in to the transmitting radio stations 11, located along the same line as
cable trunking 2 or nearby.
> Fig.10 shows a two-dimensional schematic view of another preferred solution for assembling
covers C (highlighted by detail Q) equipped with pipe 3 with copper mini-cables 4,
as shown in the previous Fig.5.
➢ Fig.11A shows an enlargement of said detail Q of Fig.10, from which it is better possible
to deduce the reciprocal assembly method of the covers C, for the purpose of creating
another advantageous burglar-proof connection of the solid copper conductors 4, the
latter now constituted thanks to the M-F male-female insertion of a pair of M-F conductive
elements coupling together with a removable and cushioned interlocking one inside
the other, said male element being equipped with a piston M1 cushioned by means of
an elastic means M2; the double arrow indicates the direction of mutual insertion
and disconnection of said F-M coupling.
➢ Fig.11B shows again said anti-burglary connection referred to in the previous Fig.11A, from
which it is now possible to deduce how, finally, the F-M male-female coupling of said
pair of copper conductive elements 4 appears, coupling to interlocking one inside
the other and how said male element (equipped with piston M1 cushioned by the spring
M2) is suitable to facilitate the reciprocal assembly in series of the covers C, as
well as to guarantee, by cushioning their reciprocal insertion, the simultaneous connection
of the mini - anti-burglary cable 4.
> Fig.12 shows a two-dimensional schematic view of another preferred solution of the present
burglar-proof system 1 of the cable-holder channel 2, now achieved through a continuous
and reciprocal connection by means of a plurality of mini-conductor cables Z of the
covers C, whether it is or not equipped with said anti-burglary solutions, directly
with the bases B of the cable holder channels 2.
DETAILED DESCRIPTION OF THE INVENTION
[0019] The following paragraphs will describe various embodiments of the invention. For
exemplary purposes only, most of the embodiments are outlined in relation to the figures
previously described and attached below.
[0020] A skilled person easily understands, by viewing the attached figures, that the present
anti-burglary system 1 for cable-holder channels 2 and/or duct holders and ducting
means in general 2, in the particular preferred solution reported therein, includes
a plurality of cable-holder channels 2, individually constituted by a base B and the
relative cover C, where said cover C is characterized by the fact that it is further
equipped with a pair of mini-cable-holder pipes 3 or other solid and fluid means 4
designed with their interruption or pressure variation, through further sensor means
8 and transmission 11, to instantly localize the place where the break-in of the cable-holder
channel 2 was committed (as showed in Fig.1, Fig.2, Fig.3, Fig.4, Fig.5, Fig.9 and
Fig.12), in order to guarantee a prompt intervention by the competent bodies.
[0021] In the present preferred solution, designed to be installed, by way of example, but
not by way of limitation, on railway sections and/or photovoltaic fields, the present
anti-burglary system 1 for cable ducts 2 and ducting systems in general 2 is practically
implemented with a pair of pipes 3, each equipped with a mini-copper conductor cable
4 and installed inside the cover C of the channel or cable duct 2, which can be made
on site or prefabricated in concrete, metal or any other material equivalent, simply
by connecting the same covers C in series, placing them so as to complete the cable-holder
channel 2, after installing the elements constituting the base B (as showed in Fig.1,
Fig.2, Fig.3, Fig.4, Fig.5).
[0022] Another embodiment of the invention is providing, within said covers C, in the event
that they are made of concrete or glued, bracketed or screwed, such as those made
of sheet metal or other equivalent material, it is always possible with the present
system 1 position longitudinally or transversally one or more hermetically sealed
pipes 3 for the passage of fluids under pressure or depression, replacing and/or supplementing,
as an anti-burglary means, said mini-conductor cables.
[0023] In the preferred solution conceived, in said pipes 3 it is possible to insert copper
mini-cables 4 or other means conductive to electromagnetic signals 4 (as showed in
Fig.5, Fig.6, Fig.9), so that, in the event in which an attempt is made to break in
on cover C of cable channel 2, with the interruption of the electromagnetic signal,
the anti-burglary alarm is instantly activated, so as to promptly signal, via sensors
8, the precise position in which it is the interruption of the electromagnetic circuit
occurred and, therefore, the precise location of the break-in. In this preferred solution
with alarm via electromagnetic signal with copper cables, said sensors 8 (of solid
type burglar-proof means 4) are made up of relays, spaced as desired, depending on
the length and distance visibility of the cable duct 2 (as showed in Fig.9).
[0024] In another preferred solution conceived, in said pipes 3 it is possible to insert
fibre optic cables 4 or other means conducting similar signals, so that, in the event
that an attempt is made to break in on the cover C of the cable-holder channel 2,
with the interruption of the signal conducted by the optical fibres, the anti-burglary
alarm is instantly activated, so as to promptly signal, via photocells 8, the precise
position in which the interruption of the electromagnetic circuit has occurred and,
therefore, the location of the break-in. In this preferred solution with alarm via
optical fibres, said sensors 8 can also be made up of mini-testers 8, suitable for
reading the signal transmitted by the optical fibres, also 5 spaced as desired, depending
on the length and distance visibility of the cable duct 2 (as showed in Fig.9).
[0025] In a further preferred solution, but not for this reason limiting, for said pipes
3 present in the covering C the solution of putting the same pipe 3 under pressure
or depression is adopted, so that, in the event that an attempted break-in is made
of the cover C of the cable-holder channel 2, with the interruption of the pressure
signal which necessarily occurs in at least one of the two pipes 3, the anti-burglary
alarm is instantly activated, so as to promptly signal, via sensors 8, the position
specifies where the interruption of the pressor and/or depressor circuit occurred
and, therefore, the place of the break-in (as showed in Fig.7, 8, 9). In said preferred
solution with alarm via pressure variations, said sensors 8 are made up of pressure
probes 8 suitable for reading the pressure variations as well as also spaced as desired,
mainly depending on the length and distance visibility of the cable duct 2 (as showed
in Fig.9).
[0026] If the alternative is to opt for this last solution which includes pressure probes
8, it is necessary to install a plurality of connection fittings 9, designed to hermetically,
quickly join, together each pair of covering panels C, crossed by called pipes 3 (as
showed in Fig.5, Fig.7, Fig.8).
[0027] In another preferred solution, the pipe 3 is a pipe for compressed air and as connection
fittings 9, special quick fittings for compressed air are provided, equipped with
suitable sealing gaskets 10, designed to hermetically and quickly join each pair together
adjacent to covering elements C (as showed in Fig.5, Fig.7, Fig.8).
[0028] The industrial manufacturing process of the present anti-burglary system 1 for cable-holder
and/or duct-holder channels 2 involves the manufacture of both the base B of the channel
2 and its cover C, both said base B and said cover C to be made, in a preferred, but
not restrictive, solution in concrete according to the attached drawings.
[0029] In particular, the covering C is advantageously made with said pair of pipes 3, necessary
to insert the various anti-burglary alarm means 4, already prefabricated and/or inserted
into the cement prefabricated during the production phase of the covering C itself.
wish to minimize the costs of roofing C, the solution is also envisaged which involves
the prefabrication of a single pipe 3 within roofing C, replacing the pair of pipes
3.
[0030] The assembly of said covers C equipped with said pipes 3 takes place after the installation
of the bases B of the cable-holder channels 2, as shown in Fig.9, relative to a rectilinear
and exemplary configuration of the present system 1. From said Fig. 9 it is easy for
a skilled person to comprehend how the present system 1 includes a plurality of channels
2 installed in series, one adjacent to the other, along an axis 12 and equipped with
their relative special covering elements C and said sensors 8, suitable for instantly
and wirelessly transmit any alarm of a break-in to the transmitting radio stations
11, located along the same line as the cable duct 2 or nearby or even directly to
the remote management, monitoring and control means of the entire system 1.
[0031] In a further preferred solution for assembling the covers C equipped with pipe 3
with copper mini-cables 4, as highlighted in detail Q of Fig.10 and in Fig.11A and
Fig.11B, it is possible to deduce the advantageous reciprocal assembly method of the
covers C, so as to create a different and less expensive burglar-proof connection
with mini-cables 4 of the pipe 3 always made up of solid copper conductors 4; in said
preferred solution the reciprocal assembly in succession of the covers C is also facilitated
and speeded up, given that an innovative male-female insertion M-F is provided for
each pair of terminal conductive elements present downstream and upstream of each
cover C coupling together to removable joint (male M and female F). The coupling between
the female ends F and the male ends M of the two copper conductors 4 is cushioned
during the movement and settling of the concrete covers C to be mutually joined together,
given that said "male" end M is equipped with a piston internal M1, in turn cushioned
by means of an elastic means or spring M2, thus protected from dust and direct contact
(Fig.10, Fig.11A and Fig.11B); the double arrow depicted in both Fig.11A and Fig.11B
indicates the direction of mutual insertion and disconnection of said male M - female
F coupling of the ends of said copper conductors 4.
[0032] With this solution, all the difficulties that may exist with the mutual serial assembly
of the covers C are considerably facilitated, as well as the simultaneous connections,
single and/or in pairs, of the mutual male M - female F ends of the covers are guaranteed,
by cushioning their mutual insertion. 4 anti-burglary mini cables coming out of each
individual cover C, when they are pre-inserted and/or prefabricated.
[0033] In another preferred, but not restrictive, solution, not represented in the attached
figures, said spring M2 with relative piston M1 can be located below and inside the
female seat F, in such a way to act as an equivalent shock-absorbing solution compared
to the previous one.
[0034] In another preferred solution, said female seat F does not have a hollow shape, but
is flat, so that unwanted clogging due to dust and/or sludge in the seat previously
provided as a hollow can be avoided.
[0035] In a further preferred solution, said covers C also provide further pipes with mini-cables
Z (Fig.12), with the latter insertable or not into said specific further pipes; said
mini-cables Z, whether or not equipped with said additional pipes, are positioned
in such a way as to be practically orthogonal to the axis 12 of the cover C, so as
to connect the same cover elements C with said bases B and, in any case, alarm system
1 in the event that the break-in does not involve the breaking or interruption of
the covering in the section of the pipes 3, but is likely to cause the lateral demolition
of the latter without causing interruptions in the anti-burglary means 4 present in
the same pipes 3 of the cover C. In said preferred solution of the present anti-burglary
system 1 of the cable-holder channel 2, represented in Fig.12, a continuous and reciprocal
connection of the said covers C with the said bases B is envisaged through at least
a pair of mini - cables Z or other anti-burglary means 4 (equivalent to the previous
and already mentioned anti-burglary means 4) for each pair of base B - cover C of
the cable-holder channel 2.
[0036] The assembly of the present anti-burglary system 1 requires that, once a section
of tens, hundreds or even thousands of meters of base B of the cable-holder or duct-holder
channel 2 has been completed, said alerting means are positioned at distances preestablished
by the project. 11 can be activated via each sensor8 (as showed in Fig.9).
[0037] Advantageously, in the preferred solution designed for the fluid means 4 under pressure
in the pipes 3, the pressure sensors 8 along the duct-holder channels 2 are connected
in such a way as to precisely indicate the location of the break-in.
[0038] In a preferred solution, the construction material of the pipes 3, as well as of
said connection means 9 of the sections of the pipes 3 present in the covers C and
crossed by the fluid 4 under pressure or depression, can be made with any type of
material capable of resist the fluid pressure to which it will be subjected and which,
at the same time, guarantees its breakage in the event of a break-in of the cover
C, causing an instant reduction in the pressure of the fluid 4 in the pipe 3, even
in the case of partial lifting of a piece of cover C of the channel or duct or cable
duct 2.
[0039] In said case of break-in, the detector sensor 8 closest to the place of the break-in
will send the anti-burglary alarm signal and, in cascade, with the pressure drop also
felt by the other sensors 8 further away, their further signals will also follow alarm,
both upstream and downstream from the break-in point (as showed in Fig.9).
[0040] Through the first signal received from the first alarmed sensor 8 and followed by
that of the others symmetrically opposite to the first, it is easy to identify instantly
and with high precision the place of the attempted break-in and/or tampering with
the cable holder channel 2, thus guaranteeing an immediate intervention by the police
and/or security personnel.
[0041] Advantageously, the system 1 thus conceived guarantees the expected result by brilliantly
solving the anti-burglary problem of the cable holder channels 2.
[0042] In a further preferred solution, the present system 1 manages to solve said problem
of the known art also by installing a single pipe 3 in the cover C connected to the
cable channel 2, although in any case, the choice of a pair of pipes 3 guarantees,
in unequivocally, the possibility that any false alarms will not occur which can still
occur with the most economical choice of the single pipe 3. In fact, the strategic
positioning of a pair of pipes 3 inside the cover C and connected to the cable holder
channel 2, it is such as to make the loss of pressure of the fluid medium 4 on both
pipes 3 unmistakable, at the exact moment in which the cover C itself is removed to
access the inside of the cable holder channel 2, in the event of theft of copper cables.
[0043] One of the main advantages of the present anti-burglary system 1 for cable trays
2 and ducting systems in general 2 described previously is inherent in the fact that
it can be industrially produced both industrially in series and on site to order,
speeding up production times in both cases. assembly and production.
[0044] Further advantages of this anti-burglary system 1 for cable trays 2 and ducting systems
in general 2, no less important than the previous one, are:
> Maximization of the deterrent action already upon installation of this anti-theft
and anti-burglary system.
> Possibility of easily and quickly installing the sensors 8 and the transmission
means 11 of the anti-burglary alarm, also creating and/or installing them in a combined
way, in such a way to make them less visible and maximize their anti-burglary protection.
> Minimization, if not even elimination, of the current anti-burglary control and
inspection costs of cable ducts, duct holders and ducting systems in general.
[0045] The advantages deriving from the use of the present invention are innumerable and
indisputable and derive fundamentally from having designed an anti-burglary system
for cable ducts and ducting systems in general, capable of completely solving the
previously mentioned problems of the prior art.
[0046] It should be further noted that the individual features of the different embodiments
of the invention may individually or in arbitrary combination be subject matter to
another invention.
[0047] It would be appreciated by a person skilled in the art that numerous variations and/or
modifications may be made to the present invention as shown in the specific embodiments
without departing from the spirit or scope of the invention as broadly described.
The present embodiments are, therefore, to be considered in all respects to be illustrative
and not restrictive, with referment to the legend below.
LEGEND OF THE REFERENCE NUMERALS
[0048]
- 1. Anti-burglar system for cable ducts and/or conduit holder or ducting systems in
general, with relevant industrial manufacturing and assembly procedure.
- 2. Channel or duct or cable or cable holder or duct holder or ducting systems in general.
- 3. Additional mini-cable or fluid holder pipes to those already carried by system
1 and located either in cover C of cable holder 2 or within spaces 5 of channel 2,
inside Z pipes installed in such manner to connect cover C to base B and vice versa.
- 4. Solid or fluid anti-burglar means (liquid or gaseous) inserted inside the pair
of pipes 3 mini-cable holder; the presence of continuity solutions causes instantaneous
alerting of the hacking of covering C; said anti-burglar means consists of mini copper
and/or optical fibre cables or consists of compressed or rarefied air or other type
of equivalent liquid or gaseous fluid, under pressure or depression, or other solid
or fluid means suitable for creating, with their interruption or variation in pressure,
through a sensor 8 and a transmitter 11, an instantaneous signal of breaking into
cover C and/or cable holder channel 2.
- 5. Cavities or spaces with one or more separates with which the channels 2 cable holder
are usually equipped.
- 6. Septum or septa that separate(s) the cavities or multiple cavities 5 of the canal
2 cable holder.
- 7. Internal surface of the channel base 2 cable holder.
- 8. Means of detection and transmission of the signal of a burglarbreak-in or sensors,
suitable for alerting in a precise way the place where the burglar-breaker is occurring,
following the interruption of the electromagnetic and/or pressure and/or volumical
alert of the anti-burglary means 4.
- 9. Quick connection means of pipelines 3 fluid conveyors or quick connection fittings
for fluid means 4.
- 10.Seals for fluid means 4 of the quick connection type for pipes 3 for fluids under
pressure or depression.
- 11.Transmitter and/or alerting means 11 of the exact place where the burglar attempt
reported by the sensor 8 is occurring.
- 12.Axis indicating the longitudinal development of the cable holder 2 channel, with
that axis straight or curved.
B Base (or base element) of cable holder 2 channel.
C Cover or lid or closing means of the base B, constituting together with the latter
the channel 2 cable holder of the system.
F Female coupling of one end of the burglar-proof mini-cable 4 in copper (or others
metallic conductor) inserted in the pipe 3.
M Male coupling of one end of the copper anti-burglar mini-cable 4 (or others metallic
conductor 10) inserted in the pipe 3.
M1 Piston cushioned by an elastic means able to resist the impact actions due to thrust
and compression of cover C during its assembly and in any way facilitate its insertion
in series with the continuity of the connection of the anti-burglar means 4.
M2 elastic means or spring exercising the action of cushioning the otherwise rigid
impact of the cover "c" during its assembly.
P Detail showed in Fig.5 and enlarged in Fig.8.
Q Detail showed in Fig.10 and enlarged in Fig.11.
Z Mini-cables that can be inserted or not in special and additional pipes, almost
orthogonal in the direction of those 4 present in the pipes 3 of the covers C and
suitable for alarming the system 1 in the event where the break-in does not involve
the breakage or interruption of the coverage C in the section of the pipes 3, but
is otherwise able to cause the lateral winding of the latter without also involving
continuity solutions of the anti-burglary measures 4 present in the same pipes 3,
consists of mini copper and/or optical fibre cables or consists of compressed or rarefied
air.
1. Anti-burglary system (1) for cable ducts and/or duct holders (2) comprising a plurality
of cable ducts and/or duct holders (2), formed individually by a base (B) and the
relative cover (C), with the latter (C) characterized by the fact of furthermore be equipped with at least one tube (3) containing in turn
solid and/or fluid media (4), capable of causing, in the event of break-in of the
cable holder channel (2) which determines their electromagnetic continuity, pressure
or of volume, through the signal generated by detector means (8) close to the place
where said interruption of continuity occurred, the instantaneous sending of an intrusion
alarm signal via a transmission means (11) to a management point, monitoring and control,
said anti-burglary means (4) being installed with or without additional specific tubes
(Z) also between the base (B) and the roof (C), thus guaranteeing anti-burglary monitoring
of the duct holders or channel (2) even in case of failed break-in and/or failure
to signal an interruption by said means (4) installed in the pipes (3) of the same
covering (C).
2. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to the
preceding claim, characterized in that said solid anti-burglary means (4) are of the mini-cable type made of copper or copper
alloy or other metallic material with equally conductors.
3. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said solid anti-burglary means (4) are of the optical fibre type.
4. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said fluid anti-burglary means (4) are of a gaseous type, such as air.
5. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said fluid means (4) are under vacuum inside the tubes (3).
6. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said fluid means (4) are under overpressure inside the tubes (3).
7. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that both said base (B) and said cover (C) of the cable duct (2) can be
made of concrete, metallic or other equivalent material, both on site, where necessary,
and industrially, in prefabricated form.
8. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that its assembly involves the series connection of the covers (C), together
with said anti-burglary means (4) and the related sensor means (8) and transmitters
(11), immediately after the installation of the elements constituting the base (B)
of the cable channel (2) and the related copper cables coming from the same system
(1) thus protected.
9. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that in said covers (C), if made in concrete or glued, fixed or screwed,
such as those in sheet metal or other equivalent material, it is always possible with
the present system (1) to position, longitudinally or transversely, one or more hermetically
sealed tubes (3) for the passage of fluid media under pressure or depression (4),
the latter being a substitute, as an anti-burglary means (4), of said copper mini-conductor
cables (4).
10. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said sensors (8) of the solid-type anti-burglary means (4) are made
up of relays, spaced as desired, which manage visibility of the length and distance
of the cable duct (2).
11. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said sensors (8) of the optical fibre anti-burglary means (4) are made
up of photocells, spaced as desired, acting on the visibility of the length and distance
of the cable duct (2).
12. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized in that said sensors (8) of the fibre optical anti-burglary means (4) are made up of fibre
optical cables managed by mini testers, spaced as desired, depending on the length
and visibility distance of the cable channel (2).
13. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said sensors (8) of the fluid-type anti-burglary means (4) are made
up of compressed or vacuum air monitored by probes pressure plates (8), spaced as
desired, depending on the length and distance visibility of the cable duct (2).
14. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said pipes (3) with anti-burglary means (4) of a fluid type and also
equipped with pressure probes (8) are interconnected by a plurality of connection
fittings (9), suitable for hermetically and quickly joining together each pair of
adjacent covering panels (C), said fittings (9) being equipped with suitable sealing
gaskets (10).
15. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said sensors (8) are capable of instantly and wirelessly transmitting
any alarm of a break-in to the radio stations transmitters (11) located along the
same line as the cable duct (2) or even directly to the remote management, monitoring
and control point of the entire system (1), in such a way as to maximize the control
power against possible break-ins.
16. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that the coupling of the copper conductor (4) of the pipes (3) that is in
each cover (C) is made with female (F) and male (M) terminal ends with relative cushioning
means (M2), in such a way as to guarantee electrical contact and facilitate the movement
and settling of the same covers (C) to be mutually joined together, given that said
male terminal end (M) is equipped with an internal piston (M1), which is in turn cushioned
by means of an elastic means or spring (M2), with the latter thus protected from dust
and direct contact.
17. Anti-burglary system (1) for cable ducts and/or duct holders (2), according to any
one of the preceding claims, characterized by the fact that said all sensors (8) and said transmission means (11) of the anti-burglary
alarm are made and/or installed in a combined manner, so as to constitute a single
sensor-transmitter means (8-11), thus maximizing the anti-burglary protection of the
system (1).