Technical Field
[0001] The present invention relates to a packed roof window product comprising a plurality
of differently sized roof window related product components contained in a cardboard
box.
Background Art
[0002] When installing windows in a roof it is vital to ensure that the roof window itself
is securely attached to the roof structure and that the joint between the roof window
and the roof structure is properly weatherproofed. It is therefore important that
all components of roof window products, such as the roof window itself or a flashing
assembly for a roof window, are used and are used in the right way. To facilitate
this, the components are typically arranged in the box in an intended order of use
and small components, such as screws, are kept in plastic bags. Furthermore, blocks
of expanded polystyrene or similar shock absorbing material are used for protecting
the product and/or for keeping the components in the intended position within the
box. An example of a packed roof window, where these principles are used, is known
from
EP2748071B1 and an example of a packed flashing assembly for a roof window is known from
EP1710163B1.
[0003] While these packaging have worked very well, there is an ever increasing demand for
delivering products that are more environmentally friendly.
Summary of Invention
[0004] With this background, it is an object of the invention to provide a packed roof window
product, which has a smaller climate footprint, without increasing the risk of errors
in the installation of the product and maintaining a good protection of the product
during transportation. It is noted that "roof window product" is intended to cover
not only a roof window, but also products associated with the installation of a roof
window, such as flashing assemblies, and products intended for being installed on
a roof window, such as shutters.
[0005] This and further objects are achieved with a packed roof window product of the kind
mentioned in the introduction, which is furthermore characterised in that a collection
of flashing and/or covering components is contained in a carton made from paper or
cardboard and arranged inside the cardboard box.
[0006] Flashing and covering components are typically made of sheet metal, such as aluminium
and cobber, and such components made from aluminium are typically painted and lacquered.
As flashing or covering components will be at least partially visible in the installed
state of the roof window product, it is important that they are not scratched or deformed.
Even more importantly, a deformation is to be avoided as it may have a negative influence
on the weatherproofing function of the flashing or covering components.
[0007] Traditionally, large components of a roof window product, such as flashing and covering
components, have been kept in place in the cardboard box by being attached to the
box by means of an adhesive or by being fixated between blocks of expanded polystyrene
(EPS), and some have been covered by a protective plastic film to prevent them from
being scratched. Smaller components traditionally have been attached to the cardboard
box or to larger components, for example by means of an adhesive, and/or wrapped in
plastic, thereby also preventing them from scratching or otherwise damaging other
components.
[0008] By providing the collection of flashing and/or covering components in a carton, the
flashing and/or covering components are prevented from moving around in the cardboard
box, thus reducing the risk of them being jammed between other component, and the
possibility for contact with other components, which might result in scratches, is
also reduced. This means that the need for fixating or covering other components may
be reduced. Furthermore, by arranging flashing and/or covering components in a carton
the need for blocks of material attached to the cardboard box for retaining them may
also be reduced. Arranging the collection of flashing and/or covering components in
a carton may thus contribute to a reduction in the total material consumption.
[0009] Another advantage is that while the use of adhesives, plastic and EPS requires that
the packaging material will have to be separated in different fractions for recycling,
the carton belongs to the same fraction as the cardboard box. This considerably increases
the likelihood of the packaging material being recycled instead of just being disposed
of as combustible waste and reduces the risk of recyclable material being polluted
by other materials.
[0010] Another potential advantage of using a carton is that it may at the same time retain
items and prevent scratching. Thereby, one carton may potentially replace both an
EPS block and a protective film or a plastic bag, thus potentially reducing either
the total material consumption or the number of separate pieces of packaging material
to be manufactured and recycled. A reduction of the number of separate pieces of packaging
material may in turn reduce the risk of them being lost or forgotten.
[0011] A still further potential advantage of using a carton made from paper or cardboard
is that it may be biologically degradable. Light-weight packaging items, such as plastic
wrappings, films and EPS, are easily caught by wind when installing a roof window
product on a roof of a building and may end up in nature or other places where it
cannot be collected by the installer. While it is of course not the intention to leave
packaging material behind, a biodegradable carton does little harm.
[0012] In one embodiment the carton containing the collection of flashing and/or covering
components has a size and/or shape matching an inner dimension of the cardboard box
so that the carton is prevented from moving in at least one direction.
[0013] In one embodiment a carton is attached to the cardboard box. This may allow the carton
to retain other components in an intended positioning within the cardboard box, thus
serving substantially the same purpose as the EPS blocks known from
EP1710163B1.
[0014] A carton may be attached to the cardboard box, to another carton or to another component
of the roof window product by means of a glue or an adhesive. Alternatively, or as
a supplement, mechanical fasteners, such as staples or a hook-and-loop type fastener,
such as Velcro
®, may be used. Alternatively, or as a supplement, attachment may be achieved by providing
the carton with a physical structure, such as a hook-shaped projection allowing it
to engage with a component of the product.
[0015] Other components of the roof window product may also be provided in one or more cartons,
which is particularly considered advantageous for other sensitive components, which
may be damaged by contact with other components. One example of such other sensitive
components is electronic components, such as wires, photovoltaic elements, sensors,
batteries or remote controls, which will often have limited strength. In one embodiment,
where the packed product includes a roof window, a carton is attached to a handle
bar of the roof window adapted for use in opening and closing the roof window. In
the packed state of roof windows such handle bars are often arranged in a disengaged
state to make the roof window take up as little space as possible and a fixation member
in the form of a specially shaped block of EPS is used to keep the handle bar in place
during handling and transportation of the packed roof window product. A carton attached
to the handle bar may replace the EPS block, while at the same time serve to retain
other components of the roof window product.
[0016] It may also be advantageous to arrange components, which are likely to cause damage
to other components, in a carton. One example of such components is mounting brackets
for connecting a roof window to a roof structure as they are relatively heavy and
often have sharp edges or corners. Another example is fasteners, such as screws, nails
or clamps, which have sharp ends and which due to their small size can move around
in the cardboard box if not retained.
[0017] A carton can also be used for keeping one or more components in a folded and/or compressed
state. Examples of components, which can advantageously be delivered in a folded state,
are wires and cables. Examples of components, which can advantageously be delivered
in a compressed state, are sealing strips and insulating components, thereby reducing
their size and the packed state and potentially allowing the use of a smaller cardboard
box.
[0018] A shock absorbing material may be provided inside the carton, for example to protect
ends of the flashing and/or covering components, or the shock absorbing material may
be arranged between the flashing and/or covering components. In one embodiment, two
flashing and/or covering components, each having a concave shape, are arranged opposite
each other such that their concavities form a common inner space, and a block of a
shock absorbing is arranged in this common inner space. This may contribute to retaining
the flashing and/or covering components, to keeping sharp edges of these flashing
and/or covering components from damaging other components, and to preventing deformation
of the flashing and/or covering components. The shock-absorbing material is preferably
also made from paper or other plant fibres.
[0019] In one embodiment, where the packed roof window product includes a roof window, a
carton is arranged on the pane of the roof window between the pane and the cardboard
box, possibly with a slip sheet between the carton and the pane to avoid scratching
of the pane. Traditionally, shock-absorbing material is arranged on the side of the
pane, which is intended to face the exterior in the mounted state of the roof window,
to protect both the pane and covering members on the sash and/or frame of the window,
which typically project above the surface of the pane. The carton may reduce or eliminate
the need for such shock-absorbing material while at the same time retaining other
components of the roof window product.
[0020] In one embodiment, where the packed roof window product includes a roof window, a
carton is arranged along a frame of the roof window between the frame and the cardboard
box. In this position, the carton may contribute to keeping the roof window in an
intended position inside the cardboard box and/or to protecting the roof window in
case the package is dropped or handled in a rough manner. It may thus replace at least
some of the shock-absorbing material, which is traditionally used for this purpose.
A similar effect may be achieved by arranging one or more cartons along one or more
sides of a cardboard box containing another roof window related product.
[0021] While in the above embodiments the collections of components have been described
as comprising components of a particular type made from the same or like materials,
it is to be understood that a collection of components may comprise components of
different types. As an example, insulating components and flashing components to be
arranged in parallel with each other along a side of a roof window may be provided
as a collection of components. As another example, mounting brackets and the fasteners
intended for attaching them to a roof window and/or a roof structure may be provided
as a collection of components.
[0022] It is to be understood that while paper and cardboard are usually made from wood-fibres,
other plant fibres including fibres originating from straw, bamboo, bagasse, esparto,
other grasses, hemp, flax and cotton may also be used, including combinations of different
types of fibres. In Europe, up to 5% of alternative materials, such as the glue or
adhesive, is acceptable, but a maximum of 3% is recommended.
Brief Description of Drawings
[0023] In the following description embodiments of the invention will be described with
reference to the schematic drawings, in which
Fig. 1 is a perspective view of a cardboard box containing a packed roof window product
in the form of a flashing assembly,
Fig. 2 is a perspective view of a cardboard box corresponding substantially to that
in Fig. 1, but where some components of the flashing assembly are packed in cartons,
Fig. 3 is a perspective view of another cardboard box containing a packed roof window
product,
Fig. 4 is a perspective exploded view of a roof window with packaging material and
a carton containing a collection of components,
Fig. 5 corresponds to Fig. 4 but showing the packaging material and the carton in
the positions, in which it will be located when inside a cardboard box as the one
in Fig. 3, and where elements underneath the pane of the window are also seen,
Fig. 6 is a perspective view of a piece of packaging material corresponding to that
shown at the bottom of the roof window in Fig. 5 and a carton arranged in a cavity
therein,
Fig. 7 is a perspective view of an upper end of a roof window with packaging material
corresponding substantially to that shown in Fig. 5, where a carton containing a collection
of components is positioned on the pane,
Fig. 8 is a perspective view of an upper end of a roof window with packaging material
corresponding substantially to that shown in Fig. 5 seen from the opposite side of
the pane, and where a carton containing a collection of components has replaced a
piece of packaging material, and
Figs 9 and 10 show details of the carton in Fig. 8.
Description of Embodiments
[0024] Referring initially to Fig. 1 which shows a cardboard box 2 packed with a roof window
related product, here in the form of a flashing assembly 3, which consists of a large
number of components. The cardboard box 2 is of a rectangular configuration having
two major sides 21, 22 and four minor sides 23, 24 extending between the two major
sides, and it is opened and closed by swinging an entire major side 21. The components
of the flashing assembly 3 are retained in the cardboard box 2 by blocks 41 of expanded
polystyrene (EPS) and by paper ribbons 7. While this has worked well, the paper ribbons
7 may not be sufficient to prevent damages to the flashing and covering components
31, 32 of the flashing assembly 3. To solve this problem, a collection of flashing
and covering components, including the large component 32 seen in Fig. 1, has been
arranged in a carton 65 in Fig. 2, and smaller components with a potential for damaging
other components have been arranged in another carton 66. The flashing component 31
remains without packaging material, as the risk of it being damaged is now considerably
reduced, but it is to be understood that it too could be arranged in a carton.
[0025] Both the cardboard box 2 and the biggest carton 65 have a rectangular shape and the
length of the carton 65 is seen to match the inner length of the cardboard box 2.
The smaller cartons 66 is seen to extend between a minor side 24 of the cardboard
box 2 and the carton 65, serving to keep the biggest carton 65 in place inside the
cardboard box 2 and keep it from damaging component 31, thereby reducing the need
for dedicated packaging material serving only to space the components apart. The smaller
carton 66 may be attached at least temporarily to the cardboard box 2 by strips of
glue or an adhesive to keep it in the intended position.
[0026] Turning now to Fig. 3 another cardboard box 1 for containing a roof window product
comprising a plurality of differently sized roof window related product components
and packaging material components is shown. As described with reference to Fig. 1,
this cardboard box is also of a rectangular configuration having two major sides 11
and four minor sides 13, 14 extending between the two major sides (only one of the
major sides and two of the minor sides being visible in this view). The shorter of
the minor sides 13 is here shown in a partially assembled state. In the assembled
state, the side sections 13' will extend perpendicular to the major sides 11. In this
embodiment the cardboard box 1 is configured for being opened as illustrated by the
arrows P. This type of cardboard box is typically used for heavy products such as
roof windows with a glass pane.
[0027] It is to be understood that the cardboard boxes 1, 2 shown are merely examples, and
that the cardboard box may have another shape to better fit the shape and dimensions
of the roof window product.
[0028] Likewise, it is to be understood that in the following the same reference numbers
will be used for elements having substantially the same function, even if not identical.
[0029] Figs 4 and 5 show how blocks 42-47 of shock absorbing material have traditionally
been arranged around and on a roof window 5 before the roof window is arranged in
a cardboard box as the one shown in Fig. 3.
[0030] Rectangular blocks 42, 43 of shock absorbing material extend along side frame members
51 and a top frame member of the window frame of the roof window 5, and liners 61
made from cardboard compensate for irregularities in the shape of the sides of the
roof window. A block 44 of a more complex shape extends along a bottom frame member
52 and has a cavity 44a for a carton 62 containing a collection of components. The
four blocks 42-44 of shock absorbing material will be arranged at the four minor sides
of the cardboard box 1 in the packed state of the roof window 5.
[0031] The pane 53 of the roof window 5 is protected by two elongate blocks 45 of shock
absorbing material, which are arranged on the pane, so that they will be located between
the roof window 5 and the major side 11 of the cardboard box 1 in the packed state.
A paper liner or slip sheet (not shown) may be provided between the elongate blocks
45 and the pane 53 to protect the pane from scratching.
[0032] In Fig. 5 the pane has been shown as transparent so that additional blocks 46, 47
of shock absorbing material arranged on a handlebar 54 of the roof window 5are visible.
These blocks 46, 47 serve to retain the handlebar 54, keeping it in an intended position
in relation to the pane 53 and to the cardboard box 1 in the packed state.
[0033] Any of the blocks 42-47 of shock absorbing material may be replaced by a carton containing
a collection of components, depending on the size and other physical properties of
the components.
[0034] The carton 62, which is also shown in Fig. 6, is accommodated within the cavity 44a
of the block 44 of shock absorbing material and will be positioned between the window
frame of the roof window and the cardboard box in the packed state, thus being prevented
from moving around in the cardboard box during handling and transportation. Due to
its size and to it being protected by the block 44 of shock absorbing material, the
carton 62 is particularly suitable for containing a collection of relatively fragile
components, for example electronic components, such as wires, cables, photovoltaic
elements, sensors, batteries, or remote controls, or a collection of metal components,
such as mounting brackets to prevent them from damaging other components. Recesses
44b at opposite sides of the cavity 44a allow an installer to easily retrieve the
carton 62 from the block 44 by putting his finger into the recess and lifting the
side carton.
[0035] Fig. 7 shows an upper end of a roof window 5 corresponding substantially to the roof
window shown in Fig. 5. As can be seen, a paper ribbon 7 is here used to retain a
block 45 of shock absorbing material relative to the roof window 5 and further to
retain a carton 63. The carton 63 is arranged on the window pane 53 and contains a
collection of components for use in installing the roof window, such as covering or
flashing components. When the packed roof window of Fig. 5 is contained in a cardboard
box, the carton 63 will be located between the pane 53 and the cardboard box. The
carton 63 is made from cardboard and has a lid 63a which is longer than the remaining
sides of the carton 63, allowing the lid 63a to extend across the block 45 and in
between the roof window 5 and block of shock absorbing material or carton 43 extending
along the top frame member of the roof window. The paper ribbon 7 attaches the lid
63a to the block 45, thereby retaining the carton 63 in relation to the roof window
5. If necessary, a slip sheet (not shown) of paper material can be arranged between
the carton 63 and the pane 53 to prevent the carton from scratching the pane.
[0036] Referring now to Fig. 8 which shows the upper end of a roof window corresponding
substantially to that shown in Fig. 5 but seen from the side, which is intended to
be the interior side in the mounted state of the roof window. A carton 64 containing
a collection of components has replaced the blocks 46, 47 of shock absorbing material
of the embodiment of Fig. 5. The carton 64 is attached to the handle bar 54 and has
the dual purpose of retaining the handle bar 54, keeping it in an intended position
in relation to the pane 53 and the cardboard box in the packed state, and of containing
a collection of components. The carton 64 attaches to the handlebar 54 by a physical
structure of the carton, namely a recess 641 provided across the carton, which recess
is configured for engaging the handlebar 54 and has projections 642 for improving
the attachment. The carton 64 is in this embodiment made from corrugated cardboard.
[0037] Details of another embodiment of the carton 64 are shown in Figs 9-10, Fig. 9 showing
the carton 64 seen in a direction substantially parallel to the handle bar 54 when
mounted as in Fig. 8 and Fig. 10 showing it from above.
[0038] The shape of the recess 641 matches the cross-sectional shape of the handle bar 54
of the roof window as seen in Fig. 8. In this case, the shape is adapted for use with
a VELUX roof window, but other roof windows may require a different shape of the recess.
[0039] The side wall 643 of the carton 64 defining the end of the recess 641 consists of
three layers of cardboard, whereas the parts of the carton 64 extending along the
length of the recess 641, including the projections 642, only comprise a single layer.
This provides a combination of relative strength and stiffness, which facilitate attachment,
detachment and possibly reattachment of the carton 64. As is well-known to the skilled
person, cartons as shown in Figs 8-10 are often used for containing remote controls,
manuals and similar items, which are not to be used by the installer of the roof window,
but by the end user. Such cartons are typically removed by the installer during installation
of the roof window and then reattached afterwards. At that time, the handle bar 54
has been moved from the delivery position shown in Fig. 8 to a position further from
the pane and closer to the sash and frame, and the carton is attached with the opposite
side facing the pane, so that it is easily accessible to the end user. The embodiment
of the recess 641 and projections 642 shown in Figs 8-10 facilitates this reattachment
of the carton.
List of reference numerals
[0040]
- 1
- Cardboard box
- 11
- Major side
- 13
- Minor side
- 13'
- Section of minor side
- 14
- Minor side
- 2
- Cardboard box
- 21
- Major side
- 22
- Major side
- 23
- Minor side
- 24
- Minor side
- 3
- Flashing assembly
- 31
- Component
- 32
- Component
- 41-47
- Blocks of shock absorbing material
- 44a
- Cavity
- 44b
- Recesses
- 5
- Roof window
- 51
- Side frame member
- 52
- Bottom frame member
- 53
- Pane
- 54
- Handle bar
- 55
- Top frame member
- 56
- Top sash member
- 61
- Side liner
- 62
- Carton
- 63
- Carton
- 63a
- Lid of Carton
- 64
- Carton
- 641
- Recess
- 642
- Projection
- 643
- Side wall
- 65
- Carton
- 66
- Carton
- 7
- Paper ribbon
- P
- Opening of box
1. A packed roof window product comprising a plurality of differently sized roof window
related product components contained in a cardboard box (1, 2),
characterised in that
a collection of flashing and/or covering components is contained in a carton (62,
63, 64, 65, 66) made from paper or cardboard and arranged inside the cardboard box
(1, 2).
2. A packed roof window product according to claim 1, wherein a carton (66) is attached
to the cardboard box (1, 2).
3. A packed roof window product according to one or more of the preceding claims, wherein
a carton (62, 63, 64, 65, 66) is attached to the cardboard box (1, 2), to another
carton or to another component of the roof window product by means of a glue, an adhesive,
a mechanical fastener, such as a staple or a hook-and-loop type fastener, and/or a
physical structure of the carton.
4. A packed roof window product according to one or more of the preceding claims, wherein
a carton (65) has a size and/or shape matching an inner dimension of the cardboard
box (1, 2).
5. A packed roof window product according to one or more of the preceding claims, wherein
a shock absorbing material is provided inside a carton, said shock absorbing material
preferably being made from paper or cardboard.
6. A packed roof window product according to one or more of the preceding claims, including
a roof window (5), wherein a carton is arranged along a frame of the roof window (5)
between the frame and the cardboard box (1, 2).
7. A packed roof window product according to one or more of the preceding claims, including
a roof window (5), wherein a carton (63) is arranged on the pane (53) of the window
(5) between the pane and the cardboard box (1, 2).
8. A packed roof window product according to claim 7, wherein a slip sheet is arranged
between the carton (63) and the pane (53).
9. A packed roof window product according to one or more of the preceding claims and
including a roof window (5), wherein a carton (64) is attached to a handle bar (54)
of the window (5) adapted for use in opening and closing the window (5).
10. A packed roof window product according to one or more of the preceding claims, wherein
a carton (62) contains components chosen from the group consisting of: sealing strips,
insulating components, cables, wires, photovoltaic elements, sensors, batteries, remote
controls, mounting brackets, and fasteners.