[0001] This invention relates to a winding plant according to the pre-characterizing part
of the main claim 1.
Technical Field
[0002] This plant is particularly intended, if not exclusively, to be placed downstream
of a wire, band or strip rolling-mill plant, in which instead of fly-cutting the rolled-stock,
the latter is wound in coils
Background Art
[0003] In the prior art different systems are known for coil-winding the rolled-stock or
also wire, for example originating from others plants, in a continuous way, citing
as an example:
US-A- 3,796,389 discloses an apparatus for strip winding placed in a feeding line with a split-system
for two alternating winding-machines in the winding operation.
[0004] A similar plant is disclosed in
DE-A-4035193 where substantially a flying cutting shear and splitting-system to split is provided,
without stopping the advancement of the wire on either of the two winding-machines
so that while the winding is carried out in one machine, it is possible to proceed
with the extraction of the coil in the other.
[0005] Another similar plant is explained in
EP1126933 in which a handling device is associated to each winding-machine to draw out axially
the coil from the stopped winding-machine and transfer it to evacuating transfer means,
while the other is winding. Further prior art is
JP06091720 (see
Patent Abstracts of Japan vol.18, no.354 (M-1632), 5 July 1994 (1994-07-05)-&
JP06091720A (Mitsuboshi:KK), 5 April 1994 (1994-04-05). In this disclosure exclusive taking motors M1,M2, are provided to respective
bobbins 5,6 in order to continue the tacking-up of a molded product B, even at the
time of work, for replacing the bobbins 5,6. Arranging rollers 54a,54b, prescribing
the posture and shape of the molded product B are provided to the loading end of a
guide arm 42 in close vicinity to the bobbins 5,6 in order to be moved in the lateral
direction and radius direction of the bobbins (reels). Each reel having an exterior
flange realized with radial arms (27) hinged to the mandrel reel (26) to be rotate
externally close to axial direction to allow extraction of the coil.
Drawbacks of the Prior Art
[0006] The known solutions have operating speed limits and moreover are structurally complex
and expensive. The winding process can involve stops due to tangling and due to the
fact that handling arrangements and storage of the coil are impractical and quite
slow.
[0007] The machines are cumbersome.
[0008] Both systems therefore present one or more of the aforementioned drawbacks and limitations.
[0009] In particular the solution
EP1126933 is very complex and inefficient particularly with the limited speed of the system
for opening and closing the reel that takes place with the system in the form of a
flag-opening cap, with all the resultant drawbacks. The complexity of the latter solution
derives furthermore from the of pick-up and movement system of the pulled coil by
means of ground guide-rails, trolleys and the like. All these embodiments make the
system very complex, cumbersome and difficult to access and maintain. In conclusion,
it is unreliable. The operating speed is further limited by the complex structure
of systems for wire entry guidance and control of the coil after formation for pick-up.
Aim of the Present Invention
[0010] The aim of the present invention is to avoid the aforementioned drawbacks and improve
the performance of the plant, to improve the quality and/or to reduce the cost of
the treated material.
Summary of the Invention
[0011] The winding plant according to the present invention is concretized according to
the characteristics of the main claim 1.
[0012] The characteristics of the sub-daims refer to particularly advantageous solutions.
Advantages
[0013] The advantages obtained achieve the pre-established aims and in particular allow
a high functional performance to be achieved and moreover allow a qualitatively good
product to be obtained at a reduced production cost.
[0014] All this is obviously favoured by the vertical axis coil extraction system.
Brief Description of Drawings
[0015] The characteristics of the invention and other related features will be better understood
with the aid of the attached figures enclosed as a non-limitative example, in which:
- Fig.1 represents a side schematic view in elevation of the winding plant applied to
the end portion of a rolling-mill line during the winding phase or winding in a first
winding-machine of two coordinated adjacent winding-machines supplied by a shunter
with associated flying cutting shear device,
- Fig. 1 A represents the phase of depositing the coil in the binding station.
- Fig.2 represents an overview of the plant in Fig.1 in which the two adjacent winding-machines
are seen associated to a flag-transfer, namely with a column with a rotating overhanging
arm to extract the coils from either of winding-machines and discharge said coils
in a tying back, transfer and stock station Fig.2A.
- Fig.3A and 3B represent, in an elevated side-view, the mullion-transfer as in previous
Figures, respectively without coil, lowered and with coil raised for transfer by means
of rotation.
- Fig.3C represents a plan-view of the coil pick-up device with four jaws, placed at
the end, under the portal arm of the mullion-transfer device.
- Fig.4, 4A represent respectively a side view in elevation and a plan view of a winding-machine,
from the feeding side of the wire to be wound (AB), with the pair of wire-guide jaws
lowered around the winding reel of the wire to allow the automatic threading of the
wire deviated from the upstream splitting flying shear (4C-2,3), while the pair of
rolls that maintain the coil compact at the end of the winding are rotated upwards
from the winder (4B-422).
- Fig. 5 represents a view of the phase immediately subsequent to the threading of the
wire and the start of winding (F), with the opposite jaws of the wire-guide (4C-431)
immediately raised with a small disengagement movement from the previous wire-guide
position, this movement being very fast since it is not integrated into the total
disengagement mechanism that takes place in a subsequent phase.
- Fig.6 and 6A represent a view of the same device as in previous Figures but in which
the opposite wire-guide jaws are completely shifted by means of rotation on a different
articulation, in sending-away from the winder (AV), while the two pairs of opposite
rolls (422) have been rotated in approach against the wire coil that has been formed
in rotation (B)
- Fig. 7 represents in an enlarged view the constructive details of the wire-winding
reel (winder) for the formation of the coil, in partial axial section to illustrate
the respective moving mechanism and cooling device.
Said winder or winding-reel being in the winding position.
- Fig.7A represents a view of the winder (AV) as in the previous Figure, in which in
partial axial section, the moving mechanism is still visible and the latter has been
transformed from a closed reel to a conic reel (410) with the upper flange of the
reel (411) rotated upwards, namely towards the axis and towards the exterior to allow
the axial extraction of said coil (B).
- Fig.7B represents a plan-view of the reel-mandrel sectors, of which there is a total
of four, that form in a movable way the winding reel, namely the core of the winding
reel, with a hatched-view of the respective inner hollows, these channels being for
the circulation of cooling water and therefore for the dispersion of heat that the
hot-rolled wire introduces into winding the coil, together with the special external
undulated shape of said nippers/mandrel-sectors, in order to minimize contact with
the wire and to allow the optimum dispersion of the heat by means of aeration.
- Fig.8 represents a front view of a nipper (410) of the madrel of the reel, with a
view of the respective internal to-and-fro serpentine channel (4102) for its cooling.
Detailed Description of the Plant in Connection with the Figures
[0016] As disclosed in the previous Figures, the winding plant (see Fig. 1 -1A, 2-2A) includes
a split system or splitting of the known type with a flying shear, schematized with
(1) that deviates the wire on two lines, alternatively on one or on the other (2)
towards one or the other of two respectively adjacent winding-machines (4), with the
aid of suitable wire-guide means of the known type (3) for the coil-winding (B).
[0017] While a coil forms in a winding-machine, in the adjacent winding-machine that is
stopped, the pick-up of the completed coil is carried out, with transfer (5', ..,
521).
Coil Transfer (5. Figg.1, 1A, 2, 2, 2A, 3B, 3A, 3B, 3C)
[0018] The coil transfer (5' ..., 521)Fig.1,521)Fig.1,1A, is of the portal type, namely
with a column (51), with a rotary flag-type arm (S2-510), whose end (521) carries
an opening clamping device with a couple of clamps or cross-opposite jaws (522) for
the pick-up and axial extraction of the coil (B) from the winding-machine (AV) of
the respective winding device (4, 4a) to transfer it (Fg2) from the stopped winding-machine
to a tie/binding back-station by means of two known art opposite binding machines
or tie-machines (6) Fig.2A, being provided furthermore with the transfer of the coil
to the respective storage of tied coils (B1).
[0019] The mullion-transfer is therefore of the portal type and its rotating arm (52) can
be raised and lowered by means of a dynamic-fluid piston (520) for the pick-up and
deposition action, while rotation is guaranteed by respective motor/ratiomotor (510)
at the base of the column on respective thrust-bearing (5101).
[0020] The lifting and lowering of the arm (52) being assured by a folded-plate guide (520)
with pairs of guide opposite rolls (5201) operating in a sliding way on the column
in double-T section.
[0021] The pick-up of the coils is facilitated by the clamping device with four clamps that
self-centre on the coil (B), opening and closing by means of respective opening and
closing fluid operated cylinders (5220).
[0022] In this way it is understood that the movement of the transfer is very fast and given
that it has open-air excursion, it does not encumber or hamper the surrounding zones
allowing moreover greater compactness of the plant. Furthermore, the type of movement
is manifestly very simple and very reliable with greatly reduced maintenance.
Winding Groups (4, 4A, 48, AC, Fig.4. 4A, 5, 6, 6A)
[0023] The two winding groups are identical and adjacent with a wire-winding reel (F) having
a reel that can be opened (AV) with a vertical axis.
[0024] Each group includes in addition to the central winder (AV-41) two opposite coil-compacting
apparatus (4b) in couples of rolls (422) and two auto-introducing wire-guide jaws
to automatically guide the wire at the beginning of winding (4C).
[0025] In the centre the reel (41) is found with openable winding reel (AV).
Opposite Coil-Compacting Apparatus (4B)
[0026] They include two respective articulated devices (42), placed on one side and one
on the other of the winding reel (AV) with respect to the advancing line wire that
fits sideways into the reel (AB).
[0027] The rolls are mounted on an articulated arm (421) hinged to the base structure (420)
and operated in rotation from a spaced position (Fig.4) to a position against the
coil (B) Fig.6. The movement occurs by means of a base dynamic-fluid cylinder (4212)
on a reacting arm (4210).
[0028] Said rolls (422, see Fig.6A) being a pair mounted on a parallelogram (4222) in couples
of opposite arms mounted on support rolls (4220) and moved elastically under pressure
by respective means with dynamic-fluid cylinder (4221).
[0029] In this way the movement is simple and reliable and the orientability of the rolls
guaranteed to be unchanged for the suitable control of the end turns of the coil (B)
in the winder (4V-41) to avoid the slackness prior to pick-up.
Wire-Guide Group (4C)
[0030] The wire-guide group includes two guide opposite jaws entrance semicircular wire
(431) hinged sideways horizontally (430) and controlled by a fast-moving dynamic-fluid
cylinder (4311) at the end of the movement arm jaw (4310) hinged sideways to the base
machine (4301) and rotated in sending-away and approach by means of a resending arm
(43101) operated by fluid-operated base-cylinder (43102).
[0031] In this way it is understood that while with the opposite fluid operated base-cylinders
(43102) the sending-away and approach of the drive-introduction jaws wire (431) is
carried out, their final movement being precise and fast in order to engage and disengage
the wire, with independent, short precise and fast action (4311) that would otherwise
prove impossible with this type of performance by the approaching and spacing-apart
mover device with wide excursion (43102).
[0032] Therefore, the above allows a very high speed and good performance to be achieved,
without danger of tangling or the need to reduce the advancing speed of the wire or
use of adapting wire-loops speed.
[0033] The short engaging and disengaging movement is clearly visible in Fig.5
Central Winding Group - Winding Reel (4A, Figg. 7, 7A, 7B, 8)
[0034] It comprises the central winding reel (41) with a closable and openable reel (AV),
Opening and closing of the reel (AV):
[0035] Once the opening and closure of the reel (AV), necessary to extract the coil (B)
has been completed, occurring by means of four rotatable petal flange sectors (411)
with a reacting arm (4111) moved by a sleeve (413) that moves axially by means of
a dynamic-fluid cylinder (4131-4132) operated by a dynamic-fluid circuit (4133) with
transmission to the base reel (41330) on a non-rotating coaxial axis with respect
to the rotating reel (AV).
[0036] The advantage of this solution is very important for the compactness and simplicity
of the rotation guaranteed by the connection shaft end (4131) with respect to the
sleeve (413).
Variation of the External Shape of the Reel Mandrel (AV)
[0037] The reel mandrel (AV) is composed of four sectors, namely four nippers (410), hinged
to the base (4121) of a flange rest-coil lower reel (412).
[0038] On the upper part the reel-mandrel movable sectors (410) are articulated (4112) to
said axially movable sleeve (413).
[0039] In this way, when the movable sleeve (413) is raised the upper flanging petals (411)
are open, namely orthogonal to the reel axis and allow coil formation (B) during winding,
and the sectors of the reel-mandrel (410) are parallel and form a cylinder (Fig.7).
[0040] When the coil is finished, to allow easy extraction, the movable internal sleeve
(413) withdraws downwards simultaneously operating:
- the petals of the upper flanging of the reel that close upwards like a flower,
- the sectors of the core that re-enter on the upper part (410, Fig.7A) determining
a conical shape with an upper base size less than the lower base.
[0041] In this way the extraction of the coil (B) is allowed and facilitated by means of
the jaws of the clamping device (522).
Cooling System
[0042] The sectors or nippers of the semicircular shaped reel mandrel (410) are internally
holed with channels (4102). The channels convey on a connecting duct (41020) with
a duct inside a double coaxial channel (41021, 41022).
[0043] In this way the cooling of the reel is guaranteed.
[0044] Furthermore the external shape of said core nippers or sectors is undulated by means
of alternate longitudinal tanglings (4101).
[0045] In this way the contact of the surface of the reel mandrel (AV) with the coil (B)
is reduced and a circulation of air through these longitudinal tanglings is facilitated.
[0046] The reel (AV) rotates coaxially to the central axis by means of motorization of the
type known with connection to bevel-type drive (40, 401-402).
Winding Cycle
[0047] The start of coil-winding occurs by means of said device with movable semicircular
opposite jaws (431) in association with the wire-introduction system (AB) for first
adherent turns to the base side or flange of the reel (AV) of the winding-machine.
[0048] This device receives the wire (F) from the dispenser (2-3) while it is closely fitted
to the reel mandrel (AV) and subsequent to the priming of the first turn, it must
quickly free the coil forming area. To do this with maximum efficiency, the fast movement
of rapid displacement (short rotation 4310, Fig.5) is used.
[0049] Subsequently, with other slower and wider rotation movements (4310-43102) the wire-guide
jaws sending-away is carried out, leaving free the space to the approach said control
rolls' last coil turns (422).
[0050] In this way when the coil stops, the last turns are held closed until the clamping
device (522) of the transfer (5) intervenes, whose four jaws are rotated to 45° to
clamp the coil (B) between said rolls (422).
[0051] Subsequently, the rolls (422) move away and the coil (B) still remains clamped by
the clamping device. At the same time the reel (AV) is also opened thus tightening
and closing the upper flanging petals that are oriented upwards.
[0052] In this way the closed coil is also loosened internally and it can be easily removed
upwards with the lifting of the arm (52) of the mullion-transfer (5) and it can be
rotated rearward for the deposition into the binding-machine with two opposite binding
groups (6).
[0053] At this point the cycle repeats thus returning the priming wire-guide jaws in the
position adjacent to the reel mandrel (AV) to receive a new wire (F) to wind (Fig.4).
1. Winding plant for rolled-stock of the type involving downstream of a rolling-mill
plant:
- rolled flying cutting means (1) and two-way splitting (2);
- coil-winding wire-guide means (3);
- at least two winding-machines (4) for the formation of coils (B) in which each winding-machine
includes a reel (AV) comprising an openable exterior flange to allow the extraction
of the coil (B) once it has been completed, the entire assembly associated with movable
wire drive-introduction means (43) to start winding for coil formation (B); the mandrel
of said reel (AV) having movable separate longitudinal sectors (410) to move from
a cylindrical to a conical shape to facilitate extraction of the coil;
- coil transfers means (5) capable of removing said coil (B) from said reel (AV) to
transfer it elsewhere;
wherein:
- said exterior flange of said reel (AV) is composed of flange sectors (411), hinged
to said mandrel-reel by means of leverism (4111) to be rotated like petals of a flower:
- from an open-flower position, namely substantially radially orthogonal to the rotation
axis of said reel (AV) to form substantially a closed reel for the winding of the
rolled-stock to form said coil (B),
- to a closed-flower position, namely rotated outwards within a diameter lower than
the interior diameter of said coil (B), to allow extraction;
characterized in that:
- the rotational axis of the mandrel is vertical;
- said movement of said flange sectors (411) and of said separate longitudinal sectors
(410) occurs by means of an internal axial movement device (413) which comprises an
axial shaft (4131) of an axial dynamic-fluid cylinder (4132) and articulates rotationally
(4111-4112) to said flange sectors (411) and to said longitudinal separate sectors
(410); the circulation of fluid for moving said shaft (4131) occurring by means of
a dynamic-fluid circuit (4133) with transmission to a base reel (41330) on a non-rotating
coaxial axis with respect to the rotating reel (AV);
- said separate longitudinal sectors (410) are internally channelled (4102) for the
circulation of cooling fluid, and have an external undulated surface with longitudinal
tanglings (4101); said circulation of cooling fluid occurring by means of a coaxial
transmission (41021, 41022), on a non rotating central axis with respect to the rotating
reel (AV).
2. Winding plant for rolled-stock, according to previous claim,
characterized in that:
- said movable wire drive-introduction means (43) are mounted on two interdependent
movements:
- a first for rotational arm excursion (4301,4310,43101,43102) in approach to or complete
sending-away from said reel (AV);
- a second for a limited and rapid excursion towards and away from the wire-guide
position for the formation of the first coil turn in a position adjacent to said reel
(4311) by means of pivoting the arm end of said first movement (4310).
3. Winding plant for rolled-stock, according to any of the previous claims,
characterized in that:
- said coil transfer means (B) are of the type with a column (5) with a flag-type
arm (52) of the rotatable portal type (510-5101), provision being made for said rotary
arm to be equipped with means for its lifting and lowering (520, 5200-5201) and at
the end of the arm (521) including engaging means for clamping with clamps or jaws
substantially opposite with cross-clamps (522) capable of opening to seize said coil
(B), extract it from a winding reel (AV) of said winding-machines and deposit it after
rotation outside in a respective zone for further working (B1-6).
1. Wickler für Walzgut mit, einer Walzwerkanlage nachgeschaltet:
- fliegender Schere für Walzgut (1) und Querschneider (2);
- Spulenwicklungs-Drahtführungsmittel (3);
- mindestens zwei Wickelmaschinen (4) zur Bildung von Spulen (B), wobei jede Wickelmaschine
eine Haspel (AV) mit einem zu öffnenen Außenseitenflansch umfasst, um die Extraktion
der Spule (B) zu gestatten, nach der Vervollständigung, wobei die ganze Montage mit
beweglichen Drahtbewegungs-Einführungsmitteln (43) verbunden ist, um zwecks Spulenbildung
mit dem Wickeln zu beginnen (B), wobei der Dorn der Haspel (AV) mit beweglichen separaten
Längssektoren (410) ausgestattet ist, um sich von einer zylindrischen in eine konische
Form zu bewegen, um die Extraktion der Spule zu erleichtern;
- Spulentransfermittel (5), die die Spule (b) von der Haspel (AV) zu entfernen, um
sie anderswohin zu bringen;
wobei:
- der Außenseitenflansch der Haspel (AV) aus Flanschsektoren (411) besteht, die mit
besagter Dorn-Haspel mittels Hebelmechanismus (4111) gelenkig verbunden sind, um wie
Blütenblätter gedreht zu werden:
- von einer offene-Blume-Position, und zwar im wesentlichen radial rechtwinklig zur
Rotationsachse der Haspel (AV), um im wesentlichen eine geschlossene Haspel zum Wickeln
des Walzguts zu bilden, um besagte Spule zu bilden (b),
- in eine geschlossene-Blume-Position, und zwar nach außen gedreht innerhalb eines
Durchmessers, der kleiner als der Innendurchmesser der Spule (b) ist, um die Extraktion
zu gestatten;
gekennzeichnet dadurch, dass:
- die Rotationsachse des Dornes senkrecht ist;
- die Bewegung der Flanschsektoren (411) und der separaten Längssektoren (410) durch
eine innere axiale Bewegungsvorrichtung (413) erfolgt, die eine axiale Welle (4131)
eines axialen Zylinders mit dynamischer Flüssigkeit (4132) umfasst und rotierend (4111-4112)
zu besagten Flanschsektoren (411) artikuliert
und zu den separaten Längssektoren (410); der Flüssigkeitsumlauf, um besagte Welle
(4131) zu bewegen, erfolgt mittels eines Schaltkreises mit dynamischer Flüssigkeit
(4133) mit Übertragung zu einer Basishaspel (41330) auf einer nicht-rotierenden koaxialen
Achse in bezug auf die rotierende Haspel (AV);
- besagte separate Längssektoren (410) sind innen (4102) für den Kühlflüssigkeitsumlauf
kanalisiert und haben eine äußere gewellte Oberfläche mit Längsverwicklung (4101);
der Kühlflüssigkeitsumlauf erfolgt mittels einer koaxialen Übertragung (41021, 41022),
auf eine nicht rotierende zentrale Achse in bezug auf die rotierende Haspel (AV).
2. Wickler für Walzgut nach dem vorherigen Anspruch,
gekennzeichnet dadurch, dass:
- besagte bewegliche Drahtbewegungs-Einführungsmittel (43) sind auf zwei voneinander
abhängige Bewegungen montiert:
- eine erste zur Rotationsarmexkursion (4301, 4310, 43101, 43102) zu oder ganz weg
von der Haspel (AV);
- eine zweite für eine beschränkte und schnelle Exkursion zu und weg von der Drahtführungsposition
zur Bildung der ersten Spulenwindung in einer Position angrenzend an die Haspel (4311)
durch Drehen des Armendes der ersten Bewegung (4310).
3. Wickler für Walzgut nach einem beliebigen der vorherigen Patentansprüche,
gekennzeichnet dadurch, dass:
- besagte Spulentransfermittel (b) eine Säule (5) mit einem flaggenähnlichen Arm (52)
nach Art eines drehbaren Portals (510-5101) aufweisen, wobei der Dreharm mit Mitteln
für seine Hebung und Senkung (520, 5200-5201) ausgestattet ist und am Ende des Armes
(521) Eingriffsmittel zum Klemmen mit Klammern oder Backen im wesentlichen gegenüberliegend
mit Kreuz-Klammern (522) aufweist, die sich öffnen, um die Spule (B) zu ergreifen,
sie aus einer Wickelhaspel (AV) der Wickelmaschinen herauszuziehen und sie nach der
Rotation außerhalb in einer Zone zur Weiterverarbeitung (B1-6) ablegen.
1. Installation de bobinage pour matériau laminé du type comprenant en aval d'une installation
de laminoir :
- un élément de coupe volant des produits laminés (1) et de fendage à double sens
(2);
- un élément de bobinage guide-fil (3);
- au moins deux machines de bobinage (4) pour la formation des bobines (B) où chaque
machine de bobinage inclut un dévidoir (AV) comprenant un flasque extérieur ouvrable
pour permettre le retrait de la bobine (B) une fois que celle-ci a été complétée,
l'assemblage entier étant associé à un élément amovible d'entraînement/introduction
(43) du fil afin de mettre en route le bobinage pour la formation de la bobine (B);
le mandrin dudit dévidoir (AV) ayant des secteurs longitudinaux séparés amovibles
(410) afin de passer d'une forme cylindrique à une forme conique pour faciliter le
retrait de la bobine;
- un élément de transfert de bobine (5) destiné à retirer ladite bobine (b) dudit
dévidoir (AV) pour la transférer ailleurs;
dans laquelle:
- ledit flasque extérieur dudit dévidoir (AV) est composé de secteurs de flasque (411),
articulés sur lesdits mandrin-dévidoir par un système de leviers (4111) devant être
tournés comme les pétales d'une fleur:
- afin de passer d'une position en forme de fleur ouverte, c'est-à-dire substantiellement
orthogonale en direction radiale par rapport à l'axe de rotation dudit dévidoir (AV)
de manière à former substantiellement un dévidoir fermé pour bobiner le matériau laminé
pour la formation de ladite bobine (B),
- à une position en forme de fleur fermée, c'est-à-dire tournée vers l'extérieur d'un
diamètre inférieur au diamètre intérieur de ladite bobine (B), afin de pouvoir la
retirer;
caractérisée en ce que :
- l'axe rotatif du mandrin est vertical;
- ledit mouvement desdits secteurs de flasque (411) et desdits secteurs longitudinaux
séparés (410) s'effectue au moyen d'un dispositif de mouvement axial interne (413)
qui comprend un axe en direction axiale (4131) d'un cylindre axial pour fluide dynamique
(4132) et qui s'articule en rotation (4111-4112) sur lesdits secteurs de flasque (411)
et lesdits secteurs longitudinaux séparés (410); la circulation du fluide pour le
mouvement dudit axe (4131) s'effectuant au moyen d'un circuit pour fluide dynamique
(4133) par transmission à un dévidoir de base (41330) sur un axe coaxial non rotatif
par rapport au dévidoir rotatif (AV);
2. Installation de bobinage pour matériau laminé, selon la revendication précédente,
caractérisée en ce que:
- ledit élément amovible d'entraînement/introduction du fil (43) sont montés en deux
mouvements interdépendants:
- un premier mouvement pour l'excursion d'un bras de pivotement (4301, 4310, 43101,
43102) en rapprochement ou en éloignement total dudit dévidoir (AV);
- un deuxième mouvement pour l'excursion limitée et rapide en direction et loin de
la position guide-fil pour former le premier tour de la bobine dans une position adjacente
audit dévidoir (4311) au moyen d'un pivotement de l'extrémité de bras dudit premier
mouvement (4310).
3. Installation de bobinage pour matériau laminé, selon l'une quelconque des revendications
précédentes,
caractérisée en ce que:
- lesdits éléments de transfert de bobine (B) sont du type comprenant une colonne
(5) avec un bras de type drapeau (52) du type rotatif à portique (510-5101), des dispositions
étant prises pour équiper ledit bras rotatif avec des éléments pour son élévation
et son abaissement (520, 5200-5201) et comprenant à l'extrémité du bras (521) des
éléments d'accouplement pour un serrage par attaches ou mâchoires substantiellement
opposées avec des attaches en croix (522) prévues pour s'ouvrir afin de saisir ladite
bobine (B), la retirer d'un dévidoir de bobinage (AV) desdites machines de bobinage
et la déposer après rotation à l'extérieur dans une zone respective pour une activité
ultérieure (B1-6).